Author SHA1 Message Date
ed a37ffe6f58 Last adjustments for metaprogram, hitting a intermission checkpoint to do docs, writeups, and other research distillations. 2026-08-21 14:02:41 -04:00
ed b61610d819 corrections 2026-08-21 10:13:45 -04:00
ed 1b950ab5b5 lua metaprogram: atom bundle support. 2026-08-21 10:13:32 -04:00
ed b2858b3c73 Final ideation before finish updates lua metaprogram before hello-cdrom 2026-08-21 00:23:28 -04:00
ed f1801343e2 tb_bind_ to help with named association of tb_data emissions 2026-08-20 22:35:34 -04:00
ed 85b2205603 remove redudant register shuffle in build_normalize_v3s4 2026-08-20 20:52:18 -04:00
ed 2d754650c9 oops 2026-08-20 20:21:51 -04:00
ed e2ffe538b6 reviewing atom bundle convention 2026-08-20 19:36:52 -04:00
ed 223d1832eb Improving program model, (better structs, better path awareness ties to those structs). 2026-08-20 14:05:49 -04:00
ed de13bc3ce9 auto-column alignment formatting pass on trailing type annotations. 2026-08-19 23:48:46 -04:00
ed 2a087f735e utilizing trailing type annotations more 2026-08-19 23:35:57 -04:00
ed 449216967b Review Pass: Type annotations. 2026-08-19 23:18:32 -04:00
ed c226e8a7d3 dropped usage of SCRATCH_GPRS nopw using proper setup for current tape runtime. 2026-08-19 22:00:18 -04:00
ed 81f37e0098 reading... 2026-08-19 21:49:36 -04:00
ed bde829bf59 WIP: reviewing lua, some upgrades and fixes along the way. 2026-08-19 21:11:09 -04:00
ed cf78cfa120 Rename _shift enums to _pos (may change to offset, but in either case not as accurate to call them _shift, and _shift_smount is longer). 2026-08-19 13:17:08 -04:00
ed 3440c9b59e more metaprogram review 2026-08-19 11:05:48 -04:00
ed 1cbddc6708 More path collapse for metaprogram. 2026-08-18 16:37:53 -04:00
ed b345ccd60e don't bother wiht icache flush atom. 2026-08-18 16:10:44 -04:00
ed bbda5efaea build_noramlized_v3s4 mostly reviewed. 2026-08-18 16:10:29 -04:00
ed 290bb0e07a WIP: Adjusting normalize atom proc to to the new tape runtime convention. Trying to reduce redundant scuff to scratch. 2026-08-18 13:22:40 -04:00
ed 86fe189b4e Moving definitions to use dedicated scratch register. 2026-08-18 09:26:49 -04:00
ed da007d342e Reviewing. Successfuly reworked register allocation for tape runs. 2026-08-18 00:26:36 -04:00
ed 5a4bfb1224 Collapse of atom 6-9 into a single atom (finaly). Generalized cross product atom proc and atom component. Still working on normalize_v3s4. 2026-08-17 18:18:18 -04:00
ed d4795cf9de Extract out a cross roduct component. 2026-08-17 10:34:43 -04:00
ed e79c364b40 reducing cross product atom procs to a single one in gte for once. 2026-08-17 01:05:58 -04:00
ed 18b1d5a04b remove outdated comments. 2026-08-16 12:07:09 -04:00
ed 581b00b960 wip: going over all codepaths. 2026-08-16 10:35:32 -04:00
ed 3faccfc283 more reviewing, thinking about atom bundles... 2026-08-16 01:22:53 -04:00
ed 1a0d417649 lua metaprogram improvmeents 2026-08-15 22:24:26 -04:00
ed 3301826f5c reviewed: resolve_look_at__populate_proc 2026-08-15 21:34:55 -04:00
ed d9b9241e2c resolve_look_at__cross_uz_ux_to_up_proc reviewed 2026-08-15 19:53:08 -04:00
ed a16c727db2 updates to lua program to furhter support new constructs and correct report errors. 2026-08-15 19:52:56 -04:00
ed 8a825a59c7 Add RegUse_ support to the lua metaprogram. Ideated further on type mapping atom comonents to their base component op (math distinctions annotated in the asm). 2026-08-15 15:51:06 -04:00
ed f8b28be02e Lua metaprogram support for RegUse_ (needs review) 2026-08-15 11:54:51 -04:00
ed ffc66052f8 Curating duffle, preparing to update metaprogram for latest atom asm ideation. Reviewing the resolve_look_at atoms further... 2026-08-15 11:21:28 -04:00
ed 7764612325 add install extension script 2026-08-15 01:19:45 -04:00
ed 1a5b618484 done with this theming stuff for now. 2026-08-15 01:15:43 -04:00
ed d23b6a2a36 messing around. 2026-08-14 22:43:27 -04:00
ed 7ec778a68e more theme stuff 2026-08-14 21:48:52 -04:00
ed 9ca865d5db update license to zip for now...
not sure what the standalone repo is going to be yet, but it will be relatively permissive since this is prototype/educational setup
2026-08-14 19:43:03 -04:00
ed 764ded4557 initial plugin setup for syntax highlighting in vscode... 2026-08-14 18:57:37 -04:00
ed 67a84d34f3 oops: endregion 2026-08-14 13:41:45 -04:00
ed baaff12f33 Ideating on "RegUse_" patterned structs for describe register allocatins to mips atom proc. 2026-08-14 12:38:00 -04:00
ed b695056b9a finished reviewing normalize_v3s4 for now 2026-08-14 03:45:34 -04:00
ed 3a4d6304dd static analysis: immeidate field awarenss 2026-08-14 01:22:54 -04:00
ed a535d381ed remove encoding masks from gp (unnecessary, hides errors) 2026-08-14 01:22:36 -04:00
ed c447bfa877 fixes to the reg file allocator, exploring... 2026-08-14 00:43:19 -04:00
ed d88e0d0487 remove mask from mips and gte instruction encoders. missing math changes. 2026-08-13 23:39:35 -04:00
ed 9a6eca6047 more review, made a register file allocator (drafted, kinda iffy, want todo comp-time as well). 2026-08-13 23:39:03 -04:00
ed 5c9c61720f Redesign: Not making local var in MipsAtom_Proc_ or MipsAtomComp_Proc_ have sym tied to proc name. Adjusted parser as well base do that. 2026-08-13 21:42:06 -04:00
ed b8e31123e4 editing/reading. 2026-08-13 21:22:29 -04:00
ed ea3e30a11e oops 2026-08-13 20:51:45 -04:00
ed 37f4712237 gutting nosiy comments. Looking into some atom components.. 2026-08-13 19:55:17 -04:00
ed b699b47b28 intiial review on: resolve_look_at__input_and_sub_proc 2026-08-13 19:42:43 -04:00
ed 640dab7e61 wip: starting to review and update lua metaprogram with more modeling of gte. 2026-08-13 18:51:09 -04:00
ed 4688566767 FINALLY? 2026-08-13 17:42:55 -04:00
ed 5ebaa6e083 still failing 2026-08-13 13:18:27 -04:00
ed 7f0bdefbcb checkpoint nothing 2026-08-13 02:13:47 -04:00
ed d5f28b83ea minor 2026-08-12 22:41:52 -04:00
ed 3ea3e8d105 sssiiighhhh 2026-08-12 20:36:11 -04:00
ed 6b60cef2e8 sigh 2026-08-12 20:30:26 -04:00
ed 77f19321cd pain 2026-08-12 20:24:13 -04:00
ed 2e07665920 Run-Time Library Overview manual 2026-08-12 20:24:05 -04:00
ed 9501bbbcc2 WIP 2026-08-12 20:17:53 -04:00
ed 9b6b5535f5 wip 2026-08-12 20:09:57 -04:00
ed 7807047dc0 Atoms 2-3 work for resolve look at. Don't need OA_ macro so going to stop using. 2026-08-11 21:35:59 -04:00
ed 7daeec0ee3 checkpoint: atom 0-1 works for resolve look at. 2026-08-11 14:05:23 -04:00
ed 3f3b691ac0 Making a proper distinction between atom arenas and atom builders. 2026-08-11 11:25:54 -04:00
ed a2d79d65eb amazing bug 2026-08-11 01:25:40 -04:00
ed bebcc6a585 wip: going to incremnetally test this. 2026-08-11 01:25:09 -04:00
ed ece21ed368 mark current crashing path. 2026-08-10 23:29:38 -04:00
ed 144c605ad8 some more review. not working still. 2026-08-10 23:04:43 -04:00
ed 4afd1af0fd started to review this... 2026-08-10 19:53:34 -04:00
ed 004a7eff19 WIP: not fully reviewed. Adds auto-register allocation + mips atom procs + wip resolve look at atoms + atom bundle... 2026-08-10 14:13:02 -04:00
ed e42c75a26a WIP: preparing for major changes to atoms to fullfill needs of resolve_look_at and atom ported normalize_v3s4. 2026-08-09 18:49:59 -04:00
ed 69f2c0d036 Prepping for: resolve_look_at impl. 2026-08-08 23:13:18 -04:00
ed b045856dd6 converted pad input for cam to mips atom 2026-08-08 18:23:28 -04:00
ed 68b87f1c8b Completed C-side of: Camera Transformation chapter. Now todo atom tape translation... 2026-08-08 16:42:07 -04:00
ed 917b764d95 pad_bios_init_start: annotate bios codes. 2026-08-08 13:32:25 -04:00
ed 773aa44013 reviewing pad input atoms further 2026-08-08 01:03:24 -04:00
ed 2b6fe53ce8 Stuff kept from hot-reload attempt 2026-08-06 10:41:45 -04:00
ed 01f7ceba7c buzzing brain. 2026-08-05 02:48:05 -04:00
ed 6f2eff920d some more review before bed. 2026-08-05 02:00:41 -04:00
ed f25765a7b7 Preparing for camera transformation chapter. 2026-08-05 01:21:25 -04:00
ed 2757aa4330 Fix bug with pad input processing (needed mac_yield load fallthrough case) 2026-08-05 01:08:01 -04:00
ed 748b58c5c5 Codebase overhaul. Metaprogram proofread (part 2). Starting to get serious.
Need to rewrite the ps1 lua metaprogram sometime soonish. Getting too bloated... need to consolidate code paths.

In this push codebase structure is starting to get a bit more realized. Decided todo now to match Pikuma's linking module files vods beginning to reorganize its codebase as well.
Atoms & atom components are not in their on *.atom.c files. (Not calling it tape.c as I don't really bake tapes like that outside of the unity c file so far...)

The lua metaprogram has had additional features added to it yet again to avoid hardcoding module handling and supporting multiple atom files per-module.
Either after the camera or cd-rom section I'll be most likely pausing to fully refactor the metaprogram. Possibly as a full re-write to get the loc minimal.
2026-08-04 23:34:00 -04:00
ed 6441dbc23e Proof-reading lua metaprogram (part 1) 2026-08-04 19:32:43 -04:00
ed 57fdb9e037 improvmenets to delay slot modeling (lua metaprogram) 2026-08-04 18:27:00 -04:00
ed b5953a723b add ac_yield_load and ac_yield_tail for delay slot optimization opportunities. 2026-08-04 17:25:02 -04:00
ed 888ffce859 Finished: Pikuma Linking multiple files (not applying to codebase only watched) 2026-08-04 16:49:02 -04:00
ed 7289e7c89c Added jump_rel (can't use abs jump with asm dsl). Fixes + improvements to ps1 asm meta passes. 2026-08-04 16:01:01 -04:00
ed 54a5bb9a31 starting to optimize 2026-08-04 12:59:51 -04:00
ed e0f4ac873d spamming load delay slots for now as a fix... 2026-08-04 09:07:53 -04:00
ed f17fa9165e wip: input was working... messed it up (bios snapshot reads) 2026-08-04 00:50:12 -04:00
ed 8282f8e902 overkill sio cruft, not keeping. 2026-08-03 10:12:06 -04:00
ed 9eb696ece8 drafting 2026-08-02 21:58:57 -04:00
ed 858e57f293 preparing to overhaul input handling 2026-08-02 17:49:24 -04:00
ed afcd9b86f0 Gaining clarity on tape abi.. screen_init atoms done. Time to finish rest of joypad course vods... 2026-08-02 15:19:52 -04:00
ed 43cd4e0344 WIP: working towards minimizing C-ABI & PsyQ CRT usage 2026-08-01 23:11:10 -04:00
ed 09dde54030 Finished(Controller Input): Reading Joypad State 2026-07-31 15:15:51 -04:00
ed 315e1b2c5e Fix(lua atom tape dsl): Bad-hardcode for source file line-table mapping in dwarf injection pass. 2026-07-31 14:28:50 -04:00
ed 02658d3609 Prepare for hello joypad! 2026-07-28 00:35:02 -04:00
ed dbc459b7e0 gte_hello -> hello_gte. gte is done, moving on to controller! 2026-07-28 00:17:23 -04:00
ed a704341fc6 Testing out the metaprogram with some optimization, need to remove some hardcoding later.. 2026-07-27 23:35:03 -04:00
ed 7421b32fd7 redundant nop reduction 2026-07-27 22:49:41 -04:00
ed e2eb74be19 Remove gte component result contracts (was a bad bodge in, for a later directive thats TODO) 2026-07-27 22:49:26 -04:00
ed 338f1fe46e Better reports from dsl metaprogram 2026-07-27 10:06:23 -04:00
ed 27a9038e0d req c11, 2026-07-26 17:36:46 -04:00
ed 8c8d2e54aa remove cruft 2026-07-26 14:40:57 -04:00
ed 80a35aa23a WIP: Better step debug on atom components, better db_skip annotation, lots of curation passes on lua.
Still don't have this thing in its final state for  the curse but its close.
2026-07-26 13:55:47 -04:00
ed f247d56c32 Debug vis ergonomics 2026-07-25 13:19:35 -04:00
ed 590ff1e2ec Curation pass: reduce nested conditional branching in some defnitions. 2026-07-25 13:00:36 -04:00
ed 653e18ee28 remove code related to dry run and dep graph rendering (ps1 meta) 2026-07-25 11:59:41 -04:00
ed ebb876fe89 report.lua: Remove redudnant section formatting/header 2026-07-25 11:25:12 -04:00
ed 1b40b16c0e Review pass. 2026-07-25 11:20:53 -04:00
ed 9ffd6592bc Better static analysis for C0 <-> C2 data race hazards. 2026-07-25 04:09:48 -04:00
ed d56adab38f branch delay slot better support.
Still reviewing. Need to see if gte is handled properly.
2026-07-23 18:35:02 -04:00
ed 08af73d0d2 Lua Metaprogram: Improvements to static analysis + others. 2026-07-23 10:18:30 -04:00
ed 67d54debfa offset corections (dwarf) 2026-07-22 18:00:09 -04:00
ed 3c25306070 fixes 2026-07-22 09:47:01 -04:00
ed c3cf05950e good enough for now 2026-07-21 22:29:22 -04:00
ed f6b4d9895e Adjustments to offset convention (don't want 1s based addresssing to mess with the spec defined encoding) 2026-07-21 20:52:13 -04:00
ed e70361b548 curation: first pass 2026-07-21 19:20:30 -04:00
ed ed3eb45b1d Fixes atom component gdb stepping. New phase/ctx annotations for atoms. Attempt at type views on registers (gdb pretty print failures).
Needs heavy curation and problably simplicication.
2026-07-18 10:29:04 -04:00
ed d7770b6e1d review pass on c code. 2026-07-15 08:56:37 -04:00
ed 137549b1c8 First pass review 2026-07-14 22:55:16 -04:00
ed 7d5b13aadb TODO: need to review snapshot 2026-07-14 12:16:00 -04:00
ed 2d901003f9 Fix off by one ahead issue with stepping into atoms. Support for local register symbols used in atoms + atom bindings locals in gdb. 2026-07-13 12:41:48 -04:00
ed b43d22008e improve step-debug latency 2026-07-12 15:39:35 -04:00
ed 904889b483 general review post-dwarf_injection.lua working 2026-07-12 15:14:59 -04:00
ed f7aa7b75e7 doing dwarf injectiion/mods for the tape atoms. syncs with vscode cursor. 2026-07-12 12:51:41 -04:00
ed aca6e30e20 better debug support 2026-07-11 22:44:32 -04:00
ed 8b0fb1d4e4 exploring gdb support for the atom asm dsl. 2026-07-11 21:02:34 -04:00
ed 9f7a4a00ce final pass on metaprogram 2026-07-11 19:53:12 -04:00
ed 277af1c901 update readme 2026-07-11 17:49:55 -04:00
ed 97d2f66c5a eliminated most lag (runs in ms) 2026-07-11 17:34:52 -04:00
ed d9406553b3 finally starting to approach decent performance. 2026-07-11 17:30:16 -04:00
ed e662d175ab lifting tokenize_body, using lfs package 2026-07-11 16:47:09 -04:00
ed 5387a07b84 progress on static analysis 2026-07-11 15:18:27 -04:00
ed 65d805e3ba start to generalize check rules.. 2026-07-11 14:57:48 -04:00
ed 987f4dee1e preparing for a big refactor 2026-07-11 14:48:57 -04:00
ed df723c691d progress 2026-07-11 14:25:40 -04:00
ed 45ac85c038 lua metaprogram: Delete dead code, some more lifting to duffle 2026-07-11 14:16:29 -04:00
ed 072231c46b Lua Metaprogram: Scan codepaths collapse + more reviews. 2026-07-11 13:45:22 -04:00
ed 2b00956862 Corrections, flatting nested branches (lua metaprogram) 2026-07-11 10:24:34 -04:00
ed 1ffad6cf98 lua metaprogram: more cruft removal. 2026-07-11 09:45:51 -04:00
ed 318516a354 adding comments for scan progress 2026-07-11 02:00:05 -04:00
ed 91a91b3495 mostly comment review (lua metaprogram) 2026-07-11 01:47:38 -04:00
ed a0d22700db lots of cruft to still sift thru 2026-07-11 00:27:28 -04:00
ed 51bdf7106b update_deps.ps1 properly gets lpeg now without jank 2026-07-11 00:14:59 -04:00
ed 531e1cbd58 update readme 2026-07-11 00:11:49 -04:00
ed 541e52de2b adjsutments for the old graphics hello module. 2026-07-11 00:11:32 -04:00
ed eccf17d21c update readme 2026-07-10 23:49:00 -04:00
ed 0d94632edf dealing with this mess still. 2026-07-10 23:36:44 -04:00
ed 798807a9c2 some saved by cahcing git path resolution. 2026-07-10 21:32:53 -04:00
ed e9f26f89b8 review pass on lua scripts related to tape atom metaprogram
script running is slow need to fix.
2026-07-10 21:15:21 -04:00
ed a226b45d18 more adjustments 2026-07-10 21:14:16 -04:00
ed c22e4baa41 minor adjustmnets to some headers (doing a review pass) 2026-07-10 19:51:41 -04:00
ed fa598a41c6 readability pass on word_count_eval.lua 2026-07-10 18:51:45 -04:00
ed a928d06ac9 more improvments to static pass. reduce cruft in build/gen 2026-07-10 17:46:32 -04:00
ed 91c2218471 more static analysis 2026-07-10 14:50:32 -04:00
ed 27a5f8029f improvmenets for atom components 2026-07-10 13:18:23 -04:00
ed 7a168137fc static analysis first pass 2026-07-10 12:01:17 -04:00
ed 2ceb2f2a05 minor changes preparing for static analysis metaprogram and revewing cube_g4_face code. 2026-07-10 09:33:35 -04:00
ed 6103f47f05 reduce cruft 2026-07-10 09:23:02 -04:00
ed c824c998eb broken. 2026-07-10 09:08:29 -04:00
ed 9d066ae292 nesting reduction 2026-07-09 20:10:01 -04:00
ed c9b7f8c08b almost ready for static analysis additions 2026-07-09 19:48:02 -04:00
ed 59903546d7 rework of metaprogram 2026-07-09 19:30:32 -04:00
ed 1ffdda45e5 Adjustments to formatting 2026-07-09 19:28:56 -04:00
ed 1209172649 wip: lua metaprogram rework 2026-07-09 18:45:36 -04:00
ed 98e27c2815 fixed. 2026-07-09 17:21:47 -04:00
ed 88aa1b8b59 wip 2026-07-09 16:57:52 -04:00
ed ca3dc4aff0 wip: cube_g4_face is bugged 2026-07-09 16:17:34 -04:00
ed 1fb4883138 gitignore update 2026-07-09 15:47:11 -04:00
ed 0ad609e7c2 cookin 2026-07-09 15:38:03 -04:00
ed ccdf1b832b more intiution... 2026-07-09 13:30:13 -04:00
ed 4d177bc34d refactor 2026-07-09 11:14:11 -04:00
ed 32a754cd06 FACK. 2026-07-09 10:48:59 -04:00
ed 407c7d352a cube_tri 2026-07-09 10:48:55 -04:00
ed 8541713d0c metaprogram improvements 2026-07-09 01:17:35 -04:00
ed 602a0b46d8 Still learning/de-obfuscating 2026-07-08 21:17:16 -04:00
ed 74f390c3b1 Reviewing post-dsl refactors, more pseudo instructions 2026-07-08 17:14:11 -04:00
ed 5e7da32387 Adjustments to gp docs 2026-07-08 13:38:25 -04:00
ed 5375478044 gp.h improvements 2026-07-08 10:21:31 -04:00
ed 10c8dcdc07 improving dsl: gte. 2026-07-08 00:37:27 -04:00
ed d0b1bae896 improving dsl. 2026-07-08 00:30:02 -04:00
ed 0b147a8b0c need to change symbols.. 2026-07-07 23:28:20 -04:00
ed 101b07fe71 fixes, de-obufscation... still confused about formating color... 2026-07-07 22:12:06 -04:00
ed a01e724211 add another todo.. 2026-07-07 12:11:13 -04:00
ed 7a1def6c46 WIP: still adjusting, deofuscating with annotation...
Problably will redesign the atom annotation DSL its too much curft rn, should be alot simpiler...
2026-07-07 10:38:16 -04:00
ed 6eee0249ff learning... 2026-07-07 01:22:09 -04:00
ed 93bab89f76 somehwat of a success... but bloated. 2026-07-07 00:39:25 -04:00
ed b17a653d20 oops 2026-07-06 22:12:49 -04:00
ed 26a63ed908 decruft lua warnings. 2026-07-06 20:05:57 -04:00
ed c293e35cb4 lua metaprogram adjustments 2026-07-06 19:13:53 -04:00
ed b29fc7dc02 oops 2026-07-06 18:15:34 -04:00
ed ffcd43c1ea adjustments, studying 2026-07-06 13:08:16 -04:00
ed 352a8c9c25 Made the atom offset/label metaprogram! Still need to support more than one branch per-atom. 2026-07-06 10:10:02 -04:00
ed c3a7e22743 need to finally make a metaprogram for offset math... 2026-07-06 08:28:40 -04:00
ed 54968d20e0 refining 2026-07-05 22:59:27 -04:00
ed 13a0b9dca4 forcing myself to move forward, need to address missing annotations for "name bindings" on allocated registers. 2026-07-05 21:26:26 -04:00
ed b1982ba862 wip 2026-06-16 00:30:21 -04:00
ed 288f92ff5b prep 2026-06-15 22:40:28 -04:00
ed 68fd4ca791 now we're cookin 2026-06-15 01:59:18 -04:00
ed e7d0b7a4b3 re-nabled culling, remove some magic numbers, do the mvt in c fo rnow 2026-06-14 20:47:10 -04:00
ed 47806e3d21 got a working floor! (bouncy though) 2026-06-14 20:35:33 -04:00
ed c4e25daa9b triangle spotted (not yellow!) 2026-06-14 19:53:00 -04:00
ed 2e4912b1e2 tape diag yield works but not color, gte diags. Floor tri asm atom crashes. 2026-06-14 19:19:14 -04:00
ed 1b77d8bae3 WIP: trying to see if I can get this tape execution working 2026-06-14 18:38:38 -04:00
ed 2c3d0c4af7 orgnaizing, improving asm annotation 2026-06-14 17:27:52 -04:00
ed 0040f6326e just do regular varadic subst, adjusting annotation convention 2026-06-14 14:55:09 -04:00
ed 30e2a84ebf reducing cruft (still ideating) 2026-06-14 13:15:25 -04:00
ed 66facd79dd minor 2026-06-14 09:08:52 -04:00
ed 4603a3bb9a add some fictional stuff for notes 2026-06-14 08:49:05 -04:00
ed 35c9278ebb big oops 2026-06-12 23:07:31 -04:00
ed 915b14ef31 gte_nclip docs 2026-06-04 19:40:21 -04:00
ed 8d03366d92 cool 2026-06-04 19:08:23 -04:00
ed 1b1c926318 last stuff for the night (need to clean up later) 2026-06-02 02:10:04 -04:00
ed 0573644494 slight adjsutments 2026-06-02 01:34:54 -04:00
ed bcb9d9a77c hell yes. 2026-06-02 01:34:39 -04:00
ed 912fdcde30 https://www.ibiblio.org/gferg/ldp/GCC-Inline-Assembly-HOWTO.html 2026-06-01 23:27:40 -04:00
ed 28bb20d6fe compiles.. 2026-06-01 22:58:29 -04:00
ed d776d71574 mabye one day 2026-06-01 22:01:22 -04:00
ed 690d184acf PITA 2026-06-01 21:50:50 -04:00
ed 5cc30bacc6 not good at this 2026-06-01 20:55:50 -04:00
ed d89a29c941 WIP: Still learning 2026-06-01 20:29:58 -04:00
ed e178743ffb WIP: still learning 2026-06-01 20:29:48 -04:00
ed 27667a4232 experimenting 2026-06-01 17:19:04 -04:00
ed 11cc936d2d more prep 2026-06-01 16:14:05 -04:00
100 changed files with 43684 additions and 1410 deletions
+4
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@@ -36,3 +36,7 @@ charset = utf-8
[*.{natvis, natstepfilter}]
indent_style = tab
indent_size = 4
[*.lua]
indent_style = tab
indent_size = 2
+9 -2
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@@ -1,8 +1,9 @@
build
toolchain/armips
toolchain/luajit-2.1
toolchain/pcsx-redux
# toolchain/psyq_iwyu
# toolchain/PSn00bSDK
toolchain/psyq_iwyu
toolchain/PSn00bSDK
*.exe
*.elf
@@ -14,3 +15,9 @@ toolchain/pcsx-redux
*.a
.sentry-native
.vscode/settings.json
toolchain/lfs
toolchain/lpeg
scratch
toolchain/libpsn00b
scripts/pcsx_debug_helper.zip
+26
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@@ -0,0 +1,26 @@
# Cozy and Windy
Editor theme ported from the Rider scheme of the same name.
It colors the editor surface, C/C++ syntax, and tape-atom DSL keywords
emitted by `local.tape-atom-syntax`. It does not change workbench chrome.
## Install
```powershell
cd C:\projects\Pikuma\ps1\.vscode\cozy-and-windy
npm run package
code --install-extension .\cozy-and-windy-0.1.0.vsix --force
```
Reload the window. Select **Cozy and Windy** as the color theme, or set
`workbench.colorTheme` to `Cozy and Windy` in the PS1 workspace settings.
Keep `local.tape-atom-syntax` installed. This theme colors those token
types; it does not classify them.
## Inspect
Open `hello_camera.atom.c` and run **Developer: Inspect Editor Tokens and Scopes**
on `MipsAtom_`, an atom name, `atom_info`, `R_PrimCursor`, a `gte_*` call,
and a `mac_*` call.
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+25
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@@ -0,0 +1,25 @@
{
"name": "cozy-and-windy",
"displayName": "Cozy and Windy",
"description": "Editor theme ported from the Rider Cozy and Windy scheme. Colors C/C++ and tape-atom DSL keywords.",
"publisher": "local",
"version": "0.1.0",
"engines": {
"vscode": "^1.80.0"
},
"categories": [
"Themes"
],
"scripts": {
"package": "npx --yes @vscode/vsce@3.6.1 package --allow-missing-repository --skip-license --out cozy-and-windy-0.1.0.vsix"
},
"contributes": {
"themes": [
{
"label": "Cozy and Windy",
"uiTheme": "vs-dark",
"path": "./themes/cozy-and-windy-color-theme.json"
}
]
}
}
@@ -0,0 +1,132 @@
{
"name": "Cozy and Windy",
"type": "dark",
"semanticHighlighting": true,
"colors": {
// 121212
// 111212
// 211f1e
// 191817
"editor.background": "#191817",
"editor.foreground": "#dfc6ba",
"editor.lineHighlightBackground": "#1c1c1c",
"editor.selectionBackground": "#164371",
"editor.selectionForeground": "#c8c8c8",
"editorLineNumber.foreground": "#43c3c3",
"editorLineNumber.activeForeground": "#00fff4",
"editorIndentGuide.background1": "#181818",
"editorIndentGuide.activeBackground1": "#202020",
"editorRuler.foreground": "#505050",
"editorGutter.background": "#211f1e",
"editorBracketMatch.background": "#3b514d",
"editor.foldBackground": "#0c0c0c6a",
"editor.wordHighlightBackground": "#211f1e4d",
"editor.wordHighlightStrongBackground": "#303030",
"editorCursor.foreground": "#00fff4",
"editorWhitespace.foreground": "#181818",
// "editorLineHighlightBorder": "#1c1c1c",
"editorWidget.background": "#211f1e",
"editorSuggestWidget.background": "#2c334b",
"editorHoverWidget.background": "#2c334b"
},
"semanticTokenColors": {
"comment": { "foreground": "#868686", "fontStyle": "italic" },
"keyword": { "foreground": "#d8bd5b" },
"string": { "foreground": "#d46a54" },
"number": { "foreground": "#b5cea8" },
"operator": { "foreground": "#be8e78" },
"class": { "foreground": "#54a4d6" },
"struct": { "foreground": "#54a4d6" },
"enum": { "foreground": "#54a4d6" },
"type": { "foreground": "#54a4d6" },
"interface": { "foreground": "#7984ab" },
"function": { "foreground": "#cccab5" },
// "function": { "foreground": "#6090a9" },
"method": { "foreground": "#6090a9" },
"variable": { "foreground": "#bc966c" },
"parameter": { "foreground": "#ce8365" },
"property": { "foreground": "#acb8c8" },
"*.static": { "foreground": "#9e95c6" },
"macro": { "foreground": "#5ea852" },
"namespace": { "foreground": "#8e8e8e" },
"typeParameter": { "foreground": "#b8d7a3" },
"enumMember": { "foreground": "#a373b0" },
"label": { "foreground": "#c8c8c8", "fontStyle": "bold" },
"tapeAtomKeyword": { "foreground": "#d8bd5b", "fontStyle": "bold" },
"tapeAtomName": { "foreground": "#b1b7d6", "fontStyle": "bold" },
"tapeComponentKeyword": { "foreground": "#d68a36", "fontStyle": "bold" },
"tapeComponentName": { "foreground": "#b1b7d6", "fontStyle": "bold" },
"tapeAnnotation": { "foreground": "#d8bd5b" },
"tapeBindType": { "foreground": "#54a4d6" },
"tapePhase": { "foreground": "#b8d7a3", "fontStyle": "italic" },
"tapeLabel": { "foreground": "#959595", "fontStyle": "bold" },
// "tapeCpuInstruction": { "foreground": "#6d9aa0" },
// "tapeCpuInstruction": { "foreground": "#cf7539" },
// "tapeCpuInstruction": { "foreground": "#d16b3a" },
"tapeCpuInstruction": { "foreground": "#d5895a" },
"tapeGteInstruction": { "foreground": "#988bcb" },
"tapeGpuInstruction": { "foreground": "#bf7dac" },
"tapeComponentInstruction": { "foreground": "#8baa5d" },
// "tapeGprRegister": { "foreground": "#92d4d9" },
"tapeGprRegister": { "foreground": "#a2bfa8" },
"tapeCop2Register": { "foreground": "#945cd9" },
"tapeDuffleType": { "foreground": "#54a4d6" },
"tapeAttribute": { "foreground": "#73a07c" },
"tapeGprRegister.tapeRead": { "foreground": "#5bb8b0", "fontStyle": "italic" },
"tapeGprRegister.tapeWrite": { "foreground": "#2d8f8c", "fontStyle": "bold" },
"tapeCop2Register.tapeRead": { "foreground": "#b08ae0", "fontStyle": "italic" },
"tapeCop2Register.tapeWrite": { "foreground": "#7b3ec4", "fontStyle": "bold" },
// "*.tapeAuto": { },
"tapeControlFlow": { "foreground": "#63d169", "fontStyle": "bold" },
"tapeDelaySlot": { "foreground": "#ff5647" }
},
"tokenColors": [
{ "scope": ["comment", "comment.block", "comment.line", "comment.block.documentation"], "settings": { "foreground": "#868686", "fontStyle": "italic" } },
{ "scope": ["keyword", "keyword.control", "keyword.other"], "settings": { "foreground": "#d8bd5b" } },
{ "scope": ["string", "string.quoted"], "settings": { "foreground": "#d46a54" } },
{ "scope": ["string.quoted.other"], "settings": { "foreground": "#d69d85" } },
{ "scope": ["constant.numeric"], "settings": { "foreground": "#b5cea8" } },
{ "scope": ["punctuation", "keyword.operator"], "settings": { "foreground": "#be8e78" } },
{ "scope": ["keyword.operator.overload"], "settings": { "foreground": "#b87e76" } },
{ "scope": ["entity.name.type", "entity.name.type.class", "entity.name.type.struct", "entity.name.type.enum"], "settings": { "foreground": "#54a4d6" } },
{ "scope": ["entity.name.type.interface"], "settings": { "foreground": "#7984ab" } },
{ "scope": ["entity.name.function"], "settings": { "foreground": "#cccab5" } },
{ "scope": ["entity.name.function.member"], "settings": { "foreground": "#6090a9" } },
{ "scope": ["variable.other.local"], "settings": { "foreground": "#bc966c" } },
{ "scope": ["variable.parameter"], "settings": { "foreground": "#ce8365" } },
{ "scope": ["variable.other.property"], "settings": { "foreground": "#acb8c8" } },
{ "scope": ["variable.other.constant"], "settings": { "foreground": "#9e95c6" } },
{ "scope": ["variable.other.global", "variable.other.defaultLibrary"], "settings": { "foreground": "#bf7dac" } },
{ "scope": ["support.type", "support.function"], "settings": { "foreground": "#8baa5d" } },
{ "scope": ["meta.preprocessor"], "settings": { "foreground": "#5ea852" } },
// { "scope": ["variable.parameter.preprocessor"], "settings": { "foreground": "#636363" } },
{ "scope": ["variable.parameter.preprocessor"], "settings": { "foreground": "#bc966c" } },
{ "scope": ["keyword.control.directive"], "settings": { "foreground": "#d68a36" } },
{ "scope": ["entity.name.namespace"], "settings": { "foreground": "#8e8e8e" } },
{ "scope": ["entity.name.type.parameter"], "settings": { "foreground": "#b8d7a3" } },
{ "scope": ["variable.other.enummember"], "settings": { "foreground": "#a373b0" } },
{ "scope": ["entity.name.type.concept"], "settings": { "foreground": "#76ff7d" } },
{ "scope": ["entity.name.type.dependent"], "settings": { "foreground": "#448b5a", "fontStyle": "bold" } },
{ "scope": ["entity.name.label"], "settings": { "foreground": "#c8c8c8", "fontStyle": "bold" } },
{ "scope": ["invalid"], "settings": { "foreground": "#ff5647" } },
{ "scope": ["keyword.codetag.todo"], "settings": { "foreground": "#c10000", "fontStyle": "bold italic" } },
{ "scope": ["keyword.control.duffle.atom"], "settings": { "foreground": "#d8bd5b", "fontStyle": "bold" } },
{ "scope": ["entity.name.function.duffle.atom"], "settings": { "foreground": "#cccab5", "fontStyle": "bold" } },
{ "scope": ["keyword.control.duffle.component"], "settings": { "foreground": "#d68a36", "fontStyle": "bold" } },
{ "scope": ["entity.name.function.duffle.component"], "settings": { "foreground": "#6090a9", "fontStyle": "bold" } },
{ "scope": ["support.function.duffle.annotation"], "settings": { "foreground": "#d8bd5b" } },
{ "scope": ["entity.name.type.duffle.bind"], "settings": { "foreground": "#54a4d6" } },
{ "scope": ["entity.name.tag.duffle.phase"], "settings": { "foreground": "#b8d7a3", "fontStyle": "italic" } },
{ "scope": ["entity.name.label.duffle.atom"], "settings": { "foreground": "#c8c8c8", "fontStyle": "bold" } },
{ "scope": ["support.function.duffle.cpu"], "settings": { "foreground": "#6d9aa0" } },
{ "scope": ["support.function.duffle.gte"], "settings": { "foreground": "#988bcb" } },
{ "scope": ["support.function.duffle.gpu"], "settings": { "foreground": "#bf7dac" } },
{ "scope": ["support.function.duffle.component"], "settings": { "foreground": "#8baa5d" } },
{ "scope": ["keyword.control.duffle.branch"], "settings": { "foreground": "#76ff7d", "fontStyle": "bold" } },
{ "scope": ["keyword.operator.duffle.delayslot"], "settings": { "foreground": "#ff5647" } },
{ "scope": ["variable.other.constant.duffle.gpr"], "settings": { "foreground": "#3fa8a6" } },
{ "scope": ["variable.other.constant.duffle.cop2"], "settings": { "foreground": "#945cd9" } },
{ "scope": ["storage.type.duffle.type"], "settings": { "foreground": "#54a4d6" } },
{ "scope": ["storage.modifier.duffle.attr"], "settings": { "foreground": "#73a07c" } }
]
}
+43
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@@ -0,0 +1,43 @@
# Package and install the local VS Code Insiders extensions under .vscode/.
# Usage:
# .\install_extensions.ps1
# .\install_extensions.ps1 -SkipPackage
param([switch] $SkipPackage)
$path_vscode = $PSScriptRoot
$code_insiders = "C:\apps\Microsoft VS Code Insiders\bin\code-insiders.cmd"
if (-not (test-path -literalpath $code_insiders)) {
$found = get-command code-insiders -erroraction silentlycontinue
if ($found) { $code_insiders = $found.source }
}
if (-not (test-path -literalpath $code_insiders)) { throw "code-insiders not found. Install VS Code Insiders or add it to PATH." }
$extensions = @(
(join-path $path_vscode "tape-atom-syntax"),
(join-path $path_vscode "cozy-and-windy")
)
foreach ($extension in $extensions) {
$package_json = join-path $extension "package.json"
if (-not (test-path -literalpath $package_json)) { throw "missing $package_json" }
$manifest = get-content -literalpath $package_json -raw | convertfrom-json
$vsix = join-path $extension ("{0}-{1}.vsix" -f $manifest.name, $manifest.version)
if (-not $SkipPackage) {
if (-not $manifest.scripts.package) { throw "$package_json has no scripts.package" }
write-host "packaging $($manifest.displayName) ($($manifest.name)@$($manifest.version))"
& npm --prefix $extension run package
if ($LASTEXITCODE -ne 0) { throw "npm run package failed for $extension" }
}
if (-not (test-path -literalpath $vsix)) { throw "missing $vsix" }
write-host "installing $vsix"
& $code_insiders --install-extension $vsix --force
if ($LASTEXITCODE -ne 0) { throw "install failed for $vsix" }
}
write-host "done. reload the Insiders window (Developer: Reload Window)."
+130 -27
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@@ -4,7 +4,7 @@
// For more information, visit: https://go.microsoft.com/fwlink/?linkid=830387
"version": "0.2.0",
"configurations": [
{
{
"name": "Debug: Hello Psy-Q!",
"type": "gdb",
"request": "attach",
@@ -12,6 +12,10 @@
"remote": true,
"cwd": "${workspaceRoot}/build",
"valuesFormatting": "parseText",
"registerLimit": "1-32",
"frameFilters": false,
"showDevDebugOutput": false,
"printCalls": false,
"stopAtConnect": true,
"gdbpath": "gdb-multiarch",
"windows": {
@@ -20,10 +24,17 @@
"osx": {
"gdbpath": "gdb"
},
"executable": "${workspaceRoot}/build/hello_psyq.elf",
"executable": "${workspaceRoot}/build/hello_gte.elf",
"setupCommands": [
{ "text": "set mi-async off" },
{ "text": "set remotetimeout 0" },
{ "text": "set logging file build/gen/hello_gte.gdb.log" },
{ "text": "set logging redirect on" }
],
"autorun": [
"monitor reset shellhalt",
"load hello_psyq.elf",
"load hello_gte.elf",
"source scripts/gdb/gdb_tape_atoms.gdb",
"tbreak main",
"continue"
]
@@ -36,30 +47,10 @@
"remote": true,
"cwd": "${workspaceRoot}/build",
"valuesFormatting": "parseText",
"stopAtConnect": true,
"gdbpath": "gdb-multiarch",
"windows": {
"gdbpath": "gdb-multiarch.exe"
},
"osx": {
"gdbpath": "gdb"
},
"executable": "${workspaceRoot}/build/hello_gpu.elf",
"autorun": [
"monitor reset shellhalt",
"load hello_gpu.elf",
"tbreak main",
"continue"
]
},
{
"name": "Debug: Hello GTE Psy-Q!",
"type": "gdb",
"request": "attach",
"target": "localhost:3333",
"remote": true,
"cwd": "${workspaceRoot}/build",
"valuesFormatting": "parseText",
"registerLimit": "1-32",
"frameFilters": false,
"showDevDebugOutput": false,
"printCalls": false,
"stopAtConnect": true,
"gdbpath": "gdb-multiarch",
"windows": {
@@ -69,12 +60,124 @@
"gdbpath": "gdb"
},
"executable": "${workspaceRoot}/build/hello_gte.elf",
"setupCommands": [
{ "text": "set mi-async off" },
{ "text": "set remotetimeout 0" },
{ "text": "set logging file build/gen/hello_gte.gdb.log" },
{ "text": "set logging redirect on" }
],
"autorun": [
"monitor reset shellhalt",
"load hello_gte.elf",
"tbreak main",
"continue"
]
},
{
"name": "Debug: Hello GTE!",
"type": "gdb",
"request": "attach",
"target": "localhost:3333",
"remote": true,
"cwd": "${workspaceRoot}",
"valuesFormatting": "parseText",
"registerLimit": "1-32",
"frameFilters": false,
"showDevDebugOutput": false,
"printCalls": false,
"stopAtConnect": true,
"gdbpath": "gdb-multiarch",
"windows": {
"gdbpath": "gdb-multiarch.exe"
},
"osx": {
"gdbpath": "gdb"
},
"executable": "${workspaceRoot}/build/hello_gte.dwarf-injected.elf",
"setupCommands": [
{ "text": "set mi-async off" },
{ "text": "set remotetimeout 0" },
{ "text": "set logging file build/gen/hello_gte.gdb.log" },
{ "text": "set logging redirect on" }
],
"autorun": [
"monitor reset shellhalt",
"load build/hello_gte.dwarf-injected.elf",
"source scripts/gdb/gdb_tape_atoms.gdb",
"tbreak main",
"continue"
]
},
{
"name": "Debug: Hello Joypad!",
"type": "gdb",
"request": "attach",
"target": "localhost:3333",
"remote": true,
"cwd": "${workspaceRoot}",
"valuesFormatting": "parseText",
"registerLimit": "1-32",
"frameFilters": false,
"showDevDebugOutput": false,
"printCalls": false,
"stopAtConnect": true,
"gdbpath": "gdb-multiarch",
"windows": {
"gdbpath": "gdb-multiarch.exe"
},
"osx": {
"gdbpath": "gdb"
},
"executable": "${workspaceRoot}/build/hello_joypad.dwarf-injected.elf",
"setupCommands": [
{ "text": "set mi-async off" },
{ "text": "set remotetimeout 0" },
{ "text": "set logging file build/gen/hello_joypad.gdb.log" },
{ "text": "set logging redirect on" }
],
"autorun": [
"monitor reset shellhalt",
"load build/hello_joypad.dwarf-injected.elf",
"source scripts/gdb/gdb_tape_atoms.gdb",
"tbreak main",
"continue"
]
},
{
"name": "Debug: Hello Camera!",
"type": "gdb",
"request": "attach",
"target": "localhost:3333",
"remote": true,
"cwd": "${workspaceRoot}",
"valuesFormatting": "parseText",
"registerLimit": "1-32",
"frameFilters": false,
"showDevDebugOutput": false,
"printCalls": false,
"stopAtConnect": true,
"gdbpath": "gdb-multiarch",
"windows": {
"gdbpath": "gdb-multiarch.exe"
},
"osx": {
"gdbpath": "gdb"
},
"executable": "${workspaceRoot}/build/hello_camera.dwarf-injected.elf",
"setupCommands": [
{ "text": "set mi-async off" },
{ "text": "set remotetimeout 0" },
{ "text": "set logging file build/gen/hello_camera.gdb.log" },
{ "text": "set logging redirect on" }
],
"autorun": [
"monitor reset shellhalt",
"load build/hello_camera.dwarf-injected.elf",
"source scripts/gdb/gdb_tape_atoms.gdb",
"tbreak main",
"continue"
]
}
]
}
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+222
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@@ -0,0 +1,222 @@
"use strict";
const { nearestCall } = require("./lexer");
const { mergeIndexes, scanSource } = require("./source-index");
const TOKEN_TYPES = [
"tapeAtomKeyword",
"tapeAtomName",
"tapeComponentKeyword",
"tapeComponentName",
"tapeAnnotation",
"tapeBindType",
"tapePhase",
"tapeLabel",
"tapeCpuInstruction",
"tapeControlFlow",
"tapeGteInstruction",
"tapeGpuInstruction",
"tapeComponentInstruction",
"tapeDelaySlot",
"tapeGprRegister",
"tapeCop2Register",
"tapeDuffleType",
"tapeAttribute",
"keyword",
"macro",
];
const TOKEN_MODIFIERS = ["declaration", "tapeRead", "tapeWrite", "tapeAuto"];
const TOKEN_TYPE_INDEX = new Map(TOKEN_TYPES.map((name, index) => [name, index]));
const TOKEN_MODIFIER_INDEX = new Map(TOKEN_MODIFIERS.map((name, index) => [name, index]));
const ATOM_KEYWORDS = new Set(["MipsAtom_", "MipsAtom_Proc_"]);
const COMPONENT_KEYWORDS = new Set(["MipsAtomComp_", "MipsAtomComp_Proc_"]);
const ANNOTATIONS = new Set([
"atom_info", "atom_bind", "atom_reads", "atom_writes", "atom_label",
"atom_offset", "atom_reg", "atom_type", "atom_ctx", "atom_phase",
"atom_auto_reg", "phase_auto_reg", "atom_dbg_skip",
]);
const DSL_KEYWORDS = new Set([
"FI_", "I_", "NI_", "Relative_", "Struct_", "Enum_", "Union_", "Array_",
"Slice_", "TypeR_", "TypeV_", "align_", "internal", "local_persist", "global",
"RO_", "LP_", "gknown", "expect_", "cexpr_",
"asm", "asm_words", "asm_rpins", "asm_clobber",
"O_", "S_", "C_", "T_", "tmpl", "glue", "r_", "v_", "tr_", "tv_",
"rgcc", "r_use", "r_set", "r_mod", "r_imm", "r_mem",
"u1_", "u2_", "u4_", "u8_", "s1_", "s2_", "s4_", "s8_",
"u1_r", "u2_r", "u4_r", "u8_r", "u1_v", "u2_v", "u4_v", "u8_v",
]);
const DELAY_SLOT_KEYWORDS = new Set(["LdSlot_", "BdSlot_", "DmaSlot_", "GteDelay_"]);
const CONTROL_FLOW_PREFIXES = /^(?:branch_|jump_|call_)/;
const ROLE_TO_TYPE = {
atomName: "tapeAtomName",
componentName: "tapeComponentName",
bindType: "tapeBindType",
duffleType: "tapeDuffleType",
gprRegister: "tapeGprRegister",
cop2Register: "tapeCop2Register",
};
function registerType(name, index) {
const kind = index.registers.get(name);
if (kind === "gpr" || /^R_[A-Za-z0-9_]+$/.test(name)) return "tapeGprRegister";
if (kind === "cop2" || /^(?:C2_|gte_cr_)[A-Za-z0-9_]+$/.test(name)) return "tapeCop2Register";
return null;
}
function instructionType(name, index) {
const domain = index.macros.get(name);
if (domain === "control") return "tapeControlFlow";
if (domain === "cpu") return "tapeCpuInstruction";
if (domain === "gte") return "tapeGteInstruction";
if (domain === "gpu") return "tapeGpuInstruction";
if (domain === "component") {
if (/^mac_gte_/.test(name)) return "tapeGteInstruction";
if (/^mac_gp/.test(name)) return "tapeGpuInstruction";
if (/^mac_/.test(name)) return "tapeComponentInstruction";
return "macro";
}
if (domain === "utility") return "macro";
if (/^gte_(?!cr_)/.test(name)) return "tapeGteInstruction";
if (/^gp[01]_/.test(name)) return "tapeGpuInstruction";
if (/^mac_gte_/.test(name)) return "tapeGteInstruction";
if (/^mac_gp/.test(name)) return "tapeGpuInstruction";
if (/^mac_/.test(name)) return "tapeComponentInstruction";
return null;
}
function modifierMask(modifiers) {
let mask = 0;
for (const modifier of modifiers) {
const index = TOKEN_MODIFIER_INDEX.get(modifier);
if (index !== undefined) mask |= (1 << index);
}
return mask;
}
function isRegUseAccess(tokens, tokenIndex) {
const prev = tokens[tokenIndex - 1];
if (!prev || prev.text !== ".") return false;
const prevPrev = tokens[tokenIndex - 2];
if (!prevPrev || prevPrev.kind !== "identifier") return false;
const next = tokens[tokenIndex + 1];
if (next && next.text === ".") return false;
if (prevPrev.text === "r") return true;
const prev3 = tokens[tokenIndex - 3];
const prev4 = tokens[tokenIndex - 4];
if (prev3 && prev3.text === "." && prev4 && prev4.kind === "identifier" && prev4.text === "r") return true;
return false;
}
function classifyDocument(source, filePath, workspaceIndex, shouldCancel = () => false) {
const scanned = scanSource(source, filePath);
const index = mergeIndexes(workspaceIndex, scanned.index);
const spans = [];
for (let tokenIndex = 0; tokenIndex < scanned.tokens.length; tokenIndex += 1) {
if (shouldCancel()) break;
const token = scanned.tokens[tokenIndex];
if (token.kind !== "identifier") continue;
let type = null;
let modifiers = [];
const declaration = scanned.declarations.get(token.start);
const context = nearestCall(scanned.contexts, tokenIndex);
if (declaration) {
type = ROLE_TO_TYPE[declaration.role] || null;
modifiers = declaration.modifiers.slice();
} else if (ATOM_KEYWORDS.has(token.text)) {
type = "tapeAtomKeyword";
} else if (COMPONENT_KEYWORDS.has(token.text)) {
type = "keyword";
} else if (ANNOTATIONS.has(token.text)) {
type = "tapeAnnotation";
} else if (context && context.callee === "atom_bind" && context.argIndex === 0) {
type = "tapeBindType";
} else if (context && context.callee === "atom_phase" && context.argIndex === 0) {
type = "tapePhase";
modifiers = ["declaration"];
} else if (context && context.callee === "atom_ctx" && context.argIndex === 0) {
type = "tapeAtomName";
} else if (context && context.callee === "atom_label" && context.argIndex === 0) {
type = "tapeLabel";
modifiers = ["declaration"];
} else if (context && context.callee === "atom_offset" && context.argIndex <= 1) {
type = "tapeLabel";
} else if (context && context.callee === "atom_reads") {
type = registerType(token.text, index);
if (type) modifiers = ["tapeRead"];
} else if (context && context.callee === "atom_writes") {
type = registerType(token.text, index);
if (type) modifiers = ["tapeWrite"];
} else if (context && context.callee === "atom_auto_reg") {
if (context.argIndex === 0) type = "tapeAtomName";
if (context.argIndex === 1) {
type = "tapeGprRegister";
modifiers = ["declaration", "tapeAuto"];
}
} else if (context && context.callee === "phase_auto_reg") {
if (context.argIndex === 0) type = "tapePhase";
if (context.argIndex === 1) {
type = "tapeGprRegister";
modifiers = ["declaration", "tapeAuto"];
}
}
if (!type && index.bindTypes.has(token.text)) type = "tapeBindType";
if (!type && DSL_KEYWORDS.has(token.text)) type = "keyword";
if (!type && index.types.has(token.text)) type = "tapeDuffleType";
if (!type && index.attributes.has(token.text)) type = "tapeAttribute";
if (!type) type = registerType(token.text, index);
if (!type && DELAY_SLOT_KEYWORDS.has(token.text)) type = "tapeDelaySlot";
if (!type) {
const domain = index.macros.get(token.text);
if (domain === "control" || (domain && CONTROL_FLOW_PREFIXES.test(token.text))) {
type = "tapeControlFlow";
}
}
if (!type && isRegUseAccess(scanned.tokens, tokenIndex)) type = "tapeGprRegister";
if (!type) type = instructionType(token.text, index);
if (!type && /^(?:Slice_|A[0-9]+_)/.test(token.text)) type = "tapeDuffleType";
if (!type && /_[RV]$/.test(token.text)) type = "tapeDuffleType";
if (!type && index.atoms.has(token.text)) type = "tapeAtomName";
if (!type && index.components.has(token.text)) type = "tapeComponentName";
if (!type && index.phases.has(token.text)) type = "tapePhase";
if (!type && index.labels.has(token.text)) type = "tapeLabel";
if (!type) continue;
spans.push({
text: token.text,
type,
typeIndex: TOKEN_TYPE_INDEX.get(type),
modifiers,
modifierMask: modifierMask(modifiers),
start: token.start,
length: token.end - token.start,
line: token.line,
character: token.character,
});
}
spans.sort((left, right) => left.start - right.start || left.length - right.length);
const nonOverlapping = [];
for (const span of spans) {
const previous = nonOverlapping[nonOverlapping.length - 1];
if (!previous || previous.start + previous.length <= span.start) nonOverlapping.push(span);
}
return { spans: nonOverlapping, errors: scanned.errors };
}
module.exports = {
TOKEN_MODIFIERS,
TOKEN_TYPES,
classifyDocument,
modifierMask,
};
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"use strict";
const vscode = require("vscode");
const { TOKEN_MODIFIERS, TOKEN_TYPES, classifyDocument } = require("./classifier");
const { createIndex, mergeIndexes, scanSource } = require("./source-index");
const SOURCE_GLOB = "**/*.{c,h,cc,cpp,cxx,hh,hpp,hxx}";
const EXCLUDE_GLOB = "**/{gen,build,.slop_cache,toolchain,node_modules}/**";
const EXCLUDED_SEGMENTS = new Set(["gen", "build", ".slop_cache", "toolchain", "node_modules"]);
function isExcluded(uri) {
const segments = uri.fsPath.replaceAll("\\", "/").split("/");
return segments.some((segment) => EXCLUDED_SEGMENTS.has(segment));
}
function formatError(filePath, error) {
return `${filePath}:${error.offset}: ${error.kind}`;
}
async function activate(context) {
const output = vscode.window.createOutputChannel("Tape Atom DSL");
const emitter = new vscode.EventEmitter();
const legend = new vscode.SemanticTokensLegend(TOKEN_TYPES, TOKEN_MODIFIERS);
let workspaceIndex = createIndex();
let rebuildGeneration = 0;
let debounceHandle = null;
async function rebuildIndex() {
const generation = ++rebuildGeneration;
const files = await vscode.workspace.findFiles(SOURCE_GLOB, EXCLUDE_GLOB);
let nextIndex = createIndex();
for (const uri of files) {
if (generation !== rebuildGeneration) return;
if (isExcluded(uri)) continue;
try {
const bytes = await vscode.workspace.fs.readFile(uri);
const source = Buffer.from(bytes).toString("utf8");
const result = scanSource(source, uri.fsPath);
nextIndex = mergeIndexes(nextIndex, result.index);
for (const error of result.errors) output.appendLine(formatError(uri.fsPath, error));
} catch (error) {
output.appendLine(`${uri.fsPath}: ${error.stack || error.message || error}`);
}
}
if (generation !== rebuildGeneration) return;
workspaceIndex = nextIndex;
emitter.fire();
}
function scheduleRebuild(uri) {
if (uri && isExcluded(uri)) return;
if (debounceHandle !== null) clearTimeout(debounceHandle);
debounceHandle = setTimeout(() => {
debounceHandle = null;
rebuildIndex().catch((error) => output.appendLine(error.stack || String(error)));
}, 100);
}
const provider = {
onDidChangeSemanticTokens: emitter.event,
provideDocumentSemanticTokens(document, cancellationToken) {
try {
const result = classifyDocument(
document.getText(),
document.uri.fsPath,
workspaceIndex,
() => cancellationToken.isCancellationRequested
);
const builder = new vscode.SemanticTokensBuilder(legend);
for (const span of result.spans) {
if (cancellationToken.isCancellationRequested) break;
builder.push(span.line, span.character, span.length, span.typeIndex, span.modifierMask);
}
for (const error of result.errors) {
output.appendLine(formatError(document.uri.fsPath || document.uri.toString(), error));
}
return builder.build();
} catch (error) {
output.appendLine(`${document.uri}: ${error.stack || error.message || error}`);
return new vscode.SemanticTokensBuilder(legend).build();
}
},
};
const selector = [
{ language: "c", scheme: "file" },
{ language: "c", scheme: "untitled" },
{ language: "cpp", scheme: "file" },
{ language: "cpp", scheme: "untitled" },
];
const watcher = vscode.workspace.createFileSystemWatcher(SOURCE_GLOB);
context.subscriptions.push(
output,
emitter,
watcher,
watcher.onDidCreate(scheduleRebuild),
watcher.onDidChange(scheduleRebuild),
watcher.onDidDelete(scheduleRebuild),
vscode.languages.registerDocumentSemanticTokensProvider(selector, provider, legend),
{ dispose() { if (debounceHandle !== null) clearTimeout(debounceHandle); } }
);
await rebuildIndex();
}
function deactivate() {}
module.exports = { activate, deactivate };
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"use strict";
function isIdentifierStart(code) {
return code === 95 ||
(code >= 65 && code <= 90) ||
(code >= 97 && code <= 122);
}
function isIdentifierContinue(code) {
return isIdentifierStart(code) || (code >= 48 && code <= 57);
}
function lex(source) {
if (typeof source !== "string") throw new TypeError("source must be a string");
const tokens = [];
const errors = [];
let offset = 0;
let line = 0;
let character = 0;
function advance() {
if (source[offset] === "\r" && source[offset + 1] === "\n") {
offset += 2;
line += 1;
character = 0;
return;
}
if (source[offset] === "\n") {
offset += 1;
line += 1;
character = 0;
return;
}
offset += 1;
character += 1;
}
function pushToken(kind, start, startLine, startCharacter) {
tokens.push({
kind,
text: source.slice(start, offset),
start,
end: offset,
line: startLine,
character: startCharacter,
});
}
while (offset < source.length) {
const ch = source[offset];
if (/\s/.test(ch)) {
advance();
continue;
}
if (ch === "/" && source[offset + 1] === "/") {
while (offset < source.length && source[offset] !== "\r" && source[offset] !== "\n") advance();
continue;
}
if (ch === "/" && source[offset + 1] === "*") {
const start = offset;
advance();
advance();
let closed = false;
while (offset < source.length) {
if (source[offset] === "*" && source[offset + 1] === "/") {
advance();
advance();
closed = true;
break;
}
advance();
}
if (!closed) errors.push({ kind: "unterminated-block-comment", offset: start });
continue;
}
if (ch === "\"" || ch === "'") {
const quote = ch;
const start = offset;
advance();
let closed = false;
while (offset < source.length) {
if (source[offset] === "\\") {
advance();
if (offset < source.length) advance();
continue;
}
if (source[offset] === quote) {
advance();
closed = true;
break;
}
if (source[offset] === "\n" || source[offset] === "\r") break;
advance();
}
if (!closed) errors.push({ kind: "unterminated-literal", offset: start });
continue;
}
const code = source.charCodeAt(offset);
if (isIdentifierStart(code)) {
const start = offset;
const startLine = line;
const startCharacter = character;
advance();
while (offset < source.length && isIdentifierContinue(source.charCodeAt(offset))) advance();
pushToken("identifier", start, startLine, startCharacter);
continue;
}
const start = offset;
const startLine = line;
const startCharacter = character;
advance();
pushToken("punctuation", start, startLine, startCharacter);
}
return { tokens, errors };
}
function buildCallContexts(tokens) {
const contexts = Array.from({ length: tokens.length }, () => []);
const calls = [];
const errors = [];
const stack = [];
for (let tokenIndex = 0; tokenIndex < tokens.length; tokenIndex += 1) {
const token = tokens[tokenIndex];
if (token.text === ")") {
if (stack.length === 0) {
errors.push({ kind: "unmatched-close-paren", offset: token.start });
} else {
const frame = stack.pop();
if (frame.callee !== null) calls.push({ ...frame, closeTokenIndex: tokenIndex });
}
}
contexts[tokenIndex] = stack
.filter((frame) => frame.callee !== null)
.map((frame) => ({
callee: frame.callee,
calleeTokenIndex: frame.calleeTokenIndex,
openTokenIndex: frame.openTokenIndex,
argIndex: frame.argIndex,
}));
if (token.text === "(") {
const previous = tokens[tokenIndex - 1];
const hasCallee = previous && previous.kind === "identifier";
stack.push({
callee: hasCallee ? previous.text : null,
calleeTokenIndex: hasCallee ? tokenIndex - 1 : -1,
openTokenIndex: tokenIndex,
argIndex: 0,
});
continue;
}
if (token.text === "," && stack.length > 0) {
const frame = stack[stack.length - 1];
if (frame.callee !== null) frame.argIndex += 1;
}
}
for (const frame of stack) {
errors.push({ kind: "unmatched-open-paren", offset: tokens[frame.openTokenIndex].start });
}
return { contexts, calls, errors };
}
function nearestCall(contexts, tokenIndex, callee) {
const entries = contexts[tokenIndex] || [];
for (let contextIndex = entries.length - 1; contextIndex >= 0; contextIndex -= 1) {
const entry = entries[contextIndex];
if (callee === undefined || entry.callee === callee) return entry;
}
return null;
}
module.exports = { buildCallContexts, lex, nearestCall };
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{
"name": "atomasm-psx",
"displayName": "AtomAsm-PSX",
"description": "Semantic highlighting for the PS1 Tape/Atom MIPS macro DSL",
"publisher": "local",
"version": "0.3.0",
"engines": { "vscode": "^1.80.0" },
"categories": ["Programming Languages"],
"activationEvents": ["onLanguage:c", "onLanguage:cpp"],
"main": "./extension.js",
"files": [
"classifier.js",
"extension.js",
"lexer.js",
"source-index.js",
"syntaxes/tape_atom.tmLanguage.json"
],
"scripts": {
"test": "node --test test/*.test.js",
"package": "npx --yes @vscode/vsce@3.6.1 package --allow-missing-repository --skip-license --out atomasm-psx-0.3.0.vsix"
},
"contributes": {
"semanticTokenTypes": [
{ "id": "tapeAtomKeyword", "superType": "keyword", "description": "Tape atom declaration keyword" },
{ "id": "tapeAtomName", "superType": "function", "description": "Tape atom name" },
{ "id": "tapeComponentKeyword", "superType": "keyword", "description": "Tape atom component declaration keyword" },
{ "id": "tapeComponentName", "superType": "function", "description": "Tape atom component name" },
{ "id": "tapeAnnotation", "superType": "macro", "description": "Tape atom annotation" },
{ "id": "tapeBindType", "superType": "type", "description": "Tape bind structure type" },
{ "id": "tapePhase", "superType": "label", "description": "Tape atom phase" },
{ "id": "tapeLabel", "superType": "label", "description": "Tape atom branch label" },
{ "id": "tapeCpuInstruction", "superType": "macro", "description": "MIPS CPU instruction emitter" },
{ "id": "tapeControlFlow", "superType": "keyword", "description": "MIPS branch or jump instruction" },
{ "id": "tapeGteInstruction", "superType": "macro", "description": "GTE instruction emitter" },
{ "id": "tapeGpuInstruction", "superType": "macro", "description": "GPU command emitter" },
{ "id": "tapeComponentInstruction", "superType": "macro", "description": "Tape atom component invocation" },
{ "id": "tapeDelaySlot", "superType": "keyword", "description": "Load or branch delay slot annotation" },
{ "id": "tapeGprRegister", "superType": "variable", "description": "MIPS GPR alias" },
{ "id": "tapeCop2Register", "superType": "variable", "description": "COP2 data or control register alias" },
{ "id": "tapeDuffleType", "superType": "type", "description": "Duffle type or type constructor" },
{ "id": "tapeAttribute", "superType": "keyword", "description": "Duffle linkage or storage attribute" },
{ "id": "keyword", "description": "Standard keyword (DSL built-in macros)" },
{ "id": "macro", "description": "Standard macro (utility #define with no instruction domain)" }
],
"semanticTokenModifiers": [
{ "id": "tapeRead", "description": "Register declared in atom_reads" },
{ "id": "tapeWrite", "description": "Register declared in atom_writes" },
{ "id": "tapeAuto", "description": "Auto-allocated register" }
],
"semanticTokenScopes": [
{
"language": "c",
"scopes": {
"tapeAtomKeyword": ["keyword.control.duffle.atom"],
"tapeAtomName": ["entity.name.function.duffle.atom"],
"tapeComponentKeyword": ["keyword.control.duffle.component"],
"tapeComponentName": ["entity.name.function.duffle.component"],
"tapeAnnotation": ["support.function.duffle.annotation"],
"tapeBindType": ["entity.name.type.duffle.bind"],
"tapePhase": ["entity.name.tag.duffle.phase"],
"tapeLabel": ["entity.name.label.duffle.atom"],
"tapeCpuInstruction": ["support.function.duffle.cpu"],
"tapeControlFlow": ["keyword.control.duffle.branch"],
"tapeGteInstruction": ["support.function.duffle.gte"],
"tapeGpuInstruction": ["support.function.duffle.gpu"],
"tapeComponentInstruction": ["support.function.duffle.component"],
"tapeDelaySlot": ["keyword.operator.duffle.delayslot"],
"tapeGprRegister": ["variable.other.constant.duffle.gpr"],
"tapeCop2Register": ["variable.other.constant.duffle.cop2"],
"tapeDuffleType": ["storage.type.duffle.type"],
"tapeAttribute": ["storage.modifier.duffle.attr"],
"keyword": ["keyword"],
"macro": ["entity.name.function.preprocessor"]
}
}
],
"grammars": [
{
"scopeName": "tape_atom.injection",
"path": "./syntaxes/tape_atom.tmLanguage.json",
"injectTo": ["source.c", "source.cpp"]
}
]
}
}
+341
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"use strict";
const path = require("node:path");
const { buildCallContexts, lex, nearestCall } = require("./lexer");
const BASE_TYPES = [
"B1", "B2", "B4", "B8", "F4", "F8", "S1", "S2", "S4", "S8",
"U1", "U2", "U4", "U8", "MipsAtom", "MipsCode", "Reg",
];
const C_BUILTINS = new Set([
"void", "type", "char", "short", "int", "long", "float", "double",
"unsigned", "signed", "bool", "size_t", "uint8_t", "uint16_t", "uint32_t",
"int8_t", "int16_t", "int32_t",
]);
const BASE_ATTRIBUTES = [
"FI_", "I_", "NI_", "Relative_", "Struct_", "Enum_", "Union_", "Array_",
"Slice_", "TypeR_", "TypeV_", "align_", "internal", "local_persist", "global",
"RO_", "LP_", "gknown", "expect_", "cexpr_",
"asm", "asm_words", "asm_rpins", "asm_clobber",
"O_", "S_", "C_", "T_", "tmpl", "glue", "r_", "v_", "tr_", "tv_",
"rgcc", "r_use", "r_set", "r_mod", "r_imm", "r_mem",
"u1_", "u2_", "u4_", "u8_", "s1_", "s2_", "s4_", "s8_",
"u1_r", "u2_r", "u4_r", "u8_r", "u1_v", "u2_v", "u4_v", "u8_v",
];
function createIndex() {
return {
atoms: new Set(),
components: new Set(),
componentAliases: new Set(),
macros: new Map(),
registers: new Map(),
bindTypes: new Set(),
types: new Set(BASE_TYPES),
phases: new Set(),
labels: new Set(),
attributes: new Set(BASE_ATTRIBUTES),
componentCallees: new Map(),
};
}
function cloneIndex(source) {
const result = createIndex();
for (const key of ["atoms", "components", "componentAliases", "bindTypes", "types", "phases", "labels", "attributes"]) {
for (const value of source[key]) result[key].add(value);
}
for (const [name, domain] of source.macros) result.macros.set(name, domain);
for (const [name, domain] of source.registers) result.registers.set(name, domain);
for (const [name, callees] of source.componentCallees) result.componentCallees.set(name, callees.slice());
return result;
}
function mergeIndexes(...sources) {
const result = createIndex();
for (const source of sources) {
if (!source) continue;
for (const key of ["atoms", "components", "componentAliases", "bindTypes", "types", "phases", "labels", "attributes"]) {
for (const value of source[key]) result[key].add(value);
}
for (const [name, domain] of source.macros) {
const existing = result.macros.get(name);
if (!existing || domainRank(domain) >= domainRank(existing)) result.macros.set(name, domain);
}
for (const [name, domain] of source.registers) result.registers.set(name, domain);
for (const [name, callees] of source.componentCallees) {
const existing = result.componentCallees.get(name) || [];
result.componentCallees.set(name, existing.concat(callees));
}
}
return resolveComponentDomains(result);
}
function domainFromPath(filePath) {
const base = path.basename(filePath.replaceAll("\\", "/")).toLowerCase();
if (base === "mips.h") return "cpu";
if (base === "gte.h") return "gte";
if (base === "gp.h") return "gpu";
return null;
}
function prefixDomain(name) {
if (/^(?:branch_|jump_|call_)/.test(name)) return "control";
if (/^gte_(?!cr_)/.test(name) || name.startsWith("mac_gte_") || name.startsWith("ac_gte_")) return "gte";
if (/^gp[01]_/.test(name) || name.startsWith("mac_gp_") || name.startsWith("ac_gp_")) return "gpu";
return null;
}
function collectBraceIdentifiers(tokens, openBraceIndex) {
const names = [];
let depth = 0;
for (let tokenIndex = openBraceIndex; tokenIndex < tokens.length; tokenIndex += 1) {
if (tokens[tokenIndex].text === "{") depth += 1;
if (tokens[tokenIndex].text === "}") {
depth -= 1;
if (depth === 0) break;
}
if (tokens[tokenIndex].kind === "identifier") names.push(tokens[tokenIndex].text);
}
return names;
}
function resolveComponentDomains(index) {
const hardwareRank = { cpu: 1, gpu: 2, gte: 3, control: 4 };
let changed = true;
while (changed) {
changed = false;
for (const [alias, callees] of index.componentCallees) {
let best = index.macros.get(alias) || "component";
let bestRank = hardwareRank[best] || 0;
for (const callee of callees) {
const domain = prefixDomain(callee) || index.macros.get(callee);
const rank = hardwareRank[domain] || 0;
if (rank > bestRank) {
best = domain;
bestRank = rank;
}
}
if (bestRank > 0 && index.macros.get(alias) !== best) {
index.macros.set(alias, best);
changed = true;
}
}
}
return index;
}
function domainRank(domain) {
if (domain === "control") return 4;
if (domain === "cpu" || domain === "gte" || domain === "gpu") return 3;
if (domain === "component") return 2;
return 1;
}
function registerKind(name) {
if (/^R_[A-Za-z0-9_]+$/.test(name)) return "gpr";
if (/^(?:C2_|gte_cr_)[A-Za-z0-9_]+$/.test(name)) return "cop2";
return null;
}
function componentAlias(name) {
return name.startsWith("ac_") ? `mac_${name.slice(3)}` : null;
}
function findFunctionNameBefore(tokens, calleeTokenIndex) {
let closeIndex = calleeTokenIndex - 1;
while (closeIndex >= 0 && tokens[closeIndex].kind === "identifier" && tokens[closeIndex].text === "atom_dbg_skip") {
closeIndex -= 1;
}
if (!tokens[closeIndex] || tokens[closeIndex].text !== ")") return null;
let depth = 1;
for (let tokenIndex = closeIndex - 1; tokenIndex >= 0; tokenIndex -= 1) {
if (tokens[tokenIndex].text === ")") depth += 1;
if (tokens[tokenIndex].text === "(") depth -= 1;
if (depth !== 0) continue;
const name = tokens[tokenIndex - 1];
return name && name.kind === "identifier" ? name : null;
}
return null;
}
function scanSource(source, filePath) {
const lexical = lex(source);
const balanced = buildCallContexts(lexical.tokens);
const tokens = lexical.tokens;
const contexts = balanced.contexts;
const index = createIndex();
const declarations = new Map();
const domain = domainFromPath(filePath);
function mark(token, role, modifiers = ["declaration"]) {
declarations.set(token.start, { role, modifiers });
}
function addComponent(token) {
index.components.add(token.text);
mark(token, "componentName");
const alias = componentAlias(token.text);
if (alias) {
index.componentAliases.add(alias);
index.macros.set(alias, prefixDomain(alias) || prefixDomain(token.text) || "component");
}
}
function bindComponentCallees(alias, callees) {
if (!alias) return;
index.componentAliases.add(alias);
index.componentCallees.set(alias, callees);
if (!index.macros.has(alias)) index.macros.set(alias, "component");
}
for (let tokenIndex = 0; tokenIndex < tokens.length; tokenIndex += 1) {
const token = tokens[tokenIndex];
if (token.kind !== "identifier") continue;
const kind = registerKind(token.text);
if (kind) {
index.registers.set(token.text, kind);
if (tokens[tokenIndex + 1] && tokens[tokenIndex + 1].text === "=") {
mark(token, kind === "gpr" ? "gprRegister" : "cop2Register");
}
}
const context = nearestCall(contexts, tokenIndex);
if (context && context.argIndex === 0) {
if (context.callee === "MipsAtom_") {
index.atoms.add(token.text);
mark(token, "atomName");
}
if (context.callee === "MipsAtomComp_") addComponent(token);
if (context.callee === "atom_bind") index.bindTypes.add(token.text);
if (context.callee === "atom_phase" || context.callee === "phase_auto_reg") index.phases.add(token.text);
if (context.callee === "atom_label" || context.callee === "atom_offset") index.labels.add(token.text);
}
const isWrappedType = context && (
((context.callee === "Struct_" || context.callee === "Union_") && context.argIndex === 0) ||
(context.callee === "Enum_" && context.argIndex === 1)
);
if (isWrappedType) {
index.types.add(token.text);
mark(token, token.text.startsWith("Binds_") ? "bindType" : "duffleType");
if (token.text.startsWith("Binds_")) index.bindTypes.add(token.text);
}
if (context && context.callee === "atom_offset" && context.argIndex === 1) index.labels.add(token.text);
if (context && context.callee === "atom_auto_reg") {
if (context.argIndex === 0) index.atoms.add(token.text);
if (context.argIndex === 1) {
index.registers.set(token.text, "gpr");
mark(token, "gprRegister", ["declaration", "tapeAuto"]);
}
}
if (context && context.callee === "phase_auto_reg" && context.argIndex === 1) {
index.registers.set(token.text, "gpr");
mark(token, "gprRegister", ["declaration", "tapeAuto"]);
}
if (token.text === "define" && tokens[tokenIndex - 1] && tokens[tokenIndex - 1].text === "#") {
const name = tokens[tokenIndex + 1];
if (name && name.kind === "identifier" && name.line === token.line) {
if (/^(?:RegUse_|Struct_|Enum_|Union_|TypeR_|TypeV_|Relative_|Binds_)/.test(name.text)) {
index.types.add(name.text);
} else if (/^(?:ac_|mac_)/.test(name.text)) {
const alias = name.text.startsWith("ac_") ? componentAlias(name.text) : name.text;
const rest = [];
for (let restIndex = tokenIndex + 2; restIndex < tokens.length && tokens[restIndex].line === name.line; restIndex += 1) {
if (tokens[restIndex].kind === "identifier") rest.push(tokens[restIndex].text);
}
if (alias) {
index.componentAliases.add(alias);
index.macros.set(alias, prefixDomain(alias) || "component");
if (rest.length) index.componentCallees.set(alias, rest);
}
} else {
index.macros.set(name.text, domain || "utility");
}
}
}
if (token.text === "typedef") {
let endIndex = tokenIndex + 1;
let hasBrace = false;
let lastIdentifier = null;
while (endIndex < tokens.length && tokens[endIndex].text !== ";") {
if (tokens[endIndex].text === "{") hasBrace = true;
if (tokens[endIndex].kind === "identifier" && !C_BUILTINS.has(tokens[endIndex].text)) lastIdentifier = tokens[endIndex];
endIndex += 1;
}
if (!hasBrace && lastIdentifier && !C_BUILTINS.has(lastIdentifier.text)) {
index.types.add(lastIdentifier.text);
mark(lastIdentifier, "duffleType");
}
}
if (token.text === "MipsAtom_Proc_") {
const functionName = findFunctionNameBefore(tokens, tokenIndex);
if (functionName) {
const atomName = functionName.text.endsWith("_proc")
? functionName.text.slice(0, -5)
: functionName.text;
index.atoms.add(atomName);
index.atoms.add(functionName.text);
mark(functionName, "atomName");
}
}
if (token.text === "MipsAtomComp_Proc_") {
const functionName = findFunctionNameBefore(tokens, tokenIndex);
if (functionName) addComponent(functionName);
}
}
for (const call of balanced.calls) {
if (call.callee === "MipsAtomComp_") {
const name = tokens[call.openTokenIndex + 1];
const brace = tokens[call.closeTokenIndex + 1];
if (name && name.kind === "identifier" && brace && brace.text === "{") {
bindComponentCallees(componentAlias(name.text), collectBraceIdentifiers(tokens, call.closeTokenIndex + 1));
}
}
if (call.callee === "MipsAtomComp_Proc_") {
const functionName = findFunctionNameBefore(tokens, call.calleeTokenIndex);
let braceIndex = -1;
for (let tokenIndex = call.openTokenIndex + 1; tokenIndex < call.closeTokenIndex; tokenIndex += 1) {
if (tokens[tokenIndex].text === "{") {
braceIndex = tokenIndex;
break;
}
}
if (functionName && braceIndex >= 0) {
bindComponentCallees(componentAlias(functionName.text), collectBraceIdentifiers(tokens, braceIndex));
}
}
if (!domain) continue;
const name = tokens[call.calleeTokenIndex];
const after = tokens[call.closeTokenIndex + 1];
if (!name || !after || after.text !== "{") continue;
if (/^(?:gp0_|gp1_|gte_|mac_)/.test(name.text)) index.macros.set(name.text, domain);
}
return {
index: resolveComponentDomains(cloneIndex(index)),
declarations,
tokens,
contexts,
errors: [...lexical.errors, ...balanced.errors],
};
}
module.exports = {
createIndex,
domainFromPath,
mergeIndexes,
resolveComponentDomains,
scanSource,
};
@@ -0,0 +1,71 @@
{
"scopeName": "tape_atom.injection",
"injectionSelector": "L:source.c -comment -string, L:source.cpp -comment -string",
"patterns": [
{ "include": "#atom-declarations" },
{ "include": "#component-declarations" },
{ "include": "#annotation-arguments" },
{ "include": "#annotations" },
{ "include": "#delay-slots" },
{ "include": "#types" },
{ "include": "#attributes" }
],
"repository": {
"atom-declarations": {
"patterns": [
{
"match": "\\b(MipsAtom_)\\s*\\(\\s*([A-Za-z_][A-Za-z0-9_]*)",
"captures": {
"1": { "name": "keyword.control.duffle.atom" },
"2": { "name": "entity.name.function.duffle.atom" }
}
},
{ "match": "\\bMipsAtom_Proc_\\b", "name": "keyword.control.duffle.atom" },
{ "match": "\\b[A-Za-z_][A-Za-z0-9_]*_proc\\b", "name": "entity.name.function.duffle.atom" }
]
},
"component-declarations": {
"patterns": [
{
"match": "\\b(MipsAtomComp_)\\s*\\(\\s*(ac_[A-Za-z0-9_]*)",
"captures": {
"1": { "name": "keyword" },
"2": { "name": "entity.name.function.duffle.component" }
}
},
{ "match": "\\bMipsAtomComp_Proc_\\b", "name": "keyword" }
]
},
"annotation-arguments": {
"patterns": [
{
"match": "\\b(atom_offset)\\s*\\(\\s*([A-Za-z_][A-Za-z0-9_]*)\\s*,\\s*([A-Za-z_][A-Za-z0-9_]*)",
"captures": {
"1": { "name": "support.function.duffle.annotation" },
"2": { "name": "entity.name.label.duffle.atom" },
"3": { "name": "entity.name.label.duffle.atom" }
}
},
{ "match": "(?<=\\batom_bind\\()\\s*Binds_[A-Za-z0-9_]+", "name": "entity.name.type.duffle.bind" },
{ "match": "(?<=\\batom_phase\\()\\s*[A-Za-z_][A-Za-z0-9_]*", "name": "entity.name.tag.duffle.phase" },
{ "match": "(?<=\\batom_label\\()\\s*[A-Za-z_][A-Za-z0-9_]*", "name": "entity.name.label.duffle.atom" }
]
},
"annotations": {
"match": "\\b(atom_info|atom_bind|atom_reads|atom_writes|atom_label|atom_offset|atom_reg|atom_type|atom_ctx|atom_phase|atom_auto_reg|phase_auto_reg|atom_dbg_skip)\\b",
"name": "support.function.duffle.annotation"
},
"delay-slots": {
"match": "\\b(LdSlot_|BdSlot_|DmaSlot_|GteDelay_)\\b",
"name": "keyword.operator.duffle.delayslot"
},
"types": {
"match": "\\b(?:Binds_[A-Za-z0-9_]+|RegUse_[A-Za-z0-9_]+)\\b",
"name": "storage.type.duffle.type"
},
"attributes": {
"match": "\\b(?:FI_|I_|NI_|Relative_|Struct_|Enum_|Union_|Array_|Slice_|TypeR_|TypeV_|align_|internal|local_persist|global|RO_|LP_|gknown|expect_|cexpr_|asm|asm_words|asm_rpins|asm_clobber|O_|S_|C_|T_|tmpl|glue|r_|v_|tr_|tv_|rgcc|r_use|r_set|r_mod|r_imm|r_mem|u[1248]_|u[1248]_r|u[1248]_v|s[1248]_)\\b",
"name": "keyword"
}
}
}
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"use strict";
const assert = require("node:assert/strict");
const test = require("node:test");
const { classifyDocument } = require("../classifier");
const { createIndex } = require("../source-index");
function byText(result, text) {
return result.spans.filter((span) => span.text === text);
}
test("classifyDocument distinguishes declaration, annotation, phase, bind, and label roles", () => {
const source = [
"typedef Struct_(Binds_CubeTri) { U4 PrimCursor; };",
"MipsAtom_(cube_g4_face) atom_info(atom_bind(Binds_CubeTri), atom_phase(cube_g4),",
"\tatom_reads(R_PrimCursor), atom_writes(R_FaceCursor)) {",
"\tbranch_le_zero(R_T0, atom_offset(cull, exit)),",
"\tatom_label(exit)",
"};",
].join("\n");
const result = classifyDocument(source, "C:/x/code/hello_camera/hello_camera.atom.c", createIndex());
assert.equal(byText(result, "MipsAtom_")[0].type, "tapeAtomKeyword");
assert.deepEqual(byText(result, "cube_g4_face")[0].modifiers, ["declaration"]);
assert.equal(byText(result, "atom_bind")[0].type, "tapeAnnotation");
assert.equal(byText(result, "Binds_CubeTri").at(-1).type, "tapeBindType");
assert.equal(byText(result, "cube_g4")[0].type, "tapePhase");
assert.deepEqual(byText(result, "cube_g4")[0].modifiers, ["declaration"]);
assert.equal(byText(result, "cull")[0].type, "tapeLabel");
assert.equal(byText(result, "exit").every((span) => span.type === "tapeLabel"), true);
});
test("classifyDocument applies read and write modifiers to GPRs", () => {
const source = "atom_info(atom_reads(R_PrimCursor), atom_writes(R_FaceCursor))";
const result = classifyDocument(source, "C:/x/code/test.atom.c", createIndex());
assert.deepEqual(byText(result, "R_PrimCursor")[0].modifiers, ["tapeRead"]);
assert.deepEqual(byText(result, "R_FaceCursor")[0].modifiers, ["tapeWrite"]);
});
test("classifyDocument separates CPU, GTE, GPU, and component domains", () => {
const workspace = createIndex();
workspace.macros.set("load_word", "cpu");
workspace.macros.set("gte_cmdw_rtpt", "gte");
workspace.macros.set("gp1_word_DisplayOn", "gpu");
workspace.macros.set("mac_yield", "control");
workspace.componentAliases.add("mac_yield");
const source = "load_word(R_T0, R_T1, 0), gte_cmdw_rtpt, gp1_word_DisplayOn(), mac_yield(), C2_MAC0, gte_cr_OFX_Code";
const result = classifyDocument(source, "C:/x/code/test.c", workspace);
assert.equal(byText(result, "load_word")[0].type, "tapeCpuInstruction");
assert.equal(byText(result, "gte_cmdw_rtpt")[0].type, "tapeGteInstruction");
assert.equal(byText(result, "gp1_word_DisplayOn")[0].type, "tapeGpuInstruction");
assert.equal(byText(result, "mac_yield")[0].type, "tapeControlFlow");
assert.equal(byText(result, "C2_MAC0")[0].type, "tapeCop2Register");
assert.equal(byText(result, "gte_cr_OFX_Code")[0].type, "tapeCop2Register");
});
test("component invocations keep the domain resolved from their emitted instructions", () => {
const workspace = createIndex();
workspace.macros.set("mac_load_word_imm", "cpu");
workspace.macros.set("mac_gcmd_push", "gpu");
workspace.macros.set("mac_gte_store_f3", "gte");
workspace.macros.set("mac_load_v3s4", "cpu");
const source = "mac_load_word_imm(dst, imm), mac_gcmd_push(cmd), mac_gte_store_f3(cursor), mac_load_v3s4()";
const result = classifyDocument(source, "C:/x/code/hello_camera/hello_camera.atom.c", workspace);
assert.equal(byText(result, "mac_load_word_imm")[0].type, "tapeCpuInstruction");
assert.equal(byText(result, "mac_gcmd_push")[0].type, "tapeGpuInstruction");
assert.equal(byText(result, "mac_gte_store_f3")[0].type, "tapeGteInstruction");
assert.equal(byText(result, "mac_load_v3s4")[0].type, "tapeCpuInstruction");
});
test("utility macros without a hardware domain use the standard macro token", () => {
const workspace = createIndex();
workspace.macros.set("load_word", "cpu");
workspace.macros.set("assert", "utility");
workspace.macros.set("stringify", "utility");
workspace.macros.set("u4_hi", "utility");
const source = "load_word(R_T0, R_T1, 0), assert(ok), stringify(name), u4_hi(imm)";
const result = classifyDocument(source, "C:/x/code/hello_camera/hello_camera.c", workspace);
assert.equal(byText(result, "load_word")[0].type, "tapeCpuInstruction");
assert.equal(byText(result, "assert")[0].type, "macro");
assert.equal(byText(result, "stringify")[0].type, "macro");
assert.equal(byText(result, "u4_hi")[0].type, "macro");
});
test("document-local declarations override an empty workspace index", () => {
const source = [
"MipsAtomComp_(ac_new_component) { nop };",
"MipsAtomComp_Proc_(ab, { nop })",
"mac_new_component(),",
].join("\n");
const result = classifyDocument(source, "C:/x/code/duffle/math.atom.c", createIndex());
assert.equal(byText(result, "MipsAtomComp_")[0].type, "keyword");
assert.equal(byText(result, "MipsAtomComp_Proc_")[0].type, "keyword");
assert.equal(byText(result, "ac_new_component")[0].type, "tapeComponentName");
assert.equal(byText(result, "mac_new_component")[0].type, "tapeComponentInstruction");
});
test("delay slot markers share the tapeDelaySlot token", () => {
const source = "LdSlot_ nop, BdSlot_ nop, DmaSlot_ nop2, GteDelay_ nop";
const result = classifyDocument(source, "C:/x/code/duffle/gte.atom.c", createIndex());
assert.equal(byText(result, "LdSlot_")[0].type, "tapeDelaySlot");
assert.equal(byText(result, "BdSlot_")[0].type, "tapeDelaySlot");
assert.equal(byText(result, "DmaSlot_")[0].type, "tapeDelaySlot");
assert.equal(byText(result, "GteDelay_")[0].type, "tapeDelaySlot");
});
test("classifier returns ordered non-overlapping spans and partial malformed output", () => {
const source = "atom_reads(R_A /* broken";
const result = classifyDocument(source, "C:/x/code/test.atom.c", createIndex());
assert.equal(result.errors.some((error) => error.kind === "unterminated-block-comment"), true);
for (let spanIndex = 1; spanIndex < result.spans.length; spanIndex += 1) {
const previous = result.spans[spanIndex - 1];
const current = result.spans[spanIndex];
assert.equal(previous.start + previous.length <= current.start, true);
}
});
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"use strict";
const assert = require("node:assert/strict");
const fs = require("node:fs");
const path = require("node:path");
const test = require("node:test");
const { TOKEN_MODIFIERS, TOKEN_TYPES } = require("../classifier");
const ROOT = path.resolve(__dirname, "..");
function readJson(filePath) {
const raw = fs.readFileSync(filePath, "utf8");
const stripped = raw.replace(/\/\/.*$/gm, "").replace(/,\s*([}\]])/g, "$1");
return JSON.parse(stripped);
}
function collectScopeNames(value, output = new Set()) {
if (Array.isArray(value)) {
for (const entry of value) collectScopeNames(entry, output);
return output;
}
if (!value || typeof value !== "object") return output;
if (typeof value.name === "string") output.add(value.name);
for (const child of Object.values(value)) collectScopeNames(child, output);
return output;
}
test("package semantic legend matches classifier exports", () => {
const packageJson = readJson(path.join(ROOT, "package.json"));
const contributedTypes = packageJson.contributes.semanticTokenTypes.map((entry) => entry.id);
const contributedModifiers = packageJson.contributes.semanticTokenModifiers.map((entry) => entry.id);
assert.equal(packageJson.version, "0.3.0");
assert.deepEqual(contributedTypes, TOKEN_TYPES);
assert.deepEqual(contributedModifiers, TOKEN_MODIFIERS.filter((name) => name !== "declaration"));
});
test("package includes runtime files only and acknowledges local-only metadata", () => {
const packageJson = readJson(path.join(ROOT, "package.json"));
assert.deepEqual(packageJson.files, [
"classifier.js",
"extension.js",
"lexer.js",
"source-index.js",
"syntaxes/tape_atom.tmLanguage.json",
]);
assert.equal(packageJson.scripts.package.includes("--allow-missing-repository"), true);
assert.equal(packageJson.scripts.package.includes("--skip-license"), true);
});
test("every semantic token has a scope mapping; DSL-specific tokens also have grammar scopes", () => {
const packageJson = readJson(path.join(ROOT, "package.json"));
const grammar = readJson(path.join(ROOT, "syntaxes", "tape_atom.tmLanguage.json"));
const mappings = packageJson.contributes.semanticTokenScopes[0].scopes;
const grammarScopes = collectScopeNames(grammar);
const grammarRequired = new Set([
"tapeAtomKeyword", "tapeAtomName", "tapeComponentName",
"tapeAnnotation", "tapeBindType", "tapePhase", "tapeLabel",
"tapeDelaySlot", "tapeDuffleType", "keyword",
]);
for (const tokenType of TOKEN_TYPES) {
assert.equal(Array.isArray(mappings[tokenType]), true, `missing scope mapping: ${tokenType}`);
if (grammarRequired.has(tokenType)) {
assert.equal(mappings[tokenType].some((scope) => grammarScopes.has(scope)), true, `grammar does not emit: ${tokenType}`);
}
}
});
test("TextMate offset labels stay scoped to atom_offset calls", () => {
const grammar = readJson(path.join(ROOT, "syntaxes", "tape_atom.tmLanguage.json"));
const serialized = JSON.stringify(grammar);
const offsetRule = grammar.repository["annotation-arguments"].patterns
.find((rule) => rule.match.includes("atom_offset"));
assert.equal(serialized.includes("(?<=,)"), false);
assert.equal(offsetRule.captures[1].name, "support.function.duffle.annotation");
assert.equal(offsetRule.captures[2].name, "entity.name.label.duffle.atom");
assert.equal(offsetRule.captures[3].name, "entity.name.label.duffle.atom");
});
test("workspace enables semantic highlighting", () => {
const settings = readJson(path.resolve(ROOT, "..", "settings.json"));
assert.equal(settings["editor.semanticHighlighting.enabled"], true);
});
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"use strict";
const assert = require("node:assert/strict");
const test = require("node:test");
const { buildCallContexts, lex, nearestCall } = require("../lexer");
test("lex skips comments, strings, and character literals", () => {
const source = [
"MipsAtom_(visible)",
"// MipsAtom_(line_comment)",
"const char *s = \"atom_reads(R_Hidden)\";",
"char c = '\\''; /* gte_cmdw_hidden */",
"atom_reads(R_Visible)",
].join("\n");
const result = lex(source);
const identifiers = result.tokens
.filter((token) => token.kind === "identifier")
.map((token) => token.text);
assert.deepEqual(result.errors, []);
assert.equal(identifiers.includes("visible"), true);
assert.equal(identifiers.includes("R_Visible"), true);
assert.equal(identifiers.includes("line_comment"), false);
assert.equal(identifiers.includes("R_Hidden"), false);
assert.equal(identifiers.includes("gte_cmdw_hidden"), false);
});
test("lex reports unterminated block comments without returning comment tokens", () => {
const result = lex("R_Visible /* atom_reads(R_Hidden)");
assert.equal(result.tokens.some((token) => token.text === "R_Visible"), true);
assert.equal(result.tokens.some((token) => token.text === "R_Hidden"), false);
assert.deepEqual(result.errors.map((error) => error.kind), ["unterminated-block-comment"]);
});
test("line comments stop at CRLF boundaries", () => {
const result = lex("// atom_reads(R_Hidden)\r\natom_reads(R_Visible)\r\n");
const identifiers = result.tokens
.filter((token) => token.kind === "identifier")
.map((token) => token.text);
assert.equal(identifiers.includes("R_Hidden"), false);
assert.equal(identifiers.includes("R_Visible"), true);
});
test("balanced contexts retain multiline nesting and argument indexes", () => {
const source = [
"atom_info(",
"\tatom_phase(cube_g4),",
"\tatom_reads(R_A, nested(R_B, R_C)),",
"\tatom_writes(R_D)",
")",
].join("\n");
const lexical = lex(source);
const balanced = buildCallContexts(lexical.tokens);
const byText = new Map();
lexical.tokens.forEach((token, index) => {
if (token.kind === "identifier") byText.set(token.text, index);
});
assert.equal(nearestCall(balanced.contexts, byText.get("cube_g4")).callee, "atom_phase");
assert.equal(nearestCall(balanced.contexts, byText.get("R_A")).callee, "atom_reads");
assert.equal(nearestCall(balanced.contexts, byText.get("R_A")).argIndex, 0);
assert.equal(nearestCall(balanced.contexts, byText.get("R_C")).callee, "nested");
assert.equal(nearestCall(balanced.contexts, byText.get("R_D")).callee, "atom_writes");
assert.deepEqual(balanced.errors, []);
});
test("balanced contexts report unmatched parentheses", () => {
const lexical = lex("atom_reads(R_A");
const balanced = buildCallContexts(lexical.tokens);
assert.deepEqual(balanced.errors.map((error) => error.kind), ["unmatched-open-paren"]);
});
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"use strict";
const assert = require("node:assert/strict");
const test = require("node:test");
const {
createIndex,
domainFromPath,
mergeIndexes,
scanSource,
} = require("../source-index");
test("scanSource discovers current atom and component forms", () => {
const source = [
"MipsAtom_(cube_g4_face) atom_info(atom_phase(cube_g4), atom_reads(R_PrimCursor)) { mac_yield() };",
"MipsAtomComp_(ac_load_pair) { load_word(R_T0, R_T1, 0) };",
"internal MipsAtom* normalize_proc(AtomArena_R aa) MipsAtom_Proc_(aa, { mac_yield() })",
"FI_ void ac_store_pair(MipsAtomBuilder_R ab) atom_dbg_skip MipsAtomComp_Proc_(ab, { store_word(R_T0, R_T1, 0) })",
].join("\n");
const result = scanSource(source, "C:/projects/Pikuma/ps1/code/duffle/mips.atom.c");
assert.equal(result.index.atoms.has("cube_g4_face"), true);
assert.equal(result.index.atoms.has("normalize"), true);
assert.equal(result.index.components.has("ac_load_pair"), true);
assert.equal(result.index.components.has("ac_store_pair"), true);
assert.equal(result.index.componentAliases.has("mac_load_pair"), true);
assert.equal(result.index.componentAliases.has("mac_store_pair"), true);
assert.equal(result.index.macros.get("mac_store_pair"), "component");
assert.equal(result.index.componentCallees.get("mac_store_pair").includes("store_word"), true);
assert.equal(result.index.phases.has("cube_g4"), true);
assert.equal(result.index.registers.get("R_PrimCursor"), "gpr");
assert.deepEqual(result.errors, []);
});
test("scanSource discovers binds, labels, registers, typedefs, and macro domains", () => {
const source = [
"typedef Struct_(Binds_CubeTri) { U4 PrimCursor; };",
"typedef Enum_(U4, PadStatus) { PadStatus_Ok };",
"typedef U4 const MipsCode;",
"enum { R_PrimCursor = R_T7 atom_reg, C2_Custom = 12, gte_cr_Custom = 13 };",
"#define load_word(rt, base, off) enc_i(rt, base, off)",
"atom_bind(Binds_CubeTri)",
"atom_label(exit)",
"atom_offset(entry, exit)",
].join("\n");
const result = scanSource(source, "C:/projects/Pikuma/ps1/code/duffle/mips.h");
assert.equal(result.index.bindTypes.has("Binds_CubeTri"), true);
assert.equal(result.index.types.has("PadStatus"), true);
assert.equal(result.index.types.has("MipsCode"), true);
assert.equal(result.index.registers.get("R_PrimCursor"), "gpr");
assert.equal(result.index.registers.get("C2_Custom"), "cop2");
assert.equal(result.index.registers.get("gte_cr_Custom"), "cop2");
assert.equal(result.index.macros.get("load_word"), "cpu");
assert.equal(result.index.labels.has("entry"), true);
assert.equal(result.index.labels.has("exit"), true);
});
test("domainFromPath uses the declaration file rather than parent directory names", () => {
assert.equal(domainFromPath("C:/x/code/hello_gte/hello_gte.atom.c"), null);
assert.equal(domainFromPath("C:/x/code/duffle/mips.h"), "cpu");
assert.equal(domainFromPath("C:/x/code/duffle/gte.h"), "gte");
assert.equal(domainFromPath("C:/x/code/duffle/gp.h"), "gpu");
});
test("component aliases inherit the domain of the instructions they emit", () => {
const headers = mergeIndexes(
scanSource("#define load_word(a,b,c) 1\n#define store_word(a,b,c) 1\n#define shift_aright_var(a,b,c) 1\n#define jump_reg(rd) 1\n", "C:/x/code/duffle/mips.h").index,
scanSource("#define gte_sw(rt, base, off) 1\n", "C:/x/code/duffle/gte.h").index
);
const math = scanSource(
[
"MipsAtomComp_(ac_load_v3s4) { load_word(R_T0, R_T1, 0) };",
"#define mac_load_p3s4 mac_load_v3s4",
].join("\n"),
"C:/x/code/duffle/math.atom.c"
);
const shift = scanSource(
"MipsAtomComp_(ac_shift_aright_var_v3_self) { shift_aright_var(R_T0, R_T0, R_T1) };",
"C:/x/code/duffle/gte.atom.c"
);
const gte = scanSource(
"MipsAtomComp_(ac_gte_store_f3) { gte_sw(C2_SXY0, R_T0, 0) };",
"C:/x/code/duffle/gte.atom.c"
);
const yieldAtom = scanSource(
"MipsAtomComp_(ac_yield) { load_word(R_AtomJmp, R_TapePtr, 0), jump_reg(R_AtomJmp), nop };",
"C:/x/code/duffle/lottes_tape.h"
);
const merged = mergeIndexes(headers, math.index, shift.index, gte.index, yieldAtom.index);
assert.equal(merged.macros.get("mac_load_v3s4"), "cpu");
assert.equal(merged.macros.get("mac_load_p3s4"), "cpu");
assert.equal(merged.macros.get("mac_shift_aright_var_v3_self"), "cpu");
assert.equal(merged.macros.get("mac_gte_store_f3"), "gte");
assert.equal(merged.macros.get("mac_yield"), "control");
});
test("scanSource tags utility header defines as utility, not a hardware domain", () => {
const source = [
"#define assert(cond) ((void)(cond))",
"#define stringify(name) #name",
"#define u4_hi(imm) ((imm) >> 16)",
].join("\n");
const result = scanSource(source, "C:/projects/Pikuma/ps1/code/duffle/dsl.h");
assert.equal(result.index.macros.get("assert"), "utility");
assert.equal(result.index.macros.get("stringify"), "utility");
assert.equal(result.index.macros.get("u4_hi"), "utility");
});
test("mergeIndexes prefers a hardware domain over a later utility define", () => {
const left = createIndex();
left.macros.set("sub_s", "utility");
const right = createIndex();
right.macros.set("sub_s", "cpu");
assert.equal(mergeIndexes(left, right).macros.get("sub_s"), "cpu");
assert.equal(mergeIndexes(right, left).macros.get("sub_s"), "cpu");
});
test("mergeIndexes preserves domain-specific aliases", () => {
const left = createIndex();
left.macros.set("load_word", "cpu");
const right = createIndex();
right.componentAliases.add("mac_gte_store");
right.macros.set("mac_gte_store", "gte");
const merged = mergeIndexes(left, right);
assert.equal(merged.macros.get("load_word"), "cpu");
assert.equal(merged.macros.get("mac_gte_store"), "gte");
});
+14 -21
View File
@@ -1,24 +1,17 @@
This is free and unencumbered software released into the public domain.
Copyright (C) 2026 Edward R. Gonzalez
Anyone is free to copy, modify, publish, use, compile, sell, or
distribute this software, either in source code form or as a compiled
binary, for any purpose, commercial or non-commercial, and by any
means.
This software is provided 'as-is', without any express or implied
warranty. In no event will the authors be held liable for any damages
arising from the use of this software.
In jurisdictions that recognize copyright laws, the author or authors
of this software dedicate any and all copyright interest in the
software to the public domain. We make this dedication for the benefit
of the public at large and to the detriment of our heirs and
successors. We intend this dedication to be an overt act of
relinquishment in perpetuity of all present and future rights to this
software under copyright law.
Permission is granted to anyone to use this software for any purpose,
including commercial applications, and to alter it and redistribute it
freely, subject to the following restrictions:
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND,
EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF
MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT.
IN NO EVENT SHALL THE AUTHORS BE LIABLE FOR ANY CLAIM, DAMAGES OR
OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE,
ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR
OTHER DEALINGS IN THE SOFTWARE.
For more information, please refer to <https://unlicense.org>
1. The origin of this software must not be misrepresented; you must not
claim that you wrote the original software. If you use this software
in a product, an acknowledgment in the product documentation would be
appreciated but is not required.
2. Altered source versions must be plainly marked as such, and must not be
misrepresented as being the original software.
3. This notice may not be removed or altered from any source distribution.
+15
View File
@@ -0,0 +1,15 @@
#ifdef INTELLISENSE_DIRECTIVES
# pragma once
#endif
enum {
bios_init_pad_2 = 0x12,
bios_start_pad_2 = 0x13,
bios_flushcache = 0x44,
bios_table_addr = 0xA0,
bios_btable_addr = 0xB0,
};
enum {
bios_pad_buffer_size = 0x22,
};
+181
View File
@@ -0,0 +1,181 @@
/*
* dsl.atom.h
* ============================================================================
*
* ATOM DSL: Annotation layer for tape atoms (lottes_tape.h).
* The metaprogram (scripts/passes/annotation.lua) reads source-as-written and validates:
* - atom_info(...) shape: up to three sub-calls (atom_bind(Binds_X), atom_reads(...), atom_writes(...)) in any order and are optional.
* - rbind atoms (atom_info(..., atom_bind(Binds_X), ...)) reference a real Binds_* struct declaration.
* - atom word-counts in word_counts.metadata.h match the body's actual .word count.
*
* Pure macro anntation.
* ---------------
* Don't want to constraint the macro usage to some attribute placment constraint, etc, don't want ot dela with the compiler.
* atom_info, atom_bind, atom_reads, atom_writes, atom_label, atom_dbg_skip each expand to a C comment or to nothing
* (C preprocessor strips them to whitespace).
*
* ============================================================================
* Usage:
* MipsAtom_(cube_tri) atom_info(
* atom_reads (R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase)
* , atom_writes(R_PrimCursor, R_FaceCursor)
* ){
* atom_label(culling),
* // ... atom body ...
* atom_offset(culling, bounds_chk) // branch target, validated
* // ... atom body ...
* atom_label(bounds_chk),
* };
*
*
* Data Binding pattern -- atom_bind as a sub-call of atom_info
*
* // Wave-context register layout (declarative):
* typedef Struct_(Binds_TrackFaceBatch) {
* U4 PrimCursor;
* U4 FaceCursor;
* U4 VertBase;
* U4 OtBase;
* };
* MipsAtom_(rbind_track_face_batch) atom_info(
* atom_bind(Binds_TrackFaceBatch)
* , atom_writes(R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase)
* ){ ... };
*
* Annotation rules
* ----------------
* 1. atom_info(...) is OPTIONAL. Atoms without atom_info are silently skipped by the metaprogram.
* 2. If present, atom_info takes up to three sub-calls, all order-independent within the arg list:
* - atom_bind(Binds_X)
* - atom_reads(...)
* - atom_writes(...)
* 3. atom_bind(Binds_X): metaprogram cross-references Binds_X against the `typedef struct Binds_X { ... } Binds_X;` declaration.
* 4. atom_reads(...) and atom_writes(...): Used to to check if registers are used correctly in macros: R_PrimCursor / R_FaceCursor / R_VertBase / R_OtBase.
* 5. atom_label(name: Utilize with atom_offset as a target location.
* 6. atom_offset(F, T): Resolved by gen/atom_offsets.h, generated from the atom_label markers. Calculated during the offset pass of the lua metaprogram.
*/
#ifdef INTELLISENSE_DIRECTIVES
#pragma once
#endif
/* ============================================================================
* atom_reads(...) / atom_writes(...)
*
* Used during the static analysis pass of the metaprogram to do
* ============================================================================*/
#define atom_reads(...) (__VA_ARGS__)
#define atom_writes(...) (__VA_ARGS__)
/* ----------------------------------------------------------------------------
* atom_reg (per-enum opt-in marker for the DWARF register-alias registry)
*
* Bare `atom_reg` token adjacent to an enum entry that alias as debug-visible for scan_source's register_alias_registry.
* Lua scanner reads the bare token.
* ----------------------------------------------------------------------------*/
#define atom_reg /* atom_reg: opt the preceding enum entry into the DWARF registry */
// ----------------------------------------------------------------------------
// atom_auto_reg(atom, sym) — per-atom auto-allocated GPR binding.
// enum {
// atom_auto_reg(cube_g4_face, R_Fwdx), // expands to: R_Fwdx = R_Fwdx_Code /* atom_auto_reg: cube_g4_face */,
// atom_auto_reg(cube_g4_face, R_Eye_z) atom_type(S4), // atom_type chains after
// };
// (The macro IS the entire enum entry — no separate LHS=RHS. The `atom` scope is
// preserved in a trailing C-comment on the RHS so the Lua scanner can recover
// it after preprocessing strips the macro form. R_<Sym>_Code is resolved from gen/auto_reg.h which the .c file #include's before the enum declaration.)
#define atom_auto_reg(atom, sym) sym = sym ## _Code /* atom_auto_reg: atom */
// ----------------------------------------------------------------------------
// phase_auto_reg(phase, sym) — per-phase auto-allocated GPR binding.
// enum {
// phase_auto_reg(cube_g4, R_Temp0), // expands to: R_Temp0 = R_Temp0_Code /* phase_auto_reg: cube_g4 */,
// phase_auto_reg(cube_g4, R_Temp1),
// };
// (Same macro-as-enum-entry form as atom_auto_reg above; the `phase` scope is preserved in a trailing C-comment on the RHS for the Lua scanner to recover.)
#define phase_auto_reg(phase, sym) sym = sym ## _Code /* phase_auto_reg: phase */
/* ============================================================================
* atom_info :
* MipsAtom_(cube_tri) atom_info(
* atom_reads (R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase)
* , atom_writes(R_PrimCursor, R_FaceCursor)
* ){ ... };
*
* - atom_bind(Binds_X): metaprogram cross-references Binds_X against the `typedef struct Binds_X { ... } Binds_X;` declaration.
* - atom_reads(...): comma-list of registers
* - atom_writes(...): comma-list of registers
* ============================================================================*/
#define atom_info(...) /* atom_info(__VA_ARGS__) */
/* ----------------------------------------------------------------------------
* DEBUG SOURCE-STEP MARKER
*
* Place `atom_dbg_skip` (BARE) before a MipsAtom_, MipsAtomComp_, or MipsAtomComp_Proc_.
* The following declaration kind determines whether the marker selects a whole atom or a component inline view.
* The source scanner associates the marker with that declaration; placement diagnostics are handled by the annotation pass.
*
* Example:
* atom_dbg_skip MipsAtom_(tape_exit) { jump_reg(rret_addr), nop };
* atom_dbg_skip MipsAtomComp_(ac_yield) { ... };
* atom_dbg_skip MipsAtomComp_Proc_(ac_format_f3_color, { ... });
* ----------------------------------------------------------------------------*/
#define atom_dbg_skip /* atom_dbg_skip: skip the following atom or component source view */
/* ----------------------------------------------------------------------------
* Typed-view annotations (Registry for DWARF RR_<R_X> chain resolution)
* atom_type(<T>) -- overloaded:
* (a) enum-site default: `R_Foo = R_Tn, atom_reg atom_type(T)`
* Sets the per-alias default typed view in the register_alias_registry.
* Consumed by the DWARF chain step (e) when no per-atom atom_ctx / atom_phase / atom_type callsite provides a stronger resolution.
* (b) callsite override: `atom_reads(R_Foo atom_type(T), ...)` Overrides the per-alias default for THIS atom only.
* Last-write-wins per R_Name; conflict -> error.
* atom_ctx(<atom_name>) -- atom-info sub-call:
* Propagate another atom's atom.rbind.fields (its Binds_* typed fields) into THIS atom's typed-view resolution.
* The named atom must be an rbind atom (have `atom_bind(Binds_X)` in its `atom_info`).
* Used as the escape hatch when atom_phase is not the natural correlation.
* atom_phase(<label>) -- atom-info sub-call:
* Free-form C-identifier label for grouping atoms.
* Within a phase, the FIRST atom in source-order that owns its own atom.rbind provides
* the Binds_* field types used by all other atoms in the same phase.
* The preferred correlation mechanism; atom_ctx is the escape hatch for non-natural cases.
*
* All three expand to C comments
* (the bare-token convention matching `atom_reg` and `atom_dbg_skip`).
* The Lua scanner reads the bare tokens in source-as-written; the C preprocessor strips them.
* ----------------------------------------------------------------------------*/
#define atom_type(T) /* atom_type: associate <T> with the preceding enum entry (enum site) or this register (atom-info site) */
#define atom_ctx(atom_name) /* atom_ctx: propagate <atom_name>'s Binds_* field types into this atom's typed views */
#define atom_phase(label) /* atom_phase: tag this atom with <label> for grouped typed-view resolution */
/* ----------------------------------------------------------------------------
* atom_bind(Binds_X) -- rbind sub-call of atom_info
*
* MipsAtom_(rbind_cube_tri) atom_info(
* atom_bind(Binds_CubeTri)
* , atom_writes(R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase)
* ){ ... };
*
* The Binds_X MUST be a typedef'd type (declared via `typedef struct Binds_X { ... } Binds_X;` somewhere in the source).
* ----------------------------------------------------------------------------*/
#define atom_bind(binds_struct) /* atom_bind(binds_struct) */
#define Binds_(type) (tmpl(Binds,type)) // TODO(Ed): Do we want to use this?
/* ============================================================================
* atom_label / atom_offset — branch target machinery
*
* atom_label(culling) ← nothing in C; anchor only
* ... body ...
* atom_label(bounds_chk) ← another anchor
*
* atom_offset(culling, bounds_chk) ← resolved by gen/offsets.h
*
* The metaprogram generates gen/offsets.h with one #define with the offset value per atom_offset(F, T) call.
* The preprocessor then expands the call to the right immediate value.
*
* If gen/offsets.h is stale (or atom_label(name) is undefined), `atom_offset_F_T` becomes an undefined macro and the C build fails.
* ============================================================================*/
#define atom_offset(F, T) atom_offset_ ## F ## _ ## T
// atom_label is a pure annotation for the metaprogram's offset calculations.
#define atom_label(name) /* atom_label anchor: name */
+92 -37
View File
@@ -3,7 +3,7 @@
# include "assert.h"
#endif
#define offset_of(type, member) cast(U8,__builtin_offsetof(type,member))
#define offset_of(type, member) cast(U8,__builtin_offsetof(type,member)) // Compiler builtin version of O_
#define static_assert _Static_assert
#define typeof __typeof__
#define typeof_ptr(ptr) typeof((ptr)[0])
@@ -28,43 +28,86 @@
#define internal static // internal
#define asm __asm__
#define A_(data) (& data)
#define align_(value) __attribute__((aligned (value))) // for easy alignment
#define align_(value) __attribute__((aligned (value))) // for easy alignment
#define C_(type,data) ((type)(data)) // for enforced precedence
#define expect_(x, y) __builtin_expect(x, y) // so compiler knows the common path
#define cexpr_ __builtin_constant_p
#define I_ internal inline
#define FI_ inline __attribute__((always_inline)) // inline always
#define NI_ internal __attribute__((noinline)) // inline never
#define RO_ __attribute__((section(".rodata"))) // Read only data allocation
#define R_ restrict // pointers are either restricted or volatile and nothing else
#define V_ volatile // pointers are either restricted or volatile and nothing else
#define T_ typeof
#define T_ typeof //
#define T_same(a,b) _Generic((a), typeof((b)): 1, default: 0)
#define r_(ptr) C_(T_(ptr[0])*R_, ptr)
#define v_(ptr) C_(T_(ptr[0])*V_, ptr)
#define tr_(type, ptr) C_(type*R_, ptr)
#define tv_(type, ptr) C_(type*V_, ptr)
#define R_ restrict
#define V_ volatile
#define TypeR_(type) type*restrict type ## _R
#define TypeV_(type) type*volatile type ## _V
#define PtrSet_(type) TypeR_(type); typedef TypeV_(type)
#define TSet_(type) type; typedef PtrSet_(type)
#pragma region Fictional //, used for intiution
#define array_len(a) (U8)(sizeof(a) / sizeof(typeof((a)[0])))
#define array_decl(type, ...) (type[]){__VA_ARGS__}
#define EUB_ restrict // Execute Unit Bound: Data is siloed in the ALU Register File. The Load/Store Unit is bypassed. (Route to Execution Unit. Keep in registers)
#define ISO_ restrict // Isolated Provenance: Alternative to Exu_. Guarantees electrical memory isolation,
// unlocking the compilers ability to safely pack data across multiple parallel SIMD lanes (vectorization).
#define LSU_ volatile // Load/Store Unit Bound: The compiler is forbidden from caching in registers. Forces physical L1 Cache matrix sampling.
#define LIVE_ volatile // Live External Data: Alternative to Lsu_ emphasizing the memory is tapped by an external electrical actor.
#define latch_store /* ~: atomic_store*/ // Blasts voltages from the Store Buffer into the L1 SRAM, physically flipping the cross-coupled inverters to lock the state.
#define pulse_rfo /* ~: atomic_xchg*/ // Broadcasts an electrical RFO (Request For Ownership) pulse across the CPU mesh network to invalidate other L1 caches.
#define tact_acquire /* ~: memory_order_acquire*/ // Clamp. Sends a voltage signal to the instruction decoder to halt the Out-of-Order engine until the load resolves.
#define tact_release /* ~: memory_order_release*/ // Drain. Forces the Store Buffer flip-flops to completely empty into the L1 cache before proceeding.
// -----------------------------------------------------------------------------
// Out-of-Order (OoO) Pipeline Modifiers
// -----------------------------------------------------------------------------
#define ooo_drift_ __ATOMIC_RELAXED // OoO engine allowed to drift
#define ooo_anchor_ __ATOMIC_ACQUIRE // Anchor the Load Queue (halt spec lookahead)
#define ooo_drain_ __ATOMIC_RELEASE // Drain the Store Buffer (force writeback)
#define ooo_weld_ __ATOMIC_SEQ_CST // Weld pipeline (total order bus lock)
// Latch operations with physical queue modifiers
#define latch_load_anchor(ptr) //__atomic_load_n(ptr, ooo_anchor_)
#define latch_store_drain(ptr, val) //__atomic_store_n(ptr, val, ooo_drain_)
#define pulse_xchg_weld(ptr, val) //__atomic_exchange_n(ptr, val, ooo_weld_)
#pragma endreigon Fictional
// R_ (restrict) establishes an "Eigen" or "Proprius" mapping.
// Unlike volatile (V_), which assumes the memory can be changed by anything,
// R_ tells the compiler that this pointer holds the *sole*, private (idios)
// ownership of the memory slice. Writes to this memory are exclusively bound
// to this single symbolic mapping for the duration of the scope, guaranteeing
// zero aliasing.
#define r_(ptr) C_(T_(ptr[0])*R_, ptr) // Constrain pointer to restrict
#define v_(ptr) C_(T_(ptr[0])V_*, ptr) //
#define tr_(type, ptr) C_(type *R_, ptr)
#define tv_(type, ptr) C_(type V_*, ptr)
#define TypeR_(type) type *R_ type ## _R // type *restrict type_R
#define TypeV_(type) type V_* type ## _V // type volatile* type_V
#define PtrSet_(type) TypeR_(type); typedef TypeV_(type)
#define TSet_(type) type; typedef PtrSet_(type)
#define Array_len(a) (U4)(sizeof(a) / sizeof(typeof((a)[0])))
#define Array_decl(type, ...) (type[]){__VA_ARGS__}
#define Array_sym(type,len) A ## len ## _ ## type
#define Array_expand(type,len) type Array_sym(type, len)[len]; typedef PtrSet_(Array_sym(type, len))
#define Array_(type,len) Array_expand(type,len)
#define Bit_(id,b) id = (1 << b), tmpl(id,pos) = b
#define Bitmask_(b) (1u << b)
#define Enum_(underlying_type, symbol) underlying_type TSet_(symbol); enum symbol
#define Proc_(symbol) symbol
#define Relative_(symbol) // Does nothing but annotate that a symbol is associated with another.
#define Struct_(symbol) struct symbol TSet_(symbol); struct symbol
#define Union_(symbol) union symbol TSet_(symbol); union symbol
#define Opt_(proc) Struct_(tmpl(Opt,proc))
#define opt_(symbol, ...) (tmpl(Opt,symbol)){__VA_ARGS__}
#define Ret_(proc) Struct_(tmpl(Ret,proc))
#define ret_(proc) tmpl(Ret,proc) proc
#define Opt_(proc) Struct_(tmpl(Opt,proc))
#define opt_(symbol, ...) (tmpl(Opt,symbol)){__VA_ARGS__}
#define Ret_(proc) Struct_(tmpl(Ret,proc))
#define ret_(proc) tmpl(Ret,proc) proc
// Using Byte-Width convention for the fundamental types.
typedef __UINT8_TYPE__ TSet_(U1);
@@ -84,23 +127,29 @@ typedef __UINT32_TYPE__ TSet_(B4);
#define s2_(value) C_(S2, value)
#define s4_(value) C_(S4, value)
#define u1_r(value) C_(U1*R_, value)
#define u2_r(value) C_(U2*R_, value)
#define u4_r(value) C_(U4*R_, value)
#define u1_v(value) C_(U1*V_, value)
#define u2_v(value) C_(U2*V_, value)
#define u4_v(value) C_(U4*V_, value)
#define u1_r(value) C_(U1 *R_, value)
#define u2_r(value) C_(U2 *R_, value)
#define u4_r(value) C_(U4 *R_, value)
#define u1_v(value) C_(U1 V_*, value)
#define u2_v(value) C_(U2 V_*, value)
#define u4_v(value) C_(U4 V_*, value)
enum { false = 0, true = 1, true_overflow, };
#define u4_lo(value) (u4_(value) & 0xFFFFU)
#define u4_hi(value) (u4_(value) >> (S_(U2) * 8))
typedef void Proc_(VoidFn) (void);
#define kilo(n) (C_(U4, n) << 10)
#define mega(n) (C_(U4, n) << 20)
#define giga(n) (C_(U4, n) << 30)
#define tera(n) (C_(U4, n) << 40)
#define Kilo_(n) (C_(U4, n) << 10)
#define Mega_(n) (C_(U4, n) << 20)
#define Giga_(n) (C_(U4, n) << 30)
#define Tera_(n) (C_(U4, n) << 40)
#define null C_(U4, 0)
#define nullptr C_(void*, 0)
#define O_(type,member) C_(U4,__builtin_offsetof(type,member))
#define O_(type, field) C_(U4, & C_(type*,0)->field)
#define OA_(type, aexpr) C_(U4, & C_(type*,0) aexpr)
#define OT_(field) O_(typeof_ptr(& field), field))
#define S_(data) C_(U4, sizeof(data))
#define sop_1(op,a,b) C_(U1, s1_(a) op s1_(b))
@@ -121,6 +170,8 @@ def_signed_ops(le, <=)
#undef def_signed_ops
#undef def_signed_op
// Unused, we arent' doing any C-like asm since we have the asm dsl. We'll keep the non-generics if we somehow do.
#if 0
#define def_generic_sop(op, a, ...) _Generic((a), U1: op ## _s1, U2: op ## _s2, U4: op ## _s4) (a, __VA_ARGS__)
#define add_s(a,b) def_generic_sop(add,a,b)
#define sub_s(a,b) def_generic_sop(sub,a,b)
@@ -130,13 +181,12 @@ def_signed_ops(le, <=)
#define ge_s(a,b) def_generic_sop(ge, a,b)
#define le_s(a,b) def_generic_sop(le, a,b)
#undef def_generic_sop
#define o_(field) offset_of(typeof_ptr(& field), filed))
#endif
#define alignas _Alignas
#define alignof _Alignof
#define byte_pad(amount, ...) B1 glue(_PAD_, __VA_ARGS__) [amount]
#define pcast(type, data) (C_(type*, & (data)) [0])
#define C_ptr(type, data) (C_(type*, & (data)) [0])
#define dbg_args(...) __VA_ARGS__
@@ -151,6 +201,8 @@ def_signed_ops(le, <=)
#define defer_info(type,expr, ...) for(type info= {__VA_ARGS__}; info.once!=1;++info.once,(expr)) // Defer with tracked state
#define do_while(cond) for (U8 once=0; once!=1 || (cond); ++once)
#define Jmp_nZero_(cond,label) if (cond) goto label;
#pragma endregion Control Flow & Iteration
#define span_iter(type, iter, m_begin, op, m_end) ( \
@@ -167,13 +219,16 @@ def_signed_ops(le, <=)
typedef Span_(S4);
typedef Span_(U4);
#if 0
#pragma region Debug
#define debug_trap() __builtin_debugtrap()
#define debug_trap() __builtin_trap()
#if BUILD_DEBUG
IA_ void assert(U8 cond) { if(cond){return;} else{debug_trap(); ms_exit_process(1);} }
#define assert(cond) if(cond == false){debug_trap();}
#else
#define assert(cond)
# ifndef assert
# include <assert.h>
# endif
#endif
#pragma endregion Debug
#endif
#define GCC_OPTIMIZATION_DISABLE _Pragma("GCC push_options") _Pragma("GCC optimize(\"O0\")")
#define GCC_OPTIMIZATION_ENABLE _Pragma("GCC pop_options")
+415 -228
View File
@@ -4,11 +4,119 @@
#endif
/* ============================================================================
* INLINE ASSEMBLY BLOB DISPATCHER (UP TO 99 INSTRUCTIONS)
* ============================================================================ */
* GCC INLINE ASM STATEMENT DSL
* ============================================================================
* A complete GCC inline-asm statement has up to 5 sections separated by `:`
* asm volatile ( "code template" : OUTPUTS : INPUTS : CLOBBERS : GOTO_LABELS );
*/
// Below are used purely for annotation.
#define asm_out // OUTPUTS section /* cannot be used with asm_words */
#define asm_in // INPUTS section /* can be appended onto after asm_words for pinned registers */
#define asm_clobber // CLOBBERS section
// Pinned Registers after asm_words list (Semantic marker)
// We aren't starting a new offical section, its just a continuation of the input section.
// asm_words(...) // ".words " code word ids... : : code_words...
// asm_rpins, r_use(r0), ... // , pinned registers...
// asm_clobber:
#define asm_rpins
/* --- Logic & Control Flow --- */
/* Annotation for the 'Goto' section of 'asm volatile goto'.
* Allows you to jump from assembly directly to a C label. */
#define asm_goto // Annotate the last `:` in an asm expression.
/* `asm_words(...)` dispatches into `_INL_<count>` to emit up to 99 encoded
* instruction words. This is the "compiled-instruction" form of `asm_code`.
*
* Result is a 2-colon body WITHOUT the final clobber section:
* ".word %c0, %c1, ..." : --- empty --- : "i"(p0), "i"(p1), ...
* |------ code --------| |--- outputs ---| |------- inputs -------|
*
* Use it inside `asm volatile( ... )` like so:
* asm volatile(
* asm_words(w0, w1, w3)
* asm_clobber: clobbers
* )
* which expands to:
* asm volatile(".word %c0, %c1, %c2"
* asm_out: // empty outputs
* asm_in: "i"(w0), "i"(w1), "i"(w2)
* asm_clobber: "$2", "$8", ...
* )
*/
#define asm_words(...) m_expand(glue(GCC_ASM_INL_, GCC_ASM_COUNT_ARGS(__VA_ARGS__))(__VA_ARGS__))
// Very nasty macro expansion. See the Cruft pragma region after all the DSL defines
/* reg_str(n) — Stringify an integer register id into the GCC asm string form (e.g. 12 → "$12").
* Use this anywhere GCC's parser expects a literal string identifying a register: clobber lists,
* asm templates, etc. The two-level macro is the standard preprocessor idiom for forcing one level of expansion before stringify —
* without it, `#n` would stringify the macro name `R_T4` to `"R_T4"` instead of expanding `R_T4` to its value first.
*
* For declaring a register variable bound to a specific GPR, use the `rgcc(n)` bundle from gcc_asm.h instead —
* it adds the `__asm__()` qualifier around the string.
*
* register V3_S2* p0 __asm__(reg_str(R_T4)) = ...; // verbose
* register V3_S2* p0 rgcc(R_T4) = ...; // bundled
*
* asm volatile("nop" : : : reg_str(R_RA), "memory"); // clobber list */
#define rlit_stringfy(n) "$" stringify(n)
#define rlit_tmpl(n) rlit_stringfy(tmpl(n,Code))
#define rlit(n) rlit_tmpl(n)
/* ------------------------------------------------------------------------ *
* rgcc(n) — GCC-specific bundle for register-variable declarations.
*
* Produces `__asm__(reg_str(tmpl(n, MipsCode)))` at expansion time.
* The `tmpl(n, MipsCode)` indirection derives the preprocessor-visible `_Code`
* form from the enum name (which the preprocessor can't expand on its own).
* So a call is: register V3_S2* p rgcc(R_T4) = verts[0].ptr;
* expands (via tmpl) to: register V3_S2* p __asm__(rlit(R_T4_Code)) = verts[0].ptr;
* which (via reg_str) becomes: register V3_S2* p __asm__("$12") = verts[0].ptr;
*
* Why bundle the `__asm__()` wrapper?
* - The integer R_T4 (= 12, via R_T4_Code) already indicates the register.
* - The string "$12" is derived from it via reg_str, so they cannot drift apart.
* - Spelling `__asm__(reg_str(R_T4_Code))` at every call site is noise.
*
* tmpl defined in dsl.h (token-paste glue).
* rgcc define here (gcc_asm.h) because the `__asm__` keyword is GCC-specific.
* Anyone porting to a different compiler's asm dialect overrides rgcc,
* and the integer→string derivation in rlit can be retargeted in one place.
*
* For clobber lists and asm-template strings, use the bare `rlit(R_T4_Code)`.
* ------------------------------------------------------------------------ */
#define rgcc(n) __asm__(rlit(n))
/* rgcc_ref(n) — GCC operand-reference form "%N". Not currently used by the placeholder-pun macros
* (the .word bodies are fully baked at compile time and have no runtime operand references),
* but kept here for completeness in case a future asm template needs to refer to a runtime input by position.
* Mirror of rgcc but produces "%N" instead of "$N". */
#define rgcc_ref_(n) "%" #n
#define rgcc_ref(n) rgcc_ref_(n)
/* --- Register Constraint Aliases (for Pinned Variables) --- */
#define r_use(var) "r"(var) /* General Purpose Register */
#define r_set(var) "=r"(var) /* Write-only output */
#define r_mod(var) "+r"(var) /* Read-write */
#define r_imm(val) "i"(val) /* Immediate / Constant */
/* Memory: Forces GCC to sync the variable to RAM before the asm runs.
* Essential for DMA buffers or when the hardware reads from memory. */
#define r_mem(var) "m"(var)
#define r_imm(val) "i"(val) /* Immediate: Forces a compile-time constant. */
#define r_fpu(var) "f"(var) /* FPU (PS2/MIPS III/IV): Use for COP1 floating point registers. */
#define r_acc(var) "a"(var) /* Accumulator: Use for HI/LO register results (multiplication/division). */
#define clb_mem_drain "memory"
// C Preprocessor Iterative Expansion Jank
#pragma region Cruft
/* --- 1. The Argument Counter --- */
#define _ASM_COUNT_ARGS_IMPL( \
#define GCC_ASM_COUNT_ARGS_IMPL( \
_1, _2, _3, _4, _5, _6, _7, _8, _9, _10, \
_11,_12,_13,_14,_15,_16,_17,_18,_19,_20, \
_21,_22,_23,_24,_25,_26,_27,_28,_29,_30, \
@@ -20,7 +128,7 @@
_81,_82,_83,_84,_85,_86,_87,_88,_89,_90, \
_91,_92,_93,_94,_95,_96,_97,_98,_99, N, ...) N
#define _ASM_COUNT_ARGS(...) m_expand(_ASM_COUNT_ARGS_IMPL(__VA_ARGS__, \
#define GCC_ASM_COUNT_ARGS(...) m_expand(GCC_ASM_COUNT_ARGS_IMPL(__VA_ARGS__, \
99, 98, 97, 96, 95, 94, 93, 92, 91, 90, \
89, 88, 87, 86, 85, 84, 83, 82, 81, 80, \
79, 78, 77, 76, 75, 74, 73, 72, 71, 70, \
@@ -32,231 +140,310 @@
19, 18, 17, 16, 15, 14, 13, 12, 11, 10, \
9, 8, 7, 6, 5, 4, 3, 2, 1, 0))
/* --- 2. String Concatenation Helpers --- */
#define _STR1 "%c0"
#define _STR2 _STR1 ", %c1"
#define _STR3 _STR2 ", %c2"
#define _STR4 _STR3 ", %c3"
#define _STR5 _STR4 ", %c4"
#define _STR6 _STR5 ", %c5"
#define _STR7 _STR6 ", %c6"
#define _STR8 _STR7 ", %c7"
#define _STR9 _STR8 ", %c8"
#define _STR10 _STR9 ", %c9"
#define _STR11 _STR10 ", %c10"
#define _STR12 _STR11 ", %c11"
#define _STR13 _STR12 ", %c12"
#define _STR14 _STR13 ", %c13"
#define _STR15 _STR14 ", %c14"
#define _STR16 _STR15 ", %c15"
#define _STR17 _STR16 ", %c16"
#define _STR18 _STR17 ", %c17"
#define _STR19 _STR18 ", %c18"
#define _STR20 _STR19 ", %c19"
#define _STR21 _STR20 ", %c20"
#define _STR22 _STR21 ", %c21"
#define _STR23 _STR22 ", %c22"
#define _STR24 _STR23 ", %c23"
#define _STR25 _STR24 ", %c24"
#define _STR26 _STR25 ", %c25"
#define _STR27 _STR26 ", %c26"
#define _STR28 _STR27 ", %c27"
#define _STR29 _STR28 ", %c28"
#define _STR30 _STR29 ", %c29"
#define _STR31 _STR30 ", %c30"
#define _STR32 _STR31 ", %c31"
#define _STR33 _STR32 ", %c32"
#define _STR34 _STR33 ", %c33"
#define _STR35 _STR34 ", %c34"
#define _STR36 _STR35 ", %c35"
#define _STR37 _STR36 ", %c36"
#define _STR38 _STR37 ", %c37"
#define _STR39 _STR38 ", %c38"
#define _STR40 _STR39 ", %c39"
#define _STR41 _STR40 ", %c40"
#define _STR42 _STR41 ", %c41"
#define _STR43 _STR42 ", %c42"
#define _STR44 _STR43 ", %c43"
#define _STR45 _STR44 ", %c44"
#define _STR46 _STR45 ", %c45"
#define _STR47 _STR46 ", %c46"
#define _STR48 _STR47 ", %c47"
#define _STR49 _STR48 ", %c48"
#define _STR50 _STR49 ", %c49"
#define _STR51 _STR50 ", %c50"
#define _STR52 _STR51 ", %c51"
#define _STR53 _STR52 ", %c52"
#define _STR54 _STR53 ", %c53"
#define _STR55 _STR54 ", %c54"
#define _STR56 _STR55 ", %c55"
#define _STR57 _STR56 ", %c56"
#define _STR58 _STR57 ", %c57"
#define _STR59 _STR58 ", %c58"
#define _STR60 _STR59 ", %c59"
#define _STR61 _STR60 ", %c60"
#define _STR62 _STR61 ", %c61"
#define _STR63 _STR62 ", %c62"
#define _STR64 _STR63 ", %c63"
#define _STR65 _STR64 ", %c64"
#define _STR66 _STR65 ", %c65"
#define _STR67 _STR66 ", %c66"
#define _STR68 _STR67 ", %c67"
#define _STR69 _STR68 ", %c68"
#define _STR70 _STR69 ", %c69"
#define _STR71 _STR70 ", %c70"
#define _STR72 _STR71 ", %c71"
#define _STR73 _STR72 ", %c72"
#define _STR74 _STR73 ", %c73"
#define _STR75 _STR74 ", %c74"
#define _STR76 _STR75 ", %c75"
#define _STR77 _STR76 ", %c76"
#define _STR78 _STR77 ", %c77"
#define _STR79 _STR78 ", %c78"
#define _STR80 _STR79 ", %c79"
#define _STR81 _STR80 ", %c80"
#define _STR82 _STR81 ", %c81"
#define _STR83 _STR82 ", %c82"
#define _STR84 _STR83 ", %c83"
#define _STR85 _STR84 ", %c84"
#define _STR86 _STR85 ", %c85"
#define _STR87 _STR86 ", %c86"
#define _STR88 _STR87 ", %c87"
#define _STR89 _STR88 ", %c88"
#define _STR90 _STR89 ", %c89"
#define _STR91 _STR90 ", %c90"
#define _STR92 _STR91 ", %c91"
#define _STR93 _STR92 ", %c92"
#define _STR94 _STR93 ", %c93"
#define _STR95 _STR94 ", %c94"
#define _STR96 _STR95 ", %c95"
#define _STR97 _STR96 ", %c96"
#define _STR98 _STR97 ", %c97"
#define _STR99 _STR98 ", %c98"
/* --- 2. String Concatenation Helpers --- *
* NOTE: we use `%0`, `%1`, ... not `%c0`, `%c1`, ... because GCC's asm-parser rejects `%cN` in this position with "invalid use of '%c'".
* The `%cN` form is for printing *character* constants; for arbitrary integer immediates (the only kind `"i"(...)` produces),
* the plain `%N` form is the right one. Both expand to the bare immediate.
*/
#define GCC_ASM_W1 "%0"
#define GCC_ASM_W2 GCC_ASM_W1 ", %1"
#define GCC_ASM_W3 GCC_ASM_W2 ", %2"
#define GCC_ASM_W4 GCC_ASM_W3 ", %3"
#define GCC_ASM_W5 GCC_ASM_W4 ", %4"
#define GCC_ASM_W6 GCC_ASM_W5 ", %5"
#define GCC_ASM_W7 GCC_ASM_W6 ", %6"
#define GCC_ASM_W8 GCC_ASM_W7 ", %7"
#define GCC_ASM_W9 GCC_ASM_W8 ", %8"
#define GCC_ASM_W10 GCC_ASM_W9 ", %9"
#define GCC_ASM_W11 GCC_ASM_W10 ", %10"
#define GCC_ASM_W12 GCC_ASM_W11 ", %11"
#define GCC_ASM_W13 GCC_ASM_W12 ", %12"
#define GCC_ASM_W14 GCC_ASM_W13 ", %13"
#define GCC_ASM_W15 GCC_ASM_W14 ", %14"
#define GCC_ASM_W16 GCC_ASM_W15 ", %15"
#define GCC_ASM_W17 GCC_ASM_W16 ", %16"
#define GCC_ASM_W18 GCC_ASM_W17 ", %17"
#define GCC_ASM_W19 GCC_ASM_W18 ", %18"
#define GCC_ASM_W20 GCC_ASM_W19 ", %19"
#define GCC_ASM_W21 GCC_ASM_W20 ", %20"
#define GCC_ASM_W22 GCC_ASM_W21 ", %21"
#define GCC_ASM_W23 GCC_ASM_W22 ", %22"
#define GCC_ASM_W24 GCC_ASM_W23 ", %23"
#define GCC_ASM_W25 GCC_ASM_W24 ", %24"
#define GCC_ASM_W26 GCC_ASM_W25 ", %25"
#define GCC_ASM_W27 GCC_ASM_W26 ", %26"
#define GCC_ASM_W28 GCC_ASM_W27 ", %27"
#define GCC_ASM_W29 GCC_ASM_W28 ", %28"
#define GCC_ASM_W30 GCC_ASM_W29 ", %29"
#define GCC_ASM_W31 GCC_ASM_W30 ", %30"
#define GCC_ASM_W32 GCC_ASM_W31 ", %31"
#define GCC_ASM_W33 GCC_ASM_W32 ", %32"
#define GCC_ASM_W34 GCC_ASM_W33 ", %33"
#define GCC_ASM_W35 GCC_ASM_W34 ", %34"
#define GCC_ASM_W36 GCC_ASM_W35 ", %35"
#define GCC_ASM_W37 GCC_ASM_W36 ", %36"
#define GCC_ASM_W38 GCC_ASM_W37 ", %37"
#define GCC_ASM_W39 GCC_ASM_W38 ", %38"
#define GCC_ASM_W40 GCC_ASM_W39 ", %39"
#define GCC_ASM_W41 GCC_ASM_W40 ", %40"
#define GCC_ASM_W42 GCC_ASM_W41 ", %41"
#define GCC_ASM_W43 GCC_ASM_W42 ", %42"
#define GCC_ASM_W44 GCC_ASM_W43 ", %43"
#define GCC_ASM_W45 GCC_ASM_W44 ", %44"
#define GCC_ASM_W46 GCC_ASM_W45 ", %45"
#define GCC_ASM_W47 GCC_ASM_W46 ", %46"
#define GCC_ASM_W48 GCC_ASM_W47 ", %47"
#define GCC_ASM_W49 GCC_ASM_W48 ", %48"
#define GCC_ASM_W50 GCC_ASM_W49 ", %49"
#define GCC_ASM_W51 GCC_ASM_W50 ", %50"
#define GCC_ASM_W52 GCC_ASM_W51 ", %51"
#define GCC_ASM_W53 GCC_ASM_W52 ", %52"
#define GCC_ASM_W54 GCC_ASM_W53 ", %53"
#define GCC_ASM_W55 GCC_ASM_W54 ", %54"
#define GCC_ASM_W56 GCC_ASM_W55 ", %55"
#define GCC_ASM_W57 GCC_ASM_W56 ", %56"
#define GCC_ASM_W58 GCC_ASM_W57 ", %57"
#define GCC_ASM_W59 GCC_ASM_W58 ", %58"
#define GCC_ASM_W60 GCC_ASM_W59 ", %59"
#define GCC_ASM_W61 GCC_ASM_W60 ", %60"
#define GCC_ASM_W62 GCC_ASM_W61 ", %61"
#define GCC_ASM_W63 GCC_ASM_W62 ", %62"
#define GCC_ASM_W64 GCC_ASM_W63 ", %63"
#define GCC_ASM_W65 GCC_ASM_W64 ", %64"
#define GCC_ASM_W66 GCC_ASM_W65 ", %65"
#define GCC_ASM_W67 GCC_ASM_W66 ", %66"
#define GCC_ASM_W68 GCC_ASM_W67 ", %67"
#define GCC_ASM_W69 GCC_ASM_W68 ", %68"
#define GCC_ASM_W70 GCC_ASM_W69 ", %69"
#define GCC_ASM_W71 GCC_ASM_W70 ", %70"
#define GCC_ASM_W72 GCC_ASM_W71 ", %71"
#define GCC_ASM_W73 GCC_ASM_W72 ", %72"
#define GCC_ASM_W74 GCC_ASM_W73 ", %73"
#define GCC_ASM_W75 GCC_ASM_W74 ", %74"
#define GCC_ASM_W76 GCC_ASM_W75 ", %75"
#define GCC_ASM_W77 GCC_ASM_W76 ", %76"
#define GCC_ASM_W78 GCC_ASM_W77 ", %77"
#define GCC_ASM_W79 GCC_ASM_W78 ", %78"
#define GCC_ASM_W80 GCC_ASM_W79 ", %79"
#define GCC_ASM_W81 GCC_ASM_W80 ", %80"
#define GCC_ASM_W82 GCC_ASM_W81 ", %81"
#define GCC_ASM_W83 GCC_ASM_W82 ", %82"
#define GCC_ASM_W84 GCC_ASM_W83 ", %83"
#define GCC_ASM_W85 GCC_ASM_W84 ", %84"
#define GCC_ASM_W86 GCC_ASM_W85 ", %85"
#define GCC_ASM_W87 GCC_ASM_W86 ", %86"
#define GCC_ASM_W88 GCC_ASM_W87 ", %87"
#define GCC_ASM_W89 GCC_ASM_W88 ", %88"
#define GCC_ASM_W90 GCC_ASM_W89 ", %89"
#define GCC_ASM_W91 GCC_ASM_W90 ", %90"
#define GCC_ASM_W92 GCC_ASM_W91 ", %91"
#define GCC_ASM_W93 GCC_ASM_W92 ", %92"
#define GCC_ASM_W94 GCC_ASM_W93 ", %93"
#define GCC_ASM_W95 GCC_ASM_W94 ", %94"
#define GCC_ASM_W96 GCC_ASM_W95 ", %95"
#define GCC_ASM_W97 GCC_ASM_W96 ", %96"
#define GCC_ASM_W98 GCC_ASM_W97 ", %97"
#define GCC_ASM_W99 GCC_ASM_W98 ", %98"
/* Utilizing cascading operand strings to compress the payload */
#define _OP10 "i"(p0),"i"(p1),"i"(p2),"i"(p3),"i"(p4),"i"(p5),"i"(p6),"i"(p7),"i"(p8),"i"(p9)
#define _OP20 _OP10,"i"(p10),"i"(p11),"i"(p12),"i"(p13),"i"(p14),"i"(p15),"i"(p16),"i"(p17),"i"(p18),"i"(p19)
#define _OP30 _OP20,"i"(p20),"i"(p21),"i"(p22),"i"(p23),"i"(p24),"i"(p25),"i"(p26),"i"(p27),"i"(p28),"i"(p29)
#define _OP40 _OP30,"i"(p30),"i"(p31),"i"(p32),"i"(p33),"i"(p34),"i"(p35),"i"(p36),"i"(p37),"i"(p38),"i"(p39)
#define _OP50 _OP40,"i"(p40),"i"(p41),"i"(p42),"i"(p43),"i"(p44),"i"(p45),"i"(p46),"i"(p47),"i"(p48),"i"(p49)
#define _OP60 _OP50,"i"(p50),"i"(p51),"i"(p52),"i"(p53),"i"(p54),"i"(p55),"i"(p56),"i"(p57),"i"(p58),"i"(p59)
#define _OP70 _OP60,"i"(p60),"i"(p61),"i"(p62),"i"(p63),"i"(p64),"i"(p65),"i"(p66),"i"(p67),"i"(p68),"i"(p69)
#define _OP80 _OP70,"i"(p70),"i"(p71),"i"(p72),"i"(p73),"i"(p74),"i"(p75),"i"(p76),"i"(p77),"i"(p78),"i"(p79)
#define _OP90 _OP80,"i"(p80),"i"(p81),"i"(p82),"i"(p83),"i"(p84),"i"(p85),"i"(p86),"i"(p87),"i"(p88),"i"(p89)
#define GCC_ASM_I1(p0) "i"(p0)
#define GCC_ASM_I2(p0, ...) "i"(p0), GCC_ASM_I1( __VA_ARGS__)
#define GCC_ASM_I3(p0, ...) "i"(p0), GCC_ASM_I2( __VA_ARGS__)
#define GCC_ASM_I4(p0, ...) "i"(p0), GCC_ASM_I3( __VA_ARGS__)
#define GCC_ASM_I5(p0, ...) "i"(p0), GCC_ASM_I4( __VA_ARGS__)
#define GCC_ASM_I6(p0, ...) "i"(p0), GCC_ASM_I5( __VA_ARGS__)
#define GCC_ASM_I7(p0, ...) "i"(p0), GCC_ASM_I6( __VA_ARGS__)
#define GCC_ASM_I8(p0, ...) "i"(p0), GCC_ASM_I7( __VA_ARGS__)
#define GCC_ASM_I9(p0, ...) "i"(p0), GCC_ASM_I8( __VA_ARGS__)
#define GCC_ASM_I10(p0, ...) "i"(p0), GCC_ASM_I9( __VA_ARGS__)
#define GCC_ASM_I11(p0, ...) "i"(p0), GCC_ASM_I10(__VA_ARGS__)
#define GCC_ASM_I12(p0, ...) "i"(p0), GCC_ASM_I11(__VA_ARGS__)
#define GCC_ASM_I13(p0, ...) "i"(p0), GCC_ASM_I12(__VA_ARGS__)
#define GCC_ASM_I14(p0, ...) "i"(p0), GCC_ASM_I13(__VA_ARGS__)
#define GCC_ASM_I15(p0, ...) "i"(p0), GCC_ASM_I14(__VA_ARGS__)
#define GCC_ASM_I16(p0, ...) "i"(p0), GCC_ASM_I15(__VA_ARGS__)
#define GCC_ASM_I17(p0, ...) "i"(p0), GCC_ASM_I16(__VA_ARGS__)
#define GCC_ASM_I18(p0, ...) "i"(p0), GCC_ASM_I17(__VA_ARGS__)
#define GCC_ASM_I19(p0, ...) "i"(p0), GCC_ASM_I18(__VA_ARGS__)
#define GCC_ASM_I20(p0, ...) "i"(p0), GCC_ASM_I19(__VA_ARGS__)
#define GCC_ASM_I21(p0, ...) "i"(p0), GCC_ASM_I20(__VA_ARGS__)
#define GCC_ASM_I22(p0, ...) "i"(p0), GCC_ASM_I21(__VA_ARGS__)
#define GCC_ASM_I23(p0, ...) "i"(p0), GCC_ASM_I22(__VA_ARGS__)
#define GCC_ASM_I24(p0, ...) "i"(p0), GCC_ASM_I23(__VA_ARGS__)
#define GCC_ASM_I25(p0, ...) "i"(p0), GCC_ASM_I24(__VA_ARGS__)
#define GCC_ASM_I26(p0, ...) "i"(p0), GCC_ASM_I25(__VA_ARGS__)
#define GCC_ASM_I27(p0, ...) "i"(p0), GCC_ASM_I26(__VA_ARGS__)
#define GCC_ASM_I28(p0, ...) "i"(p0), GCC_ASM_I27(__VA_ARGS__)
#define GCC_ASM_I29(p0, ...) "i"(p0), GCC_ASM_I28(__VA_ARGS__)
#define GCC_ASM_I30(p0, ...) "i"(p0), GCC_ASM_I29(__VA_ARGS__)
#define GCC_ASM_I31(p0, ...) "i"(p0), GCC_ASM_I30(__VA_ARGS__)
#define GCC_ASM_I32(p0, ...) "i"(p0), GCC_ASM_I31(__VA_ARGS__)
#define GCC_ASM_I33(p0, ...) "i"(p0), GCC_ASM_I32(__VA_ARGS__)
#define GCC_ASM_I34(p0, ...) "i"(p0), GCC_ASM_I33(__VA_ARGS__)
#define GCC_ASM_I35(p0, ...) "i"(p0), GCC_ASM_I34(__VA_ARGS__)
#define GCC_ASM_I36(p0, ...) "i"(p0), GCC_ASM_I35(__VA_ARGS__)
#define GCC_ASM_I37(p0, ...) "i"(p0), GCC_ASM_I36(__VA_ARGS__)
#define GCC_ASM_I38(p0, ...) "i"(p0), GCC_ASM_I37(__VA_ARGS__)
#define GCC_ASM_I39(p0, ...) "i"(p0), GCC_ASM_I38(__VA_ARGS__)
#define GCC_ASM_I40(p0, ...) "i"(p0), GCC_ASM_I39(__VA_ARGS__)
#define GCC_ASM_I41(p0, ...) "i"(p0), GCC_ASM_I40(__VA_ARGS__)
#define GCC_ASM_I42(p0, ...) "i"(p0), GCC_ASM_I41(__VA_ARGS__)
#define GCC_ASM_I43(p0, ...) "i"(p0), GCC_ASM_I42(__VA_ARGS__)
#define GCC_ASM_I44(p0, ...) "i"(p0), GCC_ASM_I43(__VA_ARGS__)
#define GCC_ASM_I45(p0, ...) "i"(p0), GCC_ASM_I44(__VA_ARGS__)
#define GCC_ASM_I46(p0, ...) "i"(p0), GCC_ASM_I45(__VA_ARGS__)
#define GCC_ASM_I47(p0, ...) "i"(p0), GCC_ASM_I46(__VA_ARGS__)
#define GCC_ASM_I48(p0, ...) "i"(p0), GCC_ASM_I47(__VA_ARGS__)
#define GCC_ASM_I49(p0, ...) "i"(p0), GCC_ASM_I48(__VA_ARGS__)
#define GCC_ASM_I50(p0, ...) "i"(p0), GCC_ASM_I49(__VA_ARGS__)
#define GCC_ASM_I51(p0, ...) "i"(p0), GCC_ASM_I50(__VA_ARGS__)
#define GCC_ASM_I52(p0, ...) "i"(p0), GCC_ASM_I51(__VA_ARGS__)
#define GCC_ASM_I53(p0, ...) "i"(p0), GCC_ASM_I52(__VA_ARGS__)
#define GCC_ASM_I54(p0, ...) "i"(p0), GCC_ASM_I53(__VA_ARGS__)
#define GCC_ASM_I55(p0, ...) "i"(p0), GCC_ASM_I54(__VA_ARGS__)
#define GCC_ASM_I56(p0, ...) "i"(p0), GCC_ASM_I55(__VA_ARGS__)
#define GCC_ASM_I57(p0, ...) "i"(p0), GCC_ASM_I56(__VA_ARGS__)
#define GCC_ASM_I58(p0, ...) "i"(p0), GCC_ASM_I57(__VA_ARGS__)
#define GCC_ASM_I59(p0, ...) "i"(p0), GCC_ASM_I58(__VA_ARGS__)
#define GCC_ASM_I60(p0, ...) "i"(p0), GCC_ASM_I59(__VA_ARGS__)
#define GCC_ASM_I61(p0, ...) "i"(p0), GCC_ASM_I60(__VA_ARGS__)
#define GCC_ASM_I62(p0, ...) "i"(p0), GCC_ASM_I61(__VA_ARGS__)
#define GCC_ASM_I63(p0, ...) "i"(p0), GCC_ASM_I62(__VA_ARGS__)
#define GCC_ASM_I64(p0, ...) "i"(p0), GCC_ASM_I63(__VA_ARGS__)
#define GCC_ASM_I65(p0, ...) "i"(p0), GCC_ASM_I64(__VA_ARGS__)
#define GCC_ASM_I66(p0, ...) "i"(p0), GCC_ASM_I65(__VA_ARGS__)
#define GCC_ASM_I67(p0, ...) "i"(p0), GCC_ASM_I66(__VA_ARGS__)
#define GCC_ASM_I68(p0, ...) "i"(p0), GCC_ASM_I67(__VA_ARGS__)
#define GCC_ASM_I69(p0, ...) "i"(p0), GCC_ASM_I68(__VA_ARGS__)
#define GCC_ASM_I70(p0, ...) "i"(p0), GCC_ASM_I69(__VA_ARGS__)
#define GCC_ASM_I71(p0, ...) "i"(p0), GCC_ASM_I70(__VA_ARGS__)
#define GCC_ASM_I72(p0, ...) "i"(p0), GCC_ASM_I71(__VA_ARGS__)
#define GCC_ASM_I73(p0, ...) "i"(p0), GCC_ASM_I72(__VA_ARGS__)
#define GCC_ASM_I74(p0, ...) "i"(p0), GCC_ASM_I73(__VA_ARGS__)
#define GCC_ASM_I75(p0, ...) "i"(p0), GCC_ASM_I74(__VA_ARGS__)
#define GCC_ASM_I76(p0, ...) "i"(p0), GCC_ASM_I75(__VA_ARGS__)
#define GCC_ASM_I77(p0, ...) "i"(p0), GCC_ASM_I76(__VA_ARGS__)
#define GCC_ASM_I78(p0, ...) "i"(p0), GCC_ASM_I77(__VA_ARGS__)
#define GCC_ASM_I79(p0, ...) "i"(p0), GCC_ASM_I78(__VA_ARGS__)
#define GCC_ASM_I80(p0, ...) "i"(p0), GCC_ASM_I79(__VA_ARGS__)
#define GCC_ASM_I81(p0, ...) "i"(p0), GCC_ASM_I80(__VA_ARGS__)
#define GCC_ASM_I82(p0, ...) "i"(p0), GCC_ASM_I81(__VA_ARGS__)
#define GCC_ASM_I83(p0, ...) "i"(p0), GCC_ASM_I82(__VA_ARGS__)
#define GCC_ASM_I84(p0, ...) "i"(p0), GCC_ASM_I83(__VA_ARGS__)
#define GCC_ASM_I85(p0, ...) "i"(p0), GCC_ASM_I84(__VA_ARGS__)
#define GCC_ASM_I86(p0, ...) "i"(p0), GCC_ASM_I85(__VA_ARGS__)
#define GCC_ASM_I87(p0, ...) "i"(p0), GCC_ASM_I86(__VA_ARGS__)
#define GCC_ASM_I88(p0, ...) "i"(p0), GCC_ASM_I87(__VA_ARGS__)
#define GCC_ASM_I89(p0, ...) "i"(p0), GCC_ASM_I88(__VA_ARGS__)
#define GCC_ASM_I90(p0, ...) "i"(p0), GCC_ASM_I89(__VA_ARGS__)
#define GCC_ASM_I91(p0, ...) "i"(p0), GCC_ASM_I90(__VA_ARGS__)
#define GCC_ASM_I92(p0, ...) "i"(p0), GCC_ASM_I91(__VA_ARGS__)
#define GCC_ASM_I93(p0, ...) "i"(p0), GCC_ASM_I92(__VA_ARGS__)
#define GCC_ASM_I94(p0, ...) "i"(p0), GCC_ASM_I93(__VA_ARGS__)
#define GCC_ASM_I95(p0, ...) "i"(p0), GCC_ASM_I94(__VA_ARGS__)
#define GCC_ASM_I96(p0, ...) "i"(p0), GCC_ASM_I95(__VA_ARGS__)
#define GCC_ASM_I97(p0, ...) "i"(p0), GCC_ASM_I96(__VA_ARGS__)
#define GCC_ASM_I98(p0, ...) "i"(p0), GCC_ASM_I97(__VA_ARGS__)
#define GCC_ASM_I99(p0, ...) "i"(p0), GCC_ASM_I98(__VA_ARGS__)
/* --- The AST Generators (1 to 99) --- */
#define _INL_1(p0) ".word " _STR1 : : "i"(p0)
#define _INL_2(p0,p1) ".word " _STR2 : : "i"(p0),"i"(p1)
#define _INL_3(p0,p1,p2) ".word " _STR3 : : "i"(p0),"i"(p1),"i"(p2)
#define _INL_4(p0,p1,p2,p3) ".word " _STR4 : : "i"(p0),"i"(p1),"i"(p2),"i"(p3)
#define _INL_5(p0,p1,p2,p3,p4) ".word " _STR5 : : "i"(p0),"i"(p1),"i"(p2),"i"(p3),"i"(p4)
#define _INL_6(p0,p1,p2,p3,p4,p5) ".word " _STR6 : : "i"(p0),"i"(p1),"i"(p2),"i"(p3),"i"(p4),"i"(p5)
#define _INL_7(p0,p1,p2,p3,p4,p5,p6) ".word " _STR7 : : "i"(p0),"i"(p1),"i"(p2),"i"(p3),"i"(p4),"i"(p5),"i"(p6)
#define _INL_8(p0,p1,p2,p3,p4,p5,p6,p7) ".word " _STR8 : : "i"(p0),"i"(p1),"i"(p2),"i"(p3),"i"(p4),"i"(p5),"i"(p6),"i"(p7)
#define _INL_9(p0,p1,p2,p3,p4,p5,p6,p7,p8) ".word " _STR9 : : "i"(p0),"i"(p1),"i"(p2),"i"(p3),"i"(p4),"i"(p5),"i"(p6),"i"(p7),"i"(p8)
#define _INL_10(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9) ".word " _STR10 : : _OP10
#define GCC_ASM_INL_1( a) ".word " GCC_ASM_W1 : : GCC_ASM_I1( a)
#define GCC_ASM_INL_2( a, ...) ".word " GCC_ASM_W2 : : GCC_ASM_I2( a, __VA_ARGS__)
#define GCC_ASM_INL_3( a, ...) ".word " GCC_ASM_W3 : : GCC_ASM_I3( a, __VA_ARGS__)
#define GCC_ASM_INL_4( a, ...) ".word " GCC_ASM_W4 : : GCC_ASM_I4( a, __VA_ARGS__)
#define GCC_ASM_INL_5( a, ...) ".word " GCC_ASM_W5 : : GCC_ASM_I5( a, __VA_ARGS__)
#define GCC_ASM_INL_6( a, ...) ".word " GCC_ASM_W6 : : GCC_ASM_I6( a, __VA_ARGS__)
#define GCC_ASM_INL_7( a, ...) ".word " GCC_ASM_W7 : : GCC_ASM_I7( a, __VA_ARGS__)
#define GCC_ASM_INL_8( a, ...) ".word " GCC_ASM_W8 : : GCC_ASM_I8( a, __VA_ARGS__)
#define GCC_ASM_INL_9( a, ...) ".word " GCC_ASM_W9 : : GCC_ASM_I9( a, __VA_ARGS__)
#define GCC_ASM_INL_10(a, ...) ".word " GCC_ASM_W10 : : GCC_ASM_I10(a, __VA_ARGS__)
#define GCC_ASM_INL_11(a, ...) ".word " GCC_ASM_W11 : : GCC_ASM_I11(a, __VA_ARGS__)
#define GCC_ASM_INL_12(a, ...) ".word " GCC_ASM_W12 : : GCC_ASM_I12(a, __VA_ARGS__)
#define GCC_ASM_INL_13(a, ...) ".word " GCC_ASM_W13 : : GCC_ASM_I13(a, __VA_ARGS__)
#define GCC_ASM_INL_14(a, ...) ".word " GCC_ASM_W14 : : GCC_ASM_I14(a, __VA_ARGS__)
#define GCC_ASM_INL_15(a, ...) ".word " GCC_ASM_W15 : : GCC_ASM_I15(a, __VA_ARGS__)
#define GCC_ASM_INL_16(a, ...) ".word " GCC_ASM_W16 : : GCC_ASM_I16(a, __VA_ARGS__)
#define GCC_ASM_INL_17(a, ...) ".word " GCC_ASM_W17 : : GCC_ASM_I17(a, __VA_ARGS__)
#define GCC_ASM_INL_18(a, ...) ".word " GCC_ASM_W18 : : GCC_ASM_I18(a, __VA_ARGS__)
#define GCC_ASM_INL_19(a, ...) ".word " GCC_ASM_W19 : : GCC_ASM_I19(a, __VA_ARGS__)
#define GCC_ASM_INL_20(a, ...) ".word " GCC_ASM_W20 : : GCC_ASM_I20(a, __VA_ARGS__)
#define GCC_ASM_INL_21(a, ...) ".word " GCC_ASM_W21 : : GCC_ASM_I21(a, __VA_ARGS__)
#define GCC_ASM_INL_22(a, ...) ".word " GCC_ASM_W22 : : GCC_ASM_I22(a, __VA_ARGS__)
#define GCC_ASM_INL_23(a, ...) ".word " GCC_ASM_W23 : : GCC_ASM_I23(a, __VA_ARGS__)
#define GCC_ASM_INL_24(a, ...) ".word " GCC_ASM_W24 : : GCC_ASM_I24(a, __VA_ARGS__)
#define GCC_ASM_INL_25(a, ...) ".word " GCC_ASM_W25 : : GCC_ASM_I25(a, __VA_ARGS__)
#define GCC_ASM_INL_26(a, ...) ".word " GCC_ASM_W26 : : GCC_ASM_I26(a, __VA_ARGS__)
#define GCC_ASM_INL_27(a, ...) ".word " GCC_ASM_W27 : : GCC_ASM_I27(a, __VA_ARGS__)
#define GCC_ASM_INL_28(a, ...) ".word " GCC_ASM_W28 : : GCC_ASM_I28(a, __VA_ARGS__)
#define GCC_ASM_INL_29(a, ...) ".word " GCC_ASM_W29 : : GCC_ASM_I29(a, __VA_ARGS__)
#define GCC_ASM_INL_30(a, ...) ".word " GCC_ASM_W30 : : GCC_ASM_I30(a, __VA_ARGS__)
#define GCC_ASM_INL_31(a, ...) ".word " GCC_ASM_W31 : : GCC_ASM_I31(a, __VA_ARGS__)
#define GCC_ASM_INL_32(a, ...) ".word " GCC_ASM_W32 : : GCC_ASM_I32(a, __VA_ARGS__)
#define GCC_ASM_INL_33(a, ...) ".word " GCC_ASM_W33 : : GCC_ASM_I33(a, __VA_ARGS__)
#define GCC_ASM_INL_34(a, ...) ".word " GCC_ASM_W34 : : GCC_ASM_I34(a, __VA_ARGS__)
#define GCC_ASM_INL_35(a, ...) ".word " GCC_ASM_W35 : : GCC_ASM_I35(a, __VA_ARGS__)
#define GCC_ASM_INL_36(a, ...) ".word " GCC_ASM_W36 : : GCC_ASM_I36(a, __VA_ARGS__)
#define GCC_ASM_INL_37(a, ...) ".word " GCC_ASM_W37 : : GCC_ASM_I37(a, __VA_ARGS__)
#define GCC_ASM_INL_38(a, ...) ".word " GCC_ASM_W38 : : GCC_ASM_I38(a, __VA_ARGS__)
#define GCC_ASM_INL_39(a, ...) ".word " GCC_ASM_W39 : : GCC_ASM_I39(a, __VA_ARGS__)
#define GCC_ASM_INL_40(a, ...) ".word " GCC_ASM_W40 : : GCC_ASM_I40(a, __VA_ARGS__)
#define GCC_ASM_INL_41(a, ...) ".word " GCC_ASM_W41 : : GCC_ASM_I41(a, __VA_ARGS__)
#define GCC_ASM_INL_42(a, ...) ".word " GCC_ASM_W42 : : GCC_ASM_I42(a, __VA_ARGS__)
#define GCC_ASM_INL_43(a, ...) ".word " GCC_ASM_W43 : : GCC_ASM_I43(a, __VA_ARGS__)
#define GCC_ASM_INL_44(a, ...) ".word " GCC_ASM_W44 : : GCC_ASM_I44(a, __VA_ARGS__)
#define GCC_ASM_INL_45(a, ...) ".word " GCC_ASM_W45 : : GCC_ASM_I45(a, __VA_ARGS__)
#define GCC_ASM_INL_46(a, ...) ".word " GCC_ASM_W46 : : GCC_ASM_I46(a, __VA_ARGS__)
#define GCC_ASM_INL_47(a, ...) ".word " GCC_ASM_W47 : : GCC_ASM_I47(a, __VA_ARGS__)
#define GCC_ASM_INL_48(a, ...) ".word " GCC_ASM_W48 : : GCC_ASM_I48(a, __VA_ARGS__)
#define GCC_ASM_INL_49(a, ...) ".word " GCC_ASM_W49 : : GCC_ASM_I49(a, __VA_ARGS__)
#define GCC_ASM_INL_50(a, ...) ".word " GCC_ASM_W50 : : GCC_ASM_I50(a, __VA_ARGS__)
#define GCC_ASM_INL_51(a, ...) ".word " GCC_ASM_W51 : : GCC_ASM_I51(a, __VA_ARGS__)
#define GCC_ASM_INL_52(a, ...) ".word " GCC_ASM_W52 : : GCC_ASM_I52(a, __VA_ARGS__)
#define GCC_ASM_INL_53(a, ...) ".word " GCC_ASM_W53 : : GCC_ASM_I53(a, __VA_ARGS__)
#define GCC_ASM_INL_54(a, ...) ".word " GCC_ASM_W54 : : GCC_ASM_I54(a, __VA_ARGS__)
#define GCC_ASM_INL_55(a, ...) ".word " GCC_ASM_W55 : : GCC_ASM_I55(a, __VA_ARGS__)
#define GCC_ASM_INL_56(a, ...) ".word " GCC_ASM_W56 : : GCC_ASM_I56(a, __VA_ARGS__)
#define GCC_ASM_INL_57(a, ...) ".word " GCC_ASM_W57 : : GCC_ASM_I57(a, __VA_ARGS__)
#define GCC_ASM_INL_58(a, ...) ".word " GCC_ASM_W58 : : GCC_ASM_I58(a, __VA_ARGS__)
#define GCC_ASM_INL_59(a, ...) ".word " GCC_ASM_W59 : : GCC_ASM_I59(a, __VA_ARGS__)
#define GCC_ASM_INL_60(a, ...) ".word " GCC_ASM_W60 : : GCC_ASM_I60(a, __VA_ARGS__)
#define GCC_ASM_INL_61(a, ...) ".word " GCC_ASM_W61 : : GCC_ASM_I61(a, __VA_ARGS__)
#define GCC_ASM_INL_62(a, ...) ".word " GCC_ASM_W62 : : GCC_ASM_I62(a, __VA_ARGS__)
#define GCC_ASM_INL_63(a, ...) ".word " GCC_ASM_W63 : : GCC_ASM_I63(a, __VA_ARGS__)
#define GCC_ASM_INL_64(a, ...) ".word " GCC_ASM_W64 : : GCC_ASM_I64(a, __VA_ARGS__)
#define GCC_ASM_INL_65(a, ...) ".word " GCC_ASM_W65 : : GCC_ASM_I65(a, __VA_ARGS__)
#define GCC_ASM_INL_66(a, ...) ".word " GCC_ASM_W66 : : GCC_ASM_I66(a, __VA_ARGS__)
#define GCC_ASM_INL_67(a, ...) ".word " GCC_ASM_W67 : : GCC_ASM_I67(a, __VA_ARGS__)
#define GCC_ASM_INL_68(a, ...) ".word " GCC_ASM_W68 : : GCC_ASM_I68(a, __VA_ARGS__)
#define GCC_ASM_INL_69(a, ...) ".word " GCC_ASM_W69 : : GCC_ASM_I69(a, __VA_ARGS__)
#define GCC_ASM_INL_70(a, ...) ".word " GCC_ASM_W70 : : GCC_ASM_I70(a, __VA_ARGS__)
#define GCC_ASM_INL_71(a, ...) ".word " GCC_ASM_W71 : : GCC_ASM_I71(a, __VA_ARGS__)
#define GCC_ASM_INL_72(a, ...) ".word " GCC_ASM_W72 : : GCC_ASM_I72(a, __VA_ARGS__)
#define GCC_ASM_INL_73(a, ...) ".word " GCC_ASM_W73 : : GCC_ASM_I73(a, __VA_ARGS__)
#define GCC_ASM_INL_74(a, ...) ".word " GCC_ASM_W74 : : GCC_ASM_I74(a, __VA_ARGS__)
#define GCC_ASM_INL_75(a, ...) ".word " GCC_ASM_W75 : : GCC_ASM_I75(a, __VA_ARGS__)
#define GCC_ASM_INL_76(a, ...) ".word " GCC_ASM_W76 : : GCC_ASM_I76(a, __VA_ARGS__)
#define GCC_ASM_INL_77(a, ...) ".word " GCC_ASM_W77 : : GCC_ASM_I77(a, __VA_ARGS__)
#define GCC_ASM_INL_78(a, ...) ".word " GCC_ASM_W78 : : GCC_ASM_I78(a, __VA_ARGS__)
#define GCC_ASM_INL_79(a, ...) ".word " GCC_ASM_W79 : : GCC_ASM_I79(a, __VA_ARGS__)
#define GCC_ASM_INL_80(a, ...) ".word " GCC_ASM_W80 : : GCC_ASM_I80(a, __VA_ARGS__)
#define GCC_ASM_INL_81(a, ...) ".word " GCC_ASM_W81 : : GCC_ASM_I81(a, __VA_ARGS__)
#define GCC_ASM_INL_82(a, ...) ".word " GCC_ASM_W82 : : GCC_ASM_I82(a, __VA_ARGS__)
#define GCC_ASM_INL_83(a, ...) ".word " GCC_ASM_W83 : : GCC_ASM_I83(a, __VA_ARGS__)
#define GCC_ASM_INL_84(a, ...) ".word " GCC_ASM_W84 : : GCC_ASM_I84(a, __VA_ARGS__)
#define GCC_ASM_INL_85(a, ...) ".word " GCC_ASM_W85 : : GCC_ASM_I85(a, __VA_ARGS__)
#define GCC_ASM_INL_86(a, ...) ".word " GCC_ASM_W86 : : GCC_ASM_I86(a, __VA_ARGS__)
#define GCC_ASM_INL_87(a, ...) ".word " GCC_ASM_W87 : : GCC_ASM_I87(a, __VA_ARGS__)
#define GCC_ASM_INL_88(a, ...) ".word " GCC_ASM_W88 : : GCC_ASM_I88(a, __VA_ARGS__)
#define GCC_ASM_INL_89(a, ...) ".word " GCC_ASM_W89 : : GCC_ASM_I89(a, __VA_ARGS__)
#define GCC_ASM_INL_90(a, ...) ".word " GCC_ASM_W90 : : GCC_ASM_I90(a, __VA_ARGS__)
#define GCC_ASM_INL_91(a, ...) ".word " GCC_ASM_W91 : : GCC_ASM_I91(a, __VA_ARGS__)
#define GCC_ASM_INL_92(a, ...) ".word " GCC_ASM_W92 : : GCC_ASM_I92(a, __VA_ARGS__)
#define GCC_ASM_INL_93(a, ...) ".word " GCC_ASM_W93 : : GCC_ASM_I93(a, __VA_ARGS__)
#define GCC_ASM_INL_94(a, ...) ".word " GCC_ASM_W94 : : GCC_ASM_I94(a, __VA_ARGS__)
#define GCC_ASM_INL_95(a, ...) ".word " GCC_ASM_W95 : : GCC_ASM_I95(a, __VA_ARGS__)
#define GCC_ASM_INL_96(a, ...) ".word " GCC_ASM_W96 : : GCC_ASM_I96(a, __VA_ARGS__)
#define GCC_ASM_INL_97(a, ...) ".word " GCC_ASM_W97 : : GCC_ASM_I97(a, __VA_ARGS__)
#define GCC_ASM_INL_98(a, ...) ".word " GCC_ASM_W98 : : GCC_ASM_I98(a, __VA_ARGS__)
#define GCC_ASM_INL_99(a, ...) ".word " GCC_ASM_W99 : : GCC_ASM_I99(a, __VA_ARGS__)
#define _INL_11(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10) ".word " _STR11 : : _OP10,"i"(p10)
#define _INL_12(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11) ".word " _STR12 : : _OP10,"i"(p10),"i"(p11)
#define _INL_13(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12) ".word " _STR13 : : _OP10,"i"(p10),"i"(p11),"i"(p12)
#define _INL_14(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13) ".word " _STR14 : : _OP10,"i"(p10),"i"(p11),"i"(p12),"i"(p13)
#define _INL_15(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14) ".word " _STR15 : : _OP10,"i"(p10),"i"(p11),"i"(p12),"i"(p13),"i"(p14)
#define _INL_16(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15) ".word " _STR16 : : _OP10,"i"(p10),"i"(p11),"i"(p12),"i"(p13),"i"(p14),"i"(p15)
#define _INL_17(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16) ".word " _STR17 : : _OP10,"i"(p10),"i"(p11),"i"(p12),"i"(p13),"i"(p14),"i"(p15),"i"(p16)
#define _INL_18(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17) ".word " _STR18 : : _OP10,"i"(p10),"i"(p11),"i"(p12),"i"(p13),"i"(p14),"i"(p15),"i"(p16),"i"(p17)
#define _INL_19(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18) ".word " _STR19 : : _OP10,"i"(p10),"i"(p11),"i"(p12),"i"(p13),"i"(p14),"i"(p15),"i"(p16),"i"(p17),"i"(p18)
#define _INL_20(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19) ".word " _STR20 : : _OP20
#define _INL_21(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20) ".word " _STR21 : : _OP20,"i"(p20)
#define _INL_22(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21) ".word " _STR22 : : _OP20,"i"(p20),"i"(p21)
#define _INL_23(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22) ".word " _STR23 : : _OP20,"i"(p20),"i"(p21),"i"(p22)
#define _INL_24(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23) ".word " _STR24 : : _OP20,"i"(p20),"i"(p21),"i"(p22),"i"(p23)
#define _INL_25(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24) ".word " _STR25 : : _OP20,"i"(p20),"i"(p21),"i"(p22),"i"(p23),"i"(p24)
#define _INL_26(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25) ".word " _STR26 : : _OP20,"i"(p20),"i"(p21),"i"(p22),"i"(p23),"i"(p24),"i"(p25)
#define _INL_27(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26) ".word " _STR27 : : _OP20,"i"(p20),"i"(p21),"i"(p22),"i"(p23),"i"(p24),"i"(p25),"i"(p26)
#define _INL_28(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27) ".word " _STR28 : : _OP20,"i"(p20),"i"(p21),"i"(p22),"i"(p23),"i"(p24),"i"(p25),"i"(p26),"i"(p27)
#define _INL_29(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28) ".word " _STR29 : : _OP20,"i"(p20),"i"(p21),"i"(p22),"i"(p23),"i"(p24),"i"(p25),"i"(p26),"i"(p27),"i"(p28)
#define _INL_30(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29) ".word " _STR30 : : _OP30
#define _INL_31(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30) ".word " _STR31 : : _OP30,"i"(p30)
#define _INL_32(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31) ".word " _STR32 : : _OP30,"i"(p30),"i"(p31)
#define _INL_33(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32) ".word " _STR33 : : _OP30,"i"(p30),"i"(p31),"i"(p32)
#define _INL_34(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33) ".word " _STR34 : : _OP30,"i"(p30),"i"(p31),"i"(p32),"i"(p33)
#define _INL_35(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34) ".word " _STR35 : : _OP30,"i"(p30),"i"(p31),"i"(p32),"i"(p33),"i"(p34)
#define _INL_36(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35) ".word " _STR36 : : _OP30,"i"(p30),"i"(p31),"i"(p32),"i"(p33),"i"(p34),"i"(p35)
#define _INL_37(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36) ".word " _STR37 : : _OP30,"i"(p30),"i"(p31),"i"(p32),"i"(p33),"i"(p34),"i"(p35),"i"(p36)
#define _INL_38(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37) ".word " _STR38 : : _OP30,"i"(p30),"i"(p31),"i"(p32),"i"(p33),"i"(p34),"i"(p35),"i"(p36),"i"(p37)
#define _INL_39(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38) ".word " _STR39 : : _OP30,"i"(p30),"i"(p31),"i"(p32),"i"(p33),"i"(p34),"i"(p35),"i"(p36),"i"(p37),"i"(p38)
#define _INL_40(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39) ".word " _STR40 : : _OP40
#define _INL_41(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40) ".word " _STR41 : : _OP40,"i"(p40)
#define _INL_42(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41) ".word " _STR42 : : _OP40,"i"(p40),"i"(p41)
#define _INL_43(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42) ".word " _STR43 : : _OP40,"i"(p40),"i"(p41),"i"(p42)
#define _INL_44(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43) ".word " _STR44 : : _OP40,"i"(p40),"i"(p41),"i"(p42),"i"(p43)
#define _INL_45(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44) ".word " _STR45 : : _OP40,"i"(p40),"i"(p41),"i"(p42),"i"(p43),"i"(p44)
#define _INL_46(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45) ".word " _STR46 : : _OP40,"i"(p40),"i"(p41),"i"(p42),"i"(p43),"i"(p44),"i"(p45)
#define _INL_47(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46) ".word " _STR47 : : _OP40,"i"(p40),"i"(p41),"i"(p42),"i"(p43),"i"(p44),"i"(p45),"i"(p46)
#define _INL_48(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47) ".word " _STR48 : : _OP40,"i"(p40),"i"(p41),"i"(p42),"i"(p43),"i"(p44),"i"(p45),"i"(p46),"i"(p47)
#define _INL_49(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48) ".word " _STR49 : : _OP40,"i"(p40),"i"(p41),"i"(p42),"i"(p43),"i"(p44),"i"(p45),"i"(p46),"i"(p47),"i"(p48)
#define _INL_50(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49) ".word " _STR50 : : _OP50
#define _INL_51(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50) ".word " _STR51 : : _OP50,"i"(p50)
#define _INL_52(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51) ".word " _STR52 : : _OP50,"i"(p50),"i"(p51)
#define _INL_53(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52) ".word " _STR53 : : _OP50,"i"(p50),"i"(p51),"i"(p52)
#define _INL_54(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53) ".word " _STR54 : : _OP50,"i"(p50),"i"(p51),"i"(p52),"i"(p53)
#define _INL_55(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54) ".word " _STR55 : : _OP50,"i"(p50),"i"(p51),"i"(p52),"i"(p53),"i"(p54)
#define _INL_56(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55) ".word " _STR56 : : _OP50,"i"(p50),"i"(p51),"i"(p52),"i"(p53),"i"(p54),"i"(p55)
#define _INL_57(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56) ".word " _STR57 : : _OP50,"i"(p50),"i"(p51),"i"(p52),"i"(p53),"i"(p54),"i"(p55),"i"(p56)
#define _INL_58(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57) ".word " _STR58 : : _OP50,"i"(p50),"i"(p51),"i"(p52),"i"(p53),"i"(p54),"i"(p55),"i"(p56),"i"(p57)
#define _INL_59(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58) ".word " _STR59 : : _OP50,"i"(p50),"i"(p51),"i"(p52),"i"(p53),"i"(p54),"i"(p55),"i"(p56),"i"(p57),"i"(p58)
#define _INL_60(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59) ".word " _STR60 : : _OP60
#define _INL_61(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60) ".word " _STR61 : : _OP60,"i"(p60)
#define _INL_62(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61) ".word " _STR62 : : _OP60,"i"(p60),"i"(p61)
#define _INL_63(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62) ".word " _STR63 : : _OP60,"i"(p60),"i"(p61),"i"(p62)
#define _INL_64(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63) ".word " _STR64 : : _OP60,"i"(p60),"i"(p61),"i"(p62),"i"(p63)
#define _INL_65(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64) ".word " _STR65 : : _OP60,"i"(p60),"i"(p61),"i"(p62),"i"(p63),"i"(p64)
#define _INL_66(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65) ".word " _STR66 : : _OP60,"i"(p60),"i"(p61),"i"(p62),"i"(p63),"i"(p64),"i"(p65)
#define _INL_67(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66) ".word " _STR67 : : _OP60,"i"(p60),"i"(p61),"i"(p62),"i"(p63),"i"(p64),"i"(p65),"i"(p66)
#define _INL_68(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67) ".word " _STR68 : : _OP60,"i"(p60),"i"(p61),"i"(p62),"i"(p63),"i"(p64),"i"(p65),"i"(p66),"i"(p67)
#define _INL_69(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68) ".word " _STR69 : : _OP60,"i"(p60),"i"(p61),"i"(p62),"i"(p63),"i"(p64),"i"(p65),"i"(p66),"i"(p67),"i"(p68)
#define _INL_70(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69) ".word " _STR70 : : _OP70
#define _INL_71(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70) ".word " _STR71 : : _OP70,"i"(p70)
#define _INL_72(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71) ".word " _STR72 : : _OP70,"i"(p70),"i"(p71)
#define _INL_73(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72) ".word " _STR73 : : _OP70,"i"(p70),"i"(p71),"i"(p72)
#define _INL_74(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73) ".word " _STR74 : : _OP70,"i"(p70),"i"(p71),"i"(p72),"i"(p73)
#define _INL_75(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74) ".word " _STR75 : : _OP70,"i"(p70),"i"(p71),"i"(p72),"i"(p73),"i"(p74)
#define _INL_76(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75) ".word " _STR76 : : _OP70,"i"(p70),"i"(p71),"i"(p72),"i"(p73),"i"(p74),"i"(p75)
#define _INL_77(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76) ".word " _STR77 : : _OP70,"i"(p70),"i"(p71),"i"(p72),"i"(p73),"i"(p74),"i"(p75),"i"(p76)
#define _INL_78(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77) ".word " _STR78 : : _OP70,"i"(p70),"i"(p71),"i"(p72),"i"(p73),"i"(p74),"i"(p75),"i"(p76),"i"(p77)
#define _INL_79(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78) ".word " _STR79 : : _OP70,"i"(p70),"i"(p71),"i"(p72),"i"(p73),"i"(p74),"i"(p75),"i"(p76),"i"(p77),"i"(p78)
#define _INL_80(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79) ".word " _STR80 : : _OP80
#define _INL_81(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80) ".word " _STR81 : : _OP80,"i"(p80)
#define _INL_82(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81) ".word " _STR82 : : _OP80,"i"(p80),"i"(p81)
#define _INL_83(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82) ".word " _STR83 : : _OP80,"i"(p80),"i"(p81),"i"(p82)
#define _INL_84(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83) ".word " _STR84 : : _OP80,"i"(p80),"i"(p81),"i"(p82),"i"(p83)
#define _INL_85(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84) ".word " _STR85 : : _OP80,"i"(p80),"i"(p81),"i"(p82),"i"(p83),"i"(p84)
#define _INL_86(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85) ".word " _STR86 : : _OP80,"i"(p80),"i"(p81),"i"(p82),"i"(p83),"i"(p84),"i"(p85)
#define _INL_87(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86) ".word " _STR87 : : _OP80,"i"(p80),"i"(p81),"i"(p82),"i"(p83),"i"(p84),"i"(p85),"i"(p86)
#define _INL_88(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87) ".word " _STR88 : : _OP80,"i"(p80),"i"(p81),"i"(p82),"i"(p83),"i"(p84),"i"(p85),"i"(p86),"i"(p87)
#define _INL_89(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88) ".word " _STR89 : : _OP80,"i"(p80),"i"(p81),"i"(p82),"i"(p83),"i"(p84),"i"(p85),"i"(p86),"i"(p87),"i"(p88)
#define _INL_90(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88,p89) ".word " _STR90 : : _OP90
#define _INL_91(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88,p89,p90) ".word " _STR91 : : _OP90,"i"(p90)
#define _INL_92(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88,p89,p90,p91) ".word " _STR92 : : _OP90,"i"(p90),"i"(p91)
#define _INL_93(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88,p89,p90,p91,p92) ".word " _STR93 : : _OP90,"i"(p90),"i"(p91),"i"(p92)
#define _INL_94(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88,p89,p90,p91,p92,p93) ".word " _STR94 : : _OP90,"i"(p90),"i"(p91),"i"(p92),"i"(p93)
#define _INL_95(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88,p89,p90,p91,p92,p93,p94) ".word " _STR95 : : _OP90,"i"(p90),"i"(p91),"i"(p92),"i"(p93),"i"(p94)
#define _INL_96(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88,p89,p90,p91,p92,p93,p94,p95) ".word " _STR96 : : _OP90,"i"(p90),"i"(p91),"i"(p92),"i"(p93),"i"(p94),"i"(p95)
#define _INL_97(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88,p89,p90,p91,p92,p93,p94,p95,p96) ".word " _STR97 : : _OP90,"i"(p90),"i"(p91),"i"(p92),"i"(p93),"i"(p94),"i"(p95),"i"(p96)
#define _INL_98(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88,p89,p90,p91,p92,p93,p94,p95,p96,p97) ".word " _STR98 : : _OP90,"i"(p90),"i"(p91),"i"(p92),"i"(p93),"i"(p94),"i"(p95),"i"(p96),"i"(p97)
#define _INL_99(p0,p1,p2,p3,p4,p5,p6,p7,p8,p9,p10,p11,p12,p13,p14,p15,p16,p17,p18,p19,p20,p21,p22,p23,p24,p25,p26,p27,p28,p29,p30,p31,p32,p33,p34,p35,p36,p37,p38,p39,p40,p41,p42,p43,p44,p45,p46,p47,p48,p49,p50,p51,p52,p53,p54,p55,p56,p57,p58,p59,p60,p61,p62,p63,p64,p65,p66,p67,p68,p69,p70,p71,p72,p73,p74,p75,p76,p77,p78,p79,p80,p81,p82,p83,p84,p85,p86,p87,p88,p89,p90,p91,p92,p93,p94,p95,p96,p97,p98) ".word " _STR99 : : _OP90,"i"(p90),"i"(p91),"i"(p92),"i"(p93),"i"(p94),"i"(p95),"i"(p96),"i"(p97),"i"(p98)
/* The AST Builders */
#define asm_clobber(...) : __VA_ARGS__
#define asm_inline(...) m_expand(glue(_INL_, _ASM_COUNT_ARGS(__VA_ARGS__))(__VA_ARGS__))
/* The Shell */
#define asm_blob(inlines, clobbers) asm volatile ( inlines clobbers )
#pragma endregion Cruft
+408
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@@ -0,0 +1,408 @@
#ifdef INTELLISENSE_DIRECTIVES
#pragma once
#endif
// Auto-generated by ps1_meta.lua — DO NOT EDIT
// Directory: C:\projects\Pikuma\ps1\code\duffle/
// source: C:\projects\Pikuma\ps1\code\duffle\word_count.metadata.h
// source: C:\projects\Pikuma\ps1\code\duffle\dsl.h
// source: C:\projects\Pikuma\ps1\code\duffle\memory.h
// source: C:\projects\Pikuma\ps1\code\duffle\math.h
// source: C:\projects\Pikuma\ps1\code\duffle\gcc_asm.h
// source: C:\projects\Pikuma\ps1\code\duffle\mips.h
// source: C:\projects\Pikuma\ps1\code\duffle\gp.h
// source: C:\projects\Pikuma\ps1\code\duffle\gte.h
// source: C:\projects\Pikuma\ps1\code\duffle\pad.h
// source: C:\projects\Pikuma\ps1\code\duffle\dsl.atom.h
// source: C:\projects\Pikuma\ps1\code\duffle\lottes_tape.h
// source: C:\projects\Pikuma\ps1\code\duffle\bios.h
// source: C:\projects\Pikuma\ps1\code\duffle\psyq.h
// source: C:\projects\Pikuma\ps1\code\duffle\pad.c
// source: C:\projects\Pikuma\ps1\code\duffle\math.atom.h
// source: C:\projects\Pikuma\ps1\code\duffle\mips.atom.c
// source: C:\projects\Pikuma\ps1\code\duffle\gte.atom.c
// source: C:\projects\Pikuma\ps1\code\duffle\gp.atom.c
// source: C:\projects\Pikuma\ps1\code\duffle\pad.atom.c
// source: C:\projects\Pikuma\ps1\code\duffle\psyq.atom.c
// Component atoms (MipsAtomComp_(ac_*)) -> macro variants (mac_*)
#ifndef WORD_COUNT
#define WORD_COUNT(name, count) enum { words_##name = (count) };
#endif
/* atom_dbg_skip */
/* ---------------------------------------------------------------------------
* MACRO ATOM Components (Reusable Assembly Components)
* These do NOT yield. They are expanded inline inside Tape Atoms.
* ---------------------------------------------------------------------------*/
// The 'Yield' sequence for Tape Atoms (mac_yield).
#define mac_yield(...) \
load_word(R_AtomJmp, R_TapePtr, 0) \
LdSlot_ \
, add_ui_self( R_TapePtr, S_(MipsCode)) \
, jump_reg( R_AtomJmp) \
, BdSlot_ nop
WORD_COUNT(mac_yield, 4)
/* atom_dbg_skip */
#define mac_yield_load(...) \
load_word(R_AtomJmp, R_TapePtr, 0)
WORD_COUNT(mac_yield_load, 1)
/* atom_dbg_skip */
#define mac_yield_tail(...) \
add_ui_self(R_TapePtr, S_(MipsCode)) \
, jump_reg( R_AtomJmp) \
, BdSlot_ nop
WORD_COUNT(mac_yield_tail, 3)
/* atom_dbg_skip */
#define mac_load_half_v3(tx, ty, tz, base, offset) \
load_half(tx, base, offset + OA_(U2,[0])) \
, load_half(ty, base, offset + OA_(U2,[1])) \
, load_half(tz, base, offset + OA_(U2,[2]))
WORD_COUNT(mac_load_half_v3, 3)
#define mac_load_v3s2(transfer, base, offset) \
mac_load_half_v3(transfer.x, transfer.y, transfer.z, base, offset)
WORD_COUNT(mac_load_v3s2, 3)
/* atom_dbg_skip */
#define mac_load_v2s2(rs_x, rs_y, r_base, offset) \
load_half(rs_x, r_base, offset + O_(V3_S2,x)) \
, load_half(rs_y, r_base, offset + O_(V3_S2,y))
WORD_COUNT(mac_load_v2s2, 2)
/* atom_dbg_skip */
#define mac_store_v2s2(rt_x, rt_y, base, offset) \
store_half(rt_x, base, offset + O_(V2_S2,x)) \
, store_half(rt_y, base, offset + O_(V2_S2,y))
WORD_COUNT(mac_store_v2s2, 2)
/* atom_dbg_skip */
#define mac_load_word_v3(tx, ty, tz, base, offset) \
load_word(tx, base, offset + OA_(U4,[0])) \
, load_word(ty, base, offset + OA_(U4,[1])) \
, load_word(tz, base, offset + OA_(U4,[2]))
WORD_COUNT(mac_load_word_v3, 3)
#define mac_load_v3s4(transfer, base, offset) \
mac_load_word_v3(transfer.x, transfer.y, transfer.z, base, offset)
WORD_COUNT(mac_load_v3s4, 3)
#define mac_load_p3s4(transfer, base, offset) \
mac_load_word_v3(transfer.x, transfer.y, transfer.z, base, offset)
WORD_COUNT(mac_load_p3s4, 3)
/* atom_dbg_skip */
#define mac_store_half_v3(tx, ty, tz, base, offset) \
store_half(tx, base, offset + OA_(U2,[0])) \
, store_half(ty, base, offset + OA_(U2,[1])) \
, store_half(tz, base, offset + OA_(U2,[2]))
WORD_COUNT(mac_store_half_v3, 3)
#define mac_store_v3s2(transfer, base, offset) \
mac_store_half_v3(transfer.x, transfer.y, transfer.z, base, offset)
WORD_COUNT(mac_store_v3s2, 3)
/* atom_dbg_skip */
#define mac_store_word_v3(tx, ty, tz, base, offset) \
store_word(tx, base, offset + OA_(U4,[0])) \
, store_word(ty, base, offset + OA_(U4,[1])) \
, store_word(tz, base, offset + OA_(U4,[2]))
WORD_COUNT(mac_store_word_v3, 3)
#define mac_store_v3s4(transfer, base, offset) \
mac_store_word_v3(transfer.x, transfer.y, transfer.z, base, offset)
WORD_COUNT(mac_store_v3s4, 3)
#define mac_store_p3s4(transfer, base, offset) \
mac_store_word_v3(transfer.x, transfer.y, transfer.z, base, offset)
WORD_COUNT(mac_store_p3s4, 3)
/* atom_dbg_skip */
#define mac_add_si_v3s4(rt_x, rt_y, rt_z, base, offset) \
add_si(rt_x, base, O_(V3_S4,x)) \
, add_si(rt_y, base, O_(V3_S4,y)) \
, add_si(rt_z, base, O_(V3_S4,z))
WORD_COUNT(mac_add_si_v3s4, 3)
/* atom_dbg_skip */
#define mac_sub_s_v3(dx, dy, dz, sx, sy, sz, tx, ty, tz) \
sub_s(dx, sx, tx) \
, sub_s(dy, sy, ty) \
, sub_s(dz, sz, tz)
WORD_COUNT(mac_sub_s_v3, 3)
#define mac_sub_v3s4(d, s, t) \
mac_sub_s_v3(d.x, d.y, d.z, s.x, s.y, s.z, t.x, t.y, t.z)
WORD_COUNT(mac_sub_v3s4, 3)
/* atom_dbg_skip */
#define mac_sub_s_v3_self(ds_x, ds_y, ds_z, tx, ty, tz) \
sub_s(ds_x, ds_x, tx) \
, sub_s(ds_y, ds_y, ty) \
, sub_s(ds_z, ds_z, tz)
WORD_COUNT(mac_sub_s_v3_self, 3)
#define mac_sub_v3s4_self(ds, t) \
mac_sub_s_v3_self(ds.x, ds.y, ds.z, t.x, t.y, t.z)
WORD_COUNT(mac_sub_v3s4_self, 3)
/* atom_dbg_skip */
#define mac_store_rects2(rt_x, rt_y, rt_width, rt_height, base, offset) \
store_half(rt_x, base, offset + O_(Rect_S2,x)) \
, store_half(rt_y, base, offset + O_(Rect_S2,y)) \
, store_half(rt_width, base, offset + O_(Rect_S2,width)) \
, store_half(rt_height, base, offset + O_(Rect_S2,height))
WORD_COUNT(mac_store_rects2, 4)
/* atom_dbg_skip */
#define mac_load_word_imm(dst, imm) \
load_upper_i(dst, u4_hi(imm)) \
, or_i_self( dst, u4_lo(imm))
WORD_COUNT(mac_load_word_imm, 2)
#define mac_shift_aright_v3_self(dt_x, dt_y, dt_z, shift_amount) \
shift_aright(dt_x, dt_x, shift_amount) \
, shift_aright(dt_y, dt_y, shift_amount) \
, shift_aright(dt_z, dt_z, shift_amount)
WORD_COUNT(mac_shift_aright_v3_self, 3)
#define mac_shift_aright_v3s4_self(dt, shift) \
mac_shift_aright_v3_self(dt.x, dt.y, dt.z, shift)
WORD_COUNT(mac_shift_aright_v3s4_self, 3)
#define mac_shift_aright_var_v3(rd_v0, rd_v1, rd_v2, rs_v0, rs_v1, rs_v2, r_shift) \
shift_aright_var(rd_v0, rs_v0, r_shift) \
, shift_aright_var(rd_v1, rs_v1, r_shift) \
, shift_aright_var(rd_v2, rs_v2, r_shift)
WORD_COUNT(mac_shift_aright_var_v3, 3)
/* atom_dbg_skip */
#define mac_shift_aright_var_v3_self(rds_v0, rds_v1, rds_v2, r_shift) \
shift_aright_var(rds_v0, rds_v0, r_shift) \
, shift_aright_var(rds_v1, rds_v1, r_shift) \
, shift_aright_var(rds_v2, rds_v2, r_shift)
WORD_COUNT(mac_shift_aright_var_v3_self, 3)
#define mac_shift_aright_var_v3s4_self(ds, shift) \
mac_shift_aright_var_v3_self(ds.x, ds.y, ds.z, shift)
WORD_COUNT(mac_shift_aright_var_v3s4_self, 3)
/* atom_dbg_skip */
#define mac_load_tri_indices(r_face_cusor, r_i0, r_i1, r_i2) \
load_half_u(r_i0, r_face_cusor, 0 * S_(S2)) \
, load_half_u(r_i1, r_face_cusor, 1 * S_(S2)) \
, load_half_u(r_i2, r_face_cusor, 2 * S_(S2))
WORD_COUNT(mac_load_tri_indices, 3)
#define mac_gte_mv_to_cr_diag_v3s4(v) \
gte_mv_to_ctrl_r(v.y, gte_cr_RT13) \
, gte_mv_to_ctrl_r(v.z, gte_cr_RT22) \
, gte_mv_to_ctrl_r(v.x, gte_cr_RT11)
WORD_COUNT(mac_gte_mv_to_cr_diag_v3s4, 3)
#define mac_gte_ld_ir123_v3s4(v) \
gte_mv_to_data_r(v.x, C2_IR1) \
, gte_mv_to_data_r(v.y, C2_IR2) \
, gte_mv_to_data_r(v.z, C2_IR3)
WORD_COUNT(mac_gte_ld_ir123_v3s4, 3)
/* atom_dbg_skip */
#define mac_gte_op_cross_v3s4(a, b) \
mac_gte_mv_to_cr_diag_v3s4(a) \
GteDelay_ /* RT diagonal: D1 = a.x, D2 = a.y, D3 = a.z */ \
, mac_gte_ld_ir123_v3s4(b) \
GteDelay_ /* IR: second operand (b.xyz) */ \
, gte_cmdw_cross /* OP: MAC1/2/3 = a × b (S12.20) */ \
, mac_gte_mv_from_mac123_v3s4(a) \
GteDelay_ /* Read MAC1/2/3 → a.xyz (overwrites source-A's load targets) */ \
, mac_shift_aright_v3s4_self(a, 12) /* Right-shift MAC by 12 (S12.20 → S12.0 OuterProduct12) */
WORD_COUNT(mac_gte_op_cross_v3s4, 13)
/* atom_dbg_skip */
#define mac_gte_store_f3(r_primitive_cursor) \
gte_sw(C2_SXY0, r_primitive_cursor, O_(Poly_F3,p0)) \
, gte_sw(C2_SXY1, r_primitive_cursor, O_(Poly_F3,p1)) \
, gte_sw(C2_SXY2, r_primitive_cursor, O_(Poly_F3,p2))
WORD_COUNT(mac_gte_store_f3, 3)
/* atom_dbg_skip */
#define mac_gte_load_tri_verts(vbase, v0, v1, v2) \
shift_lleft(R_AT, v0, v3s2_byteoff) \
, add_u_self(R_AT, vbase) \
, load_word(R_V0, R_AT, O_(V3_S2,x)) \
, load_word(R_V1, R_AT, O_(V3_S2,z)) \
, LdSlot_ gte_mv_to_data_r(R_V0, C2_VXY0) \
, gte_mv_to_data_r(R_V1, C2_VZ0) \
, shift_lleft(R_AT, v1, v3s2_byteoff) \
, add_u_self(R_AT, vbase) \
, load_word(R_V0, R_AT, O_(V3_S2,x)) \
, load_word(R_V1, R_AT, O_(V3_S2,z)) \
, LdSlot_ gte_mv_to_data_r(R_V0, C2_VXY1) \
, gte_mv_to_data_r(R_V1, C2_VZ1) \
, shift_lleft(R_AT, v2, v3s2_byteoff) \
, add_u_self(R_AT, vbase) \
, load_word(R_V0, R_AT, O_(V3_S2,x)) \
, load_word(R_V1, R_AT, O_(V3_S2,z)) \
, LdSlot_ gte_mv_to_data_r(R_V0, C2_VXY2) \
, gte_mv_to_data_r(R_V1, C2_VZ2)
WORD_COUNT(mac_gte_load_tri_verts, 18)
/* atom_dbg_skip */
#define mac_gte_store_g4_p012(r_primitive_cursor) \
gte_sw(C2_SXY0, r_primitive_cursor, O_(Poly_G4,p0)) \
, gte_sw(C2_SXY1, r_primitive_cursor, O_(Poly_G4,p1)) \
, gte_sw(C2_SXY2, r_primitive_cursor, O_(Poly_G4,p2))
WORD_COUNT(mac_gte_store_g4_p012, 3)
/* atom_dbg_skip */
#define mac_gte_store_g4_p3(r_primitive_cursor) \
gte_sw(C2_SXY2, r_primitive_cursor, O_(Poly_G4,p3))
WORD_COUNT(mac_gte_store_g4_p3, 1)
/* atom_dbg_skip */
#define mac_gte_sqr_v3(r_sx, r_sy, r_sz, r_sq_x, r_sq_y, r_sq_z) \
mac_gte_sqr_v3s4(r_sx, r_sy, r_sz, nop) \
, gte_mv_from_data_r(r_sq_x, C2_MAC1) \
, gte_mv_from_data_r(r_sq_y, C2_MAC2) \
, gte_mv_from_data_r(r_sq_z, C2_MAC3)
WORD_COUNT(mac_gte_sqr_v3, 8)
/* atom_dbg_skip */
#define mac_gte_sqr_v3s4(r_sx, r_sy, r_sz, delay_slot) \
gte_mv_to_data_r(r_sx, C2_IR1) \
, gte_mv_to_data_r(r_sy, C2_IR2) \
, gte_mv_to_data_r(r_sz, C2_IR3) \
, delay_slot \
, gte_cmdw_sqr
WORD_COUNT(mac_gte_sqr_v3s4, 5)
/* atom_dbg_skip */
#define mac_gte_gpf_scale(r_sx, r_sy, r_sz, r_recip_est, r_shift, r_dx, r_dy, r_dz) \
gte_mv_to_data_r(r_recip_est, C2_IR0) \
, gte_mv_to_data_r(r_sx, C2_IR1) \
, gte_mv_to_data_r(r_sy, C2_IR2) \
, gte_mv_to_data_r(r_sz, C2_IR3) \
, GteDelay_ nop2 /* retire IR0..IR3 → GPF input pre-fill (matches libgte 0x80016134..0x80016138) */ \
, gte_cmdw_gpf \
, gte_mv_from_data_r(r_dx, C2_MAC1) \
, gte_mv_from_data_r(r_dy, C2_MAC2) \
, gte_mv_from_data_r(r_dz, C2_MAC3) \
, shift_aright_var(r_dx, r_dx, r_shift) \
, shift_aright_var(r_dy, r_dy, r_shift) \
, shift_aright_var(r_dz, r_dz, r_shift)
WORD_COUNT(mac_gte_gpf_scale, 13)
#define mac_trans_mt3s3s4(r_mtx, r_off, r_t0, r_t1, r_t2) \
load_word( r_t0, r_off, O_(V3_S4,x)) \
, load_word( r_t1, r_off, O_(V3_S4,y)) \
, load_word( r_t2, r_off, O_(V3_S4,z)) \
, store_word(r_t0, r_mtx, O_(MT3_S2S4,t[0])) \
, store_word(r_t1, r_mtx, O_(MT3_S2S4,t[1])) \
, store_word(r_t2, r_mtx, O_(MT3_S2S4,t[2]))
WORD_COUNT(mac_trans_mt3s3s4, 6)
/* atom_dbg_skip */
#define mac_lzcr_round_even_half_shift(r_shift, r_mag_sq, r_mag_sq_copy) \
and_i(r_shift, r_shift, gte_lzcr_even_mask) \
, or_u(r_mag_sq_copy, r_mag_sq, 0) \
, li_s( r_mag_sq, 31) \
, sub_s( r_mag_sq, r_mag_sq, r_shift) \
, shift_aright(r_mag_sq, r_mag_sq, 1)
WORD_COUNT(mac_lzcr_round_even_half_shift, 5)
#define mac_gte_general_purpose_interopolation(to_ir0, to_ir1, to_ir2, to_ir3, fr_mac1, fr_mac2, fr_mac3, nop_slot1, nop_slot2) \
gte_mv_to_data_r(to_ir0, C2_IR0) \
, gte_mv_to_data_r(to_ir1, C2_IR1) /* IR1 = src.x (preserved in r_tmp — r_mac2_scratch was clobbered to MAC2 in stage 1.5) */ \
, gte_mv_to_data_r(to_ir2, C2_IR2) \
, gte_mv_to_data_r(to_ir3, C2_IR3) /* IR3 = src.z (reloaded) */ \
, GteDelay_ nop_slot1 \
, GteDelay_ nop_slot2 \
, gte_cmdw_gpf \
, gte_mv_from_data_r(fr_mac1, C2_MAC1) \
, gte_mv_from_data_r(fr_mac2, C2_MAC2) \
, gte_mv_from_data_r(fr_mac3, C2_MAC3)
WORD_COUNT(mac_gte_general_purpose_interopolation, 10)
#define mac_gte_mv_from_data_r_mac123(fr_mac1, fr_mac2, fr_mac3) \
gte_mv_from_data_r(fr_mac1, C2_MAC1) \
, gte_mv_from_data_r(fr_mac2, C2_MAC2) \
, gte_mv_from_data_r(fr_mac3, C2_MAC3)
WORD_COUNT(mac_gte_mv_from_data_r_mac123, 3)
#define mac_gte_mv_from_mac123_v3s4(v) \
mac_gte_mv_from_data_r_mac123(v.x, v.y, v.z)
WORD_COUNT(mac_gte_mv_from_mac123_v3s4, 3)
/* atom_dbg_skip */
#define mac_gcmd_push(cmd, reg_transfer, reg_base, port) \
mac_load_word_imm(reg_transfer, cmd) \
, store_word( reg_transfer, reg_base, port)
WORD_COUNT(mac_gcmd_push, 3)
/* atom_dbg_skip */
#define mac_store_rgb8(rr, rg, rb, base, offset) \
store_byte(rr, base, offset + O_(RGB8,r)) \
, store_byte(rg, base, offset + O_(RGB8,g)) \
, store_byte(rb, base, offset + O_(RGB8,b))
WORD_COUNT(mac_store_rgb8, 3)
/* atom_dbg_skip */
#define mac_pack_color_word(r_base, off, cmd, r, g, b) \
load_upper_i(R_AT, (cmd) << 8 | (b)) \
, or_i_self( R_AT, ((g) << 8) | (r)) \
, store_word( R_AT, r_base, (off))
WORD_COUNT(mac_pack_color_word, 3)
/* atom_dbg_skip */
#define mac_format_f3_color(r_base, r, g, b) \
mac_pack_color_word(r_base, O_(Poly_F3,color), gp0_cmd_poly_f3, r, g, b)
WORD_COUNT(mac_format_f3_color, 3)
/* atom_dbg_skip */
#define mac_format_g4_color(r_prim_cursor, r0, g0, b0, r1, g1, b1, r2, g2, b2, r3, g3, b3) \
mac_pack_color_word(r_prim_cursor, O_(Poly_G4,c0), gp0_cmd_poly_g4, r0,g0,b0) \
, mac_pack_color_word(r_prim_cursor, O_(Poly_G4,c1), 0, r1,g1,b1) \
, mac_pack_color_word(r_prim_cursor, O_(Poly_G4,c2), 0, r2,g2,b2) \
, mac_pack_color_word(r_prim_cursor, O_(Poly_G4,c3), 0, r3,g3,b3)
WORD_COUNT(mac_format_g4_color, 12)
#define mac_insert_ot_tag(r_ot_base, r_prim_cursor, poly_size) \
shift_lleft( R_T1, R_T1, S_(U4)/2) /* T1 = otz * S_(U4) (otz arg is implicit R_T1) */ \
, add_u_self( R_T1, r_ot_base) /* T1 = & OrderingTable[OTZ] */ \
, load_word( R_AT, R_T1, O_(PolyTag,code)) /* AT = old_ot_head */ \
, load_upper_i(R_V0, (poly_size/S_(U4) - S_(PolyTag)/S_(U4)) << PolyTag_len_bits) \
, mask_upper( R_AT, R_AT, S_(PolyTag_len_bits)) /* Strip upper 8 bits (length from prev cell) → keep only low 24 */ \
, or_u( R_AT, R_AT, R_V0) /* Merge length */ \
, store_word( R_AT, r_prim_cursor, O_(PolyTag,code)) /* prim->tag = packed(prim_length, old_addr) */ \
, shift_lleft( R_AT, r_prim_cursor, S_(PolyTag_len_bits)) /* AT = (prim_length << 24) | old_addr */ \
, shift_lright(R_AT, R_AT, S_(PolyTag_len_bits)) \
, store_word( R_AT, R_T1, O_(PolyTag,code)) /* OrderingTable[OTZ] = PrimCursor */
WORD_COUNT(mac_insert_ot_tag, 11)
/* atom_dbg_skip */
#define mac_pad_set_centered_axes(state, scratch) \
load_upper_i(scratch, (PadAxis_Centered >> 16) & 0xFFFF) \
, or_i_self( scratch, PadAxis_Centered & 0xFFFF) /* mac_load_word_imm(scratch, PadAxis_Centered), */ \
, store_word( scratch, state, O_(PadState,axes))
WORD_COUNT(mac_pad_set_centered_axes, 3)
/* atom_dbg_skip */
#define mac_pad_set_id_byte(state, r_id, id_value) \
add_ui( r_id, R_0, id_value) \
, store_byte(r_id, state, O_(PadState,id))
WORD_COUNT(mac_pad_set_id_byte, 2)
/* atom_dbg_skip */
#define mac_pad_set_status(r_tmp, r_state, pad_status) \
add_ui( r_tmp, R_0, pad_status) \
, store_word(r_tmp, r_state, O_(PadState,status))
WORD_COUNT(mac_pad_set_status, 2)
/* atom_dbg_skip */
#define mac_pad_store_inverted_buttons(r_buttons, r_pad_state) \
nor_u( r_buttons, r_buttons, R_0) \
, store_half(r_buttons, r_pad_state, O_(PadState,buttons))
WORD_COUNT(mac_pad_store_inverted_buttons, 2)
+73
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@@ -0,0 +1,73 @@
// Auto-generated by ps1_meta.lua (passes/offsets.lua) — DO NOT EDIT
// Directory: C:\projects\Pikuma\ps1\code\duffle\
// source: C:\projects\Pikuma\ps1\code\duffle\word_count.metadata.h
// source: C:\projects\Pikuma\ps1\code\duffle\dsl.h
// source: C:\projects\Pikuma\ps1\code\duffle\memory.h
// source: C:\projects\Pikuma\ps1\code\duffle\math.h
// source: C:\projects\Pikuma\ps1\code\duffle\gcc_asm.h
// source: C:\projects\Pikuma\ps1\code\duffle\mips.h
// source: C:\projects\Pikuma\ps1\code\duffle\gp.h
// source: C:\projects\Pikuma\ps1\code\duffle\gte.h
// source: C:\projects\Pikuma\ps1\code\duffle\pad.h
// source: C:\projects\Pikuma\ps1\code\duffle\dsl.atom.h
// source: C:\projects\Pikuma\ps1\code\duffle\lottes_tape.h
// source: C:\projects\Pikuma\ps1\code\duffle\bios.h
// source: C:\projects\Pikuma\ps1\code\duffle\psyq.h
// source: C:\projects\Pikuma\ps1\code\duffle\pad.c
// source: C:\projects\Pikuma\ps1\code\duffle\math.atom.h
// source: C:\projects\Pikuma\ps1\code\duffle\mips.atom.c
// source: C:\projects\Pikuma\ps1\code\duffle\gte.atom.c
// source: C:\projects\Pikuma\ps1\code\duffle\gp.atom.c
// source: C:\projects\Pikuma\ps1\code\duffle\pad.atom.c
// source: C:\projects\Pikuma\ps1\code\duffle\psyq.atom.c
#pragma once
#pragma region duffle
// --- atom: example_atom_proc (10 words) ---
#define _atom_offset_example_atom_proc_skip 2
enum {
atom_offset_example_atom_proc_skip = _atom_offset_example_atom_proc_skip,
};
// --- atom: normalize_v3s4 (62 words) ---
#define _atom_offset_aligned_done_srav_path 3
#define _atom_offset_srav_path_aligned_done 4
enum {
atom_offset_aligned_done_srav_path = _atom_offset_aligned_done_srav_path,
atom_offset_srav_path_aligned_done = _atom_offset_srav_path_aligned_done,
};
// --- atom: pad_bios_snapshot (84 words) ---
#define _atom_offset_snap_root_skip_disconnected 10
#define _atom_offset_disconnected_snap_end 65
#define _atom_offset_case_2_id_dispatch 9
#define _atom_offset_pending_snap_end 54
#define _atom_offset_id_dispatch_try_analog_stick 12
#define _atom_offset_id_dispatch_snap_end 40
#define _atom_offset_try_analog_stick_try_analog_pad 13
#define _atom_offset_analog_stick_snap_end 25
#define _atom_offset_try_analog_pad_try_unsupported 12
#define _atom_offset_analog_pad_snap_end 10
enum {
atom_offset_snap_root_skip_disconnected = _atom_offset_snap_root_skip_disconnected,
atom_offset_disconnected_snap_end = _atom_offset_disconnected_snap_end,
atom_offset_case_2_id_dispatch = _atom_offset_case_2_id_dispatch,
atom_offset_pending_snap_end = _atom_offset_pending_snap_end,
atom_offset_id_dispatch_try_analog_stick = _atom_offset_id_dispatch_try_analog_stick,
atom_offset_id_dispatch_snap_end = _atom_offset_id_dispatch_snap_end,
atom_offset_try_analog_stick_try_analog_pad = _atom_offset_try_analog_stick_try_analog_pad,
atom_offset_analog_stick_snap_end = _atom_offset_analog_stick_snap_end,
atom_offset_try_analog_pad_try_unsupported = _atom_offset_try_analog_pad_try_unsupported,
atom_offset_analog_pad_snap_end = _atom_offset_analog_pad_snap_end,
};
#pragma endregion duffle
+61
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@@ -0,0 +1,61 @@
#ifdef INTELLISENSE_DIRECTIVES
# include "dsl.h"
# include "gp.h"
# include "lottes_tape.h"
#endif
ATOM_FILE_DEBUGGER_LINE_MARKER(gp_atom_c);
#pragma region MACs (Mips Atom Components)
FI_ Slice_MipsCode ac_gcmd_push(AtomBuilder_R ab, U4 cmd, U4 reg_transfer, U4 reg_base, U2 port)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
mac_load_word_imm(reg_transfer, cmd),
store_word( reg_transfer, reg_base, port),
})
FI_ Slice_MipsCode ac_store_rgb8(AtomBuilder_R ab, U1 rr, U1 rg, U1 rb, U4 base, U4 offset)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
store_byte(rr, base, offset + O_(RGB8,r)),
store_byte(rg, base, offset + O_(RGB8,g)),
store_byte(rb, base, offset + O_(RGB8,b)),
})
FI_ Slice_MipsCode ac_pack_color_word(AtomBuilder_R ab, U4 r_base, U4 off, U4 cmd, U1 r, U1 g, U1 b)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
load_upper_i(R_AT, (cmd) << 8 | (b)),
or_i_self( R_AT, ((g) << 8) | (r)),
store_word( R_AT, r_base, (off)),
})
FI_ Slice_MipsCode ac_format_f3_color(AtomBuilder_R ab, U4 r_base, U1 r, U1 g, U1 b)
atom_dbg_skip MipsAtomComp_Proc_(ab, { mac_pack_color_word(r_base, O_(Poly_F3,color), gp0_cmd_poly_f3, r, g, b) })
FI_ Slice_MipsCode ac_format_g4_color(AtomBuilder_R ab, U4 r_prim_cursor,
U1 r0, U1 g0, U1 b0,
U1 r1, U1 g1, U1 b1,
U1 r2, U1 g2, U1 b2,
U1 r3, U1 g3, U1 b3)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
mac_pack_color_word(r_prim_cursor, O_(Poly_G4,c0), gp0_cmd_poly_g4, r0,g0,b0),
mac_pack_color_word(r_prim_cursor, O_(Poly_G4,c1), 0, r1,g1,b1),
mac_pack_color_word(r_prim_cursor, O_(Poly_G4,c2), 0, r2,g2,b2),
mac_pack_color_word(r_prim_cursor, O_(Poly_G4,c3), 0, r3,g3,b3),
})
/* Words: 11; Correctly inserts a primitive into the Ordering Table linked list. */
// TODO(Ed): Expose R_T1 as a r_t0, r_V0 as r_t2
I_ Slice_MipsCode ac_insert_ot_tag(AtomBuilder_R ab, Reg r_ot_base, Reg r_prim_cursor, U2 poly_size) MipsAtomComp_Proc_(ab, {
shift_lleft( R_T1, R_T1, S_(U4)/2), // T1 = otz * S_(U4) (otz arg is implicit R_T1)
add_u_self( R_T1, r_ot_base), // T1 = & OrderingTable[OTZ]
load_word( R_AT, R_T1, O_(PolyTag,code)), // AT = old_ot_head
load_upper_i(R_V0, (poly_size/S_(U4) - S_(PolyTag)/S_(U4)) << PolyTag_len_bits),
mask_upper( R_AT, R_AT, S_(PolyTag_len_bits)), // Strip upper 8 bits (length from prev cell) → keep only low 24
or_u( R_AT, R_AT, R_V0), // Merge length
store_word( R_AT, r_prim_cursor, O_(PolyTag,code)), // prim->tag = packed(prim_length, old_addr)
shift_lleft( R_AT, r_prim_cursor, S_(PolyTag_len_bits)), // AT = (prim_length << 24) | old_addr
shift_lright(R_AT, R_AT, S_(PolyTag_len_bits)),
store_word( R_AT, R_T1, O_(PolyTag,code)), // OrderingTable[OTZ] = PrimCursor
})
#pragma endregion MACs (Mips Atom Components)
+687 -98
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@@ -1,122 +1,711 @@
/* ============================================================================
* duffle DSL Suffix Conventions
* ============================================================================
* Every mnemonic in this header follows the same suffix grammar:
*
* Primitive commands: gp0_cmd_poly_f3 = 0x20 (byte opcode)
* Packed 32-bit cmd: gp0_word_poly_f3(r, g, b) (32-bit, shifted)
*
* Type ordering: domain?_(direction)?_action_target_modifier_type?
* Examples: add_ui (add + unsigned + immediate)
* add_s (add + signed, R-type implicit)
* shift_lleft (shift + logical + left)
* shift_aright (shift + arithmetic + right)
* call_reg(rs) (call + register, $ra implicit)
* gte_mv_to_data_r (gte + mv + to + data + register)
* gte_lw_v0_xy(base) (gte + lw + v0 + xy)
* load_upper_i (load-upper + immediate, unique verb)
*
* --- GPU-domain layer cake ---
* Every gp.h macro follows the same 4-layer composition as mips.h and gte.h:
* 4. Semantic encoders gp0_word_poly_f3(r,g,b)
* 3. Composite encoders enc_color_word(cmd, r, g, b)
* 2. Per-field encoders enc_gp0_color_r(r), enc_gp0_color_g(g), ...
* 1. Bitfield layout consts gp0_color_red_pos = 0, gp0_color_red_width = 8
* 0. Opcode IDs gp0_cmd_poly_f3 = 0x20
*
* Vendor mnemonics (gte_mtc2, gte_mfc2, etc.) are NOT in this header.
* They live in the opt-in `gp_vendor_sym.h` for users who prefer the PSYQ-style names.
* ============================================================================ */
#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "dsl.h"
# include "math.h"
# include "mips.h"
#endif
typedef Enum_(U4, gp_Commands) {
gcmd_Reset = 0b000,
gcmd_Polygon = 0b001,
gcmd_Line = 0b010,
gcmd_Rect = 0b011,
gcmd_VM_to_VM = 0b100,
gcmd_CPU_to_VM = 0b101,
gcmd_VM_to_CPU = 0b110,
gcmd_Environment = 0b111,
gcmd_SetDrawMode = 0xE1,
gcmd_SetTextureWindow = 0xE2,
gcmd_SetDrawArea_TopLeft = 0xE3,
gcmd_SetDrawArea_BotRight = 0xE4,
gcmd_SetDrawOffset = 0xE5,
gcmd_SetMaskBit = 0xE6,
gcmd_ResetCommandBuffer = 0x01,
gcmd_AcknowledgeGPUInterrupt = 0x02,
gcmd_DisplayEnable = 0x03,
gcmd_DMA_Request = 0x04,
gcmd_DispArea_Start = 0x05,
gcmd_HorizontalDisplayRange = 0x06,
gcmd_VerticalDisplayRange = 0x07,
gcmd_DisplayMode = 0x08,
gcmd_SetVramSize = 0x09,
};
#pragma region GPU Ports & Commands
/* ============================================================================
* Hardware MMIO Addresses
* ============================================================================
* PSX GPU has two 32-bit ports in the I/O register region at KSEG2 0x1F800000+.
* GP0 (offset 0x10) is the data port (commands + params).
* GP1 (offset 0x14) is the control port (status, ctrl writes).
* ============================================================================ */
/* IO base address (KSEG2 0x1F800000+ for the I/O register region).
* The 16-bit upper half `IO_BASE_ADDR_HI16` is the form used by tape-side macros that pin a register
* to hold the IO base and access ports via offsets:
* `lui $reg, 0x1F80` (1 word) then `sw $data, GPIO_PORT*_OFFSET($reg)` (1 word).
* Mirrors the `IO_BASE_ADDR equ 0x1F80` + `gpio_port0 equ 0x1810` pattern from graphics_hello/gp.s. */
enum {
gpio_port_0 = 0x1810,
gpio_port_1 = 0x1814,
IO_BASE_ADDR = 0x1F800000, /* full 32-bit I/O region base */
IO_BASE_ADDR_HI16 = 0x1F80, /* fits in a single `lui $reg, 0x1F80` */
gcmd_offset = 24,
/* Offsets from IO_BASE_ADDR to each port. Used by tape-side macros
* that pin a register to IO_BASE_ADDR and access ports via offsets:
* sw $data, GPIO_PORT0_OFFSET($io_base) ; write GP0
* sw $data, GPIO_PORT1_OFFSET($io_base) ; write GP1 */
GPIO_PORT0_OFFSET = 0x1810,
GPIO_PORT1_OFFSET = 0x1814,
gp_Reset = (gcmd_Reset << gcmd_offset),
gp_DisplayEnabled = (gcmd_DisplayEnable << gcmd_offset | 0x0),
gp_DisplayDisabled = (gcmd_DisplayEnable << gcmd_offset | 0x1),
gp_DMA_FIFO = 1,
gp_DMA_CPU_to_GPU = 2,
gp_DMA_GPU_to_CPU = 3,
gp_DMA_Request = (gcmd_DMA_Request << gcmd_offset),
gp_HorizontalDisplayRange_3168_608 = (gcmd_HorizontalDisplayRange << gcmd_offset | 0xC60 << 12 | 0x260),
gp_VerticalDiplayRange = (gcmd_VerticalDisplayRange << gcmd_offset),
gp_VerticalDisplayRange_264_24 = (gp_VerticalDiplayRange | 264 << 10 | 24),
gp_VerticalDisplayRange_504_24 = (gp_VerticalDiplayRange | 504 << 10 | 24),
gp_DisplayMode = (gcmd_DisplayMode << gcmd_offset),
gp_Disp_HRes_256 = (0x0),
gp_Disp_HRes_320 = (0x1),
gp_Disp_HRes_512 = (0x2),
gp_Disp_HRes_640 = (0x3),
gp_Disp_VRes_240 = (0x0 << 2),
gp_Disp_VRes_480 = (0x1 << 2),
gp_Disp_Color15 = (0x0 << 4),
gp_Disp_Color24 = (0x1 << 4),
gp_Disp_VInterlace = (0x1 << 5),
gp_DisplayMode_320x240_15bit_NTSC = (gp_DisplayMode | gp_Disp_HRes_320 | gp_Disp_VRes_240 | gp_Disp_Color15),
gp_DisplayMOde_640x480_24bbp_NTSC = (gp_DisplayMode | gp_Disp_HRes_640 | gp_Disp_VRes_480 | gp_Disp_Color24 | gp_Disp_VInterlace),
gp_DrawMode_DrawAllowed = 10,
gp_SetDrawMode_DrawAllowed = (gcmd_SetDrawMode << gcmd_offset | 0x1 << gp_DrawMode_DrawAllowed),
gp_SetArea_TopLeft = (gcmd_SetDrawArea_TopLeft << gcmd_offset),
gp_SetArea_BottomRight = (gcmd_SetDrawArea_BotRight << gcmd_offset),
HW_GP0_ADDR = (IO_BASE_ADDR_HI16 << 16) | GPIO_PORT0_OFFSET,
HW_GP1_ADDR = (IO_BASE_ADDR_HI16 << 16) | GPIO_PORT1_OFFSET,
};
#define HW_GP0 C_(U4 V_*, HW_GP0_ADDR)
#define HW_GP1 C_(U4 V_*, HW_GP1_ADDR)
#define gp0_send(word) (HW_GP0[0] = (word))
#define gp1_send(word) (HW_GP1[0] = (word))
#define DmaSlot_ // Annotate an instruction as filling a CPU <-> Command DMA delay slot/s
/* ============================================================================
* GP0 command byte constants + Layer 1 (GPU bitfield shifts)
* ============================================================================
* 8-bit GP0 opcodes (the upper byte of a primitive's first word). These are the BYTE only.
* NO macro body past this point uses a raw shift or raw mask.
* Mirrors the OPCODE_POS / RS_POS convention from mips.h.
* ============================================================================ */
enum {
gp0_cmd_Nop = 0x00,
/* Cache management */
gp0_cmd_ClearCache = 0x01,
gp0_cmd_FillVram = 0x02,
gp0_cmd_CopyVram = 0x80,
gp0_cmd_CopyVramChained = 0x81,
gp0_cmd_ReadVram = 0xC0,
/* Polygons */
gp0_cmd_poly_f3 = 0x20, /* Flat Triangle */
gp0_cmd_poly_ft3 = 0x24, /* Flat Textured Triangle */
gp0_cmd_poly_g3 = 0x30, /* Gouraud Triangle */
gp0_cmd_poly_gt3 = 0x34, /* Gouraud Textured Tri */
gp0_cmd_poly_f4 = 0x28, /* Flat Quad */
gp0_cmd_poly_ft4 = 0x2C, /* Flat Textured Quad */
gp0_cmd_poly_g4 = 0x38, /* Gouraud Quad */
gp0_cmd_poly_gt4 = 0x3C, /* Gouraud Textured Quad */
/* Lines */
gp0_cmd_line_f2 = 0x40,
gp0_cmd_line_g2 = 0x50,
/* Sprites + Tiles + Rects */
gp0_cmd_sprt_1 = 0x64,
gp0_cmd_sprt_8 = 0x74,
gp0_cmd_sprt_16 = 0x7C,
gp0_cmd_tile_1 = 0x60,
gp0_cmd_tile_8 = 0x68,
gp0_cmd_tile_16 = 0x70,
/* State setters (not drawing primitives; set render context). */
gp0_cmd_DrawModeSetting = 0xE1, /* TPage / draw-mode (semi-trans, dither, etc.) */
gp0_cmd_SetTextureWindow = 0xE2,
gp0_cmd_SetDrawArea_TopLeft = 0xE3,
gp0_cmd_SetDrawArea_BotRight = 0xE4,
gp0_cmd_SetDrawOffset = 0xE5,
gp0_cmd_SetMaskBit = 0xE6,
/* bitfield offset pos / widths ----
* Generic GP0/GP1 command byte (upper 8 bits of every word sent to either port). */
gp0_cmd_pos = 24,
gp0_cmd_width = 8,
/* Color word layout (lives in Poly_F3.color, Poly_G4.c0..c3, etc.):
* bits 31..24 = command byte
* bits 23..16 = BLUE
* bits 15..08 = GREEN
* bits 07..00 = RED (PSX GPU is BGR, NOT RGB) */
gp0_color_cmd_pos = 24, gp0_color_cmd_width = 8,
gp0_color_blue_pos = 16, gp0_color_blue_width = 8,
gp0_color_green_pos = 8, gp0_color_green_width = 8,
gp0_color_red_pos = 0, gp0_color_red_width = 8,
};
/* ============================================================================
* Layer 1.5 (per-field encoders) + Layer 2 (composite) + Layer 3 (semantic GP0 word builders)
* ============================================================================
* Layer 1.5 encoders take one field's value, mask it to its own width, and shift it to its own position.
* Mirrors `enc_op` / `enc_rs` / `enc_rt` in mips.h and `enc_gte_sf` / `enc_gte_mx` in gte.h.
* Layer-2 composite encoders OR the per-field encoders together; layer-3 semantic macros delegate to the composites.
* No raw shifts or magic numbers in any macro body below this point.
* ============================================================================ */
/* ---- Layer 1.5: per-field encoders ---- */
#define enc_gp0_cmd(cmd) ((cmd) << gp0_cmd_pos)
#define enc_gp0_color_cmd(cmd) ((cmd) << gp0_color_cmd_pos)
#define enc_gp0_color_r(r) ((r) << gp0_color_red_pos)
#define enc_gp0_color_g(g) ((g) << gp0_color_green_pos)
#define enc_gp0_color_b(b) ((b) << gp0_color_blue_pos)
/* ---- Layer 2: composite encoders ---- */
#define enc_color_word(cmd, r, g, b) (enc_gp0_color_cmd(cmd) | enc_gp0_color_r(r) | enc_gp0_color_g(g) | enc_gp0_color_b(b))
#define enc_gp0_cmd_word(cmd) (enc_gp0_cmd(cmd))
/* ---- Layer 3: semantic GP0 word builders ---- */
/* Pre-baked color+command words for all 8 polygon variants.
* Mirrors `load_word` / `add_ui` / `jump_reg` style in mips.h. */
#define gp0_word_poly_f3(r,g,b) enc_color_word(gp0_cmd_poly_f3, (r),(g),(b))
#define gp0_word_poly_ft3(r,g,b) enc_color_word(gp0_cmd_poly_ft3, (r),(g),(b))
#define gp0_word_poly_g3(r,g,b) enc_color_word(gp0_cmd_poly_g3, (r),(g),(b))
#define gp0_word_poly_gt3(r,g,b) enc_color_word(gp0_cmd_poly_gt3, (r),(g),(b))
#define gp0_word_poly_f4(r,g,b) enc_color_word(gp0_cmd_poly_f4, (r),(g),(b))
#define gp0_word_poly_ft4(r,g,b) enc_color_word(gp0_cmd_poly_ft4, (r),(g),(b))
#define gp0_word_poly_g4(r,g,b) enc_color_word(gp0_cmd_poly_g4, (r),(g),(b))
#define gp0_word_poly_gt4(r,g,b) enc_color_word(gp0_cmd_poly_gt4, (r),(g),(b))
/* Cache management — bare-cmd words (no color/range payload). */
#define gp0_word_clear_cache() enc_gp0_cmd_word(gp0_cmd_ClearCache)
#define gp0_word_fill_vram() enc_gp0_cmd_word(gp0_cmd_FillVram)
#define gp0_word_copy_vram() enc_gp0_cmd_word(gp0_cmd_CopyVram)
#define gp0_word_read_vram() enc_gp0_cmd_word(gp0_cmd_ReadVram)
/* NOP — bare-cmd word (no effect; used as DR_ENV padding). */
#define gp0_word_nop() enc_gp0_cmd_word(gp0_cmd_Nop)
/* ============================================================================
* GP1 command byte constants + Layer 1 (display-mode + range + draw-area bitfield shifts)
* ============================================================================
* GP1 status bits are read from HW_GP1;
* ctrl writes use GP1 commands packed into 32-bit words
* (cmd byte in the upper 8 bits via `enc_gp0_cmd(cmd)`).
* ============================================================================ */
enum {
gp1_cmd_Reset = 0x00,
gp1_cmd_ResetCmdBuffer = 0x01,
gp1_cmd_AcknowledgeIRQ = 0x02,
gp1_cmd_DisplayEnable = 0x03,
gp1_cmd_DMADirection = 0x04,
gp1_cmd_StartDisplayArea = 0x05,
gp1_cmd_HorizontalDisplayRange = 0x06,
gp1_cmd_VerticalDisplayRange = 0x07,
gp1_cmd_DisplayMode = 0x08,
/* Note: GP1 only has commands 0x00..0x08.
* The state-setter commands (SetTextureWindow, * SetDrawArea*, SetDrawOffset, SetMaskBit)
* live in the GP0 enum as * 0xE1..0xE6.
* DrawArea word builders are below as GP0s * macros (since they emit GP0 commands). */
/* ---- Display-mode payload flags (per PSX-SPX §"GP1 Display Mode").
* Bit positions match the encoder shifts below; values are the *payload* bits only (cmd byte is OR'd in by enc_gp1_disp_mode_word). */
gp1_disp_HRes_256 = 0x0,
gp1_disp_HRes_320 = 0x1,
gp1_disp_HRes_512 = 0x2,
gp1_disp_HRes_640 = 0x3,
gp1_disp_VRes_240 = 0x0,
gp1_disp_VRes_480 = 0x1,
gp1_disp_Color15 = 0x0,
gp1_disp_Color24 = 0x1,
gp1_disp_VInterlace = 0x1,
/* ---- Layer 1: GP1 display-mode + range + draw-area shifts/widths ---- */
gp1_disp_hres_pos = 0, gp1_disp_hres_width = 2,
gp1_disp_vres_pos = 2, gp1_disp_vres_width = 1,
gp1_disp_color_pos = 4, gp1_disp_color_width = 1,
gp1_disp_interlace_pos = 5, gp1_disp_interlace_width = 1,
/* GP1 horizontal display range: bits 0..11 = X2, bits 12..23 = X1 */
gp1_hrange_x1_pos = 12, gp1_hrange_x1_width = 12,
gp1_hrange_x2_pos = 0, gp1_hrange_x2_width = 12,
/* GP1 vertical display range: bits 0..9 = Y2, bits 10..19 = Y1 */
gp1_vrange_y1_pos = 10, gp1_vrange_y1_width = 10,
gp1_vrange_y2_pos = 0, gp1_vrange_y2_width = 10,
/* GP1 draw area (top-left or bottom-right): bits 0..9 = X, bits 10..19 = Y
* (10-bit signed — caller pre-signs) */
gp1_draw_x_pos = 0, gp1_draw_x_width = 10,
gp1_draw_y_pos = 10, gp1_draw_y_width = 10,
};
/* ---- Layer 1.5: GP1 per-field encoders ---- */
#define enc_gp1_disp_hres(h) ((h) << gp1_disp_hres_pos)
#define enc_gp1_disp_vres(v) ((v) << gp1_disp_vres_pos)
#define enc_gp1_disp_color(c) ((c) << gp1_disp_color_pos)
#define enc_gp1_disp_interlace(i) ((i) << gp1_disp_interlace_pos)
#define enc_gp1_hrange_x1(x1) ((x1) << gp1_hrange_x1_pos)
#define enc_gp1_hrange_x2(x2) ((x2) << gp1_hrange_x2_pos)
#define enc_gp1_vrange_y1(y1) ((y1) << gp1_vrange_y1_pos)
#define enc_gp1_vrange_y2(y2) ((y2) << gp1_vrange_y2_pos)
#define enc_gp1_draw_x(x) ((x) << gp1_draw_x_pos)
#define enc_gp1_draw_y(y) ((y) << gp1_draw_y_pos)
/* ---- Layer 2: GP1 composite encoders ---- */
#define enc_gp1_disp_mode_word(h, v, c, i) (enc_gp0_cmd(gp1_cmd_DisplayMode) | enc_gp1_disp_hres(h) | enc_gp1_disp_vres(v) | enc_gp1_disp_color(c) | enc_gp1_disp_interlace(i))
#define enc_gp1_hrange_word(x1, x2) (enc_gp0_cmd(gp1_cmd_HorizontalDisplayRange) | enc_gp1_hrange_x1(x1) | enc_gp1_hrange_x2(x2))
#define enc_gp1_vrange_word(y1, y2) (enc_gp0_cmd(gp1_cmd_VerticalDisplayRange) | enc_gp1_vrange_y1(y1) | enc_gp1_vrange_y2(y2))
/* ---- Layer 2: GP0 state-setter composite encoders ----
* GP0(0xE3) SetDrawArea top-left and GP0(0xE4) SetDrawArea bottom-right both use the same X/Y 10-bit signed payload as GP1 DisplayRange. */
#define enc_gp0_draw_area_tl_word(x, y) (enc_gp0_cmd(gp0_cmd_SetDrawArea_TopLeft) | enc_gp1_draw_x(x) | enc_gp1_draw_y(y))
#define enc_gp0_draw_area_br_word(x, y) (enc_gp0_cmd(gp0_cmd_SetDrawArea_BotRight) | enc_gp1_draw_x(x) | enc_gp1_draw_y(y))
/* ---- Layer 3: GP1 semantic word builders ---- */
#define gp1_word_Reset() enc_gp0_cmd_word(gp1_cmd_Reset)
#define gp1_word_ResetCmdBuffer() enc_gp0_cmd_word(gp1_cmd_ResetCmdBuffer)
#define gp1_word_AcknowledgeIRQ() enc_gp0_cmd_word(gp1_cmd_AcknowledgeIRQ)
#define gp1_word_StartDisplayArea() enc_gp0_cmd_word(gp1_cmd_StartDisplayArea)
#define gp1_word_display_enable(on) (enc_gp0_cmd(gp1_cmd_DisplayEnable) | ((on) & 1))
#define gp1_word_display_disable() gp1_word_display_enable(0)
#define gp1_word_display_mode_320x240_15bit_ntsc enc_gp1_disp_mode_word(gp1_disp_HRes_320, gp1_disp_VRes_240, gp1_disp_Color15, 0)
#define gp1_word_display_mode_640x480_24bit_ntsc_interlaced enc_gp1_disp_mode_word(gp1_disp_HRes_640, gp1_disp_VRes_480, gp1_disp_Color24, gp1_disp_VInterlace)
#define gp1_word_horizontal_range(x1, x2) enc_gp1_hrange_word((x1), (x2))
#define gp1_word_vertical_range(y1, y2) enc_gp1_vrange_word((y1), (y2))
/* ---- Layer 3: GP0 state-setter semantic word builders ---- */
/* DrawArea: top-left = (X, Y), bottom-right = (X, Y) — X/Y in 10-bit signed.
* Caller is responsible for sign-conversion before passing in. */
#define gp0_word_draw_area_top_left(x, y) enc_gp0_draw_area_tl_word((x), (y))
#define gp0_word_draw_area_bottom_right(x, y) enc_gp0_draw_area_br_word((x), (y))
/* ============================================================================
* Pre-baked GPU state words
* ============================================================================
* Common command words for boot-time GPU init and standard display configurations.
* ============================================================================ */
/* ---- Display enable (1-bit payload on DisplayEnable cmd) ---- */
#define gp1_word_display_enabled enc_gp0_cmd_word(gp1_cmd_DisplayEnable)
#define gp1_word_display_disabled (enc_gp0_cmd_word(gp1_cmd_DisplayEnable) | 1)
#define gp1_word_DisplayOn() gp1_word_display_enable(0)
#define gp1_word_DisplayOff() gp1_word_display_enable(1)
/* ---- DMA direction (2-bit payload on DMADirection cmd 0x04) ---- */
enum {
gp1_dma_dir_Off = 0,
gp1_dma_dir_FIFO = 1,
gp1_dma_dir_CPU_to_GPU = 2,
gp1_dma_dir_GPUREAD_to_CPU = 3,
};
#define gp1_word_dma_direction(dir) (enc_gp0_cmd(gp1_cmd_DMADirection) | ((dir) & 0x3))
#define gp1_word_dma_to_gpu() gp1_word_dma_direction(gp1_dma_dir_CPU_to_GPU)
#define gp1_word_dma_read_cpu() gp1_word_dma_direction(gp1_dma_dir_GPUREAD_to_CPU)
/* ---- Standard display ranges (NTSC + PAL pre-baked) ---- */
/* Horizontal range values are in video clock units (8 units/pixel); vertical range values are scanline numbers. */
enum {
/* NTSC horizontal range: X1=608, X2=3168 */
gp1_hrange_NTSC_x1 = 0x260,
gp1_hrange_NTSC_x2 = 0xC60,
/* PAL horizontal range (same as NTSC for most CRTs) */
gp1_hrange_PAL_x1 = 0x260,
gp1_hrange_PAL_x2 = 0xC60,
/* NTSC vertical range: Y1=24, Y2=264 */
gp1_vrange_NTSC_y1 = 24,
gp1_vrange_NTSC_y2 = 264,
/* PAL vertical range: Y1=24, Y2=504 */
gp1_vrange_PAL_y1 = 24,
gp1_vrange_PAL_y2 = 504,
};
#define gp1_word_horizontal_range_ntsc enc_gp1_hrange_word(gp1_hrange_NTSC_x1, gp1_hrange_NTSC_x2)
#define gp1_word_horizontal_range_pal enc_gp1_hrange_word(gp1_hrange_PAL_x1, gp1_hrange_PAL_x2)
#define gp1_word_vertical_range_ntsc enc_gp1_vrange_word(gp1_vrange_NTSC_y1, gp1_vrange_NTSC_y2)
#define gp1_word_vertical_range_pal enc_gp1_vrange_word(gp1_vrange_PAL_y1, gp1_vrange_PAL_y2)
/* ---- Draw-mode setting (TPage / draw-area allowance) ---- */
/* The "drawing enabled" word is the standard post-init state. */
enum {
/* Per psx-spx, the standard 0xE1 layout has dfe at bit 10. But libpsyx's PutDrawEnv
* uses bit 19 (in the "unused" 14-23 range) for dfe in the DR_ENV code[0] — and the
* PSX hardware honors bit 19 in the DR_ENV context (not bit 10). So we need a
* separate bit definition for the DR_ENV-specific DrawMode. */
gp0_DrawMode_DrawToDispBit = 10, // standard psx-spx bit 10 (dfe)
gp0_DrawMode_DR_ENV_DrawToDispBit = 19, // libpsyx DR_ENV code[0] (dfe in DR_ENV context)
gp0_DrawMode_DR_ENV_isbgBit = 19, // libpsyx uses bit 19 for isbg too
};
#define gp0_word_draw_mode_drawing_allowed (enc_gp0_cmd(gp0_cmd_DrawModeSetting) | (1 << gp0_DrawMode_DrawToDispBit))
/* DR_ENV-specific DrawMode variants (libpsyx SetDrawEnv layout).
* The DR_ENV is a 16-word packet emitted at boot by gp_screen_init's ac_put_draw_env_demo
* atom component. Within the DR_ENV, the 0xE1 command is reused in three different bit
* configurations:
* code[0] = `gp0_word_draw_mode_drawing_allowed` (dfe=1; standard post-init state)
* code[6] = `gp0_word_dr_env_bg_color_cmd(isbg, r, g, b)` (initial-bg-color path)
* code[7] = `gp0_word_dr_env_draw_mode(isbg)` (isbg-flag path)
* Bits 0-23 of the 0xE1 word are the payload; bits 24-31 are the cmd byte (0xE1). */
#define gp0_word_dr_env_bg_color_cmd(isbg, r, g, b) (enc_gp0_cmd(gp0_cmd_DrawModeSetting) | (1 << gp0_DrawMode_DrawToDispBit) | ((isbg) ? gp0_dr_env_isbg_bit : 0) | enc_gp0_color_r(r) | enc_gp0_color_g(g) | enc_gp0_color_b(b))
#define gp0_word_dr_env_draw_mode(isbg) (enc_gp0_cmd(gp0_cmd_DrawModeSetting) | (1 << gp0_DrawMode_DrawToDispBit) | ((isbg) ? gp0_dr_env_isbg_bit : 0))
/* State-setter bare-cmd words (no immediate payload; the GPU uses the current state machine already programmed). */
#define gp0_word_set_texture_window() enc_gp0_cmd_word(gp0_cmd_SetTextureWindow)
#define gp0_word_set_draw_offset() enc_gp0_cmd_word(gp0_cmd_SetDrawOffset)
#define gp0_word_set_mask_bit() enc_gp0_cmd_word(gp0_cmd_SetMaskBit)
/* DR_ENV code[5] Mask (0xE6 cmd + isbg bit). The isbg bit is set so the GPU knows the auto-clear path is active (paired with code[6] + code[7]). */
#define gp0_word_dr_env_mask() (gp0_word_set_mask_bit() | gp0_dr_env_isbg_bit)
/* DR_ENV pre-baked constants (libpsyx PutDrawEnv layout).
* DR_ENV is a 16-word packet: tag = (length << 24) | addr, where length = 15 (15 code words follow) and addr = 0 (chain to nothing). */
enum {
PolyTag_len_bits = 8,
PolyTag_addr_bits = 24,
gp0_dr_env_tag = (15 << 24) | 0x00FFFFFF,
gp0_dr_env_isbg_bit = (1 << gp0_DrawMode_DR_ENV_isbgBit),
};
/* ---- DrawArea at origin (0,0) and full screen (320x240) ---- */
#define gp0_word_draw_area_top_left_origin enc_gp0_draw_area_tl_word(0, 0)
#define gp0_word_draw_area_bottom_right_320x240 enc_gp0_draw_area_br_word(319, 239)
#define gp0_word_draw_area_bottom_right_640x480 enc_gp0_draw_area_br_word(639, 479)
#pragma endregion GPU Ports & Commands
#pragma region GPU Status
/* ============================================================================
* GPU status register bits
* ============================================================================
* Read from HW_GP1; the lower bits are DMA-block-size (variable-width).
* ============================================================================ */
enum {
gp1_Status_BitReady = 31,
gp1_Status_BitSendingDMA = 25,
gp1_Status_DMABlockSizeShift = 0,
};
#define gp1_status_is_ready() ((HW_GP1[0] >> gp1_Status_BitReady) & 1)
#define gp1_status_is_sending_dma() ((HW_GP1[0] >> gp1_Status_BitSendingDMA) & 1)
#pragma endregion GPU Status
#pragma region Primitives
/* ============================================================================
* Primitive structs (8 polygon variants + tag)
* ============================================================================
* Each struct follows the GPU-documented memory layout for the corresponding primitive command.
* The PolyTag is the OT-link header; the rest of the struct is the primitive's body.
*
* The current working layouts match the existing demo
* (floor_tri uses Poly_F3; cube_tri uses Poly_G4).
* They are NOT necessarily byte-identical to the PSX-SPX reference layout.
* The demo layout uses color+vertex interleaving that doesn't match the standard PSX SDK file format.
* For PSX-SDK file compatibility, the textured variants (FT*, GT*) would need layout adjustments.
* ============================================================================ */
/* ---------- RGB8 (3-byte packed color) ---------- */
typedef Struct_(RGB8) { B1 r; B1 g; B1 b; };
#define rgb8(r, g, b) (RGB8){ r, g, b }
#define rgb8(r,g,b) ((RGB8){r,g,b})
typedef B1 gp_Pixel16[1];
typedef B1 gp_Pixel24[3];
enum {
gp_b10_X = 0,
gp_b10_Y = 10,
gp_b16_X = 0,
gp_b16_Y = 16,
/* ---------- PolyTag (the OT-link header; 1 word) ---------- */
// enum {
// PolyTag_len_bits = 8,
// PolyTag_addr_bits = 24,
// };
typedef Struct_(PolyTag) {
union {
U4 code;
struct {
U4 addr: 24;
U4 len: 8;
};
};
};
typedef Struct_(gp_Vec2) { U2 y; U2 x; };
#define set_len(tag,v) (C_(PolyTag_R,tag)->len = u4_(v))
#define set_addr(tag,v) (C_(PolyTag_R,tag)->addr = u4_(v))
/* `set_code` is no longer in the new PolyTag design
* (e.g. `((Poly_F3*)(p))->code`), not in the tag.
* Use the typed primitive structs (Poly_F3, Poly_G4, etc.) and the `set_poly_*` setters, which set both the tag's length and the code. */
#define get_len(tag) C_(U4,C_(PolyTag_R,tag)->len)
#define get_addr(tag) C_(U4,C_(PolyTag_R,tag)->addr)
#if 1
void gp_screen_init(void) __asm__("gp_screen_init_asm");
#else
#define gp_screen_init() gp_screen_init_c11()
#endif
/* ---------- Poly_F3 (Flat Triangle; 5 words) ---------- */
typedef Struct_(Poly_F3) {
U4 tag;
RGB8 color;
B1 code;
union {
struct { V2_S2 p0; V2_S2 p1; V2_S2 p2; };
A3_V2_S2 points;
};
};
/* ---------- Poly_F4 (Flat Quad; 6 words) ---------- */
typedef Struct_(Poly_F4) {
U4 tag;
RGB8 color;
B1 code;
union {
struct { V2_S2 p0; V2_S2 p1; V2_S2 p2; V2_S2 p3; };
A4_V2_S2 points;
};
};
/* ---------- Poly_G3 (Gouraud Triangle; 7 words) ---------- */
typedef Struct_(Poly_G3) {
U4 tag; RGB8 c0; B1 code;
V2_S2 p0; RGB8 c1; B1 pad1;
V2_S2 p1; RGB8 c2; B1 pad2;
V2_S2 p2;
};
// TODO REVIEW:
/* ---------- Poly_G4 (Gouraud Quad; 9 words) ---------- */
typedef Struct_(Poly_G4) {
U4 tag; RGB8 c0; B1 code;
V2_S2 p0; RGB8 c1; B1 pad1;
V2_S2 p1; RGB8 c2; B1 pad2;
V2_S2 p2; RGB8 c3; B1 pad3;
V2_S2 p3;
};
/* --- GPU Command Semantics (GP0) --- */
/* ---------- Poly_FT3 (Flat Textured Triangle; placeholder layout) ---------- */
/* TODO(Ed): verify the textured-variant layout against PSX-SPX when needed. */
typedef Struct_(Poly_FT3) {
U4 tag;
RGB8 color;
B1 code;
U4 tpage;
U4 clut;
V2_S2 p0; U1 u0; U1 v0;
V2_S2 p1; U1 u1; U1 v1;
V2_S2 p2; U1 u2; U1 v2;
};
#define GPU_CMD_CLEAR_CACHE 0x01
#define GPU_CMD_VRAM_FILL 0x02
#define GPU_CMD_VRAM_COPY 0x80
#define GPU_CMD_VRAM_READ 0xC0
#define GPU_CMD_POLY_F3 0x20 /* Flat Triangle */
#define GPU_CMD_POLY_FT3 0x24 /* Flat Textured Triangle */
#define GPU_CMD_POLY_G3 0x30 /* Gouraud Triangle */
#define GPU_CMD_POLY_GT3 0x34 /* Gouraud Textured Triangle */
#define GPU_CMD_POLY_F4 0x28 /* Flat Quad */
#define GPU_CMD_POLY_FT4 0x2C /* Flat Textured Quad */
#define GPU_CMD_POLY_G4 0x38 /* Gouraud Quad */
#define GPU_CMD_POLY_GT4 0x3C /* Gouraud Textured Quad */
/* ---------- Poly_FT4 (Flat Textured Quad) ---------- */
typedef Struct_(Poly_FT4) {
U4 tag;
RGB8 color;
B1 code;
U4 tpage;
U4 clut;
V2_S2 p0; U1 u0; U1 v0;
V2_S2 p1; U1 u1; U1 v1;
V2_S2 p2; U1 u2; U1 v2;
V2_S2 p3; U1 u3; U1 v3;
};
/* --- Hardware MMIO Addresses --- */
/* ---------- Poly_GT3 (Gouraud Textured Triangle) ---------- */
typedef Struct_(Poly_GT3) {
U4 tag; RGB8 c0; B1 code;
V2_S2 p0; RGB8 c1; B1 pad1;
V2_S2 p1; RGB8 c2; B1 pad2;
V2_S2 p2;
U4 tpage;
U4 clut;
V2_S2 tp0; U1 u0; U1 v0;
V2_S2 tp1; U1 u1; U1 v1;
V2_S2 tp2; U1 u2; U1 v2;
};
#define HW_GP0_ADDR 0x1F801810 /* GPU Data Port */
#define HW_GP1_ADDR 0x1F801814 /* GPU Status/Control Port */
/* ---------- Poly_GT4 (Gouraud Textured Quad) ---------- */
typedef Struct_(Poly_GT4) {
U4 tag; RGB8 c0; B1 code;
V2_S2 p0; RGB8 c1; B1 pad1;
V2_S2 p1; RGB8 c2; B1 pad2;
V2_S2 p2; RGB8 c3; B1 pad3;
V2_S2 p3;
U4 tpage;
U4 clut;
V2_S2 tp0; U1 u0; U1 v0;
V2_S2 tp1; U1 u1; U1 v1;
V2_S2 tp2; U1 u2; U1 v2;
V2_S2 tp3; U1 u3; U1 v3;
};
/* ---------- Primitive setters (C-level) ----------
* DSL cast convention: every cast via C_(), every pointer via R_/V_. */
#define set_poly_f3(p) set_len(p, 4), C_(Poly_F3_R, p)->code = gp0_cmd_poly_f3
#define set_poly_ft3(p) set_len(p, 7), C_(Poly_FT3_R,p)->code = gp0_cmd_poly_ft3
#define set_poly_g3(p) set_len(p, 6), C_(Poly_G3_R, p)->code = gp0_cmd_poly_g3
#define set_poly_gt3(p) set_len(p, 9), C_(Poly_GT3_R,p)->code = gp0_cmd_poly_gt3
#define set_poly_f4(p) set_len(p, 5), C_(Poly_F4_R, p)->code = gp0_cmd_poly_f4
#define set_poly_ft4(p) set_len(p, 9), C_(Poly_FT4_R,p)->code = gp0_cmd_poly_ft4
#define set_poly_g4(p) set_len(p, 8), C_(Poly_G4_R, p)->code = gp0_cmd_poly_g4
#define set_poly_gt4(p) set_len(p, 12), C_(Poly_GT4_R,p)->code = gp0_cmd_poly_gt4
/* ---------- Ordering table ops ---------- */
#define orderingtbl_add_primitive(ot, p) set_addr(p, get_addr(ot)), set_addr(ot, p)
#define orderingtbl_add_primitives(ot, p0, p1) set_addr(p1, get_addr(ot)), set_addr(ot, p0)
#pragma endregion Primitives
#pragma region TPage
/* ============================================================================
* Texture Page (TPage) bit layout
* ============================================================================
* The TPage data word sent via GP0(0x2X) has:
* bits 0..3 = texture page X (4 bits, 64-px units, 0..16)
* bit 4 = texture page Y (1 bit, 64-px units, 0/1)
* bits 5..6 = semi-transparency (2 bits, 0..3)
* bits 7..8 = texture page colors (2 bits, 4bpp/8bpp/16bpp/2bpp-mixed)
* bit 9 = dither (1 bit, 0/1)
* bit 10 = drawing to display area (1 bit)
* bit 11 = texture disable (1 bit)
* bits 12..31 = reserved (zero)
* ============================================================================ */
enum {
/* ---- Layer 1: TPage bitfield shifts / widths ---- */
gp0_tpage_x_pos = 0, gp0_tpage_x_width = 4,
gp0_tpage_y_pos = 4, gp0_tpage_y_width = 1,
gp0_tpage_semi_trans_pos = 5, gp0_tpage_semi_trans_width = 2,
gp0_tpage_color_depth_pos = 7, gp0_tpage_color_depth_width = 2,
gp0_tpage_dither_pos = 9, gp0_tpage_dither_width = 1,
gp0_tpage_draw_to_disp_pos = 10, gp0_tpage_draw_to_disp_width = 1,
gp0_tpage_tex_disable_pos = 11, gp0_tpage_tex_disable_width = 1,
/* TPage color-depth payload values (NOT bit positions — these go in
* the 2-bit field at gp0_tpage_color_depth_pos). */
gp0_tpage_color_4bpp = 0x0,
gp0_tpage_color_8bpp = 0x1,
gp0_tpage_color_16bpp = 0x2,
/* Default TPage value libpsyx's SetDefDrawEnv writes (matches the `li v1, 10; sh v1, 20(v0)` sequence at C11_only.elf:0x8001273C). */
gp0_tpage_default = 10,
/* TPage semi-transparency mode payload values. */
gp0_tpage_semi_trans_none = 0x0,
gp0_tpage_semi_trans_alpha = 0x1,
gp0_tpage_semi_trans_add = 0x2,
gp0_tpage_semi_trans_sub = 0x3,
};
/* ---- Layer 1.5: TPage per-field encoders. Mirrors enc_gte_sf/mx/v in gte.h. ---- */
#define enc_gp0_tpage_x(x) ((x) << gp0_tpage_x_pos)
#define enc_gp0_tpage_y(y) ((y) << gp0_tpage_y_pos)
#define enc_gp0_tpage_semi_trans(s) ((s) << gp0_tpage_semi_trans_pos)
#define enc_gp0_tpage_color_depth(c) ((c) << gp0_tpage_color_depth_pos)
#define enc_gp0_tpage_dither(d) ((d) << gp0_tpage_dither_pos)
#define enc_gp0_tpage_draw_to_disp(d) ((d) << gp0_tpage_draw_to_disp_pos)
#define enc_gp0_tpage_tex_disable(t) ((t) << gp0_tpage_tex_disable_pos)
/* ---- Layer 2: TPage composite encoder. Mirrors enc_gte_cmdw in gte.h ---- */
#define enc_gp0_tpage_word(x, y, semi_trans, color_depth, dither, draw_to_disp, tex_disable) \
(enc_gp0_tpage_x(x) \
| enc_gp0_tpage_y(y) \
| enc_gp0_tpage_semi_trans(semi_trans) \
| enc_gp0_tpage_color_depth(color_depth) \
| enc_gp0_tpage_dither(dither) \
| enc_gp0_tpage_draw_to_disp(draw_to_disp) \
| enc_gp0_tpage_tex_disable(tex_disable))
typedef Struct_(TexturePage) { U4 raw; };
/* ---- Layer 3: TPage semantic word builder ---- */
#define gp0_word_tpage(x, y, semi_trans, color_depth, dither, draw_to_disp, tex_disable) \
enc_gp0_tpage_word((x), (y), (semi_trans), (color_depth), (dither), (draw_to_disp), (tex_disable))
#pragma endregion TPage
#pragma region CLUT
/* ============================================================================
* CLUT (Color Look-Up Table) semantics
* ============================================================================
* CLUT is loaded into VRAM by sending a GP0 command whose payload is:
* bits 0..5 = Y in 16-px units (palette row)
* bits 6..14 = X in 16-px units (palette column)
* bits 15..23 = reserved (zero)
* bits 24..31 = command byte — 0x20 (4bpp load) or 0x25 (8bpp load)
* ============================================================================ */
enum {
/* ---- Layer 1: CLUT bitfield shifts / widths ---- */
gp0_clut_y_pos = 0, gp0_clut_y_width = 6,
gp0_clut_x_pos = 6, gp0_clut_x_width = 9,
/* CLUT-load cmd-byte variants — the upper byte of the GP0 word. */
gp0_clut_cmd_Load4bpp = 0x20,
gp0_clut_cmd_Load8bpp = 0x25,
};
/* ---- Layer 1.5: CLUT per-field encoders ---- */
#define enc_gp0_clut_x(x) ((x) << gp0_clut_x_pos)
#define enc_gp0_clut_y(y) ((y) << gp0_clut_y_pos)
/* ---- Layer 2: CLUT composite encoder ---- */
#define enc_gp0_clut_word(cmd, x, y) (enc_gp0_cmd(cmd) | enc_gp0_clut_x(x) | enc_gp0_clut_y(y))
/* ---- Layer 3: CLUT semantic word builders — one per depth variant,
* named cmd-byte (no opaque ternary). ---- */
#define gp0_word_clut_load_4bpp(x, y) enc_gp0_clut_word(gp0_clut_cmd_Load4bpp, (x), (y))
#define gp0_word_clut_load_8bpp(x, y) enc_gp0_clut_word(gp0_clut_cmd_Load8bpp, (x), (y))
#pragma endregion CLUT
#pragma region TIM File Format
/* ============================================================================
* TIM file format constants and headers
* ============================================================================
* TIM (Sony .TIM texture image) file structure:
* +0x00 U4 file_id (always 0x10 = TIM magic)
* +0x04 U4 version (always 0x00 for v1)
* +0x08 U4 flags (bits 0..2 = type, bit 3 = has_CLUT)
* +0x0C ... CLUT section (if flags & 0x8)
* +0x00 U4 clut_section_length
* +0x04 U2 clut_org_x
* +0x06 U2 clut_org_y
* +0x08 U2 num_colors
* +0x0A U2 depth_bpp
* +0x0C ... palette data
* ... ... Pixel section
* +0x00 U4 px_section_length
* +0x04 U2 px_width
* +0x06 U2 px_height
* +0x08 ... pixel data
*
* Future?: add `tim_load_to_vram(tim_ptr, vram_addr)` that emits the necessary GP0 commands.
* Stoppped for now at the struct + enum level.
* ============================================================================ */
enum {
tim_file_id_magic = 0x10,
tim_type_4bpp = 0x00,
tim_type_8bpp = 0x01,
tim_type_16bpp = 0x02,
tim_type_32bpp = 0x03,
tim_type_mixed = 0x04,
tim_flag_has_clut = 0x08,
};
typedef Struct_(TIM_Header) {
U4 file_id; /* always 0x10 = "TIM" magic */
U4 version; /* ignored; always 0 */
U4 flags; /* bits 0..2 = type, bit 3 = has_clut */
};
typedef Struct_(TIM_SectionHeader) {
U4 section_length; /* bytes in this section including this header */
U2 org_x; /* origin in VRAM */
U2 org_y;
U2 width; /* width in pixels */
U2 height; /* height in pixels */
};
#pragma endregion TIM File Format
#pragma region Tape-Side Macros
/* ============================================================================
* Tape-side GPU operations (NOT in this header)
* ============================================================================
*
* No `mac_gp0_send` or related macros live in gp.h.
* Rationale: the Lottes tape model uses OT-DMA for primitive submission, so atom bodies write to main RAM (the OT/primitive buffer)
* and to GTE state — never directly to the GPU ports at 0x1F801810 / 0x1F801814.
* See `mac_format_f3_color`, `mac_insert_ot_tag`, `mac_gte_store_f3` in lottes_tape.h for the patterns atom bodies actually use.
*
* If a feature need arises requires tape-side GPU port writes
* (e.g. DMA-kick to start GPU consumption of the OT, VBlank sync via GP1 status poll),
* the right home is `lottes_tape.h` alongside the rest of the `mac_*` family:
* 1. The caller pins a register to hold the IO base, e.g. register U4 r_io rgcc(R_T4) = IO_BASE_ADDR;
* The compiler emits `lui R_T4, IO_BASE_ADDR_HI16` outside the atom body (in the C prologue before tape_run).
* 2. The atom body uses `store_word(R_data, R_T4, GPIO_PORT0_OFFSET)` to write to GP0, and `store_word(R_data, R_T4, GPIO_PORT1_OFFSET)`
* to write to GP1. Both are preprocessor-encodable because R_T4 is a fixed register and the GPIO_PORT*_OFFSET constants
* fit in the `sw`'s 16-bit signed offset field. No placeholder-pun, no asm constraints, no hidden register choice.
* Same pattern as the old graphics_hello/hello_gp_routines.s `reg_io_offset`/`gcmd_push` convention.
*
* This mirrors the existing tape-side wave-context discipline:
* the caller binds the IO-base register via `rgcc()`, the macro assumes the binding is in effect,
* and the encoding falls out at preprocessor time.
* No additional GPU-domain macro layer required.
* ============================================================================ */
#pragma endregion Tape-Side Macros
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/* ============================================================================
* duffle DSL — GPU Vendor Mnemonics (opt-in)
* ============================================================================
*
* Provides the PSYQ-style CamelCase aliases for the duffle GPU primitive setters and OT operations.
* The duffle snake_case names are primary; this header is for users who prefer the PSYQ SDK function names from the legacy C API.
*
* USAGE: #include "duffle/gp_vendor_sym.h" // after gp.h
*
* Mapping (vendor -> duffle):
* Primitive setters (PSYQ SDK-style):
* setPolyF3 -> set_poly_f3
* setPolyF4 -> set_poly_f4
* setPolyG3 -> set_poly_g3
* setPolyG4 -> set_poly_g4
* setPolyFT3 -> set_poly_ft3
* setPolyFT4 -> set_poly_ft4
* setPolyGT3 -> set_poly_gt3
* setPolyGT4 -> set_poly_gt4
*
* OT operations:
* AddPrim(ot, p) -> orderingtbl_add_primitive(ot, p)
*
* The gp0_cmd_* / gp1_cmd_* byte constants are already short and descriptive; no vendor alias is provided for them.
*
* The vendor mnemonics are NOT registered with the duffle word-count metadata (word_counts.metadata.h).
* They expand to the duffle macros which DO have word-count entries
* (the ones emitted by mac_format_f3_color / mac_gte_store_f3 / etc.). Verification: V13 (objdump byte-identical) holds.
* ============================================================================ */
#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "gp.h"
#endif
#ifndef DUFFLE_GP_VENDOR_SYM_H
#define DUFFLE_GP_VENDOR_SYM_H
/* Primitive setters (PSYQ SDK-style) */
#define setPolyF3(p) set_poly_f3(p)
#define setPolyF4(p) set_poly_f4(p)
#define setPolyG3(p) set_poly_g3(p)
#define setPolyG4(p) set_poly_g4(p)
#define setPolyFT3(p) set_poly_ft3(p)
#define setPolyFT4(p) set_poly_ft4(p)
#define setPolyGT3(p) set_poly_gt3(p)
#define setPolyGT4(p) set_poly_gt4(p)
/* OT operations */
#define AddPrim(ot, p) orderingtbl_add_primitive((ot), (p))
#endif
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#ifdef INTELLISENSE_DIRECTIVES
# include "gen/macs.h"
# include "gen/offsets.h"
# include "gte.h"
# include "gp.h"
# include "lottes_tape.h"
#endif
ATOM_FILE_DEBUGGER_LINE_MARKER(gte_atom_c);
#pragma region MACs (Mips Atom Components)
/* Words: 3; Loads 3 S2 indices from the face array */
FI_ Slice_MipsCode ac_load_tri_indices(AtomBuilder_R ab, U4 r_face_cusor, U4 r_i0, U4 r_i1, U4 r_i2)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
load_half_u(r_i0, r_face_cusor, 0 * S_(S2)),
load_half_u(r_i1, r_face_cusor, 1 * S_(S2)),
load_half_u(r_i2, r_face_cusor, 2 * S_(S2)),
})
FI_ Slice_MipsCode ac_gte_mv_to_cr_diag_v3s4(AtomBuilder_R ab, Reg_(V3_S4) v) MipsAtomComp_Proc_(ab, {
gte_mv_to_ctrl_r(v.y, gte_cr_RT13),
gte_mv_to_ctrl_r(v.z, gte_cr_RT22),
gte_mv_to_ctrl_r(v.x, gte_cr_RT11),
})
FI_ Slice_MipsCode ac_gte_ld_ir123_v3s4(AtomBuilder_R ab, Reg_(V3_S4) v) MipsAtomComp_Proc_(ab, {
gte_mv_to_data_r(v.x, C2_IR1),
gte_mv_to_data_r(v.y, C2_IR2),
gte_mv_to_data_r(v.z, C2_IR3),
})
/* ─── GTE OP cross product (a × b → a) ───
* Sets up RT diagonal from a.xyz, IR1/2/3 from b.xyz, fires OP,
* reads MAC1/2/3, shifts right 12 (S12.20 → S12.0 OuterProduct12), writes back to a.xyz.
* Composes the three sub-primitives (RT-load, IR-load, OP, MAC-read, shift)
* into one component for use by atoms that need the cross product inline.
*
* Output gpr (a) aliases source-A gpr; MAC read clobbers source-A's load targets,
* but by that point the RT load is complete and source A is dead.
* Pipeline: clobbers IR1..3, MAC1..3, RT11..33.
*
* The CPU→COP2 transfer chains (3 ctc2, 3 mtc2) require a 2-slot retirement gap,
* and the MFC2→GPR chain (3 mfc2) requires a 1-slot retirement gap, before the GPR can be read.
* The hazard nops are inlined below — same convention as ac_gte_gpf_scale — so any atom body inlining this component inherits them.
*
* Words: 18 (3 ctc2 + 2 nop + 3 mtc2 + 2 nop + 1 op + 3 mfc2 + 1 nop + 3 sra).
*/
FI_ Slice_MipsCode ac_gte_op_cross_v3s4(AtomBuilder_R ab, Reg_(V3_S4) a, Reg_(V3_S4) b) atom_dbg_skip MipsAtomComp_Proc_(ab, {
mac_gte_mv_to_cr_diag_v3s4(a), GteDelay_ /* RT diagonal: D1 = a.x, D2 = a.y, D3 = a.z */
mac_gte_ld_ir123_v3s4(b), GteDelay_ /* IR: second operand (b.xyz) */
gte_cmdw_cross, /* OP: MAC1/2/3 = a × b (S12.20) */
mac_gte_mv_from_mac123_v3s4(a), GteDelay_ /* Read MAC1/2/3 → a.xyz (overwrites source-A's load targets) */
mac_shift_aright_v3s4_self(a, 12), /* Right-shift MAC by 12 (S12.20 → S12.0 OuterProduct12) */
})
/* Words: 3; Stores the 3 transformed (V2_S2 screen) vertices to the F3.
* PIPELINE: post-RTPT (SXY0=v0.screen, SXY1=v1.screen, SXY2=v2.screen). */
FI_ Slice_MipsCode ac_gte_store_f3(AtomBuilder_R ab, U4 r_primitive_cursor) atom_dbg_skip MipsAtomComp_Proc_(ab, {
gte_sw(C2_SXY0, r_primitive_cursor, O_(Poly_F3,p0)),
gte_sw(C2_SXY1, r_primitive_cursor, O_(Poly_F3,p1)),
gte_sw(C2_SXY2, r_primitive_cursor, O_(Poly_F3,p2)),
})
/* Words: 18; Translates indices to vertex addresses and pushes them to GTE */
I_ Slice_MipsCode ac_gte_load_tri_verts(AtomBuilder_R ab, Reg vbase, Reg v0, Reg v1, Reg v2) atom_dbg_skip MipsAtomComp_Proc_(ab, {
shift_lleft(R_AT, v0, v3s2_byteoff), add_u_self(R_AT, vbase), load_word(R_V0, R_AT, O_(V3_S2,x)), load_word(R_V1, R_AT, O_(V3_S2,z)), LdSlot_ gte_mv_to_data_r(R_V0, C2_VXY0), gte_mv_to_data_r(R_V1, C2_VZ0),
shift_lleft(R_AT, v1, v3s2_byteoff), add_u_self(R_AT, vbase), load_word(R_V0, R_AT, O_(V3_S2,x)), load_word(R_V1, R_AT, O_(V3_S2,z)), LdSlot_ gte_mv_to_data_r(R_V0, C2_VXY1), gte_mv_to_data_r(R_V1, C2_VZ1),
shift_lleft(R_AT, v2, v3s2_byteoff), add_u_self(R_AT, vbase), load_word(R_V0, R_AT, O_(V3_S2,x)), load_word(R_V1, R_AT, O_(V3_S2,z)), LdSlot_ gte_mv_to_data_r(R_V0, C2_VXY2), gte_mv_to_data_r(R_V1, C2_VZ2),
})
/* Words: 3; Stores the 3 transformed (V2_S2 screen) vertices of the
* G4 triangle portion to p0/p1/p2.
* PIPELINE: post-RTPT, pre-RTPS (SXY0=v0.screen, SXY1=v1.screen, SXY2=v2.screen).
* MUST be called BEFORE V3-RTPS, otherwise SXY0/1/2 get overwritten with v3
* (RTPS writes only to SXY2, but to keep the three registers aligned with v0/v1/v2 you must store before RTPS). */
FI_ Slice_MipsCode ac_gte_store_g4_p012(AtomBuilder_R ab, Reg r_primitive_cursor) atom_dbg_skip MipsAtomComp_Proc_(ab, {
gte_sw(C2_SXY0, r_primitive_cursor, O_(Poly_G4,p0)),
gte_sw(C2_SXY1, r_primitive_cursor, O_(Poly_G4,p1)),
gte_sw(C2_SXY2, r_primitive_cursor, O_(Poly_G4,p2)),
})
/* Words: 1; Stores the V3 screen coord to the G4's p3 slot.
* PIPELINE: post-RTPS (SXY2 holds v3.screen because RTPS writes its single-vertex result to SXY2;
* SXY0 still holds v0.screen from the earlier RTPT.
*/
FI_ Slice_MipsCode ac_gte_store_g4_p3(AtomBuilder_R ab, U4 r_primitive_cursor) atom_dbg_skip MipsAtomComp_Proc_(ab, { gte_sw(C2_SXY2, r_primitive_cursor, O_(Poly_G4,p3)) })
/* ─── STAGE 1 of normalize: SQR + mfc2 MAC1/2/3 ───
* Emits squared magnitude per component (in MAC1/2/3) into caller-provided scratch regs. */
FI_ Slice_MipsCode ac_gte_sqr_v3(AtomBuilder_R ab, U4 r_sx, U4 r_sy, U4 r_sz, U4 r_sq_x, U4 r_sq_y, U4 r_sq_z) atom_dbg_skip MipsAtomComp_Proc_(ab, {
mac_gte_sqr_v3s4(r_sx, r_sy, r_sz, nop),
gte_mv_from_data_r(r_sq_x, C2_MAC1),
gte_mv_from_data_r(r_sq_y, C2_MAC2),
gte_mv_from_data_r(r_sq_z, C2_MAC3),
})
/* ─── SQR FIRE — mtc2 3 GPRs into IR1/IR2/IR3, then fire SQR. ─── */
FI_ Slice_MipsCode ac_gte_sqr_v3s4(AtomBuilder_R ab, Reg r_sx, Reg r_sy, Reg r_sz, MipsCode delay_slot)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
gte_mv_to_data_r(r_sx, C2_IR1),
gte_mv_to_data_r(r_sy, C2_IR2),
gte_mv_to_data_r(r_sz, C2_IR3),
delay_slot, gte_cmdw_sqr,
})
/* ─── STAGE 4 of normalize: mtc2 IR0..3 + GPF + mfc2 MAC + srav finalize ───
* Reusable standalone — given an IR0 = 1/|v| estimate (typically from a sqrtbl lookup) and a shift count
* (typically (31 - LZCR)/2), multiplies IR0*IR[i] via GPF and shifts right to produce the normalized output.
* Used standalone for "scale vector by scalar".
* Words: 11. Clobbers: IR0..3, MAC1..3. Uses gte_cmdw_gpf (sf=0, lm=0). */
FI_ Slice_MipsCode ac_gte_gpf_scale(AtomBuilder_R ab,
U4 r_sx, U4 r_sy, U4 r_sz,
U4 r_recip_est, U4 r_shift,
U4 r_dx, U4 r_dy, U4 r_dz)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
gte_mv_to_data_r(r_recip_est, C2_IR0),
gte_mv_to_data_r(r_sx, C2_IR1),
gte_mv_to_data_r(r_sy, C2_IR2),
gte_mv_to_data_r(r_sz, C2_IR3),
GteDelay_ nop2, /* retire IR0..IR3 → GPF input pre-fill (matches libgte 0x80016134..0x80016138) */
gte_cmdw_gpf,
gte_mv_from_data_r(r_dx, C2_MAC1),
gte_mv_from_data_r(r_dy, C2_MAC2),
gte_mv_from_data_r(r_dz, C2_MAC3),
shift_aright_var(r_dx, r_dx, r_shift),
shift_aright_var(r_dy, r_dy, r_shift),
shift_aright_var(r_dz, r_dz, r_shift),
})
/* ─── TRANS MATRIX (libgte TransMatrix port) ───
* Atom component — auto-generates mac_trans_matrix Mac composer macro.
* m->t = v (struct copy; libgte's TransMatrix at 0x8001a540 is just 3 store_words, no GTE, no add).
* Uses 1 GPR (r_t1 = off value) per axis; per-axis load-delay-slot pattern.
* Words: 9. Clobbers: r_t1. */
FI_ Slice_MipsCode ac_trans_mt3s3s4(AtomBuilder_R ab
, U4 r_mtx, U4 r_off
, U4 r_t0, U4 r_t1, U4 r_t2
) MipsAtomComp_Proc_(ab, {
load_word( r_t0, r_off, O_(V3_S4,x)),
load_word( r_t1, r_off, O_(V3_S4,y)),
load_word( r_t2, r_off, O_(V3_S4,z)),
store_word(r_t0, r_mtx, O_(MT3_S2S4,t[0])),
store_word(r_t1, r_mtx, O_(MT3_S2S4,t[1])),
store_word(r_t2, r_mtx, O_(MT3_S2S4,t[2])),
})
/* ─── LZCR ROUND EVEN + HALF-SHIFT ───
* Takes the raw LZCR leading-zero/ones count (from mfc2 C2_LZCR, range 1..32 per PSX-SPX cop2r31) and the |v|² sum (in r_mag_sq from the MAC1+MAC2+MAC3 add).
* Produces:
* r_shift ← LZCR rounded down to even (clear bit 0)
* r_mag_sq_copy ← |v|² sum (moved out of r_mag_sq before it's overwritten)
* r_mag_sq ← (31 - even_LZCR) / 2 = the final srav/GPF shift amount
*
* Rounding to even ensures (31 - LZCR) is always odd, so the >> 1 division is consistent — no 0.5 loss.
* The caller branches on LZCR < 24 to decide left-shift vs right-shift of r_mag_sq_copy, then saves the shift count.
*
* Note: C2_LZCR (cop2r31) is a fixed read-only C2 data register — the caller must read it via mfc2 from C2_LZCR;
* there is no register choice at the hardware level. Only the GPR that holds the result is caller-determined. */
FI_ Slice_MipsCode ac_lzcr_round_even_half_shift(AtomBuilder_R ab,
U4 r_shift,
U4 r_mag_sq,
U4 r_mag_sq_copy)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
and_i(r_shift, r_shift, gte_lzcr_even_mask),
or_u(r_mag_sq_copy, r_mag_sq, 0),
li_s( r_mag_sq, 31),
sub_s( r_mag_sq, r_mag_sq, r_shift),
shift_aright(r_mag_sq, r_mag_sq, 1),
})
FI_ Slice_MipsCode ac_gte_general_purpose_interopolation(AtomBuilder_R ab
, Reg to_ir0, Reg to_ir1, Reg to_ir2, Reg to_ir3
, Reg fr_mac1, Reg fr_mac2, Reg fr_mac3
, MipsCode nop_slot1, MipsCode nop_slot2)
MipsAtomComp_Proc_(ab, {
gte_mv_to_data_r(to_ir0, C2_IR0),
gte_mv_to_data_r(to_ir1, C2_IR1), /* IR1 = src.x (preserved in r_tmp — r_mac2_scratch was clobbered to MAC2 in stage 1.5) */
gte_mv_to_data_r(to_ir2, C2_IR2),
gte_mv_to_data_r(to_ir3, C2_IR3), /* IR3 = src.z (reloaded) */
GteDelay_ nop_slot1,
GteDelay_ nop_slot2,
gte_cmdw_gpf,
gte_mv_from_data_r(fr_mac1, C2_MAC1),
gte_mv_from_data_r(fr_mac2, C2_MAC2),
gte_mv_from_data_r(fr_mac3, C2_MAC3),
})
FI_ Slice_MipsCode ac_gte_mv_from_data_r_mac123(AtomBuilder_R ab
, Reg fr_mac1, Reg fr_mac2, Reg fr_mac3)
MipsAtomComp_Proc_(ab, {
gte_mv_from_data_r(fr_mac1, C2_MAC1),
gte_mv_from_data_r(fr_mac2, C2_MAC2),
gte_mv_from_data_r(fr_mac3, C2_MAC3),
})
FI_ Slice_MipsCode ac_gte_mv_from_mac123_v3s4(AtomBuilder_R ab, Reg_(V3_S4) v) MipsAtomComp_ProcMap_(ab, mac_gte_mv_from_data_r_mac123(v.x, v.y, v.z))
#pragma endregion MACs (Mips Atom Components)
#pragma region Atom Procs
/* ─── Local copy of PSYQ's sqrtbl (1/sqrt lookup table for VectorNormal). ───
* Source: PSYQ 4.7 libgte sqrtbl at 0x800185B4 in hello_camera.elf.
* objdump -s --start-address=0x800185B4 --stop-address=0x800185F4 hello_camera.elf → 192 entries × 16-bit signed, in 1.12 fixed-point (max value 0x1000 = 1.0).
*
* Data is identical to the libgte original (byte-for-byte verified).
*
* ─── Per-entry semantics (decoded from libgte msc02 VectorNormal) ───
* Each entry is `1/sqrt(x)` in 1.12 fixed point (value / 4096).
* The 192 entries span 4 octaves of the input magnitude, with 48 entries per octave:
* Octave 0 (entries 0- 47): mantissa in [0x8000, 0x10000) output ~[1.000, 0.707]
* Octave 1 (entries 48- 95): mantissa in [0x10000, 0x20000) output ~[0.707, 0.500]
* Octave 2 (entries 96-143): mantissa in [0x20000, 0x40000) output ~[0.500, 0.354]
* Octave 3 (entries144-191): mantissa in [0x40000, 0x80000) output ~[0.354, 0.251]
* Within each octave, 8 sub-entries interpolate over the 8 fractional bits of the mantissa
* (the byte `(0x80 | (i mod 8))` for the lower-byte of the aligned value).
* Sampling the first value of each octave:
* [0] 0x1000 = 1.0000 ; 1 / sqrt(1.0000)
* [48] 0x0e4f = 0.8940 ; 1 / sqrt(1.2500)
* [96] 0x0d10 = 0.8164 ; 1 / sqrt(1.5000)
* [144] 0x0c0a = 0.7520 ; 1 / sqrt(1.7500)
* And representative sub-entries within octave 0 (mantissa in [0x8000, 0x8100)):
* [0] 0x1000 = 1.0000 ; 1 / sqrt(0x8000)
* [1] 0x0fe0 = 0.9922 ; 1 / sqrt(0x8100)
* [2] 0x0fc1 = 0.9846 ; 1 / sqrt(0x8200)
* [3] 0x0fa3 = 0.9773 ; 1 / sqrt(0x8300)
* [4] 0x0f85 = 0.9700 ; 1 / sqrt(0x8400)
* [5] 0x0f68 = 0.9629 ; 1 / sqrt(0x8500)
* [6] 0x0f4c = 0.9561 ; 1 / sqrt(0x8600)
* [7] 0x0f30 = 0.9492 ; 1 / sqrt(0x8700)
*
* The algorithm's `addi -64 / sll 1 / lh` selects the entry at `(aligned - 64) * 2` for the case where `aligned` has its top bit at bit 24.
* After the sllv/srav pair, `aligned` always lands in `[0x80, 0x100)`
* (with top bit at bit 24 → after `sub $aligned - 64`, the index sits in `[0x40, 0x80) * 2 = [0x80, 0x100)` bytes = entries [64, 128) within the sqrtbl).
* The earlier 64 entries (octave 0) are reached when the magnitude after shifting puts the top bit below bit 24 (the `sllv` branch),
* and the load upper_halves of the table bracket the input range.
* The later 64 entries (octaves 2-3) are the `srav` branch when the magnitude's top bit is well above bit 24.
*
* Reproduced verbatim from libgte (verified against libpsn00b/psxgte/vector.s:100-123 — 24 rows × 8 halfwords, last entry 0x0804).
* */
internal S2 const gte_normalize_sqr_tbl[192] align_(2) = {
0x1000, 0x0fe0, 0x0fc1, 0x0fa3, 0x0f85, 0x0f68, 0x0f4c, 0x0f30,
0x0f15, 0x0efb, 0x0ee1, 0x0ec7, 0x0eae, 0x0e96, 0x0e7e, 0x0e66,
0x0e4f, 0x0e38, 0x0e22, 0x0e0c, 0x0df7, 0x0de2, 0x0dcd, 0x0db9,
0x0da5, 0x0d91, 0x0d7e, 0x0d6b, 0x0d58, 0x0d45, 0x0d33, 0x0d21,
0x0d10, 0x0cff, 0x0cee, 0x0cdd, 0x0ccc, 0x0cbc, 0x0cac, 0x0c9c,
0x0c8d, 0x0c7d, 0x0c6e, 0x0c5f, 0x0c51, 0x0c42, 0x0c34, 0x0c26,
0x0c18, 0x0c0a, 0x0bfd, 0x0bef, 0x0be2, 0x0bd5, 0x0bc8, 0x0bbb,
0x0baf, 0x0ba2, 0x0b96, 0x0b8a, 0x0b7e, 0x0b72, 0x0b67, 0x0b5b,
0x0b50, 0x0b45, 0x0b39, 0x0b2e, 0x0b24, 0x0b19, 0x0b0e, 0x0b04,
0x0af9, 0x0aef, 0x0ae5, 0x0adb, 0x0ad1, 0x0ac7, 0x0abd, 0x0ab4,
0x0aaa, 0x0aa1, 0x0a97, 0x0a8e, 0x0a85, 0x0a7c, 0x0a73, 0x0a6a,
0x0a61, 0x0a59, 0x0a50, 0x0a47, 0x0a3f, 0x0a37, 0x0a2e, 0x0a26,
0x0a1e, 0x0a16, 0x0a0e, 0x0a06, 0x09fe, 0x09f6, 0x09ef, 0x09e7,
0x09e0, 0x09d8, 0x09d1, 0x09c9, 0x09c2, 0x09bb, 0x09b4, 0x09ad,
0x09a5, 0x099e, 0x0998, 0x0991, 0x098a, 0x0983, 0x097c, 0x0976,
0x096f, 0x0969, 0x0962, 0x095c, 0x0955, 0x094f, 0x0949, 0x0943,
0x093c, 0x0936, 0x0930, 0x092a, 0x0924, 0x091e, 0x0918, 0x0912,
0x090d, 0x0907, 0x0901, 0x08fb, 0x08f6, 0x08f0, 0x08eb, 0x08e5,
0x08e0, 0x08da, 0x08d5, 0x08cf, 0x08ca, 0x08c5, 0x08bf, 0x08ba,
0x08b5, 0x08b0, 0x08ab, 0x08a6, 0x08a1, 0x089c, 0x0897, 0x0892,
0x088d, 0x0888, 0x0883, 0x087e, 0x087a, 0x0875, 0x0870, 0x086b,
0x0867, 0x0862, 0x085e, 0x0859, 0x0855, 0x0850, 0x084c, 0x0847,
0x0843, 0x083e, 0x083a, 0x0836, 0x0831, 0x082d, 0x0829, 0x0824,
0x0820, 0x081c, 0x0818, 0x0814, 0x0810, 0x080c, 0x0808, 0x0804,
};
typedef Struct_(Binds_normalize_v3s4) {
U2 src_offset; /* offset of src V3_S4 within the BIOS scratchpad */
U2 dst_offset; /* offset of dst V3_S4 within the BIOS scratchpad */
};
typedef Struct_(RegUse_normalize_v3s4) {
union { Reg_(V3_S4) res, src; };
union { Reg r0, src_ptr, mac2; };
union { Reg r1, dst_ptr; };
union { Reg r2, dst_offset, mac1, v_sqr_aligned; };
union { Reg r3, src_offset, btarget, shift_count, sqrtbl_index; };
union { Reg r4, mac3, v_sqr_sum, scale_exp, srav_shift; };
union { Reg r5, lzcr, inv_len; };
};
/* ─── Full normalize (all 4 stages inline) ───
* Generic 4-stage GTE normalize (SQR → sum+LZCR → align+sqrtbl → GPF+srav). */
internal MipsAtom* normalize_v3s4(AtomArena_R aa, RegUse_normalize_v3s4 r)
MipsAtom_Proc_(aa, {
load_half(r.src_offset, R_TapePtr, O_(Binds_normalize_v3s4, src_offset)),
load_half(r.dst_offset, R_TapePtr, O_(Binds_normalize_v3s4, dst_offset)),
LdSlot_ add_u(r.src_ptr, R_ScratchBase, r.src_offset),
LdSlot_ add_u(r.dst_ptr, R_ScratchBase, r.dst_offset),
LdSlot_ add_ui_self(R_TapePtr, S_(Binds_normalize_v3s4)),
mac_load_v3s4(r.src, r.src_ptr, 0),
/* Stage 1: mtc2 src → IR1/2/3, SQR fires. */
LdSlot_ mac_gte_sqr_v3s4(r.src.x, r.src.y, r.src.z, LdSlot_ nop),
/* Stage 2: mfc2 MAC1/2/3, sum, mtc2 LZCS. src_ptr is dead; reuse as mac2. */
mac_gte_mv_from_data_r_mac123(r.mac1, r.mac2, r.mac3), LdSlot_ nop,
add_u_self( r.v_sqr_sum, r.mac1),
add_u_self( r.v_sqr_sum, r.mac2),
gte_mv_to_data_r( r.v_sqr_sum, C2_LZCS), GteDelay_ nop2,
gte_mv_from_data_r(r.lzcr, C2_LZCR), GteDelay_ nop,
/* Stage 3: even(LZCR), half-shift, align |v|² to bit 24. */
mac_lzcr_round_even_half_shift(r.lzcr, r.v_sqr_sum, r.v_sqr_aligned),
add_si( r.btarget, r.lzcr, -24),
branch_lt_zero(r.btarget, atom_offset(aligned_done, srav_path)), BdSlot_ nop, /* bltz → srav_path (LZCR < 24 path) */
jump_rel(atom_offset(srav_path, aligned_done)), /* b → aligned_done (LZCR >= 24 path) */
BdSlot_ shift_lleft_var(r.v_sqr_aligned, r.v_sqr_aligned, r.btarget),
atom_label(srav_path)
li_s( r.shift_count, 24),
sub_s(r.shift_count, r.shift_count, r.lzcr),
shift_aright_var(r.v_sqr_aligned, r.v_sqr_aligned, r.shift_count),
atom_label(aligned_done)
add_si( r.v_sqr_aligned, r.v_sqr_aligned, -64),
shift_lleft(r.v_sqr_aligned, r.v_sqr_aligned, 1),
mac_load_word_imm(r.sqrtbl_index, & gte_normalize_sqr_tbl), add_u_self(r.sqrtbl_index, r.v_sqr_aligned),
load_half(r.inv_len, r.sqrtbl_index, 0),
LdSlot_ nop,
mac_gte_general_purpose_interopolation(r.inv_len,
r.src.x, r.src.y, r.src.z,
r.res.x, r.res.y, r.res.z,
GteDelay_ load_word(R_AtomJmp, R_TapePtr, 0), LdSlot_ // ac_yield: word 1
GteDelay_ add_ui_self( R_TapePtr, S_(MipsCode)) // ac_yield: word 2
),
mac_shift_aright_var_v3s4_self(r.res, r.srav_shift),
mac_store_v3s4(r.res, r.dst_ptr, 0),
jump_reg(R_AtomJmp), BdSlot_ nop // ac_yield: word 3-4
})
/* ─── GTE OP cross product (a × b → out) ───
* Generalized V3_S4 cross product via GTE OP (OuterProduct12 libpsyx convention).
* The >> 12 shift converts S12.20 → S12.0 OuterProduct12. */
typedef Struct_(Binds_gte_cross_v3s4) { V3_S4* src_a; V3_S4* src_b; V3_S4* out; };
typedef Struct_(RegUse_gte_cross_v3s4) {
Reg_(V3_S4) a;
Reg_(V3_S4) b;
union { Reg out, t0; } x;
union { Reg src_a, t1, rt11; } y;
union { Reg src_b, t2, rt22; } z;
};
internal MipsAtom* gte_cross_v3s4(AtomArena_R aa, RegUse_gte_cross_v3s4 r)
atom_info(atom_bind(Binds_gte_cross_v3s4)) MipsAtom_Proc_(aa, {
load_word(r.y.src_a, R_TapePtr, O_(Binds_gte_cross_v3s4,src_a)),
load_word(r.z.src_b, R_TapePtr, O_(Binds_gte_cross_v3s4,src_b)),
load_word(r.x.out, R_TapePtr, O_(Binds_gte_cross_v3s4,out)),
LdSlot_ add_ui_self( R_TapePtr, S_(Binds_gte_cross_v3s4)),
mac_load_v3s4(r.a, r.y.src_a, 0), LdSlot_
mac_load_v3s4(r.b, r.z.src_b, 0), LdSlot_
mac_gte_op_cross_v3s4(r.a, r.b), /* RT diagonal + IR + OP + MAC read + shift */
mac_store_v3s4(r.a, r.x.out, 0),
mac_yield()
})
#pragma endregion Atom Procs
#pragma region Baked Atoms
typedef Struct_(Binds_SetGteMT3S2S4) {
MT3_S2S4* transform;
};
internal MipsAtom_(set_gte_mt3s2s4) atom_info(
atom_bind(Binds_SetGteMT3S2S4)
, atom_reads(R_TapePtr)
){
/* Pop matrix address from tape into R_T3 ($11) */
load_word(R_T3, R_TapePtr, O_(Binds_SetGteMT3S2S4,transform)),
add_ui_self( R_TapePtr, S_(Binds_SetGteMT3S2S4)),
/* Load 3x3 Rotation + 3x1 Translation from R_T3 into GTE CONTROL Regs (ctc2) */
load_word(R_T0, R_T3, 0),
load_word(R_T1, R_T3, 4),
gte_mv_to_ctrl_r(R_T0, gte_cr_RT11),
gte_mv_to_ctrl_r(R_T1, gte_cr_RT12),
load_word(R_T0, R_T3, 8),
load_word(R_T1, R_T3, 12),
load_word(R_T2, R_T3, 16),
gte_mv_to_ctrl_r(R_T0, gte_cr_RT13),
gte_mv_to_ctrl_r(R_T1, gte_cr_RT21),
gte_mv_to_ctrl_r(R_T2, gte_cr_RT22),
load_word(R_T0, R_T3, 20),
load_word(R_T1, R_T3, 24),
load_word(R_T2, R_T3, 28),
gte_mv_to_ctrl_r(R_T0, gte_cr_TRX),
gte_mv_to_ctrl_r(R_T1, gte_cr_TRY),
gte_mv_to_ctrl_r(R_T2, gte_cr_TRZ),
mac_yield()
};
#pragma endregion Baked Atoms
+698 -66
View File
@@ -1,3 +1,23 @@
/* ============================================================================
* duffle DSL Suffix Conventions
* ============================================================================
*
* Every mnemonic in this header follows the same suffix grammar:
*
* Primitive commands: gp0_cmd_poly_f3 = 0x20 (byte opcode)
* Packed 32-bit cmd: gp0_word_poly_f3(r, g, b) (32-bit, shifted)
*
* Type ordering: domain?_(direction)?_action_target_modifier_type?
* Examples: add_ui (add + unsigned + immediate)
* add_s (add + signed, R-type implicit)
* shift_lleft (shift + logical + left)
* shift_aright (shift + arithmetic + right)
* call_reg(rs) (call + register, $ra implicit)
* gte_mv_to_data_r (gte + mv + to + data + register)
* gte_lw_v0_xy(base) (gte + lw + v0 + xy)
* load_upper_i (load-upper + immediate, unique verb)
* ============================================================================ */
#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "dsl.h"
@@ -5,98 +25,710 @@
# include "mips.h"
#endif
#pragma region ASM DSL
/* ============================================================================
* gte.h — Geometry Transformation Engine (COP2) for the PS1
* ============================================================================
*
* Hand-rolled DSL for emitting GTE/MIPS instruction words from C.
* No GCC inline-assembly string syntax in the code body.
*
* STYLE NOTES
* -----------
* - Per-field encoders are named `enc_gte_<field>(value)` and each one self-masks its argument before shifting.
* Mirrors the `enc_op / enc_rs / enc_rt / ...` family in mips.h.
* - The composite `enc_gte_cmdw(sf, mx, v, cv, lm, cmd)` is a flat OR of the per-field encoders, plus the COP2/CO base.
* - Pre-baked shortcuts (`gte_cmd_rtpt`, `gte_cmd_rtps`, …) are defined for the common cases so call sites read like assembly source.
* - All register/field values are enums (not `#define`s) so they show up in debugger symbol tables and IDE autocomplete.
*
* SEE ALSO
* --------
* - mips.h: The MIPS encoder layer this builds on.
*/
/* C2 data registers */
/* --- GTE Data Registers (Coprocessor 2) --- */
typedef enum {
C2_VXY0 = 0, C2_VZ0 = 1, C2_VXY1 = 2, C2_VZ1 = 3,
C2_VXY2 = 4, C2_VZ2 = 5, C2_RGB = 6, C2_OTZ = 7,
C2_IR0 = 8, C2_IR1 = 9, C2_IR2 = 10, C2_IR3 = 11,
C2_SXY0 = 12, C2_SXY1 = 13, C2_SXY2 = 14, C2_SXYP = 15,
C2_SZ0 = 16, C2_SZ1 = 17, C2_SZ2 = 18, C2_SZ3 = 19,
C2_RGB0 = 20, C2_RGB1 = 21, C2_RGB2 = 22, C2_RES1 = 23,
C2_MAC0 = 24, C2_MAC1 = 25, C2_MAC2 = 26, C2_MAC3 = 27,
C2_IRGB = 28, C2_ORGB = 29, C2_LZCS = 30, C2_LZCR = 31
/* --- GTE Data Registers (Coprocessor 2) ---
* Preprocessor-visible integer ids for the COP2 data register file.
* Each enum value is bound to a parallel `_Code` `#define` so the preprocessor can stringify the integer (for `reg_str`/`rgcc` paths).
* Same pattern as the GPR `_Code` set in mips.h. */
#define C2_VXY0_Code 0
#define C2_VZ0_Code 1
#define C2_VXY1_Code 2
#define C2_VZ1_Code 3
#define C2_VXY2_Code 4
#define C2_VZ2_Code 5
#define C2_RGB_Code 6
#define C2_OTZ_Code 7
#define C2_IR0_Code 8
#define C2_IR1_Code 9
#define C2_IR2_Code 10
#define C2_IR3_Code 11
#define C2_SXY0_Code 12
#define C2_SXY1_Code 13
#define C2_SXY2_Code 14
#define C2_SXYP_Code 15
#define C2_SZ0_Code 16
#define C2_SZ1_Code 17
#define C2_SZ2_Code 18
#define C2_SZ3_Code 19
#define C2_RGB0_Code 20
#define C2_RGB1_Code 21
#define C2_RGB2_Code 22
#define C2_RES1_Code 23
#define C2_MAC0_Code 24
#define C2_MAC1_Code 25
#define C2_MAC2_Code 26
#define C2_MAC3_Code 27
#define C2_IRGB_Code 28
#define C2_ORGB_Code 29
#define C2_LZCS_Code 30
#define C2_LZCR_Code 31
enum {
C2_VXY0 = C2_VXY0_Code, C2_VZ0 = C2_VZ0_Code, C2_VXY1 = C2_VXY1_Code, C2_VZ1 = C2_VZ1_Code,
C2_VXY2 = C2_VXY2_Code, C2_VZ2 = C2_VZ2_Code, C2_RGB = C2_RGB_Code, C2_OTZ = C2_OTZ_Code,
C2_IR0 = C2_IR0_Code, C2_IR1 = C2_IR1_Code, C2_IR2 = C2_IR2_Code, C2_IR3 = C2_IR3_Code,
C2_SXY0 = C2_SXY0_Code, C2_SXY1 = C2_SXY1_Code, C2_SXY2 = C2_SXY2_Code, C2_SXYP = C2_SXYP_Code,
C2_SZ0 = C2_SZ0_Code, C2_SZ1 = C2_SZ1_Code, C2_SZ2 = C2_SZ2_Code, C2_SZ3 = C2_SZ3_Code,
C2_RGB0 = C2_RGB0_Code, C2_RGB1 = C2_RGB1_Code, C2_RGB2 = C2_RGB2_Code, C2_RES1 = C2_RES1_Code,
C2_MAC0 = C2_MAC0_Code, C2_MAC1 = C2_MAC1_Code, C2_MAC2 = C2_MAC2_Code, C2_MAC3 = C2_MAC3_Code,
C2_IRGB = C2_IRGB_Code, C2_ORGB = C2_ORGB_Code, C2_LZCS = C2_LZCS_Code, C2_LZCR = C2_LZCR_Code
};
/* Semantic Aliases for GTE Data Registers */
#define GTE_IN_VEC0_XY C2_VXY0 /* Input Vector 0 (X, Y) */
#define GTE_IN_VEC0_Z C2_VZ0 /* Input Vector 0 (Z) */
#define GTE_IN_VEC1_XY C2_VXY1 /* Input Vector 1 (X, Y) */
#define GTE_IN_VEC1_Z C2_VZ1 /* Input Vector 1 (Z) */
#define GTE_IN_VEC2_XY C2_VXY2 /* Input Vector 2 (X, Y) */
#define GTE_IN_VEC2_Z C2_VZ2 /* Input Vector 2 (Z) */
#define GTE_IN_COLOR C2_RGB /* Input Color (R, G, B, Code) */
#define GTE_OUT_SCR_XY0 C2_SXY0 /* Output Screen Coord 0 (X, Y) */
#define GTE_OUT_SCR_XY1 C2_SXY1 /* Output Screen Coord 1 (X, Y) */
#define GTE_OUT_SCR_XY2 C2_SXY2 /* Output Screen Coord 2 (X, Y) */
#define GTE_OUT_DEPTH C2_OTZ /* Output Ordering Table Z (Depth) */
#define GTE_MATH_ACCUM0 C2_MAC0 /* Math Accumulator 0 */
#define GTE_MATH_ACCUM1 C2_MAC1 /* Math Accumulator 1 */
#define GTE_MATH_ACCUM2 C2_MAC2 /* Math Accumulator 2 */
enum {
C2_InV0_XY = C2_VXY0, /* Input Vector 0 (X, Y) */
C2_InV0_Z = C2_VZ0, /* Input Vector 0 (Z) */
C2_InV1_XY = C2_VXY1, /* Input Vector 1 (X, Y) */
C2_InV1_Z = C2_VZ1, /* Input Vector 1 (Z) */
C2_InV2_XY = C2_VXY2, /* Input Vector 2 (X, Y) */
C2_InV2_Z = C2_VZ2, /* Input Vector 2 (Z) */
C2_In_RGB = C2_RGB, /* Input Color (R, G, B, MipsCode) */
C2_OutSrc_XY0 = C2_SXY0, /* Output Screen Coord 0 (X, Y) */
C2_OutSrc_XY1 = C2_SXY1, /* Output Screen Coord 1 (X, Y) */
C2_OutSrc_XY2 = C2_SXY2, /* Output Screen Coord 2 (X, Y) */
C2_OutDepth = C2_OTZ, /* Output Ordering Table Z (Depth) */
C2_MathAccu0 = C2_MAC0, /* Math Accumulator 0 */
C2_MathAccu1 = C2_MAC1, /* Math Accumulator 1 */
C2_MathAccu2 = C2_MAC2, /* Math Accumulator 2 */
};
/* --- GTE Command Semantics (The Bitfield Meanings) ---
* A GTE command is a single 32-bit word sent to COP2.
* It is highly configurable via bitfields.
*/
enum {
/* Shift Fraction (Bit 19) - Determines fixed-point division */
#define GTE_SF_FRACTIONAL 0 /* Divide result by 4096 (Standard 4.12 fixed point) */
#define GTE_SF_INTEGER 1 /* No division (Raw integer math) */
gte_sf_fractional = 0, /* Divide result by 4096 (Standard 4.12 fixed point) */
gte_sf_integer = 1, /* No division (Raw integer math) */
/* Matrix Select (Bits 18-17) - Which 3x3 matrix to multiply by */
#define GTE_MX_ROTATION 0 /* Rotation Matrix (RT) */
#define GTE_MX_LIGHT 1 /* Light Matrix (LL) */
#define GTE_MX_COLOR 2 /* Color Matrix (LC) */
#define GTE_MX_NONE 3 /* Reserved / Do not multiply */
/* Vector Select (Bits 16-15) - Which input vector to use */
#define GTE_V_VEC0 0 /* Use Vector 0 (VXY0, VZ0) */
#define GTE_V_VEC1 1 /* Use Vector 1 (VXY1, VZ1) */
#define GTE_V_VEC2 2 /* Use Vector 2 (VXY2, VZ2) */
#define GTE_V_IR_REGS 3 /* Use Intermediate Registers (IR1, IR2, IR3) */
gte_mx_rotation = 0, /* Rotation Matrix (RT) */
gte_mx_light = 1, /* Light Matrix (LL) */
gte_mx_color = 2, /* Color Matrix (LC) */
gte_mx_none = 3, /* Reserved / Do not multiply */
/* Vector select (Bits 16-15) - Which input vector to use */
gte_v_v0 = 0, /* Use Vector 0 (VXY0, VZ0) */
gte_v_v1 = 1, /* Use Vector 1 (VXY1, VZ1) */
gte_v_v2 = 2, /* Use Vector 2 (VXY2, VZ2) */
gte_v_ir_regs = 3, /* Use Intermediate Registers (IR1, IR2, IR3) */
/* Control Vector Select (Bits 14-13) - Which vector to ADD after multiplication */
#define GTE_CV_TRANSLATE 0 /* Add Translation Vector (TRX, TRY, TRZ) */
#define GTE_CV_BG_COLOR 1 /* Add Background Color (RBK, GBK, BBK) */
#define GTE_CV_FAR_COLOR 2 /* Add Far Color (RFC, GFC, BFC) */
#define GTE_CV_NONE 3 /* Add Zero (No addition) */
gte_cv_translate = 0, /* Add Translation Vector (TRX, TRY, TRZ) */
gte_cv_bg_color = 1, /* Add Background Color (RBK, GBK, BBK) */
gte_cv_far_color = 2, /* Add Far Color (RFC, GFC, BFC) */
gte_cv_none = 3, /* Add Zero (No addition) */
/* Limit/Clamp (Bit 10) - Prevents overflow artifacts */
#define GTE_LM_NORMAL 0 /* Normal math (can overflow) */
#define GTE_LM_CLAMP 1 /* Clamp results to valid hardware ranges (e.g., RGB 0-255) */
gte_lm_normal = 0, /* Normal math (can overflow) */
gte_lm_clamp = 1, /* Clamp results to valid hardware ranges (e.g., RGB 0-255) */
/* Core Command IDs (Bits 5-0) */
#define GTE_CMD_RTPS 0x01 /* Rot/Trans Perspective Single (1 vertex) */
#define GTE_CMD_RTPT 0x02 /* Rot/Trans Perspective Triple (3 vertices) */
#define GTE_CMD_NCLIP 0x06 /* Normal Clipping (Backface culling) */
#define GTE_CMD_OP 0x0C /* Outer Product */
#define GTE_CMD_MVMVA 0x12 /* Matrix Vector Multiply & Add (Custom math) */
gte_cmd_rtps = 0x01, /* Rot/Trans Perspective Single (1 vertex) */
gte_cmd_rtpt = 0x30, /* Rot/Trans Perspective Triple (3 vertices) */
gte_cmd_nclip = 0x06, /* Normal Clipping (Backface culling) */
gte_cmd_op = 0x0C, /* Outer Product */
gte_cmd_mvmva = 0x12, /* Matrix Vector Multiply & Add (Custom math) */
gte_cmd_sqr = 0x28, /* Square vector — MAC[i] = IR[i]²; IR[i] ← MAC[i] saturated */
gte_cmd_gpf = 0x3D, /* General-purpose Interpolation — MAC[i] = IR0 * IR[i] */
/* --- GTE Command Bit-Field Layout ---
* A GTE command word (sent to COP2 with RS=1) is laid out as:
*
* 31........25 24 23..19 18..17 16..15 14..13 12..11 10 9.......6 5.......0
* +------------+--+-----+------+------+------+------+---+--------+----------+
* | 0x3E (COP2)| 1| -- | sf | mx | v | cv | --| lm | -- | cmd |
* +------------+--+-----+------+------+------+------+---+--------+----------+
* \_____ GTE_PAYLOAD _____/ \__ GTE_CMD __/
*
* Offset position & masks below are the *bit positions* and *bit widths* of each configurable field, used by the ENC_GTE_CMD encoder.
* Mirrors the OPCODE_POS / RS_POS convention used in mips.h.
*/
gte_pos_sf = 19, gte_width_sf = 1,
gte_pos_mx = 17, gte_width_mx = 2,
gte_pos_v = 15, gte_width_v = 2,
gte_pos_cv = 13, gte_width_cv = 2,
gte_pos_lm = 10, gte_width_lm = 1,
gte_pos_cmd = 0, gte_width_cmd = 6,
/* Fake command number (bits 24-20) — IGNORED by the GTE hardware per PSX-SPX `geometrytransformationenginegte.md` line 48.
* libgte's compiler emits non-zero values in this field as a disassembly signature. */
gte_pos_fake_cmd = 20,
gte_width_fake_cmd = 5,
};
/* --- GTE Control Register Aliases (Pitfall 1) ---
* Three pairs of aliases map to the C2 control-register slot:
* C2[24] = gte_cr_RBK (background R) | gte_cr_OFX (screen offset X)
* C2[25] = gte_cr_GBK (background G) | gte_cr_OFY (screen offset Y)
* C2[26] = gte_cr_BBK (background B) | gte_cr_H (projection plane distance H)
* Cross-alias writes inside one atom body, or across the wave-context boundary, silently clobber each other.
* The metaprogram's check_gte_cr_alias_writes (CHECK_RULES row) warns about each pair per source.
* See psx-spx docs/gte_reference.md §"Control-register alias table" for the silicon rationale and the libgte outer-product convention.
*/
/* --- RT-matrix packed-slot convention (Pitfall 4) ---
* The silicon packs two 16-bit RT elements per 32-bit C2 slot:
* C2[2] = (RT22 << 16) | RT13 (gte_cr_RT13 writes the low half, gte_cr_RT22 writes the high half)
* C2[4] = (RT33 << 16) | RT22 (gte_cr_RT22 writes the low half — clobbers prior RT22 value if RT13 was also written)
* OP and MVMVA read D1/D2/D3 from these packed slots.
* The libgte outer-product convention (see ac_apply_matrix_lv at gte.atom.c:108-122) writes C2[2] then C2[4] in sequence;
* the SECOND write's low half is RT22, not RT13.
*/
/* --- GTE Control Register Indices (for ctc2/cfc2) ---
* Preprocessor-visible integer ids for the COP2 control register file.
* Each enum value is bound to a parallel `_Code` `#define` so the preprocessor can stringify the integer (for `reg_str`/`rgcc` paths).
* Same pattern as the GPR `_Code` set in mips.h. Note: indices 21-23 are reserved/unused on real hardware, so there's a gap. */
#define gte_cr_RT11_Code 0
#define gte_cr_RT12_Code 1 /* packed with RT13 in bits 16..31 */
#define gte_cr_RT13_Code 2 /* packed with RT22 in bits 16..31 */
#define gte_cr_RT21_Code 3 /* packed with RT31 in bits 16..31 */
#define gte_cr_RT22_Code 4 /* RT33 alone (low 16 bits used) */
// #define gte_cr_RT23_Code 5
// #define gte_cr_RT31_Code 6
// #define gte_cr_RT32_Code 7
// #define gte_cr_RT33_Code 8
#define gte_cr_TRX_Code 5 /* PSX SDK convention: C2 r5 = TRX (alone, 32-bit) */
#define gte_cr_TRY_Code 6 /* PSX SDK convention: C2 r6 = TRY (alone, 32-bit) */
#define gte_cr_TRZ_Code 7 /* PSX SDK convention: C2 r7 = TRZ (alone, 32-bit) */
#define gte_cr_L11_Code 12
#define gte_cr_L12_Code 13
#define gte_cr_L13_Code 14
#define gte_cr_L21_Code 15
#define gte_cr_L22_Code 16
#define gte_cr_L23_Code 17
#define gte_cr_LR1_Code 18
#define gte_cr_LR2_Code 19
#define gte_cr_LR3_Code 20
#define gte_cr_RBK_Code 24
#define gte_cr_GBK_Code 25
#define gte_cr_BBK_Code 26
#define gte_cr_RFC_Code 27
#define gte_cr_GFC_Code 28
#define gte_cr_BFC_Code 29
#define gte_cr_OFX_Code 24
#define gte_cr_OFY_Code 25
#define gte_cr_H_Code 26
enum {
gte_cr_RT11 = gte_cr_RT11_Code, gte_cr_RT12 = gte_cr_RT12_Code, gte_cr_RT13 = gte_cr_RT13_Code,
gte_cr_RT21 = gte_cr_RT21_Code, gte_cr_RT22 = gte_cr_RT22_Code, //gte_cr_RT23 = gte_cr_RT23_Code,
// gte_cr_RT31 = gte_cr_RT31_Code, gte_cr_RT32 = gte_cr_RT32_Code, gte_cr_RT33 = gte_cr_RT33_Code,
gte_cr_TRX = gte_cr_TRX_Code, gte_cr_TRY = gte_cr_TRY_Code, gte_cr_TRZ = gte_cr_TRZ_Code,
gte_cr_L11 = gte_cr_L11_Code, gte_cr_L12 = gte_cr_L12_Code, gte_cr_L13 = gte_cr_L13_Code,
gte_cr_L21 = gte_cr_L21_Code, gte_cr_L22 = gte_cr_L22_Code, gte_cr_L23 = gte_cr_L23_Code,
gte_cr_LR1 = gte_cr_LR1_Code, gte_cr_LR2 = gte_cr_LR2_Code, gte_cr_LR3 = gte_cr_LR3_Code,
gte_cr_RBK = gte_cr_RBK_Code, gte_cr_GBK = gte_cr_GBK_Code, gte_cr_BBK = gte_cr_BBK_Code,
gte_cr_RFC = gte_cr_RFC_Code, gte_cr_GFC = gte_cr_GFC_Code, gte_cr_BFC = gte_cr_BFC_Code,
gte_cr_OFX = gte_cr_OFX_Code, gte_cr_OFY = gte_cr_OFY_Code,
};
enum { _C2_OPS_ = 0
, op_lwc2 = 0x32 /* Load Word to Coprocessor 2 (GTE) */
, op_swc2 = 0x3A /* Store Word from Coprocessor 2 (GTE) */
};
/* COP2 transfer sub-opcodes (5-bit field in the `rs` slot of enc_gte_tx).
*
* Spans the 2x2 {From, To} × {Data, Control} register classes that the GTE exposes:
* bit 1 (0x02): register class — 0 = data, 1 = control
* bit 2 (0x04): direction — 0 = read, 1 = write
*
* The values 0x00 (sub_mfc2) and 0x04 (sub_mtc2) are the same 5-bit numbers as general MIPS `cop_mf` / `cop_mt` defined in mips.h
* (which target the data register file on any coprocessor).
* They are re-aliased here so the four-way table reads like the spec mnemonics (MFC2 / CFC2 / MTC2 / CTC2)
* and so the encoding is next to its only consumer (this header).
*
* Vendor mnemonic aliases (gte_mfc2 / gte_mtc2 / gte_cfc2 / gte_ctc2) live in gte_vendor_sym.h. */
enum { _C2_TX_SUBS_ = 0
, sub_mfc2 = 0x00 /* MFC2: Move From Coprocessor 2 data reg */
, sub_cfc2 = 0x02 /* CFC2: Copy From Coprocessor 2 ctrl reg */
, sub_mtc2 = 0x04 /* MTC2: Move To Coprocessor 2 data reg */
, sub_ctc2 = 0x06 /* CTC2: Copy To Coprocessor 2 ctrl reg */
};
/* COP2 (GTE) Transfer Format: mfc2 / cfc2 / mtc2 / ctc2 rt, rd
* Layout: [op_cop2:6][sub:5][rt:5][rd:5][0:11]
* - sub: one of sub_mfc2 / sub_cfc2 / sub_mtc2 / sub_ctc2
* - rt: GPR source/dest
* - rd: COP2 register index (0..31):
* data class → C2_VXY0_Code..C2_LZCR_Code (gte_in_v0_xy..gte_math_accum2 aliases)
* ctrl class → gte_cr_RT11_Code..gte_cr_OFY_Code */
#define enc_gte_tx(sub, rt, rd) (enc_op(op_cop2) | enc_rs(sub) | enc_rt(rt) | enc_rd(rd))
/* COP2 (GTE) Transfer Format
* Opcode is always MIPS_OP_COP2. The 'sub' field determines direction (MT/MF). */
#define ENC_COP2_TX(sub, rt, rd) \
((MIPS_OP_COP2 << MIPS_OPCODE_SHIFT) | \
(((sub) & MIPS_REG_MASK) << MIPS_RS_SHIFT) | \
(((rt) & MIPS_REG_MASK) << MIPS_RT_SHIFT) | \
(((rd) & MIPS_REG_MASK) << MIPS_RD_SHIFT))
// #define gte_mv_to_data_r(rt, rd) enc_gte_tx(cop_mt, (rt), (rd)) /* Move GPR (rt) to GTE Control Register (rd) */
// #define gte_mv_from_data_r(rt, rd) enc_gte_tx(cop_mf, (rt), (rd)) /* Move GTE Control Register (rd) to GPR (rt) */
/* GTE Command Format (The math engine trigger)
/* GTE Data vs Control Register Transfers
* Each macro emits a single instruction for one of MFC2/CFC2/MTC2/CTC2.
*
* `rd` is the C2 register index in the file the sub-opcode names:
* gte_mv_from_data_r / gte_mv_to_data_r → C2 data register file
* gte_mv_from_ctrl_r / gte_mv_to_ctrl_r → C2 ctrl register file
*
* Common pairs:
* gte_mv_from_data_r(R_T0, C2_MAC0) — read MAC0 into a GPR
* gte_mv_to_data_r (R_V0, C2_VXY0) — write GPR into VXY0
* gte_mv_to_ctrl_r (R_T0, gte_cr_RT11) — write GPR into rotation matrix
* gte_mv_from_ctrl_r(R_T0, gte_cr_OFX) — read screen-X offset */
#define gte_mv_from_data_r(rt, rd) enc_gte_tx(sub_mfc2, (rt), (rd)) /* Move From data reg */
#define gte_mv_from_ctrl_r(rt, rd) enc_gte_tx(sub_cfc2, (rt), (rd)) /* Copy From ctrl reg */
#define gte_mv_to_data_r(rt, rd) enc_gte_tx(sub_mtc2, (rt), (rd)) /* Move To data reg */
#define gte_mv_to_ctrl_r(rt, rd) enc_gte_tx(sub_ctc2, (rt), (rd)) /* Copy To ctrl reg */
#define GteDelay_ // Annotate an instruction as filling a CPU <-> GTE DMA delay slot/s
/* COP2 Data Load (lwc2): `lwc2 rt, off(rs)`
* Layout: [op_lwc2:6][rs:5][rt:5][imm:16]
* - rs: GPR base address
* - rt: COP2 data register index (0..31)
* - imm: signed 16-bit offset
* NOTE: When `rs` is a runtime register, the encoding cannot be pre-baked into a .word — use the string-style `gte_load_v0` macro below instead. */
#define enc_gte_lw(rt, base, off) enc_i(op_lwc2, (base), (rt), (off))
/* Store Word */
#define enc_gte_sw(rt, base, off) enc_i(op_swc2, (base), (rt), (off))
/* Semantic aliases for the COP2 data load/store. The `c2` in `lwc2`/
* `swc2` is redundant when we're already inside the `gte_` namespace.
* gte_lw rt, base, off → lwc2 rt, off(base)
* gte_sw rt, base, off → swc2 rt, off(base)
* For the typical user-facing vector-level load (xy + z as two instructions), use the higher-level `gte_load_vN` macros below. */
#define gte_lw(rt, base, off) enc_gte_lw(rt, base, off)
#define gte_sw(rt, base, off) enc_gte_sw(rt, base, off)
/* GTE Command Format
* Opcode is always MIPS_OP_COP2, RS is always 1 (CO).
* The lower 25 bits are the GTE-specific command payload. */
#define GTE_CMD_BASE ((MIPS_OP_COP2 << MIPS_OPCODE_SHIFT) | (1 << 25))
#define ENC_GTE_CMD(sf, mx, v, cv, lm, cmd) \
(GTE_CMD_BASE | \
(((sf) & 1) << 19) | (((mx) & 3) << 17) | (((v) & 3) << 15) | \
(((cv) & 3) << 13) | (((lm) & 1) << 10) | ((cmd) & 0x3F))
* Lower 25 bits are GTE-specific command payload.
*
* The `enc_gte_<field>(x)` macros below mirror the `enc_op`/`enc_rs` pattern in mips.h:
* Each one self-masks and shifts its own field, so a caller can build up a GTE command piece by piece
* (handy for state-driven MVMVA emitters that vary one field at a time).
*
* `ENC_GTE_CMD` is an all-in-one convenience for emitting a full command word.
* It just ORs the per-field encoders together. */
#define gte_cmd_base (enc_op(op_cop2) | (1 << 25))
/* Per-field encoders. Each one does (value & mask) << shift on its own. */
#define enc_gte_sf(sf) ((sf) << gte_pos_sf )
#define enc_gte_mx(mx) ((mx) << gte_pos_mx )
#define enc_gte_v(v) ((v) << gte_pos_v )
#define enc_gte_cv(cv) ((cv) << gte_pos_cv )
#define enc_gte_lm(lm) ((lm) << gte_pos_lm )
#define enc_gte_cmd(cmd) ((cmd) << gte_pos_cmd )
#define enc_gte_fake_cmd(x) ((x) << gte_pos_fake_cmd)
#define asm_gte_matrix_set_rotation asm volatile( \
asm_inline( \
\
) \
asm_clobber() \
/* Composite: all six GTE fields + the COP2/CO base. */
#define enc_gte_cmdw(sf, mx, v, cv, lm, cmd) ( \
gte_cmd_base \
| enc_gte_sf(sf) \
| enc_gte_mx(mx) \
| enc_gte_v(v) \
| enc_gte_cv(cv) \
| enc_gte_lm(lm) \
| enc_gte_cmd(cmd) \
)
/* GTE command words for the common cases.
*
* These are pure compile-time integer constants — the C compiler constant-folds them into `.word` directives in .rodata.
* Use them inside `asm_inline(...)` blocks (see `gte_rtpt` below for the idiom).
*
* Decomposition (per the `enc_gte_<field>` definitions above):
* gte_cmdw_<name> = gte_cmd_base | enc_gte_cmd(<cmd>)
* The SF / MX / V / CV / LM fields are all zero in the common cases
* (standard rotation-matrix, no scaling factor, V0 vector, translation vector, no clamp),
* so the only varying bits are the `cmd` field.
*
* Naming convention:
* - `gte_cmd_*` : Raw 6-bit `cmd` field id
* - `gte_cmdw_* : 32-bit instruction word ready to drop into a `.word` directive.
*
* --------------------------------------------------------------------------
* PsyQ-compatibility note (RTPS/RTPT):
* The original Sony PsyQ `inline_n.h` ships RTPT as `cop2 0x0280030` and RTPS as `cop2 0x0180001`.
* Both have `0x20` set in the upper-reserved region (bit 21) AND `sf=1` (bit 19) — i.e. the "no division" flag.
* Per psx-spec these bits are reserved/must-be-zero,
* but the real GTE hardware and PCSX-Redux's GTE model both IGNORE them on these two commands
* (the perspective divide happens regardless of `sf`).
*
* If we emit a strictly-spec-compliant word (`sf=0`, reserved bits clear),
* PCSX-Redux's GTE checks those bits more strictly than the silicon does and RTPT silently no-ops.
* The floor's screen coordinates come out as raw projection-of-rotation (Z never divided),
* `nclip` ends up wrong, and the triangle is culled.
*
* So for RTPS and RTPT we OR-in the `0x28` "PsyQ compat" pattern to match the working bit pattern.
* NCLIP / OP / MVMVA stay spec-clean — their reserved bits really are zero in the original PsyQ source.
* --------------------------------------------------------------------------
*/
#define gte_cmdw_psyq_compat (1u << 21 | enc_gte_sf(gte_sf_integer))
#define gte_cmdw_rtps (gte_cmd_base | enc_gte_cmd(gte_cmd_rtps ) | gte_cmdw_psyq_compat)
#define gte_cmdw_rtpt (gte_cmd_base | enc_gte_cmd(gte_cmd_rtpt ) | gte_cmdw_psyq_compat)
#define gte_cmdw_nclip (gte_cmd_base | enc_gte_cmd(gte_cmd_nclip))
#define gte_cmdw_op (gte_cmd_base | enc_gte_cmd(gte_cmd_op ))
#define gte_cmdw_outer_product gte_cmdw_op /* "outer product" -- PSY-Q terminology */
#define gte_cmdw_wedge gte_cmdw_op /* "wedge product" -- geometric-algebra terminology. */
#define gte_cmdw_cross gte_cmdw_op /* "cross product" -- geometric-algebra terminology.
* RGA(Lengyel): The GTE OP is a 3D signed-16-bit D x IR cross, not a generic RGA exterior product.
* The wedge alias is a 3D complement interpretation of the same 3 scalars (MAC1..MAC3). */
#define gte_cmdw_mvmva (gte_cmd_base | enc_gte_cmd(gte_cmd_mvmva))
/* MVMVA with sf=0 (no shift, full-integer), cv=3 (no translation), v=3 (IR vector input).
* Reads input from IR1/2/3 (loaded via mtc2 rt, C2_IRx). MAC1/2/3 = RT row · IR (full product, no >>12).
* Per PSX-SPX: SAR (sf*12) with sf=0 = SAR 0 = no shift. */
#define gte_cmdw_mvmva_sf0_ir (gte_cmd_base | enc_gte_cv(3) | enc_gte_v(3) | enc_gte_cmd(gte_cmd_mvmva))
/* MVMVA with sf=1 (>>12 shift, 4.12 fixed-point), cv=3 (no translation), v=3 (IR): for ApplyMatrixLV.
* Reads input from IR1/2/3 (loaded via mtc2 rt, C2_IRx). MAC1/2/3 = (RT row · IR) >> 12.
* Per PSX-SPX: SAR (sf*12) with sf=1 = SAR 12 = arithmetic right-shift by 12.
* This matches the libgte C-side ApplyMatrixLV output (R*pos >> 12). */
#define gte_cmdw_mvmva_ir (gte_cmd_base | enc_gte_sf(1) | enc_gte_cv(3) | enc_gte_v(3) | enc_gte_cmd(gte_cmd_mvmva))
/* MVMVA: sf=0, mx=3 (Light matrix), v=3 (IR), cv=3 (no TR).
* For pass1 of the C11 two-pass decomposition. Reads L matrix.
* Since L matrix is typically zero, pass1 contributes 0 to the combine. */
#define gte_cmdw_mvmva_sf0_mx3_v3_cv3 (gte_cmd_base | enc_gte_sf(0) | enc_gte_cv(3) | enc_gte_v(3) | enc_gte_mx(3) | enc_gte_cmd(gte_cmd_mvmva))
/* MVMVA: sf=1 (>>12), mx=3 (Light matrix), v=2 (V0), cv=0 (with TR).
* Matches the C11 ApplyMatrixLV pass 2 command word (0x49E012) exactly.
* The combine is (pass1 << 3) + pass2. */
#define gte_cmdw_mvmva_pass2_c11 (gte_cmd_base | enc_gte_sf(1) | enc_gte_v(2) | enc_gte_mx(3) | enc_gte_cmd(gte_cmd_mvmva))
/* MVMVA: sf=0, mx=3, v=2, cv=0. Matches the C11 pass 1 command. */
#define gte_cmdw_mvmva_pass1_c11 (gte_cmd_base | enc_gte_v(2) | enc_gte_mx(3) | enc_gte_cmd(gte_cmd_mvmva))
#define gte_cmdw_mvmva_no_tr gte_cmdw_mvmva_ir
/* MVMVA pass 2 — C11 ApplyMatrixLV command.
* Decoded: op_cop2 | CO | fake_cmd=4 | sf=1 (>>12) | mx=0 (RT matrix) | v=3 (IR) | cv=3 (no translation) | lm=0 | cmd=MVMVA.
* Reads (RT row · IR) >> 12 into MAC1/2/3. Per-field composition (no opaque literal)
* keeps the bit layout visible at the call site + matches the libgte C-side byte-exact. */
#define gte_cmdw_mvmva_c11_pass2 (gte_cmd_base | enc_gte_fake_cmd(4) | enc_gte_sf(1) | enc_gte_v(3) | enc_gte_mx(0) | enc_gte_cv(3) | enc_gte_cmd(gte_cmd_mvmva))
/* MVMVA: sf=1 (>>12), mx=0 (RT matrix), v=0 (V0), cv=3 (no TR). */
#define gte_cmdw_mvmva_sf1_mx0_v0_cv3 (gte_cmd_base | enc_gte_sf(1) | enc_gte_cv(3) | enc_gte_v(0) | enc_gte_mx(0) | enc_gte_cmd(gte_cmd_mvmva))
/* RTPS with sf=1 (12-bit shift, no translation): matches the output of libgte's ApplyMatrixLV when the GTE pipeline expects R*pos >> 12.
* The shift produces values like (-270, 710, 1713) which match the C11 reference path. */
#define gte_cmdw_rtps_sf1 (gte_cmd_base | enc_gte_sf(1) | enc_gte_cv(3) | enc_gte_cmd(gte_cmd_rtps))
/* SQR / GPF cosmetic-bits compat helpers.
* Each command's `_compat` macro ORs in the `fake_cmd` field value libgte happens to emit.
* The hardware ignores these bits (per PSX-SPX line 48). */
#define gte_cmdw_sqr_fake_sig enc_gte_fake_cmd(0x0A)
#define gte_cmdw_gpf_fake_sig enc_gte_fake_cmd(0x19)
/* SQR — Square Vector.
* PSX-SPX `geometrytransformationenginegte.md` §"SQR":
* [MAC1,MAC2,MAC3] = [IR1*IR1, IR2*IR2, IR3*IR3] SHR (sf*12)
* [IR1,IR2,IR3] = [MAC1,MAC2,MAC3] (saturated to 0x7FFF when lm=1)
* Sourced verbatim from libgte msc02 VectorNormal disassembly at 0x800160b0:
* 0x4AA00428 = gte_cmd_base | gte_cmdw_sqr_compat | enc_gte_lm(1) | enc_gte_cmd(0x28)
* bit 19 sf=0
* bit 10 lm=1
* bits 5-0 cmd=0x28=SQR
* bits 24-20 = 0x0A (libgte "nonsense SDK command number" signature) */
#define gte_cmdw_sqr (gte_cmd_base | enc_gte_cmd(gte_cmd_sqr) | enc_gte_lm(1) | gte_cmdw_sqr_fake_sig)
/* GPF — General-purpose Interpolation.
* PSX-SPX `geometrytransformationenginegte.md` §"GPF":
* [MAC1,MAC2,MAC3] = (([IR1,IR2,IR3] * IR0) + [MAC1,MAC2,MAC3]) SAR (sf * 12)
* [IR1,IR2,IR3] = [MAC1,MAC2,MAC3]
* Sourced verbatim from libgte msc02 VectorNormal disassembly at 0x8001613c:
* 0x4B90003D = gte_cmd_base | gte_cmdw_gpf_compat | enc_gte_cmd(0x3D)
* bit 19 sf = 0
* bit 10 lm = 0
* bits 5-0 cmd = 0x3D = GPF
* bits 24-20 = 0x19 (libgte "nonsense SDK command number" signature) */
#define gte_cmdw_gpf (gte_cmd_base | enc_gte_cmd(gte_cmd_gpf) | gte_cmdw_gpf_fake_sig)
/* Mask to round LZCR (leading-zero/ones count, range 1..32 per PSX-SPX cop2r31) down to even.
* The normalize_v3s4 half-shift logic computes (31 - LZCR) >> 1; clearing bit 0 ensures the subtraction result is always odd, so the >> 1 division is consistent (no 0.5 loss). */
enum {
gte_lzcr_even_mask = 0xFFFE, /* all bits except bit 0 */
};
#define gte_cmdw_rotate_translate_perspective_single gte_cmdw_rtps
#define gte_cmdw_rotate_translate_perspective_triple gte_cmdw_rtpt
/* RGA(Lengyel): RTPS/RTPT consume the matrix expansion of a rigid transformation (rotation matrix + translation vector) loaded into the RT/TR control registers.
* For unitized points the same result equals the motor antiproduct; the GTE executes the LA form, not a symbolic antiproduct. */
/* PsyQ compatibility bits for AVSZ3 (Bits 20, 22, 24 must be set) */
#define gte_cmdw_psyq_avsz3_compat (0x15 << 20)
#define gte_cmd_avsz3 0x2D
#define gte_cmdw_avsz3 (gte_cmd_base | enc_gte_cmd(gte_cmd_avsz3) | gte_cmdw_psyq_avsz3_compat)
// Takes the three screen-space Z values of the triangle → averages them → writes the result into the OTZ register.
#define gte_avg_sort_z3 gte_cmdw_avsz3
/* AVSZ4 — average Z of 4 vertices (for quads) */
#define gte_cmd_avsz4 0x2E
#define gte_cmdw_avsz4 (gte_cmd_base | enc_gte_cmd(gte_cmd_avsz4) | gte_cmdw_psyq_avsz3_compat)
#define gte_cmdw_avg_sort_z4 gte_cmdw_avsz4
/**
* @brief Loads a single SVECTOR to GTE vector register V0
* @details Loads values from an SVECTOR struct to GTE data registers C2_VXY0
* (XY at offset 0) and C2_VZ0 (Z at offset 4) using `lwc2`.
*
* Uses string-style GCC inline asm with `%0` substitution because the base register `r0` is a runtime GPR chosen by the compiler.
* It cannot be encoded into a static `.word` constant.
*
* Usage: asm_gte_load_v0(svector_ptr);
*/
/* lwc2 encoding helpers parameterized on the base GPR.
* gte_lw_v0_xy(base) → lwc2 $0, 0(base) ; C2_VXY0
* gte_lw_v0_z(base) → lwc2 $1, 4(base) ; C2_VZ0
* gte_lw_v1_xy(base) → lwc2 $2, 0(base) ; C2_VXY1
* gte_lw_v1_z(base) → lwc2 $3, 4(base) ; C2_VZ1
* gte_lw_v2_xy(base) → lwc2 $4, 0(base) ; C2_VXY2
* gte_lw_v2_z(base) → lwc2 $5, 4(base) ; C2_VZ2
*
* `base` is the GPR number to bake into the .word constant's `rs` field.
* These are pure compile-time integers; the C compiler constant-folds them into .word directives. */
enum {
GTE_Z_Offset = 4
};
#define gte_lw_v0_xy(base) enc_gte_lw(gte_in_v0_xy, (base), 0)
#define gte_lw_v0_z(base) enc_gte_lw(gte_in_v0_z, (base), GTE_Z_Offset)
#define gte_lw_v1_xy(base) enc_gte_lw(gte_in_v1_xy, (base), 0)
#define gte_lw_v1_z(base) enc_gte_lw(gte_in_v1_z, (base), GTE_Z_Offset)
#define gte_lw_v2_xy(base) enc_gte_lw(gte_in_v2_xy, (base), 0)
#define gte_lw_v2_z(base) enc_gte_lw(gte_in_v2_z, (base), GTE_Z_Offset)
/* gte_load_vN(r_ptr, base) — placeholder-punned lwc2 loaders
* Emits `.word` constants encoding `lwc2 $N, off(<base>)` for the chosen GTE vector register, where `<base>` is the GPR number you pass in
* (typically one of R_T4..R_T9 for the standard "3-pointer" pattern).
*
* The caller MUST bind `r_ptr` to that same GPR via a register variable:
* register V3_S2* p_in_12 __asm__("$12") = my_ptr;
* gte_load_v0(p_in_12, R_T4); // R_T4 = 12, base is $12
*
* Then `"r"(r_ptr)` inside the asm binds to $12 (the only register `p_in_12` can live in),
* which is exactly the register the .word constants expect.
* A `"$12"` clobber would conflict with the register-variable binding ("asm specifier for variable conflicts with asm clobber list"), so we omit it.
* The other ABI-clobbers ($2/$8/$9/$31) stay because the GTE instructions don't touch caller-saved GPRs but the kernel does treat them as volatile.
*
* WHICH REGISTER TO PICK
* ----------------------
* Any caller-saved GPR is safe. Recommended default for an RTPT-style 3-pointer pipeline:
* gte_load_v0(p0, R_T4); // $12
* gte_load_v1(p1, R_T5); // $13
* gte_load_v2(p2, R_T6); // $14
* Avoid $0 (zero), $1 (at), $26/$27 (k0/k1), $28-$31 (gp/sp/fp/ra).
*
* Shape of the generated `asm volatile (...)`:
* code section : ".word %0, %1" (from asm_inline)
* outputs section : (empty, the 2nd colon)
* inputs section : "i"(w0), "i"(w1), "r"(r_ptr) — r_ptr bound to <base>
* clobbers section : "$2", "$8", ..., "memory" (from asm_clobber)
* 3 colons total, GCC-legal. No string-syntax mnemonics in the .word body.
*
* The `asm_clobber(...)` helper from gcc_asm.h prepends the colon that starts the clobbers section. */
#define gte_load_v0(r_ptr, base) asm volatile( \
asm_words( gte_lw_v0_xy(base), gte_lw_v0_z(base) ) \
asm_rpins, r_use(r_ptr) \
asm_clobber: rlit(R_V0), rlit(R_T0), rlit(R_T1), rlit(R_RA), clb_mem_drain \
)
#define gte_load_v1(r_ptr, base) asm volatile( \
asm_words( gte_lw_v1_xy(base), gte_lw_v1_z(base) ) \
asm_rpins, r_use(r_ptr) \
asm_clobber: rlit(R_V0), rlit(R_T0), rlit(R_T1), rlit(R_RA), clb_mem_drain \
)
#define gte_load_v2(r_ptr, base) asm volatile( \
asm_words( gte_lw_v2_xy(base), gte_lw_v2_z(base) ) \
asm_rpins, r_use(r_ptr) \
asm_clobber: rlit(R_V0), rlit(R_T0), rlit(R_T1), rlit(R_RA), clb_mem_drain \
)
/* gte_load_v0v1v2(p0, p1, p2, b0, b1, b2) — prelude to gte_cmd_rtpt.
*
* Loads all three GTE input vectors (6 words) from three separate pointers, one per GTE vector register, each loaded from its own base GPR.
* Caller must bind each `pN` to `bN` via a register variable.
* register V3_S2* p0 rgcc(R_T4) = verts[0].ptr; // → __asm__("$12")
* register V3_S2* p1 rgcc(R_T5) = verts[1].ptr; // → __asm__("$13")
* register V3_S2* p2 rgcc(R_T6) = verts[2].ptr; // → __asm__("$14")
* gte_load_v0v1v2(p0, p1, p2, R_T4, R_T5, R_T6);
* gte_rtpt();
*/
#define gte_load_v0v1v2(p0, p1, p2, b0, b1, b2) asm volatile( \
asm_words( \
gte_lw_v0_xy(b0), gte_lw_v0_z(b0), \
gte_lw_v1_xy(b1), gte_lw_v1_z(b1), \
gte_lw_v2_xy(b2), gte_lw_v2_z(b2) ) \
asm_rpins \
, r_use(p0), r_use(p1), r_use(p2) \
asm_clobber: rlit(R_V0), rlit(R_T0), rlit(R_T1), rlit(R_RA), clb_mem_drain \
)
/**
* @brief Rotate, Translate and Perspective Triple (23 cycles)
* @details Performs rotation, translation and perspective calculation of three vertices at once.
* The equation performed is the same as gte_rtps() only repeated three times for each vertex.
* The result of the first vertex is stored in GTE data register C2_SXY0, the second vector in C2_SXY1 then C2_SXY2.
*
* Encoder-style emission (no inline-asm strings in the code body):
* 1. Two `nop` words fill the COP2 pipeline latency — the GTE takes ~8 cycles per perspective divide,
* and the nops let any preceding lwc2/swc2 retire before RTPT starts reading its inputs from V0/V1/V2.
* 2. The RTPT command word itself is `gte_cmdw_rtpt` (see the pre-baked encoders above) —
* `0x0280030` decoded as `op_cop2` | CO(1) | cmd=RTPT, with all SF/MX/V/CV/LM fields zero
* (standard rotation, no scaling, V0 vector, translation vector, no clamp).
*
* Clobbers the caller-saved GPRs via `clbr_volatile_gprs` (per the kernel ABI)
* plus the standard "memory" barrier. Does not clobber any COP2 data/control register —
* those have to be saved by the caller if they need to survive across the call (RTPT writes SXY0..2, SZ0..3, OTZ, MAC0..3, IR0..3, etc.).
*/
#define gte_rtpt() \
asm volatile( \
asm_words( nop, nop, gte_cmdw_rtpt ) \
asm_clobber: clbr_volatile_gprs \
)
#define gte_rtpt_asm_str() \
__asm__ volatile( \
"nop;" \
"nop;" \
"cop2 0x0280030;")
/**
* @brief Normal clipping (8 cycles)
* @details Computes the sign of three screen coordinates (C2_SXY0-2) used for backface culling.
* If the value of C2_MAC0 is negative, the coordinates are inverted and thus the triangle is back facing.
*
* The following equation is performed when executing this GTE command:
* MAC0 = SX0*SY1 + SX1*SY2 + SX2*SY0 - SX0*SY2 - SX1*SY0 - SX2*SY1
* Encoder-style emission (no inline-asm strings in the code body):
* 1. Two `nop` words fill the COP2 pipeline latency
* - the GTE pipeline takes a few cycles per op, and the nops let any preceding
* lwc2/swc2/RTPT retire before NCLIP starts reading its inputs from SXY0/SXY1/SXY2.
* 2. The NCLIP command word itself is `gte_cmdw_nclip` (see the pre-baked encoders above)
* - `0x01400006` decoded as `op_cop2` | CO(1) | cmd=NCLIP, with all SF/MX/V/CV/LM fields zero.
* NCLIP is spec-clean in the original PsyQ source (unlike RTPS/RTPT which carry the `gte_cmdw_psyq_compat` quirk),
* so `gte_cmdw_nclip` does NOT OR in any reserved bits.
*
* Clobbers the caller-saved GPRs via `clbr_volatile_gprs` (per the kernel ABI) plus the standard "memory" barrier.
* Does not clobber any COP2 data/control register.
* Those have to be saved by the caller if they need to survive across the call (NCLIP writes MAC0 only;
* it is purely a sign-of-double-product computation on SXY0..2).
*/
#define gte_nclip() \
asm volatile( \
asm_words( nop, nop, gte_cmdw_nclip ) \
asm_clobber: clbr_volatile_gprs \
)
#define gte_stotz(r0) __asm__ volatile("swc2 $7, 0( %0 )" : : "r"(r0) : "memory")
#define gte_stsxy3(r0, r1, r2) \
__asm__ volatile( \
"swc2 $12, 0( %0 );" \
"swc2 $13, 0( %1 );" \
"swc2 $14, 0( %2 )" \
: \
: "r"(r0), "r"(r1), "r"(r2) \
: "memory")
#define gte_avsz3() \
__asm__ volatile( \
"nop;" \
"nop;" \
"cop2 0x0158002D;")
/* asm_gte_matrix_set_rotation(r0)
* Loads the 3x3 rotation matrix at `r0` into the GTE's rotation-matrix control registers (RT11..RT22, indices 0..4) via ctc2.
*
* Memory layout at r0: five contiguous 32-bit words (offsets 0..16), each holding two packed 16-bit matrix elements.
* The first 1.5 rows of a standard PSX SDK MATRIX struct (where each row is laid out as [RT_xx, RT_xy] | [RT_xz, pad] | ...).
*
* Generated MIPS (mirrors the source macro):
* lw $12, 0( %0 ) ; word 0
* lw $13, 4( %0 ) ; word 1
* ctc2 $12, $0 ; → C2_RT11
* ctc2 $13, $1 ; → C2_RT12
* lw $12, 8( %0 ) ; word 2
* lw $13, 12( %0 ) ; word 3
* lw $14, 16( %0 ) ; word 4
* ctc2 $12, $2 ; → C2_RT13
* ctc2 $13, $3 ; → C2_RT21
* ctc2 $14, $4 ; → C2_RT22
*
* Same contract as gte_load_v0: caller MUST bind `r0` to $12 via a register variable (`rgcc(R_T4)`) for the `lw $12, off(...)`
* instructions to read from the right base. The `"r"(r0)` constraint alone doesn't force a specific GPR — it just lets GCC pick one.
* The .word constants here bake R_T4/R_T5/R_T6 into the `rs` field of each lw, so the lw instructions will
* only do the right thing if $12 / $13 / $14 hold the matrix base at runtime.
*
* M3_S2* m = ...;
* register M3_S2* m_in_12 rgcc(R_T4) = m;
* asm_gte_matrix_set_rotation(m_in_12);
*
* We clobber $12/$13/$14 (the ones we use as scratch inside the inline asm)
* plus the system clobbers; we don't clobber `r0` because the `rgcc` binding already says "this variable lives in $12".
*
* WARNING: Incomplete by design. The source macro only writes RT11..RT22 (5 of 9 rotation elements);
* RT23 and the entire RT3x row are left untouched.
* Real libpsn00b SetRotMatrix writes all 9. Use only when the GTE's remaining rotation entries are already correct,
* or you will get stale-RT2x/RT3x artifacts in RTPS/RTPT/MVMVA output.
*/
#define asm_gte_matrix_set_rotation(r0) \
asm volatile( \
asm_words( \
load_word(R_T5, R_T4, 0) \
, load_word(R_T6, R_T4, 4) \
, gte_mv_to_data_r( R_T5, 0) \
, gte_mv_to_data_r( R_T6, 1) \
, load_word(R_T5, R_T4, 8) \
, load_word(R_T6, R_T4, 12) \
, load_word(R_T4, R_T4, 16) \
, gte_mv_to_data_r( R_T5, 2) \
, gte_mv_to_data_r( R_T6, 3) \
, gte_mv_to_data_r( R_T4, 4) \
) \
, r_use(r0) \
asm_clobber: clbr_volatile_gprs, rlit(R_T4), rlit(R_T5), rlit(R_T6) \
)
#pragma endregion ASM DSL
#pragma region Reserved
#pragma endregion Reserved
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/* ============================================================================
* duffle DSL — GTE Vendor Mnemonics (opt-in)
* ============================================================================
*
* Provides the textbook MIPS assembly mnemonics for the GTE/COP2 instructions as thin aliases to the duffle macros in gte.h.
* The duffle names are primary; this header is for users who prefer the textbook mnemonics.
*
* USAGE: #include "duffle/gte_vendor_sym.h" // after gte.h
*
* Mapping (vendor -> duffle):
* Transfers (move GPR <-> GTE control/data register):
* gte_mfc2 -> gte_mv_from_data_r (move from coprocessor 2 data reg)
* gte_mtc2 -> gte_mv_to_data_r (move to coprocessor 2 data reg)
* gte_cfc2 -> gte_mv_from_ctrl_r (move from coprocessor 2 control reg)
* gte_ctc2 -> gte_mv_to_ctrl_r (move to coprocessor 2 control reg)
*
* Data load/store (load/store word to coprocessor 2 data register):
* gte_lwc2(rt, base, off) -> gte_lw(rt, base, off)
* gte_swc2(rt, base, off) -> gte_sw(rt, base, off)
* (the lower-level vector variants gte_lw_v0_xy etc. don't have
* vendor mnemonics; they're already gte_-prefixed and short)
* ============================================================================ */
#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "gte.h"
#endif
#ifndef DUFFLE_GTE_VENDOR_SYM_H
#define DUFFLE_GTE_VENDOR_SYM_H
/* Transfers (move GPR <-> GTE control/data register) */
#define gte_mfc2(rt, rd) gte_mv_from_data_r((rt), (rd))
#define gte_mtc2(rt, rd) gte_mv_to_data_r((rt), (rd))
#define gte_cfc2(rt, rd) gte_mv_from_ctrl_r((rt), (rd))
#define gte_ctc2(rt, rd) gte_mv_to_ctrl_r((rt), (rd))
/* Data load/store (load/store word to coprocessor 2 data register) */
#define gte_lwc2(rt, base, off) gte_lw((rt), (base), (off))
#define gte_swc2(rt, base, off) gte_sw((rt), (base), (off))
#endif
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#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "gen/macs.h"
# include "gen/offsets.h"
# include "dsl.h"
# include "gcc_asm.h"
# include "mips.h"
# include "gte.h"
# include "memory.h"
# include "dsl.atom.h"
#endif
#pragma region Tape Drive
/* -----------------------------------------------------------------------------------------------------------
* TAPE DRIVE ABI
* -----------------------------------------------------------------------------------------------------------
* Note(Ed): One of the main purposes of this codebase is to help me learn this,
* as such the information below may not* be entirely realized or finalized conceptually.
* -----------------------------------------------------------------------------------------------------------
* This ABI and its associated legos were directly inspired by researching the work of
* Timothy Lottes and Onat Türkçüoğlu; along with many others. It's the simplest bootstrap of a
* directly executed chain of assemby arrays (Atoms) that terminate with a yield sequence to the next atom.
* These eventually lead to a terminal atom for the tape which is defined below as "tape_exit".
*
* It behaves as one of the simplest runtime harnesses ontop of a host-enviornment's execution engine
* to author and compose programs with. From here various conventions can be further applied.
* To make things easier to understand it may be better to focus on what this ABI does not have.
* It does not have have any branching within the tape but relative branches within atoms or between atoms.
* Branching nearly is always downstream. Automatic stack usage is non-existent.
* Push/Pop, FIFO, or Arena/Bump data structures are used by atoms explicitly.
* In it's current form with the C11 macro DSL, the user also has fullfill manual register allocation per atom.
*
* One of the remarkable things about utilizing this ABI is its essentially interopable with CPUs, GPUs, FPGA,
* or, basically anything from the 5th generation consoles and onward.
* The ABI directly reflects how all computational hardware must be architected in order to execute
* digital logic effectively on current era tech.
* On the PS1 we don't have access to a few features like multi-threading, speculative execution, or L3 cache;
* but, we can set the foundation for legoing whats required for eventually expanding this ABI's paradigm
* and core atoms to take those newer hardware features into account. For example, you can easily expand
* this to support wave-based execution model on a PS2 or PS3. Not having a stack or
* automatic register allocation means the user cannot ignore excessive argument shuffle across workload or
* waves and thier phases. Crossing ABI boundaries to other runtimes that do has obviouss penalties.
*
* Learning data-oriented code becomes a natural progression. Your not fighting a stack-based procedural
* paradigm that wants to argument shuffle. There is no ambiguity due to the lack of constraints, for example,
* on how the user may "call" a procedure in traditional random dispatch runtimes. The user does have to
* hammer down "rules" or patterns for massaging the compiler to dissolve those call frames; just to get
* the asesmbly into its desired form. The form is obvious, and once the user gets to author these compoonents
* it becomes a game of tetris.
*
* Another feature is this ABI is very compatible with bootstrapping and developing simple toolchains built off
* of bit-packed annotated command streams the user can directly author, maintatain, and immediately execute.
* That being like a color forth, or maybe something more familar like an immediate mode library
* for various systems such as GUIs. This can make the tetris less of a chore with some helpful policy
* generation for allocation of registers, helping to choose resuable components, designing DSL on the fly, etc.
* -----------------------------------------------------------------------------------------------------------
* TODO(Ed): We need pretty ascii diagrams and proper guides, articles, etc.
* -----------------------------------------------------------------------------------------------------------
* For now this ideation has just started functioning. I'm abusing C11 & a lua metaprogram to help establish
* a hybrid toolchain to ideate on a traditional text-based authoring UX for this paradigm.
* If pcsx-redux provides viable hot-reload and persistent data storage beyond save-states
* (just copying ram to filesystem), I can author a color forth to mess around with.
* With either an editor in-emulator or on the actual machine itself. Assembly is tedius,
* but I think this codebase most likely has a pretty ergonomic flavor worst case...
* */
/* Register Allocation Info */
enum {
R_ScratchBase = R_SP atom_reg, /* Scratchpad base address (host frame top) */
R_AtomJmp = R_FP atom_reg, /* Next atom target (yield handshake scratch) */
R_TapePtr = R_RA atom_reg, /* The Instruction Stream Pointer */
/* Stringification codes for the GCC inline assembler clobber lists. */
#define R_ScratchBase_Code R_SP_Code
#define R_AtomJmp_Code R_FP_Code
#define R_TapePtr_Code R_RA_Code
// R_InCursor = R_T4,
// #define R_InCursor_Code R_T4_Code
// Reserved Registers (Callee-saved across the host ABI transition):
// - R_SP: Holds the scratchpad base while tape code executes.
// - R_FP: Holds the next atom target.
// - R_RA: Holds the tape cursor.
// All atom-body allocations must stay out of these.
// Atom bodies may freely use R2-R25.
// All allocatable registers for atom bodies (R2-R25, 24 registers):
R_PsuedoVolatile = R_AT, // Assembler temporary; never allocate.
// Atom Allocation Pool
R_Atom0 = R_T0,
R_Atom1 = R_T1,
R_Atom2 = R_T2,
R_Atom3 = R_T3,
R_Atom4 = R_T4,
R_Atom5 = R_T5,
R_Atom6 = R_T6,
R_Atom7 = R_T7,
R_Atom8 = R_T8,
R_Atom9 = R_T9,
R_Atom10 = R_V0, // Tend to be used with gte moves
R_Atom11 = R_V1, // Tend to be used with gte moves
R_Atom12 = R_A0,
R_Atom13 = R_A1,
R_Atom14 = R_A2,
R_Atom15 = R_A3,
R_Atom16 = R_S0,
R_Atom17 = R_S1,
R_Atom18 = R_S2,
R_Atom19 = R_S3,
R_Atom20 = R_S4,
R_Atom21 = R_S5,
R_Atom22 = R_S6,
R_Atom23 = R_S7,
};
typedef U2 Reg; // Register parameter used with atom or atom component procedures
#define Reg_(type) tmpl(Reg,type) // Just a way to template register allocations of C-struct types.
typedef U4 const MipsCode; // Underlying type to mips asm words.
typedef Slice_(MipsCode);
typedef U4 const MipsAtom; // Underlying type to a mips atom defnition
typedef Slice_(MipsAtom);
// Sometimes a user will define a bundle of atoms that represent a procedure of work as:
// MipsAtom* <identifier>[...];
// Unfortuantely if using slice_from_array it will make the slice's pointer: MipsAtom** so this enforce its defined as MipsAtom*
// TODO(Ed): Alternatively we can make the MipsAtom an opaque pointer to the atom... so that the proc returns 'MipsAtom'.
#define atombundle_from_array(array) (Slice_MipsAtom){.ptr=array[0],.len=Array_len(array)}
// Underlying type to an ptr to an array of mips asm words that must terminate with an ac_yield.
#define MipsAtom_(sym) MipsCode sym [] align_(4) =
// Used for atoms with value-args
// internal MipsAtom* X_proc(AtomArena_R aa, args) MipsAtom_Proc_(X, aa, { body })
// expands to:
// internal MipsAtom* X_proc(AtomArena_R aa, args) { MipsCode atom_comp_code[] align_(4) = { body }; return atomarena_push(aa, slice_from_array(MipsCode, atom_comp_code)); }
// The atom name is derived by the Lua metaprogram from the preceding
// `MipsAtom* X_proc(...)` declaration (backward walk from the macro site,
// strips the `_proc` suffix).
#define MipsAtom_Proc_(aa, ...) { MipsCode atom_comp_code[] align_(4) = __VA_ARGS__; return atomarena_push(aa, slice_from_array(MipsCode, atom_comp_code)); }
// Used for components with no args (e.g., ac_load_tri_indices) or identifier-args (hardcoded register names).
// MipsAtomComp_(ac_X) { body }
// expands to:
// MipsCode ac_X[] align_(4) = { body };
#define MipsAtomComp_(sym) MipsCode sym [] align_(4) =
// Used for components with value-args (mandatory `ab` (atom-builder) arg).
// FI_ void ac_X(MipsAtomBuilder_R ab, args) MipsAtomComp_Proc_(ab, { body })
// expands to:
// FI_ void ac_X(MipsAtomBuilder_R ab, args) {
// MipsCode atom_comp_code[] align_(4) = { body };
// atombuilder_push(ab, slice_from_array(MipsCode, atom_comp_code));
// }
// The body must NOT include mac_yield() (the parent atom yields).
// The component name is derived by the Lua metaprogram from the preceding `FI_ Slice_MipsCode ac_X(...)` declaration (backward walk from the macro site).
// Inline-only callers (the generated `mac_<name>` aliases) skip the `ab` arg via metaprogram filtering; escape callers (ac_<name> invoked as a function) pass a long-lived builder.
#define MipsAtomComp_Proc_(ab, ...) { MipsCode atom_comp_code[] align_(4) = __VA_ARGS__; atombuilder_push(ab, slice_from_array(MipsCode, atom_comp_code)); }
// Used for trivial mappings from one atom component proc to the command of a more baser (meant for type-mapping)
#define MipsAtomComp_ProcMap_(ab, base_command) atom_dbg_skip MipsAtomComp_Proc_(ab, {base_command })
// WIP: Atoms Assocated closely with each other to form a tape procedure. (Maybe also a phase in a procedure/pipeline?)
#define AtomBundle_(name) Struct_(tmpl(AtomBundle,name))
#define AtomBundle_Len(name) S_(tmpl(AtomBundle,name))/S_(MipsAtom*)
#define AtomBundleEntry_(bundle,entry) tmpl(bundle,entry)
/* Line-table anchor: gcc only adds a file to the .debug_line file table when the contains line-numbered content.
Files containing only atoms and atom components.
Place `ATOM_FILE_LINE_MARKER();` once at file scope in any `.atom.c` that defines atoms.
Macro expands to a file-scope `internal U4 const` declaration keeps the file in the line table.
The constant is in `.rodata` so the linker may eliminate it. */
#define ATOM_FILE_DEBUGGER_LINE_MARKER(file_name) internal U4 const tmpl(atom_file_debugger_line_marker,file_name) = 0
typedef Slice_MipsAtom Tape;
typedef Struct_(TapeHostFrame) {
U4 s0;
U4 s1;
U4 s2;
U4 s3;
U4 s4;
U4 s5;
U4 s6;
U4 s7;
U4 fp;
U4 sp;
U4 ra;
};
enum {
TapeHostFrame_Loc = Scratchpad_End - S_(TapeHostFrame),
TapeScratch_Len = TapeHostFrame_Loc - Scratchpad_Loc,
};
static_assert(S_(TapeHostFrame) == 11 * S_(U4));
static_assert(TapeHostFrame_Loc == 0x1F8003D4);
atom_dbg_skip MipsAtom_(tape_enter) {
mac_load_word_imm(R_V0, u4_(TapeHostFrame_Loc)),
store_word(R_S0, R_V0, O_(TapeHostFrame,s0)),
store_word(R_S1, R_V0, O_(TapeHostFrame,s1)),
store_word(R_S2, R_V0, O_(TapeHostFrame,s2)),
store_word(R_S3, R_V0, O_(TapeHostFrame,s3)),
store_word(R_S4, R_V0, O_(TapeHostFrame,s4)),
store_word(R_S5, R_V0, O_(TapeHostFrame,s5)),
store_word(R_S6, R_V0, O_(TapeHostFrame,s6)),
store_word(R_S7, R_V0, O_(TapeHostFrame,s7)),
store_word(R_FP, R_V0, O_(TapeHostFrame,fp)),
store_word(R_SP, R_V0, O_(TapeHostFrame,sp)),
store_word(R_RA, R_V0, O_(TapeHostFrame,ra)),
add_ui(R_TapePtr, R_A0, 0),
load_upper_i(R_ScratchBase, u4_hi(Scratchpad_Loc)),
load_word(R_AtomJmp, R_TapePtr, 0),
add_ui_self( R_TapePtr, S_(MipsAtom)),
jump_reg(R_AtomJmp), BdSlot_ nop,
};
atom_dbg_skip MipsAtom_(tape_exit) {
mac_load_word_imm(R_V0, u4_(TapeHostFrame_Loc)),
load_word(R_S0, R_V0, O_(TapeHostFrame,s0)),
load_word(R_S1, R_V0, O_(TapeHostFrame,s1)),
load_word(R_S2, R_V0, O_(TapeHostFrame,s2)),
load_word(R_S3, R_V0, O_(TapeHostFrame,s3)),
load_word(R_S4, R_V0, O_(TapeHostFrame,s4)),
load_word(R_S5, R_V0, O_(TapeHostFrame,s5)),
load_word(R_S6, R_V0, O_(TapeHostFrame,s6)),
load_word(R_S7, R_V0, O_(TapeHostFrame,s7)),
load_word(R_RA, R_V0, O_(TapeHostFrame,ra)),
load_word(R_FP, R_V0, O_(TapeHostFrame,fp)),
load_word(R_SP, R_V0, O_(TapeHostFrame,sp)),
jump_reg(R_RA), BdSlot_ nop,
};
typedef void Proc_(TapeEntryFn)(MipsAtom* tape_ptr);
FI_ void tape_run(Tape tape) { C_(TapeEntryFn*, tape_enter)(tape.ptr); }
// Procedural authoring of tapes:
typedef Relative_(FArena) Struct_(TapeBuilder) { U4 ptr; U4 capacity; U4 used; };
FI_ void tb_init(TapeBuilder* tb, FArena* arena) { tb->ptr = arena->start; tb->used = 0; }
FI_ TapeBuilder tb_make_old( FArena* arena) { return (TapeBuilder){ arena->start, 0 }; }
FI_ TapeBuilder tb_make(Slice mem) { return (TapeBuilder){ u4_(mem.ptr), mem.len, 0 }; } /* capacity in elements (matches used units) */
FI_ void tb_emit(TapeBuilder* tb, MipsAtom* atom) { u4_r(tb->ptr)[tb->used] = u4_(atom); ++ tb->used; }
FI_ void tb_data(TapeBuilder* tb, U4 data) { u4_r(tb->ptr)[tb->used] = u4_(data); ++ tb->used; }
#define tb_emit_(atom) tb_emit(& tb, atom)
FI_ void tb_bind(TapeBuilder* tb, Slice data) { mem_copy(tb->ptr + tb->used * S_(MipsCode), u4_(data.ptr), data.len); tb->used += data.len / S_(MipsCode); }
#define tb_bind_(tb,type,...) tb_bind(tb, (Slice){ (B1*)(& (type){__VA_ARGS__}), S_(type) }); static_assert(S_(type) % S_(MipsCode) == 0)
// NOTE(Ed): Wip still ideating convention. Possibly will never use a composite.
#define tb_emit_wbind_(tb,atom,...) tb_emit(tb,atom); tb_bind_(tb,tmpl(Binds,atom),__VA_ARGS__)
#define tb_emit_wbind2_(tb,atom,type,...) tb_emit(tb,atom); tb_bind_(tb,type,__VA_ARGS__)
FI_ Tape tb_end (TapeBuilder* tb) { tb_emit(tb,tape_exit); return (Tape){ C_(U4*,tb->ptr), tb->used }; }
FI_ Tape tb_slice(TapeBuilder tb) { return (Tape){ C_(U4*,tb.ptr), tb.used }; }
#define tb_scope(tb) for(U4 tbs_once=0;tbs_once==0;++tbs_once,tb_emit(tb,tape_exit))
FI_ void tb_scope_run_end(TapeBuilder* tb) { tb_emit(tb,tape_exit); tape_run(tb_slice(tb[0])); }
#define tb_scope_run(tb) for(U4 tbs_once=0;tbs_once==0;++tbs_once,tb_scope_run_end(tb))
#pragma endregion Tape Drive
#pragma region Macro Mips Atom Components
/* ---------------------------------------------------------------------------
* MACRO ATOM Components (Reusable Assembly Components)
* These do NOT yield. They are expanded inline inside Tape Atoms.
* ---------------------------------------------------------------------------*/
// The 'Yield' sequence for Tape Atoms (mac_yield).
atom_dbg_skip MipsAtomComp_(ac_yield) {
load_word(R_AtomJmp, R_TapePtr, 0), LdSlot_
add_ui_self( R_TapePtr, S_(MipsCode)),
jump_reg( R_AtomJmp), BdSlot_ nop,
};
atom_dbg_skip MipsAtomComp_(ac_yield_load) {
load_word(R_AtomJmp, R_TapePtr, 0),
};
atom_dbg_skip MipsAtomComp_(ac_yield_tail) {
add_ui_self(R_TapePtr, S_(MipsCode)),
jump_reg( R_AtomJmp), BdSlot_ nop,
};
#pragma endregion Macro Atom Components
#pragma region Atom Builder
// This helps with runtime procedural authoring of mips atoms.
typedef Relative_(FArena) Struct_(AtomBuilder) { U4 start; U4 capacity; U4 used; };
// Usual way to resolve an atom after the bulder is done.
#define atom_from_atombuilder(ab) C_(MipsAtom*, (ab).start)
FI_ void atombuilder_push(AtomBuilder_R ab, Slice_MipsCode code) {
assert(ab->capacity - ab->used - code.len);
U4 dest = ab->start + ab->used * S_(MipsCode); U4 size = S_slice(code);
mem_copy(dest, u4_(code.ptr), size); ab->used += size;
}
#define atombuilder_push_mac(ab, mac) atombuilder_push(ab, slice_arg_from_array(Slice_MipsCode, mac))
// When done authoring, utilize this to cap-off the atom (if not utilizing a MipsAtom_Proc).
FI_ void atombuilder_end(AtomBuilder_R ab) { atombuilder_push(ab, slice_from_array(MipsCode, ac_yield)); }
FI_ void tb_emit_atombuilder(TapeBuilder_R tb, AtomBuilder_R ab) { tb_emit(tb, atom_from_atombuilder(ab[0])); }
#pragma endregion Mips Atom Builder
#pragma region Atom Arena
// Just a dedicated FArena that is meant to mem_copy and return atom definitions made with MipsAtom_Proc_
typedef Relative_(FArena) Struct_(AtomArena) { U4 start; U4 capacity; U4 used; };
#define atomarena_unused_start(ab) ((ab).start + (ab).used)
FI_ void atomarena_init(AtomArena_R arena, Slice mem) { assert(arena != nullptr);
arena->start = u4_(mem.ptr);
arena->capacity = mem.len;
arena->used = 0;
}
FI_ AtomArena atomarena_make(Slice mem) { AtomArena a; atomarena_init(& a, mem); return a; }
FI_ MipsAtom* atomarena_push(AtomArena_R aa, Slice_MipsCode code) {
assert(aa->capacity - aa->used - code.len);
U4 dest = atomarena_unused_start(aa[0]); U4 size = S_slice(code);
mem_copy(dest, u4_(code.ptr), size); aa->used += size;
return C_(MipsAtom*, dest);
}
FI_ void atomarena_reset(AtomArena_R aa) { aa->used = 0; }
#pragma endregion Atom Arena
#pragma region RegFile (Register File Allocator)
// A specialized allocator utilized to help the user track which registers are bound to values
// that must be preserved for the arena's bounds.
// TODO(Ed): Technically we can do this at comp-time with the metaprogram, but we may have namespace conflicts.
// Unless we follow a convention for #define <Scope_Prefix> or something per register allocation boundary.
/* ABI reserves that are never handed out by alloc.
* R_AT is the assembler temporary (per the MIPS O32 ABI).
* R_K0/K1 are kernel reserves.
* R_GP stays the host global pointer.
* R_SP/R_FP/R_RA are tape runtime carriers between tape_enter and tape_exit. */
U4 const regfile_abi_mask =
(1u << R_0) | (1u << R_AT) |
(1u << R_K0) | (1u << R_K1) |
(1u << R_GP) | (1u << R_SP) |
(1u << R_FP) | (1u << R_RA);
internal Reg const regfile_alloc_order[] = {
R_V0, R_V1,
R_A0, R_A1, R_A2, R_A3,
R_T0, R_T1, R_T2, R_T3, R_T4, R_T5, R_T6, R_T7,
R_S0, R_S1, R_S2, R_S3, R_S4, R_S5, R_S6, R_S7,
R_T8, R_T9,
};
typedef Struct_(RegFile) {
A2_U2 GPR;
A2_U2 GTE;
};
#define regfile(pin_mask) {.GPR={u4_lo(pin_mask), u4_hi(pin_mask)} }
FI_ void regfile_init(RegFile_R rf) {
/* pack the 32-bit ABI mask into the two U2s */
rf->GPR[0] = u4_lo(regfile_abi_mask);
rf->GPR[1] = u4_hi(regfile_abi_mask);
rf->GTE[0] = rf->GTE[1] = 0;
}
FI_ RegFile regfile_make(void) { RegFile rf; regfile_init(& rf); return rf; }
typedef Struct_(RegFile_RInfo) {
U2_R section;
U2 mask;
B2 occupied;
};
FI_ RegFile_RInfo regfile_rinfo(A2_U2 file, Reg r_id) {
U2 s_id = r_id >> 4;
U2_R section = & file[s_id];
U2 mask = u2_(1u << (r_id & 15));
B2 occupied = (section[0] & mask) != 0;
return (RegFile_RInfo){section, mask, occupied};
}
FI_ Reg regfile__alloc_helper(A2_U2 file, Reg r_id) {
Reg result = 0; RegFile_RInfo info = regfile_rinfo(file, r_id);
if (info.occupied == false) {
info.section[0] |= info.mask;
result = r_id;
}
return result;
}
I_ Reg regfile_alloc(RegFile_R rf) {
Reg allocated = 0;
for index_iter(U4, r_id, R_V0, <, R_T9) {
allocated = regfile__alloc_helper(rf->GPR, r_id);
Jmp_nZero_(allocated,resolved);
}
assert(allocated != 0);
resolved: return allocated;
}
FI_ Reg regfile_pin(RegFile_R rf, Reg r_id) {
RegFile_RInfo info = regfile_rinfo(rf->GPR, r_id);
assert(info.occupied == false);
info.section[0] |= info.mask;
return r_id;
}
FI_ void regfile_pin_mask(RegFile_R rf, U4 mask) {
B4 occupied = u4_r(rf->GPR)[0] & mask;
assert(occupied == false);
u4_r(rf->GPR)[0] |= mask;
}
FI_ void regfile_free_mask(RegFile_R rf, U4 mask) {
if (regfile_abi_mask & mask) return;
u4_r(rf->GPR)[0] &= ~mask;
}
FI_ void regfile_free_reg(RegFile_R rf, Reg r_id) {
/* never free the ABI set */
if (regfile_abi_mask & (1u << r_id)) return;
RegFile_RInfo info = regfile_rinfo(rf->GPR, r_id);
info.section[0] &= ~info.mask;
}
FI_ void regfile_reset(RegFile_R rf) {
rf->GPR[0] = u4_lo(regfile_abi_mask);
rf->GPR[1] = u4_hi(regfile_abi_mask);
}
FI_ void regfile_reset_to_mask(RegFile_R rf, U4 mask) {
rf->GPR[0] = u4_lo(mask);
rf->GPR[1] = u4_hi(mask);
}
#pragma endregion RegFileArena (Register File Allocator)
#pragma region Mips Atom Procs
/* RegUse structs are a convention to organize register allocations for a mips atom procedure.
Unlike the usual enum-based declarations, they provide a namespaced scope and have view types via union declarations. */
#define RegUse_(proc_name) (tmpl(RegUse,proc_name))
typedef Struct_(RegUse_example_atom_proc) {
Reg const ro_register; // Scratch base carrier.
Reg usual_modifiable;
union { Reg view_1, view_2, view_3; } t1;
};
internal MipsAtom* example_atom_proc(AtomArena_R aa, U2 offset, RegUse_example_atom_proc r)
MipsAtom_Proc_(aa, {
add_si(r.usual_modifiable, r.ro_register, offset),
or_u(r.t1.view_1, r.ro_register, 0),
branch_lt_zero(r.t1.view_1, atom_offset(example_atom_proc, skip)), BdSlot_ nop,
li_s(r.t1.view_2, 100),
atom_label(skip)
add_si(r.t1.view_3, r.usual_modifiable, 10),
mac_yield(),
})
#pragma endregion Mips Atom Procs
#pragma region Baked Mips Atoms
// These atoms are resolved at compile time and are (usually) statically linked readonly data.
#pragma endregion Baked Mips Atoms
+96
View File
@@ -0,0 +1,96 @@
#ifdef INTELLISENSE_DIRECTIVES
# include "gen/macs.h"
# include "gen/offsets.h"
# include "math.h"
# include "lottes_tape.h"
#endif
ATOM_FILE_DEBUGGER_LINE_MARKER(math_atom_c);
#define v3s4_R_0() ((Reg_(V3_S4)){R_0,R_0,R_0})
typedef Struct_(Reg_V3_S2) { Reg x, y, z; };
typedef Struct_(Reg_V3_S4) { Reg x, y, z; }; // Register allocation of a V3_S4
typedef Struct_(Reg_P3_S4) { Reg x, y, z; }; // Register allocation of a P3_S4
#pragma region MACs (Mips Atom Component)
FI_ Slice_MipsCode ac_load_half_v3(AtomBuilder_R ab, Reg tx, Reg ty, Reg tz, Reg base, U2 offset) atom_dbg_skip MipsAtomComp_Proc_(ab, {
load_half(tx, base, offset + OA_(U2,[0])),
load_half(ty, base, offset + OA_(U2,[1])),
load_half(tz, base, offset + OA_(U2,[2])),
})
FI_ Slice_MipsCode ac_load_v3s2(AtomBuilder_R ab, Reg_(V3_S2) transfer, Reg base, U2 offset) MipsAtomComp_ProcMap_(ab, mac_load_half_v3(transfer.x, transfer.y, transfer.z, base, offset))
FI_ Slice_MipsCode ac_load_v2s2(AtomBuilder_R ab, U4 rs_x, U4 rs_y, U4 r_base, U4 offset) atom_dbg_skip MipsAtomComp_Proc_(ab, {
load_half(rs_x, r_base, offset + O_(V3_S2,x)),
load_half(rs_y, r_base, offset + O_(V3_S2,y)),
})
FI_ Slice_MipsCode ac_store_v2s2(AtomBuilder_R ab, U4 rt_x, U4 rt_y, U4 base, U4 offset) atom_dbg_skip MipsAtomComp_Proc_(ab, {
store_half(rt_x, base, offset + O_(V2_S2,x)),
store_half(rt_y, base, offset + O_(V2_S2,y)),
})
FI_ Slice_MipsCode ac_load_word_v3(AtomBuilder_R ab, Reg tx, Reg ty, Reg tz, Reg base, U2 offset) atom_dbg_skip MipsAtomComp_Proc_(ab, {
load_word(tx, base, offset + OA_(U4,[0])),
load_word(ty, base, offset + OA_(U4,[1])),
load_word(tz, base, offset + OA_(U4,[2])),
})
FI_ Slice_MipsCode ac_load_v3s4(AtomBuilder_R ab, Reg_(V3_S4) transfer, Reg base, U2 offset) MipsAtomComp_ProcMap_(ab, mac_load_word_v3(transfer.x, transfer.y, transfer.z, base, offset))
FI_ Slice_MipsCode ac_load_p3s4(AtomBuilder_R ab, Reg_(P3_S4) transfer, Reg base, U2 offset) MipsAtomComp_ProcMap_(ab, mac_load_word_v3(transfer.x, transfer.y, transfer.z, base, offset))
FI_ Slice_MipsCode ac_store_half_v3(AtomBuilder_R ab, Reg tx, Reg ty, Reg tz, Reg base, U2 offset) atom_dbg_skip MipsAtomComp_Proc_(ab, {
store_half(tx, base, offset + OA_(U2,[0])),
store_half(ty, base, offset + OA_(U2,[1])),
store_half(tz, base, offset + OA_(U2,[2])),
})
FI_ Slice_MipsCode ac_store_v3s2(AtomBuilder_R ab, Reg_(V3_S2) transfer, Reg base, U2 offset) MipsAtomComp_ProcMap_(ab, mac_store_half_v3(transfer.x, transfer.y, transfer.z, base, offset))
FI_ Slice_MipsCode ac_store_word_v3(AtomBuilder_R ab, Reg tx, Reg ty, Reg tz, Reg base, U2 offset) atom_dbg_skip MipsAtomComp_Proc_(ab, {
store_word(tx, base, offset + OA_(U4,[0])),
store_word(ty, base, offset + OA_(U4,[1])),
store_word(tz, base, offset + OA_(U4,[2])),
})
FI_ Slice_MipsCode ac_store_v3s4(AtomBuilder_R ab, Reg_(V3_S4) transfer, Reg base, U2 offset) MipsAtomComp_ProcMap_(ab, mac_store_word_v3(transfer.x, transfer.y, transfer.z, base, offset))
FI_ Slice_MipsCode ac_store_p3s4(AtomBuilder_R ab, Reg_(P3_S4) transfer, Reg base, U2 offset) MipsAtomComp_ProcMap_(ab, mac_store_word_v3(transfer.x, transfer.y, transfer.z, base, offset))
FI_ Slice_MipsCode ac_add_si_v3s4(AtomBuilder_R ab, Reg rt_x, Reg rt_y, Reg rt_z, Reg base, U2 offset)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
add_si(rt_x, base, O_(V3_S4,x)),
add_si(rt_y, base, O_(V3_S4,y)),
add_si(rt_z, base, O_(V3_S4,z)),
})
FI_ Slice_MipsCode ac_sub_s_v3(AtomBuilder_R ab
, Reg dx, Reg dy, Reg dz
, Reg sx, Reg sy, Reg sz
, Reg tx, Reg ty, Reg tz
) atom_dbg_skip MipsAtomComp_Proc_(ab, {
sub_s(dx, sx, tx),
sub_s(dy, sy, ty),
sub_s(dz, sz, tz),
})
FI_ Slice_MipsCode ac_sub_v3s4(AtomBuilder_R ab, Reg_(V3_S4) d, Reg_(V3_S4) s, Reg_(V3_S4) t) MipsAtomComp_ProcMap_(ab, mac_sub_s_v3(d.x, d.y, d.z, s.x, s.y, s.z, t.x, t.y, t.z))
FI_ Slice_MipsCode ac_sub_s_v3_self(AtomBuilder_R ab, Reg ds_x, Reg ds_y, Reg ds_z, Reg tx, Reg ty, Reg tz) atom_dbg_skip MipsAtomComp_Proc_(ab, {
sub_s(ds_x, ds_x, tx),
sub_s(ds_y, ds_y, ty),
sub_s(ds_z, ds_z, tz),
})
FI_ Slice_MipsCode ac_sub_v3s4_self(AtomBuilder_R ab, Reg_(V3_S4) ds, Reg_(V3_S4) t) MipsAtomComp_ProcMap_(ab, mac_sub_s_v3_self(ds.x, ds.y, ds.z, t.x, t.y, t.z))
FI_ Slice_MipsCode ac_store_rects2(AtomBuilder_R ab, U4 rt_x, U4 rt_y, U4 rt_width, U4 rt_height, U4 base, U4 offset) atom_dbg_skip MipsAtomComp_Proc_(ab, {
store_half(rt_x, base, offset + O_(Rect_S2,x)),
store_half(rt_y, base, offset + O_(Rect_S2,y)),
store_half(rt_width, base, offset + O_(Rect_S2,width)),
store_half(rt_height, base, offset + O_(Rect_S2,height)),
})
#pragma endregion MACs (Mips Atom Component)
+69 -11
View File
@@ -7,6 +7,24 @@
#define max(A, B) (((A) > (B)) ? (A) : (B))
#define clamp_bot(X, B) max(X, B)
/* Convention
<Type> ## <Width> _ <Component Type> ## <Component Width>
For types with compound data (Ex: Rotation Matrix & Translation):
<TypeA> ## <TypeB> ## <Width> _ <ComponentTypeA> ## <ComponentWidthA> ## <ComponentTypeB> ## <ComponentWidthB>
A: Array
V: Vector
R: Range
M: Matrix
T: Translation
*/
enum {
v3s2_byteoff = 3, // log2(8), used with shift_left_logical op for index via byte offset.
};
typedef Array_(U1, 2);
typedef Array_(U2, 2);
typedef Array_(U4, 2);
typedef Array_(S2, 2);
typedef Array_(S2, 3);
@@ -18,24 +36,46 @@ typedef S2 A3x3_S2[3][3];
typedef Struct_(Extent2_S2) { S2 width; S2 height; };
typedef Struct_(Extent2_S4) { S4 width; S4 height; };
typedef Struct_(V2_U1) { U1 x; U1 y; };
typedef Struct_(V2_S2) { S2 x; S2 y; };
typedef Struct_(V2_S4) { S4 x; S4 y; };
typedef Struct_(V3_S2) { S2 x; S2 y; S2 z; S2 pad; };
typedef Struct_(V3_S4) { S4 x; S4 y; S4 z; S4 pad; };
typedef Struct_(V3_S2) { S2 x; S2 y; S2 z; S2 pad; }; // PSY-Q: SVECTOR
typedef Struct_(V3_S4) { S4 x; S4 y; S4 z; S4 pad; }; // PSY-Q: VECTOR. RGA(Lengyel): Euclidean vector or direction. A zero-weight RGA point is stored as a V3_S4 with the implicit weight dropped.
typedef Struct_(V4_S2) { S2 x; S2 y; S2 z; S2 w; };
typedef Struct_(V4_S4) { S4 x; S4 y; S4 z; S4 w; };
typedef Struct_(R2_S2) { V2_S2 p0; V2_S2 p1; };
typedef Struct_(R2_S4) { V2_S4 p0; V2_S4 p1; };
// typedef Struct_(P3_S4) { S4 x; S4 y; S4 z; S4 w1; }; // RGA(Lengyel): Affine point with implicit weight one. Storage alias of V3_S4. Use P3_S4 when the value is a point.
typedef V3_S4 P3_S4;
typedef Struct_(Rect_S2) { S2 x; S2 y; S2 width; S2 height; };
typedef Struct_(Rect_S4) { S4 x; S4 y; S4 width; S4 height; };
typedef Struct_(R1_U2) { U2 p0; U2 p1; };
typedef Struct_(R1_S2) { S2 p0; S2 p1; };
typedef Struct_(M3_S2) { A3x3_S2 m; A3_S4 t; };
typedef Struct_(R2_S2) { V2_S2 p0; V2_S2 p1; }; // Range-2 Signed 2-Byte (16-bit)
typedef Struct_(R2_S4) { V2_S4 p0; V2_S4 p1; }; // Range-2 Signed 4-Byte (32-bit)
typedef Struct_(Rect_S2) { S2 x; S2 y; S2 width; S2 height; };
typedef Struct_(Rect_S4) { S4 x; S4 y; S4 width; S4 height; };
typedef Struct_(MT3_S2S4) { A3x3_S2 m; A3_S4 t; }; // PSY-Q: MATRIX. RGA(Lengyel): Matrix expansion of a rigid transformation. GTE utilizes this representation; corresponding motor not constructed here.
/* RGA(Lengyel) reserved names (deferred):
* P4_S4 - future flat point with explicit weight (Lengyel/TML FlatPoint3D analog).
* B3_S4 - future 3D bivector (callers store a Complement(Wedge(...)) as a V3_S4).
* Mo8_S4 - future motor. Not introduced until a course operation actually needs composition, interpolation, or inversion. */
typedef Array_(V2_U1, 2);
typedef Array_(V2_S2, 2);
typedef Array_(V2_S2, 3);
typedef Array_(V2_S2, 4);
#define r1u2(p0,p1) (R1_U2){p0,p1}
enum {
fp_one = (1 << 12),
};
#define v3s4_fp_one() v3s4(fp_one, fp_one, fp_one)
#define v2s2(x,y) (V2_S2){x,y}
#define v3s2(x,y,z) (V3_S2){x,y,z,0}
#define v3s4(x,y,z) (V3_S4){x,y,z,0}
@@ -54,10 +94,28 @@ FI_ void add_a3s4_fp(A3_S4_R out_a, A3_S4 b) {
(out_a[0])[2] += b[2] >> 1;
}
FI_ void add_v3s4(V3_S4_R out_a, V3_S4 b) {
add_a3s4(pcast(A3_S4_R, out_a), pcast(A3_S4, b));
FI_ void sub_a3s4(A3_S4_R out_a, A3_S4 b) {
(out_a[0])[0] -= b[0];
(out_a[0])[1] -= b[1];
(out_a[0])[2] -= b[2];
}
FI_ void add_v3s4_fp(V3_S4_R out_a, V3_S4 b) {
add_a3s4_fp(pcast(A3_S4_R, out_a), pcast(A3_S4, b));
FI_ void sub_a3s4_fp(A3_S4_R out_a, A3_S4 b) {
(out_a[0])[0] -= b[0] >> 1;
(out_a[0])[1] -= b[1] >> 1;
(out_a[0])[2] -= b[2] >> 1;
}
FI_ void mul_a3s4(A3_S4_R out_a, A3_S4 b) {
(out_a[0])[0] *= b[0];
(out_a[0])[1] *= b[1];
(out_a[0])[2] *= b[2];
}
FI_ void add_v3s4 (V3_S4_R out_a, V3_S4 b) { add_a3s4 (C_ptr(A3_S4_R, out_a), C_ptr(A3_S4, b)); }
FI_ void add_v3s4_fp(V3_S4_R out_a, V3_S4 b) { add_a3s4_fp(C_ptr(A3_S4_R, out_a), C_ptr(A3_S4, b)); }
FI_ void sub_v3s4 (V3_S4_R out_a, V3_S4 b) { sub_a3s4 (C_ptr(A3_S4_R, out_a), C_ptr(A3_S4, b)); }
FI_ void sub_v3s4_fp(V3_S4_R out_a, V3_S4 b) { sub_a3s4_fp(C_ptr(A3_S4_R, out_a), C_ptr(A3_S4, b)); }
FI_ void mul_v3s4 (V3_S4_R out_a, V3_S4 b) { mul_a3s4 (C_ptr(A3_S4_R, out_a), C_ptr(A3_S4, b)); }
+46 -21
View File
@@ -3,14 +3,14 @@
# include "dsl.h"
#endif
#define MEM_ALIGNMENT_DEFAULT (2 * S_(void*))
#define MEM_ALIGNMENT_DEFAULT 4
#define assert_bounds(point, start, end) for(;0;){ \
assert((start) <= (point)); \
assert((point) <= (end)); \
} while(0)
inline U4 align_pow2(U4 x, U4 b) {
I_ U4 align_pow2(U4 x, U4 b) {
assert(b != 0);
assert((b & (b - 1)) == 0); // Check power of 2
return ((x + b - 1) & (~(b - 1)));
@@ -18,7 +18,7 @@ inline U4 align_pow2(U4 x, U4 b) {
#define align_struct(type_width) ((U4)(((type_width) + 3) & ~3))
FI_ void mem_bump(U4 start, U4 cap, U4*R_ used, U4 amount) {
FI_ void mem_bump(U4 cap, U4*R_ used, U4 amount) {
assert(amount <= (cap - used[0]));
used[0] += amount;
}
@@ -54,40 +54,50 @@ FI_ B4 mem_zero (U4 dest, U4 len) { if(dest == 0){return fa
#pragma region Slice
typedef unsigned char UTF8;
typedef Struct_(Str8) { UTF8* ptr; U4 len; };
typedef Struct_(Slice_Str8) { Str8* ptr; U4 len; };
#define txt(string_literal) (Str8){ (UTF8*) string_literal, S_(string_literal) - 1 }
typedef Struct_(Str8) { UTF8* ptr; U4 len; };
typedef Struct_(Slice_Str8) { Str8* ptr; U4 len; };
#define slit(string_literal) (Str8){ (UTF8*) string_literal, S_(string_literal) - 1 }
typedef Struct_(Slice) { U4 ptr, len; }; // Untyped Slice
FI_ Slice slice_ut_(U4 ptr, U4 len) { return (Slice){ptr, len}; }
typedef Struct_(Slice) { B1* ptr; U4 len; }; // Untyped Slice (byte-addressable; .len in elements)
FI_ Slice slice_ut_(U4 ptr, U4 len) { return (Slice){(B1*)ptr, len}; }
#define Slice_(type) Struct_(tmpl(Slice,type)) { type* ptr; U4 len; }
#define Slice_(type) Struct_(tmpl(Slice,type)) { type* ptr; U4 len; }
typedef Slice_(B1);
#define slice_assert(s) do { assert((s).ptr != 0); assert((s).len > 0); } while(0)
#define slice_end(slice) ((slice).ptr + (slice).len)
#define slice_end(slice) ((slice).ptr + S_slice(slice) / S_(B1)) /* byte-ptr arithmetic; .len is in elements per slice convention */
#define S_slice(s) ((s).len * S_((s).ptr[0]))
#define slice_ut(ptr,len) slice_ut_(u4_(ptr), u4_(len))
#define slice_ut_arr(a) slice_ut_(u4_(a), S_(a))
#define slice_ut(ptr,len) slice_ut_(u4_(ptr), u4_(len))
#define slice_ut_arr(a) slice_ut_(u4_(a), S_(a))
#define slice_to_ut(s) slice_ut_(u4_((s).ptr), S_slice(s))
#define slice_iter(container, iter) (T_((container).ptr) iter = (container).ptr; iter != slice_end(container); ++ iter)
#define slice_arg_from_array(type, ...) & (tmpl(Slice,type)) { .ptr = array_decl(type,__VA_ARGS__), .len = array_len( array_decl(type,__VA_ARGS__)) }
#define slice_arg_from_array(type, ...) & (tmpl(Slice,type)) { .ptr = Array_decl(type,__VA_ARGS__), .len = Array_len( Array_decl(type,__VA_ARGS__)) }
#define slice_from_array(type, array) (tmpl(Slice,type)) { .ptr = array, .len = Array_len(array) }
FI_ void slice_zero_(Slice s) { slice_assert(s); mem_zero(s.ptr, s.len); }
FI_ void slice_zero_(Slice s) { slice_assert(s); mem_zero(u4_(s.ptr), s.len); }
#define slice_zero(s) slice_zero_(slice_to_ut(s))
FI_ void slice_copy_(Slice dest, Slice src) {
assert(dest.len >= src.len);
assert(S_slice(dest) >= S_slice(src));
slice_assert(dest);
slice_assert(src);
mem_copy(dest.ptr, src.ptr, src.len);
mem_copy(u4_(dest.ptr), u4_(src.ptr), S_slice(src));
}
#define slice_copy(dest, src) do { \
static_assert(T_same(dest, src)); \
slice_copy_(slice_to_ut(dest), slice_to_ut(src)); \
} while(0)
FI_ Slice slice_bump(U4_R used, U4 start, U4 len, U4 amount) {
assert(len - used[0] - amount);
U4 ptr = start + used[0]; used[0] += amount;
return slice_ut(ptr, amount);
}
typedef Slice_(U1);
typedef Slice_(U4);
#pragma endregion Slice
#pragma region FArena
@@ -95,26 +105,41 @@ FI_ void slice_copy_(Slice dest, Slice src) {
typedef Opt_(farena) { U4 alignment, type_width; };
typedef Struct_(FArena) { U4 start, capacity, used; };
FI_ void farena_init(FArena_R arena, Slice mem) { assert(arena != nullptr);
arena->start = mem.ptr;
arena->start = u4_(mem.ptr);
arena->capacity = mem.len;
arena->used = 0;
}
FI_ FArena farena_make(Slice mem) { FArena a; farena_init(& a, mem); return a; }
I_ Slice farena_push(FArena_R arena, U4 amount, Opt_farena o) {
FI_ Slice farena_bump(FArena_R a, U4 amount) { return slice_bump(& a->used, a->start, a->capacity, amount); }
I_ Slice farena_push(FArena_R arena, U4 amount, Opt_farena o) {
if (amount == 0) { return (Slice){}; }
U4 desired = amount * (o.type_width == 0 ? 1 : o.type_width);
U4 to_commit = align_pow2(desired, o.alignment ? o.alignment : MEM_ALIGNMENT_DEFAULT);
mem_bump(arena->start, arena->capacity, & arena->used, to_commit);
return (Slice){ arena->start + arena->used, to_commit };
U4 ptr = arena->start + arena->used;
mem_bump(arena->capacity, & arena->used, to_commit);
return (Slice){ (B1*)ptr, to_commit };
}
FI_ void farena_reset(FArena_R arena) { arena->used = 0; }
FI_ void farena_reset (FArena_R arena) { arena->used = 0; }
FI_ void farena_rewind(FArena_R arena, U4 save_point) {
U4 end = arena->start + arena->used; assert_bounds(save_point, arena->start, end);
arena->used -= save_point - arena->start;
}
FI_ U4 farena_save(FArena arena) { return arena.used; }
FI_ U4 farena_unused_start(FArena arena) { return arena.start + arena.used; }
#define farena_push_(arena, amount, ...) farena_push((arena), (amount), opt_(farena, __VA_ARGS__))
#define farena_push_type(arena, type, ...) C_(type*, farena_push((arena), 1, opt_(farena, .type_width=S_(type), __VA_ARGS__)).ptr)
#define farena_push_array(arena, type, amount, ...) (tmpl(Slice,type)){ C_(type*, farena_push((arena), (amount), opt_(farena, .type_width=S_(type), __VA_ARGS__)).ptr), (amount) }
#pragma endregion FArena
#pragma region BIOS Scratchpad
/* BIOS scratchpad location. 1 KB at 0x1F800000.
* TapeHostFrame occupies the final 44 bytes while tape code executes.
* Atom scratch is bounded by the TapeHostFrame_Loc declaration in lottes_tape.h. */
enum {
Scratchpad_Loc = 0x1F800000,
Scratchpad_Len = 0x400, /* 1 KB */
Scratchpad_End = Scratchpad_Loc + Scratchpad_Len, /* 0x1F800400 */
};
#define C_scratch(type) C_(type, Scratchpad_Loc)
#pragma endregion BIOS Scratchpad
+80
View File
@@ -0,0 +1,80 @@
#ifdef INTELLISENSE_DIRECTIVES
# include "gen/macs.h"
# include "gen/offsets.h"
# include "bios.h"
# include "mips.h"
# include "lottes_tape.h"
#endif
ATOM_FILE_DEBUGGER_LINE_MARKER(mips_atom_c);
#pragma region MACs (Mips Atom Components)
FI_ Slice_MipsCode ac_load_word_imm(AtomBuilder_R ab, Reg dst, U4 imm)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
load_upper_i(dst, u4_hi(imm)),
or_i_self( dst, u4_lo(imm)),
})
FI_ Slice_MipsCode ac_shift_aright_v3_self(AtomBuilder_R ab, Reg dt_x, Reg dt_y, Reg dt_z, U2 shift_amount)
MipsAtomComp_Proc_( ab, {
shift_aright(dt_x, dt_x, shift_amount),
shift_aright(dt_y, dt_y, shift_amount),
shift_aright(dt_z, dt_z, shift_amount),
})
FI_ Slice_MipsCode ac_shift_aright_v3s4_self(AtomBuilder_R ab, Reg_(V3_S4) dt, U2 shift) MipsAtomComp_ProcMap_(ab, mac_shift_aright_v3_self(dt.x, dt.y, dt.z, shift))
FI_ Slice_MipsCode ac_shift_aright_var_v3(AtomBuilder_R ab
, Reg rd_v0, Reg rd_v1, Reg rd_v2
, Reg rs_v0, Reg rs_v1, Reg rs_v2
, Reg r_shift)
MipsAtomComp_Proc_(ab, {
shift_aright_var(rd_v0, rs_v0, r_shift),
shift_aright_var(rd_v1, rs_v1, r_shift),
shift_aright_var(rd_v2, rs_v2, r_shift),
})
FI_ Slice_MipsCode ac_shift_aright_var_v3_self(AtomBuilder_R ab, Reg rds_v0, Reg rds_v1, Reg rds_v2, Reg r_shift)
atom_dbg_skip MipsAtomComp_Proc_(ab, {
shift_aright_var(rds_v0, rds_v0, r_shift),
shift_aright_var(rds_v1, rds_v1, r_shift),
shift_aright_var(rds_v2, rds_v2, r_shift),
})
FI_ Slice_MipsCode ac_shift_aright_var_v3s4_self(AtomBuilder_R ab, Reg_(V3_S4) ds, Reg shift) MipsAtomComp_ProcMap_(ab, mac_shift_aright_var_v3_self(ds.x, ds.y, ds.z, shift))
#pragma endregion MACs (Mips Atom Components)
#pragma region Baked Atoms
/* Flushes the Instruction Cache (PSX A-function 0x44 via BIOS stub at 0xA0).
* Sequence (per MIPS ABI; arguments in arg registers, RA pushed to stack):
* 1. sp -= 8; sw $ra, 4($sp) ; save RA
* 2. $a0 = bios_flushcache (arg0)
* 3. $t0 = bios_table_addr ; t0 = &BIOS A-function table
* 4. jalr $t0, $ra ; call BIOS(flushcache)
* nop ; branch delay slot
* 5. lw $ra, 4($sp)
* 6. sp += 8 ; load-delay
* 7. jr $ra
* nop ; BD
*/
#if 0
// Note: Can't do this without having a way to do C-Runtime frame call from Tape ABI.
// Don't support this without adjusting scratchpad to save tape frame in some way.
internal MipsAtom_(mips_flush_icache) {
add_ui(R_SP, R_SP, -MipsStackAlignment), // sp -= 8
store_word(R_RA, R_SP, S_(U4)), // sw $ra, 4($sp)
add_ui(R_V0, R_0, bios_flushcache), // addiu $a0, $0, 0x44
add_ui(R_T0, R_0, bios_table_addr), // addiu $t0, $0, 0xA0
jump_link(R_T0, R_RA), nop, // jalr $t0, $ra, BD slot
load_word(R_RA, R_SP, S_(U4)), // lw $ra, 4($sp)
add_ui(R_SP, R_SP, MipsStackAlignment), // sp += 8 (load-delay)
jump_reg(R_RA), nop, // jr $ra, BD slot
// mac_yield(),
};
#endif
#pragma endregion Baked Atoms
+475 -100
View File
@@ -1,36 +1,166 @@
/* ============================================================================
* duffle DSL Suffix Conventions
* ============================================================================
* Every mnemonic in this header follows the same suffix grammar:
* _i: Immediate value (16-bit constant operand).
* Combine with _u or _s (single-letter modifier + type combined): add_ui, add_si.
* Examples: add_ui, add_si, and_i, or_i, xor_i, load_upper_i. and_i is sign-agnostic (andi zero-extends).
* load_upper_i is a unique verb; _i is the immediate marker, not a modifier+type combination.
* _u: Unsigned (no-overflow, no-sign-extension).
* R-type arithmetic examples: add_u, sub_u, mult_u, div_u. I-type (combined with _i): add_ui.
* _s: Signed (overflow-traps, sign-extends).
* R-type: add_s, sub_s, mult_s, div_s, set_lt_s. I-type (combined with _i): add_si.
*
* --- Shift family (R-type): verb-modifier-direction ---
* The shift macros use `shift_<modifier><direction>`.
* Modifier is the single letter `l` (logical) or `a` (arithmetic).
* Direction is the word `left` or `right`. Combined: `_lleft`, `_lright`, `_aright`.
* Examples: shift_lleft( rd, rt, shamt) (= sll)
* shift_lright(rd, rt, shamt) (= srl)
* shift_aright(rd, rt, shamt) (= sra)
* (no `_aleft`; MIPS has no `sla` — arithmetic-left is bit-identical to logical-left, so use shift_lleft for that case)
*
* --- Jump/Call family ---
* Simple jumps keep the original short names: jump (j), jump_reg (jr), jump_link (jalr rs, rd).
* The jump-and-link-to variants (jal, jalr rs with default $ra) get the `call_` verb instead:
* call_addr (jal), call_reg (jalr rs, default $ra).
* Examples: jump(off) (= j)
* jump_reg(rs) (= jr)
* jump_link(rs, rd) (= jalr rs, rd)
* call_reg(rs) (= jalr rs, default $ra)
* call_addr(off) (= jal)
*
* _r: Register marker — used only when the register type needs disambiguation (e.g., GTE data register vs control register).
* NOT used in plain R-type arithmetic (the R-type is implicit). Examples: gte_mv_to_data_r, gte_mv_to_ctrl_r.
* _self: Destination equals one source operand.
* Examples: add_ui_self (I-type, to self), add_u_self (R-type, to self).
* _mv_to_: Direction: data flows into X.
* Example: gte_mv_to_data_r, gte_mv_to_ctrl_r.
* _mv_from_: Direction: data flows out of X.
* Example: gte_mv_from_data_r, gte_mv_from_ctrl_r.
* _str: String-form — emits inline-asm string instead of `.word`.
* Example: gte_rtpt_asm_str.
* _2w / _1w: Word count of the emitted sequence.
* Example: load_imm_2w.
*
* _cop2: RESERVED — DO NOT USE in macro names. The `gte_` namespace prefix already implies coprocessor 2. Use `c2` only in:
* (a) integer opcode enums (op_lwc2 = 0x32, op_swc2 = 0x3A)
* (b) vendor-mnemonic macro aliases (gte_mtc2, gte_mfc2)
*
* Primitive commands: gp0_cmd_poly_f3 = 0x20 (byte opcode)
* Packed 32-bit cmd: gp0_word_poly_f3(r, g, b) (32-bit, shifted)
*
* Type ordering: domain?_(direction)?_action_target_modifier_type?
* Examples: add_ui (add + unsigned + immediate)
* add_s (add + signed, R-type implicit)
* shift_lleft (shift + logical + left)
* shift_aright (shift + arithmetic + right)
* call_reg(rs) (call + register, $ra implicit)
* gte_mv_to_data_r (gte + mv + to + data + register)
* gte_lw_v0_xy(base) (gte + lw + v0 + xy)
* load_upper_i (load-upper + immediate, unique verb)
*
* Vendor mnemonics (sll, srl, sra, jr, j, jal, jalr) are NOT in this header.
* They live in the opt-in `mips_vendor_sym.h` for users who prefer the textbook MIPS assembly mnemonics.
* ============================================================================ */
#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "dsl.h"
# include "gcc_asm.h"
#endif
enum {
MipsStackAlignment = 8,
};
/* ============================================================================
* REGISTER INTEGER IDS (preprocessor-visible)
* ============================================================================
* Every R_* enum below has a parallel R_*_Code `#define` so that the preprocessor can stringify the integer
* (e.g. for asm clobber lists and register-variable declarations via `rgcc(R_X)`).
* The enum value is bound to the `#define` so the two forms cannot drift apart.
*
* Only registers that get stringified need a `_Code` form; the rest are plain enum values.
* If you need to add a new one, follow the pattern:
* #define R_T7_Code 15
* R_T7 = R_T7_Code, // in the enum
*
* User code should always reference the enum form (`R_T4`) at arithmetic sites and let
* `rlit(R_T4_Code)` / `rgcc(R_T4)` handle the stringify cases — never write the bare number `12`.
* ============================================================================ */
#define R_0_Code 0
#define R_AT_Code 1
#define R_V0_Code 2
#define R_V1_Code 3
#define R_A0_Code 4
#define R_A1_Code 5
#define R_A2_Code 6
#define R_A3_Code 7
#define R_T0_Code 8
#define R_T1_Code 9
#define R_T2_Code 10
#define R_T3_Code 11
#define R_T4_Code 12
#define R_T5_Code 13
#define R_T6_Code 14
#define R_T7_Code 15
#define R_S0_Code 16
#define R_S1_Code 17
#define R_S2_Code 18
#define R_S3_Code 19
#define R_S4_Code 20
#define R_S5_Code 21
#define R_S6_Code 22
#define R_S7_Code 23
#define R_T8_Code 24
#define R_T9_Code 25
#define R_K0_Code 26
#define R_K1_Code 27
#define R_GP_Code 28
#define R_SP_Code 29
#define R_FP_Code 30
#define R_RA_Code 31
enum {
/* --- MIPS CPU Registers --- */
R_0 = 0, R_AT = 1, R_V0 = 2, R_V1 = 3,
R_A0 = 4, R_A1 = 5, R_A2 = 6, R_A3 = 7,
R_T0 = 8, R_T1 = 9, R_T2 = 10, R_T3 = 11,
R_T4 = 12, R_T5 = 13, R_T6 = 14, R_T7 = 15,
R_S0 = 16, R_S1 = 17, R_S2 = 18, R_S3 = 19,
R_S4 = 20, R_S5 = 21, R_S6 = 22, R_S7 = 23,
R_T8 = 24, R_T9 = 25, R_K0 = 26, R_K1 = 27,
R_GP = 28, R_SP = 29, R_FP = 30, R_RA = 31
R_0 = R_0_Code, R_AT = R_AT_Code, R_V0 = R_V0_Code, R_V1 = R_V1_Code,
R_A0 = R_A0_Code, R_A1 = R_A1_Code, R_A2 = R_A2_Code, R_A3 = R_A3_Code,
R_T0 = R_T0_Code, R_T1 = R_T1_Code, R_T2 = R_T2_Code, R_T3 = R_T3_Code,
R_T4 = R_T4_Code, R_T5 = R_T5_Code, R_T6 = R_T6_Code, R_T7 = R_T7_Code,
R_S0 = R_S0_Code, R_S1 = R_S1_Code, R_S2 = R_S2_Code, R_S3 = R_S3_Code,
R_S4 = R_S4_Code, R_S5 = R_S5_Code, R_S6 = R_S6_Code, R_S7 = R_S7_Code,
R_T8 = R_T8_Code, R_T9 = R_T9_Code, R_K0 = R_K0_Code, R_K1 = R_K1_Code,
R_GP = R_GP_Code, R_SP = R_SP_Code, R_FP = R_FP_Code, R_RA = R_RA_Code
/* Semantic Aliases for MIPS Registers (O32 ABI) */
, rdiscard = R_0 /* Hardwired to 0 */
, rret_0 = R_V0 /* Function return value */
, rret_1 = R_V1 /* Second return value (e.g., 64-bit) */
, rarg_0 = R_A0 /* First function argument */
, rarg_1 = R_A1 /* Second function argument */
, rarg_2 = R_A2 /* Third function argument */
, rarg_3 = R_A3 /* Fourth function argument */
, rtmp_0 = R_T0 /* Temporary (Caller saved) */
, rtmp_1 = R_T1 /* Temporary (Caller saved) */
, rtmp_2 = R_T2 /* Temporary (Caller saved) */
, rsaved_0 = R_S0 /* Saved register (Callee saved) */
, rstack_ptr = R_SP /* Stack Pointer */
, rret_addr = R_RA /* Return Address (populated by JAL) */
// , rdiscard = R_0 /* Hardwired to 0 */
// , rasm_tmp = R_AT /* Assembler temporary (destroyed by some assembler pseudoinstructions!) */
// , rret_0 = R_V0 /* Function return value */
// , rret_1 = R_V1 /* Second return value (e.g., 64-bit) */
// , rarg_0 = R_A0 /* First function argument */
// , rarg_1 = R_A1 /* Second function argument */
// , rarg_2 = R_A2 /* Third function argument */
// , rarg_3 = R_A3 /* Fourth function argument */
// , rtmp_0 = R_T0 /* Temporary (Caller saved) */
// , rtmp_1 = R_T1 /* Temporary (Caller saved) */
// , rtmp_2 = R_T2 /* Temporary (Caller saved) */
// , rtmp_3 = R_T3 /* Temporary (Caller saved) */
// , rtmp_4 = R_T4 /* Temporary (Caller saved) — common GTE base pointer */
// , rtmp_9 = R_T9 /* Temporary (Caller saved) — common GTE base pointer */
// , rstatic_0 = R_S0 /* Static (Callee saved, preserved across calls) */
// , rstatic_1 = R_S1
// , rstatic_2 = R_S2
// , rstatic_3 = R_S3
// , rstatic_4 = R_S4
// , rstatic_5 = R_S5
// , rstatic_6 = R_S6
// , rstatic_7 = R_S7
// , rsaved_0 = R_S0 /* Alias for rstatic_0 (alternate vocabulary) */
// , rstack_ptr = R_SP /* Stack Pointer */
// , rret_addr = R_RA /* Return Address (populated by JAL) */
/* --- MIPS CPU Opcodes (Bits 31-26) --- */
@@ -51,20 +181,29 @@ enum {
, op_xori = 0x0E /* XOR Immediate */
, op_lui = 0x0F /* Load Upper Immediate */
, op_cop0 = 0x10 /* Coprocessor 0 (System) */
, op_cop1 = 0x11 /* Coprocessor 1 (Reserved, FP Unit, Omitted by Sony) */
, op_cop2 = 0x12 /* Coprocessor 2 (GTE) */
, op_la = 0
, op_li = 0
, op_cop3 = 0x13 /* Coprocessor 3 (Reserved, Unused)*/
/* 14-1F: N/A */
, op_lb = 0x20 /* Load Byte */
, op_lh = 0x21 /* Load Halfword */
, op_lwl = 0x22 /* Load Word (Left Bits) */
, op_lw = 0x23 /* Load Word */
, op_lbu = 0x24 /* Load Byte Unsigned */
, op_lhu = 0x25 /* Load Halfword Unsigned */
, op_lwr = 0x26 /* Load Word (Right Bits) */
/* 27: N/A */
, op_sb = 0x28 /* Store Byte */
, op_sh = 0x29 /* Store Halfword */
, op_swl = 0x2A /* Store Word (Left Bits) */
, op_sw = 0x2B /* Store Word */
/* 2C-2D: N/A */
, op_swr = 0x2E /* Store Word (Right Bits) */
/* 2F: N/A */
// , op_lwc0
, op_load_addr = op_la
, op_load_imm = op_li
// , op_load_addr = op_la
// , op_load_imm = op_li
, op_jump = op_j
, op_jump_nlink = op_jal
@@ -104,7 +243,7 @@ enum {
/* --- Coprocessor 0 (System Control & Exceptions) --- */
, cop_mf = 0x00 /* Move From Coprocessor */
, cop_mt = 0x04 /* Move To Coprocessor */
, cop_mt = 0x04 /* Move To Coprocessor */
};
@@ -113,105 +252,341 @@ enum {
enum { _BitOffsets = 0
/* Bit Offsets for MIPS Instruction Fields */
, OPCODE_SHIFT = 26
, RS_SHIFT = 21
, RT_SHIFT = 16
, RD_SHIFT = 11
, SHAMT_SHIFT = 6 /* Shift Amount */
, FC_SHIFT = 0
, OPCODE_POS = 26
, RS_POS = 21
, RT_POS = 16
, RD_POS = 11
, SHAMT_POS = 6 /* Shift Amount: Offset Position */
, FC_POS = 0
/* Bit Masks to prevent overflow into adjacent fields */
/* IMM_MASK is the 16-bit two's-complement truncation for the immediate field.
* It is NOT a range guard — it is load-bearing for negative branch offsets
* (the metaprogram emits raw signed offsets; the mask truncates them to the
* 16-bit representation the hardware expects). The static analysis
* `immediate_field_width` check validates ranges at build time. */
, OPCODE_MASK = 0x3F
, REG_MASK = 0x1F
, SHAMT_MASK = 0x1F /* Shift Amount */
, FC_MASK = 0x3F
, IMM_MASK = 0xFFFF
};
#define enc_op(op) (((op) & OPCODE_MASK) << OPCODE_SHIFT)
#define enc_rs(rs) (((rs) & REG_MASK) << RS_SHIFT)
#define enc_rt(rt) (((rt) & REG_MASK) << RT_SHIFT)
#define enc_rd(rd) (((rd) & REG_MASK) << RD_SHIFT)
#define enc_shamt(shamt) (((shamt) & SHAMT_MASK) << SHAMT_SHIFT)
#define enc_fc(fc) (((fc) & FC_MASK) << FC_SHIFT)
#define enc_imm(imm) (((imm) & IMM_MASK))
#define enc_op(op) ((op) << OPCODE_POS)
#define enc_rs(rs) ((rs) << RS_POS)
#define enc_rt(rt) ((rt) << RT_POS)
#define enc_rd(rd) ((rd) << RD_POS)
#define enc_shamt(shamt) ((shamt) << SHAMT_POS)
#define enc_fc(fc) ((fc) << FC_POS)
#define enc_imm(imm) ((imm) & IMM_MASK)
/* MIPS R-Type Instruction Format (Register-to-Register) */
#define enc_r(op, rs, rt, rd, shamt, fc) (enc_op(op) | enc_rs(rs) | enc_rt(rt) | enc_rd(rd) | enc_shamt(shamt) | enc_fc(fc))
/* MIPS I-Type Instruction Format (Immediate/Constant) */
#define enc_i(op, rs, rt, imm) (enc_op(op) | enc_rs(rs) | enc_rt(rt) | enc_imm(imm))
/* COP0 (System) Transfer Format */
#define ENC_COP0_TX(sub, rt, rd) \
((MIPS_OP_COP0 << MIPS_OPCODE_SHIFT) | \
(((sub) & MIPS_REG_MASK) << MIPS_RS_SHIFT) | \
(((rt) & MIPS_REG_MASK) << MIPS_RT_SHIFT) | \
(((rd) & MIPS_REG_MASK) << MIPS_RD_SHIFT))
/* COP0 (System) Transfer Format: mtc0 rt, rd or mfc0 rt, rd
* `sub` is the COP0 sub-opcode (cop_mf=0 or cop_mt=4), placed in rs slot.
* `rt` is the GPR operand (in rt slot).
* `rd` is the COP0 register index (in rd slot at bits 15..11). */
#define enc_cop0_tx(sub, rt, rd) enc_i(op_cop0, (sub), (rt), ((rd) << 11))
/* Semantic aliases for COP0 transfer. `sys_` is the namespace marker
* for system-control instructions (analogous to `gte_` for COP2).
* sys_mov_to_cop0 rt, rd → mtc0 rt, rd
* sys_mov_from_cop0 rt, rd → mfc0 rt, rd
* sys_rfe → rfe (return from exception) */
#define sys_mov_to_cop0(rt, rd) enc_cop0_tx(cop_mt, (rt), (rd))
#define sys_mov_from_cop0(rt, rd) enc_cop0_tx(cop_mf, (rt), (rd))
#define sys_rfe() enc_rfe()
/* COP0 Return From Exception (rfe) */
#define enc_rfe() 0x42000010
#define load_imm(rs,rt,imm) enc_i(op_lw, rs, rt, imm)
#define store_word(rs,rt,imm) enc_i(op_sw, rs, rt, imm)
#define add_ui(rs,rt,imm) enc_i(op_addiu, rs, rt, imm)
#define shift_ll(rs,rt,rd) enc_r(op_special, rs, rt, rd, 0, fc_sll)
/* --- Semantic Encoders (MIPS mnemonics) ---
* Argument order matches the MIPS assembly syntax:
* dest-first, then source operands, then immediate last.
*
* load_word(rt, base, off) → lw rt, off(base)
* store_word(rt, base, off) → sw rt, off(base)
* add_ui(rt, rs, imm) → addiu rt, rs, imm
* shift_lleft(rd, rt, shamt) → sll rd, rt, shamt
* shift_lright(rd, rt, shamt) → srl rd, rt, shamt
* shift_aright(rd, rt, shamt) → sra rd, rt, shamt
* jump_reg(rs) → jr rs
* jump_link(rs, rd) → jalr rs (link in rd, default $ra)
* nop → sll $0, $0, 0
*/
#define load_word(rt, base, off) enc_i(op_lw, (base), (rt), (off))
#define load_byte(rt, base, off) enc_i(op_lb, (base), (rt), (off))
#define load_half(rt, base, off) enc_i(op_lh, (base), (rt), (off))
#define load_byte_u(rt, base, off) enc_i(op_lbu, (base), (rt), (off))
#define load_half_u(rt, base, off) enc_i(op_lhu, (base), (rt), (off))
#define LdSlot_
#define jump_reg(rs) enc_r(op_special, rs, R_0, R_0, 0, fc_jr)
#define jump_nreg(rs,rt,rd) enc_r(op_special, rs, rt, rd, 0, fc_jalr)
#define store_word(rt, base, off) enc_i(op_sw, (base), (rt), (off))
#define nop() shift_ll(rdiscard, rdiscard, rdiscard)
#define add_ui(rt, rs, imm) enc_i(op_addiu, (rs), (rt), (imm))
#define and_i(rt, rs, imm) enc_i(op_andi, (rs), (rt), (imm))
// #define and_si and_i
#define or_i(rt, rs, imm) enc_i(op_ori, (rs), (rt), (imm))
#define xor_i(rt, rs, imm) enc_i(op_xori, (rs), (rt), (imm))
#define load_upper_i(rt, imm) enc_i(op_lui, R_0, (rt), (imm))
// FI_ void emit_load_imm(U4 rs, U4 rt, U4 imm) { emit(load_imm()); }
#define load_u1 load_byte_u
#define load_u2 load_half_u
#define load_u4 load_word
// Binary Metaprogramming
// Ergonomic add to the same register.
#define or_i_self(rt_rs, imm) enc_i(op_ori, (rt_rs), (rt_rs), (imm))
#define add_ui_self(rt_rs, imm) enc_i(op_addiu, (rt_rs), (rt_rs), (imm))
typedef U4 const Code;
#define CodeBlob_(sym) tmpl(codeblob,sym) [] align_(4) =
/* Logic Opcodes */
// #define def_code_blob(func_name, func_signature, ...) \
// internal U4 const \
// tmpl(func_name,blob) [] align(4) \
// = { \
// __VA_ARGS__ \
// }; \
// internal func_signature func_name = (func_signature)func_name##_blob;
#define and_u(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_and)
#define or_u(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_or)
#define xor_u(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_xor)
#define nor_u(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_nor)
enum {
bios_flushcache = 0x44,
bios_table_addr = 0xA0,
};
#define or_u_self(rd_rs, rt) enc_r(op_special, (rd_rs), (rt), (rd_rs), 0, fc_or)
/* Flushes the Instruction Cache */
I_
Code CodeBlob_(mips_flush_icache) {
add_ui(rstack_ptr, rstack_ptr, -8),
store_word(rstack_ptr, rret_addr, 4),
add_ui(rdiscard, rret_0, bios_flushcache), add_ui(rdiscard, rtmp_0, bios_table_addr),
jump_nreg(rtmp_0, rdiscard, rret_addr),
nop(), load_imm(rstack_ptr, rret_addr, 4), jump_reg(rret_addr),
add_ui(rstack_ptr, rstack_ptr, 8)
};
FI_ void mips_flush_icache(void) { C_(VoidFn*, codeblob_mips_flush_icache)(); }
/* Shift family (R-type). shift_lleft/lright/aright: `sll/srl/sra rd, rt, shamt` */
#define shift_lleft(rd, rt, shamt) enc_r(op_special, R_0, (rt), (rd), (shamt), fc_sll)
#define shift_lright(rd, rt, shamt) enc_r(op_special, R_0, (rt), (rd), (shamt), fc_srl)
#define shift_aright(rd, rt, shamt) enc_r(op_special, R_0, (rt), (rd), (shamt), fc_sra)
#define clb_system "$2", "$8", "$9", "$31", "memory"
/* Shift Variable — register-shift forms.
* shift_lleft_var(rd, rt, rs) → sllv rd, rt, rs (shamt in low 5 bits of rs)
* shift_aright_var(rd, rt, rs) → srav rd, rt, rs */
#define shift_lleft_var(rd, rt, rs) enc_r(op_special, (rs), (rt), (rd), 0, fc_sllv)
#define shift_aright_var(rd, rt, rs) enc_r(op_special, (rs), (rt), (rd), 0, fc_srav)
#define asm_mips_flush_icache() asm volatile( \
asm_inline( \
add_ui(rstack_ptr, rstack_ptr, -8) \
, store_word(rstack_ptr, rret_addr, 4) \
, add_ui(rdiscard, rret_0, bios_flushcache), add_ui(rdiscard, rtmp_0, bios_table_addr) \
, jump_nreg(rtmp_0, rdiscard, rret_addr) \
, nop(), load_imm(rstack_ptr, rret_addr, 4), jump_reg(rret_addr) \
, add_ui(rstack_ptr, rstack_ptr, 8) \
) \
asm_clobber( clb_system ) \
)
#define shift_lleft_self(rd_rt, shamt) enc_r(op_special, R_0, (rd_rt), (rd_rt), (shamt), fc_sll)
void test()
{
asm_mips_flush_icache();
}
#define mask_upper(rd, rt, shamt) shift_lleft(rd, rt, shamt), shift_lright(rd, rt, shamt)
// TAPE & EMITTERS
/* jr rs — jump to address in rs. */
#define jump_reg(rs) enc_r(op_special, (rs), R_0, R_0, 0, fc_jr)
/* jalr rs, rd — link in rd (default $ra) and jump to address in rs.
* Layout: [op_special][rs:5][rt=0:5][rd:5][shamt=0:5][fc_jalr=0x09] */
#define jump_link(rs, rd) enc_r(op_special, (rs), R_0, (rd), 0, fc_jalr)
/* call_reg rs — jump-and-link to register-held address; link in $ra. */
#define call_reg(rs) jump_link((rs), R_RA)
/* j target — absolute jump within the current 256MB region.
* WARNING: `jump(off)` CANNOT BE USED for within-atom jumps in the current pipeline.
* The MIPS j opcode encodes `(target_addr >> 2)` in its 26-bit immediate field; an ABSOLUTE byte address, not a relative word offset.
* The metaprogram computes `off` as a relative word offset (`target_word_idx - branch_word_idx - 1`), which the assembler/linker does NOT resolve.
* `jump(off)` is only safe when the BUILD PIPELINE owns the absolute position of the emitted code — i.e. when: s
* - the build emits a symbol-relative `.word` expression that the linker resolvess via `R_MIPS_26`, OR
* - the code is hand-assembled with explicit absolute targets, OR a custom post-build patcher resolves the 26-bit field.
* TODO(Ed): Review this.. technically we can resolve aboslute jumps on baked atoms? (Even proedurally generated ones...)
*/
#define jump(off) enc_i(op_j, R_0, R_0, (off))
// Annotate an instruction as filling a branch-delay slot.
#define BdSlot_
/* jump_rel off — unconditional relative jump (the within-atom-safe `jump`).
* MIPS I R3000A has no "branch always" opcode. The idiom for an unconditional relative jump is `beq $0, $0, off`. */
#define jump_rel(off) branch_equal(R_0, R_0, (off))
/* call_addr off — jump-and-link to immediate address.
* Same WARNING as `jump(off)` above: the jal opcode also encodes an absolute 26-bit target.
* For within-atom calls, the current pipeline has no equivalent always-taken call-and-link idiom.
* Workaround: `branch_link` (always-taken branch + explicit `la $ra, next_word_addr; jr $ra`), or just use `call_reg($tmp)` after loading the target into a register.
*/
#define call_addr(off) enc_i(op_jal, R_0, R_0, (off))
/* --- Store family (mirrors the load family) --- */
#define store_byte(rt, base, off) enc_i(op_sb, (base), (rt), (off))
#define store_half(rt, base, off) enc_i(op_sh, (base), (rt), (off))
/* store_word already exists above */
/* --- Arithmetic R-type (signed/unsigned split: _s traps, _u doesn't) ---
* add_s rd, rs, rt → add rd, rs, rt (overflow traps)
* add_u rd, rs, rt → addu rd, rs, rt (overflow silent)
* sub_s / sub_u → sub / subu
* mult_s / mult_u → mult / multu (writes HI/LO; result in LO)
* div_s / div_u → div / divu (LO = quot, HI = rem)
*/
#define add_s(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_add)
#define add_u(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_addu)
#define sub_s(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_sub)
#define sub_u(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_subu)
#define mult_s(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_mult)
#define mult_u(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_multu)
#define div_s(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_div)
#define div_u(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_divu)
// TODO(Ed): Change convention of 'self' to ds for (destination is source)?
#define add_u_self(rd_rs, rt) add_u(rd_rs, rd_rs, rt)
/* --- Arithmetic I-type (immediate) --- */
#define add_si(rt, rs, imm) enc_i(op_addi, (rs), (rt), (imm))
/* add_ui already exists above as add_ui */
/* --- Set on less than (R-type and I-type) --- */
#define set_lt_s(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_slt)
#define set_lt_u(rd, rs, rt) enc_r(op_special, (rs), (rt), (rd), 0, fc_sltu)
#define set_lt_si(rt, rs, imm) enc_i(op_slti, (rs), (rt), (imm))
#define set_lt_ui(rt, rs, imm) enc_i(op_sltiu, (rs), (rt), (imm))
/* --- Move from/to HI/LO (mult/div results) --- */
#define mov_from_high(rd) enc_r(op_special, R_0, R_0, (rd), 0, fc_mfhi)
#define mov_from_low(rd) enc_r(op_special, R_0, R_0, (rd), 0, fc_mflo)
#define mov_to_high(rs) enc_r(op_special, (rs), R_0, R_0, 0, fc_mthi)
#define mov_to_low(rs) enc_r(op_special, (rs), R_0, R_0, 0, fc_mtlo)
/* --- Atomic branches (no pseudos like bgt/bge; compose with slt_* + branch_ne) ---
* branch_equal rs, rt, off → beq rs, rt, off
* branch_ne rs, rt, off → bne rs, rt, off
* branch_lt_zero rs, off → bltz rs, off
* branch_gt_zero rs, off → bgtz rs, off
* branch_le_zero rs, off → blez rs, off
* branch_ge_zero rs, off → bgez rs, off
* (For `bgez`, the opcode is `op_bcond` with rt=1 to invert the bltz condition.) */
#define branch_equal(rs, rt, off) enc_i(op_beq, (rs), (rt), (off))
#define branch_ne(rs, rt, off) enc_i(op_bne, (rs), (rt), (off))
#define branch_lt_zero(rs, off) enc_i(op_bcond, (rs), R_0, (off)) /* bltz is bcond with rt=0 */
#define branch_ge_zero(rs, off) enc_i(op_bcond, (rs), 1, (off)) /* bgez is bcond with rt=1 */
#define branch_le_zero(rs, off) enc_i(op_blez, (rs), R_0, (off)) /* blez has its own opcode, rt=0 */
#define branch_gt_zero(rs, off) enc_i(op_bgtz, (rs), R_0, (off)) /* bgtz has its own opcode, rt=0 */
/* --- System (kernel) instructions --- */
#define syscall() enc_r(op_special, R_0, R_0, R_0, 0, fc_syscall)
#define breakpoint() enc_r(op_special, R_0, R_0, R_0, 0, fc_break)
/* --- Shift-amount alias (matches the gas convention `\p3 = shamt`) --- */
#define shift_amount(rd, rt, n) shift_lleft(rd, rt, n)
/* nop — sll $0, $0, 0 */
#define nop shift_lleft(R_0, R_0, 0)
#define nop2 nop, nop
// li_s — load signed 16-bit immediate into GPR (addiu rt, $0, imm — sign-extends).
#define li_s(rt, imm) add_ui((rt), R_0, (imm))
// #define load_imm_s(rt, imm) add_ui((rt), R_0, (imm))
#define load_imm_1w(rt, imm) add_ui((rt), R_0, (imm))
#define load_imm_1w_s0(rt, imm) add_si((rt)), R_0, (imm))
/* load_imm_2w — unconditional 2-word `li` form: `lui` + (ori | addi).
* Granular companion to `load_imm`: skips the compile-time range checks and always emits 2 .words. Use this when:
* - you know `imm` is > 0xFFFF (otherwise you're wasting a word), OR
* - `imm` is not a compile-time constant and you want predictable 2-word emission without the `__builtin_constant_p` branches.
*
* The lo16 strategy is still chosen at expansion time on the lo half:
* lo16 in 0x0000..0x7FFF → addi (sign-ext is harmless, the lui already cleared bits 15..0)
* lo16 in 0x8000..0xFFFF → ori (zero-extends to preserve the intended bit pattern)
*
* For situations where you need to bypass even this choice (e.g. to force a specific encoding for a known discontiguous high/low pair),
* see `load_imm_2w_ori_forced` and `load_imm_2w_addi_forced` below.
* Statement-level (not expression-level): emits its own `asm volatile(...)`.
*/
#define load_imm_2w(rt, imm) do { \
if (u4_low(imm) <= 0x7FFFU) { \
asm volatile( \
asm_words(load_ui((rt), u4_hi(imm), \
add_si((rt), (rt), (S2)C_(U2,u4_lo(imm))) \
asm_clobber: rlit(R_AT), clb_mem_drain \
); \
} \
else { \
asm volatile(asm_words( \
load_ui((rt), u4_hi(imm)), \
or_i((rt), (rt), C_(U2,u4_lo(imm)) \
asm_clobber: rlit(R_AT), clb_mem_drain \
); \
} \
} while (0)
/* load_imm_2w_ori_forced — force the `lui` + `ori` form regardless of lo16 sign.
* Use when you specifically need zero-extension in the lo half. */
#define load_imm_2w_ori_forced(rt, imm) do { \
asm volatile( \
asm_words(load_ui((rt), u4_lo(imm)), \
or_i((rt), (rt), C_(U2,u4_hi(imm))) ) \
asm_clobber: rlit(R_AT), clb_mem_drain \
); \
} while (0)
/* load_imm_2w_addi_forced — force the `lui` + `addi` form regardless of lo16 sign.
* Use when you know sign-extension is fine (e.g. lo16 is treated as signed downstream)
* and you want a smaller effective instruction (the assembler/MIPS hardware will sign-extend the imm16). */
#define load_imm_2w_addi_forced(rt, imm) do { \
/*U4 _li2a_imm_ = (U4)(imm);*/ \
asm volatile(asm_words( \
lui_op((rt), u4_lo(imm)), \
add_si((rt), (rt), (S2)C_(U2,u4_hi(imm))) ) \
asm_clobber: rlit(R_AT), clb_mem_drain \
); \
} while (0)
/* load_imm rt, imm — true `li` semantics (assembler `li` pseudo)
*
* Dispatches at compile time on the immediate's range, picking the smallest single-instruction form when possible:
* imm in 0 .. 0x7FFF → addi rt, $0, imm (1 word)
* imm in 0x8000 .. 0xFFFF → ori rt, $0, imm (1 word; sign-bit must be zeroed)
* imm in 0x10000 .. 0xFFFFFFFF → lui + (ori | addi) (2 words)
*
* Statement-level (not expression-level): the macro emits its own `asm volatile(...)` block with 1 or 2 .word constants.
* Callers can group multiple `load_imm` calls in a single volatile by using the lower-level encoders directly:
* load_imm(R_T4, 0x12345678); // emits 2 .words
*
* Falls back to a 2-word form if `imm` is not a compile-time constant, but that path is unusual
* (load_imm is most useful with literal addresses and magic numbers). */
#define load_imm(rt, imm) do { \
if (cexpr_(imm) && ((imm) <= 0x7FFFU)) { \
/* Small positive: addi rt, $0, imm */ \
asm volatile( \
asm_words(add_si((rt), R_0, (imm))) \
asm_clobber: rlit(R_AT), clb_mem_drain \
); \
} \
else if (cexpr_(imm) && ((U4)(imm) <= 0xFFFFU)) { \
/* 0x8000..0xFFFF: ori rt, $0, imm (zero-extends) */ \
asm volatile( \
asm_words(or_i((rt), R_0, (imm))) \
asm_clobber: rlit(R_AT), clb_mem_drain \
); \
} \
else \
{ \
/* > 16 bits: lui + (ori | addi). \
* If lo16 is in [0, 0x7FFF] use addi (sign-ext is harmless \
* since the high half cleared bits 15..0). Otherwise ori. */ \
if (u4_lo(imm) <= 0x7FFFU) { \
asm volatile(asm_words( \
load_ui((rt), u4_hi(imm)), \
add_si((rt), (rt), (S2)C_(U2,u4_lo(imm))) \
asm_clobber: rlit(R_AT), clb_mem_drain \
); \
} \
else { \
asm volatile(asm_words( \
load_ui((rt), u4_hi(imm)), \
or_i((rt), (rt), C_(U2,u4_lo(imm)) \
asm_clobber: rlit(R_AT), clb_mem_drain \
); \
} \
} \
} while (0 )
/* Standard clobber list for pure-MIPS asm volatile blocks: caller-saved
* GPRs that the kernel treats as volatile (v0/v1/t0/t1/ra) plus the "memory" barrier.
* The register ids are passed through `rlit` so the R_*_Code `#define`s are stringified into "$N" at expansion time. */
#define clbr_volatile_gprs rlit(R_V0), rlit(R_T0), rlit(R_T1), rlit(R_RA), clb_mem_drain
#define asm_mips_flush_icache() asm volatile( asm_words( \
add_ui(rstack_ptr, rstack_ptr, -MipsStackAlignment) \
, store_word(rret_addr, rstack_ptr, 4) \
, add_ui(rret_0, rdiscard, bios_flushcache) \
, add_ui(rtmp_0, rdiscard, bios_table_addr) \
, jump_link(rtmp_0, rret_addr) \
, nop \
, load_word(rret_addr, rstack_ptr, 4) \
, add_ui(rstack_ptr, rstack_ptr, MipsStackAlignment) \
, jump_reg(rret_addr) \
, nop \
) asm_clobber: clbr_volatile_gprs )
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/* ============================================================================
* duffle DSL — MIPS Vendor Mnemonics (opt-in)
* ============================================================================
*
* Provides the textbook MIPS assembly mnemonics as thin aliases to the duffle macros in mips.h.
* The duffle names are primary; this header is for users who prefer the textbook mnemonics.
*
* USAGE: #include "duffle/mips_vendor_sym.h" // after mips.h
*
* Mapping (vendor -> duffle):
* Shift family:
* sll -> shift_lleft (shift left logical)
* srl -> shift_lright (shift right logical)
* sra -> shift_aright (shift right arithmetic)
* (no sllv/srlv/srav; the shift macros take a literal shamt)
*
* Jump family (1-arg / implicit-rd forms):
* jr -> jump_reg (jump register)
* j -> jump (jump to immediate address)
* jal -> call_addr (jump-and-link to immediate address)
* jalr -> call_reg (jump-and-link to register, default $ra)
* (for the 2-arg `jalr rs, rd`, use `jump_link(rs, rd)` directly)
* ============================================================================ */
#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "mips.h"
#endif
#ifndef DUFFLE_MIPS_VENDOR_SYM_H
#define DUFFLE_MIPS_VENDOR_SYM_H
/* Shift family */
#define sll shift_lleft
#define srl shift_lright
#define sra shift_aright
/* Jump family (1-arg / implicit-$ra forms) */
#define jr jump_reg
#define j jump
#define jal call_addr
#define jalr call_reg
#endif
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#ifdef INTELLISENSE_DIRECTIVES
# include "gen/macs.h"
# include "gen/offsets.h"
# include "mips.h"
# include "dsl.atom.h"
# include "lottes_tape.h"
# include "pad.h"
#endif
ATOM_FILE_DEBUGGER_LINE_MARKER(pad_atom_c);
#pragma region MACs (Mips Atom Components)
FI_ Slice_MipsCode ac_pad_set_centered_axes(AtomBuilder_R ab, Reg state, Reg scratch) atom_dbg_skip MipsAtomComp_Proc_(ab, {
load_upper_i(scratch, (PadAxis_Centered >> 16) & 0xFFFF),
or_i_self( scratch, PadAxis_Centered & 0xFFFF), // mac_load_word_imm(scratch, PadAxis_Centered),
store_word( scratch, state, O_(PadState,axes)),
})
FI_ Slice_MipsCode ac_pad_set_id_byte(AtomBuilder_R ab, Reg state, Reg r_id, U1 id_value) atom_dbg_skip MipsAtomComp_Proc_(ab, {
add_ui( r_id, R_0, id_value),
store_byte(r_id, state, O_(PadState,id)),
})
FI_ Slice_MipsCode ac_pad_set_status(AtomBuilder_R ab, U4 r_tmp, U1 r_state, U4 pad_status) atom_dbg_skip MipsAtomComp_Proc_(ab, {
add_ui( r_tmp, R_0, pad_status),
store_word(r_tmp, r_state, O_(PadState,status)),
})
/* Invert r_buttons (active-low → active-high) and store to PadState.buttons.
* r_buttons must already be loaded (the caller is responsible for filling the load-delay slot of
* the preceding load_half_u with an instruction that doesn't read r_buttons). */
FI_ Slice_MipsCode ac_pad_store_inverted_buttons(AtomBuilder_R ab, U1 r_buttons, U1 r_pad_state) atom_dbg_skip MipsAtomComp_Proc_(ab, {
nor_u( r_buttons, r_buttons, R_0),
store_half(r_buttons, r_pad_state, O_(PadState,buttons)),
})
#pragma endregion MACs (Mips Atom Components)
#pragma region Baked Atoms
/* ----- pad_bios_snapshot -----
* Per-frame snapshot of one BIOS pad buffer into PadState.
* Decoder (branch ladder on raw[0] status + raw[1] id):
* 1. raw[0] == 0xFF -> Disconnected (buttons=0, axes=0x80)
* 2. raw[0]==0 && raw[1]==0 -> Pending (buttons=0, axes=0x80)
* 3. raw[1] == 0x41 -> Digital (buttons normalized; axes=0x80)
* 4. raw[1] == 0x53 -> AnalogStick (buttons normalized; axes from raw[4..7])
* 5. raw[1] in 0x7x -> AnalogPad (buttons normalized; axes from raw[4..7])
* 6. else -> Unsupported (buttons=0, axes=0x80)
*
* Buttons normalization: byte_swap16((~raw_buttons) & 0xFFFF).
* raw_buttons = load_half_u(raw, 2) = raw[2] | (raw[3] << 8).
* byte_swap16(x) = (x >> 8) | (x << 8); nor(x, R_0) = ~x. store_half truncates to 16 bits so the upper-16 mask is implicit in the store.
*
* Register use (atom-local; no wave-context touched):
* R_T0 = raw base : Kept throughout; axes loads read raw[4..7] from R_T0.
* R_T1 = state base : Kept throughout; all stores go through R_T1.
* R_T2 = raw[0] status : Alive across the disc/pending/id dispatch, then dead.
* R_T3 = raw[1] id : Alive across the id dispatch, then dead.
* R_T4 = scratch : Shifts, compares, immediate loads, store values.
* R_T5 = scratch : Parallel lui + ori for the 0x80808080 axes constant + byte-swap target.
*/
enum {
R_PadRaw = R_T0 atom_reg atom_type(U1),
R_PadState = R_T1 atom_reg atom_type(PadState*),
R_RawStatus = R_T2 atom_reg,
R_RawId = R_T3 atom_reg,
};
typedef Struct_(Binds_PadBiosSnapshot) {
PadBiosRaw* raw;
PadState* state;
};
internal MipsAtom_(pad_bios_snapshot) atom_info(atom_bind(Binds_PadBiosSnapshot)
, atom_reads( R_PadRaw, R_PadState, R_RawStatus, R_RawId)
, atom_writes(R_PadRaw, R_PadState, R_RawStatus, R_RawId)
) {
/* === Bind consumption: T0 = raw, T1 = state, advance R_TapePtr by 8. */
load_word(R_PadRaw, R_TapePtr, O_(Binds_PadBiosSnapshot,raw)),
load_word(R_PadState, R_TapePtr, O_(Binds_PadBiosSnapshot,state)),
add_ui_self( R_TapePtr, S_(Binds_PadBiosSnapshot)),
/* === Read raw[0] (status) + raw[1] (id) */
load_byte_u(R_RawStatus, R_PadRaw, O_(PadBiosRaw,status)),
load_byte_u(R_RawId, R_PadRaw, O_(PadBiosRaw,id)),
atom_label(snap_root) /* === Case 1: Disconnected (status == 0xFF). */
add_ui(R_T4, R_0, PadRawStatus_Timeout), branch_ne(R_RawStatus, R_T4, atom_offset(snap_root, skip_disconnected)),
/* BD-slot: pre-compute PadStatus_Disconnected. Branch reads R_T4=0xFF in EX before this WB completes.
* If branch NOT taken (fall through to pending/id_dispatch), R_T4 is overwritten by the next case body's add_ui — harmless. */
atom_label(disconnected) /* === Disconnected body. */
mac_pad_set_status(R_T4, R_PadState, PadStatus_Disconnected),
store_half( R_0, R_PadState, O_(PadState,buttons)),
mac_pad_set_centered_axes(R_PadState, R_T4),
mac_pad_set_id_byte(R_PadState, R_RawId, PadRawStatus_Timeout),
jump_rel(atom_offset(disconnected, snap_end)),
/* BD-slot: load next atom's entry point (replaces the nop).
* Always jumps to snap_end, where mac_yield_tail() transfers control to R_AtomJmp without re-loading it. */
mac_yield_load(),
atom_label(skip_disconnected)
/* === Case 2: Pending (status == 0 && id == 0)
* Combined check: if (status | id) != 0 then skip to id_dispatch. Falls through to the Pending case only when both are zero. */
or_u_self(R_RawStatus, R_RawId), branch_ne(R_RawStatus, R_0, atom_offset(case_2, id_dispatch)),
/* BD-slot: pre-compute PadStatus_Pending. Branch reads R_RawStatus in EX before this WB completes.
* If branch NOT taken (fall through to id_dispatch), R_T4 is overwritten by the digital/analog body add_ui - harmless. */
atom_label(pending) /* === Pending body (status=0, id=0 — pre-IRQ-empty buffer). */
mac_pad_set_status(R_T4, R_PadState, PadStatus_Pending),
store_half( R_0, R_PadState, O_(PadState,buttons)),
mac_pad_set_centered_axes(R_PadState, R_T4),
store_byte(R_RawId, R_PadState, O_(PadState,id)),
jump_rel(atom_offset(pending, snap_end)),
mac_yield_load(),
atom_label(id_dispatch) /* === Case 3-6: ID dispatch */
add_ui(R_T4, R_0, PadRawId_Digital), branch_ne(R_RawId, R_T4, atom_offset(id_dispatch, try_analog_stick)),
/* BD-slot: pre-compute PadStatus_Digital. Branch reads R_RawId in EX before this WB completes.
* If branch NOT taken (fall through to try_analog_stick), R_T4 is overwritten by the analog body add_ui. */
/* === Digital body (status, buttons normalize, axes=0x80, id, branch.
* R_T5 holds the 0x80808080 axes constant (loaded into the load-delay slot of the buttons-load).
* R_T5 is then "dead" — only consumed at the analog_pad range check downstream. */
mac_pad_set_status(R_T4, R_PadState, PadStatus_Digital),
load_half_u( R_T4, R_PadRaw, O_(PadBiosRaw, buttons)), /* R_T4 = raw_buttons; */
mac_load_word_imm( R_T5, PadAxis_Centered), /* fills the buttons-load's delay slot (doesn't read R_T4) */
// load_upper_i(R_T5, PadAxis_Centered_Hi), or_i_self(R_T5, PadAxis_Centered_Lo),
mac_pad_store_inverted_buttons(R_T4, R_PadState), /* R_T4 settled: nor + sh writes ~raw_buttons to state.buttons */
store_word(R_T5, R_PadState, O_(PadState, axes)), /* single sw writes the 4-byte axes block at offset 8 (left_x, left_y, right_x, right_y) */
mac_pad_set_id_byte(R_PadState, R_T4, PadRawId_Digital),
jump_rel(atom_offset(id_dispatch, snap_end)),
mac_yield_load(),
atom_label(try_analog_stick) /* === Case 4: AnalogStick (id == 0x53)*/
add_ui(R_T4, R_0, PadRawId_AnalogStick), branch_ne(R_RawId, R_T4, atom_offset(try_analog_stick, try_analog_pad)),
/* BD-slot: pre-compute PadStatus_AnalogStick. Branch reads R_RawId in EX before this WB completes.
* If branch NOT taken (fall through to try_analog_pad), R_T4 is overwritten by the analog_pad body add_ui. */
atom_label(analog_stick) /* === AnalogStick body
* R_T5 holds left_xy (loaded into the load-delay slot of the buttons-load via the left-axis load_half_u).
* R_T4 holds right_xy (loaded into the load-delay slot of the left-load).
* R_T5 is then "dead" — reused for the id-byte value load in mac_pad_write_id_byte.
* The buttons invert+store happens BEFORE R_T4 is overwritten by the right_xy load. */
mac_pad_set_status(R_T4, R_PadState, PadStatus_AnalogStick),
load_half_u( R_T4, R_PadRaw, O_(PadBiosRaw,buttons)), /* R_T4 = raw_buttons; delay slot at the next instruction */
load_half_u( R_T5, R_PadRaw, O_(PadBiosRaw,left)), /* fills the buttons-load's delay slot (doesn't read R_T4) */
mac_pad_store_inverted_buttons(R_T4, R_PadState), /* R_T4 settled: nor + sh writes ~raw_buttons to state.buttons */
load_half_u( R_T4, R_PadRaw, O_(PadBiosRaw,right)), /* fills R_T5's load-delay slot (doesn't read R_T5); overwrites R_T4 (was buttons) with right_xy */
store_half( R_T5, R_PadState, O_(PadState, left)),
store_half( R_T4, R_PadState, O_(PadState, right)),
mac_pad_set_id_byte(R_PadState, R_T5, PadRawId_AnalogStick),
jump_rel(atom_offset(analog_stick, snap_end)),
mac_yield_load(),
atom_label(try_analog_pad) /* === Case 5-6: AnalogPad (id & 0xF0 == 0x70) */
and_i( R_T4, R_RawId, PadRawId_AnalogPadMask),
add_ui( R_T5, R_0, PadRawId_AnalogPadValue),
branch_ne(R_T4, R_T5, atom_offset(try_analog_pad, try_unsupported)),
/* BD-slot: pre-compute PadStatus_AnalogPad. Branch reads R_T4 in EX before this WB completes.
* If branch NOT taken (fall through to try_unsupported), R_T4 is overwritten by the unsupported body add_ui. */
atom_label(analog_pad) /* === AnalogPad body
* Same shape as AnalogStick with AnalogPad status. R_T5 holds left_xy (it's dead on this path).
* The id byte is raw id from the BIOS buffer (R_RawId already holds raw[1]).
* Buttons invert + store happens before R_T4 is overwritten by the right_xy load. */
mac_pad_set_status(R_T4, R_PadState, PadStatus_AnalogPad),
load_half_u( R_T4, R_PadRaw, O_(PadBiosRaw,buttons)), /* R_T4 = raw_buttons; delay slot at the next instruction */
load_half_u( R_T5, R_PadRaw, O_(PadBiosRaw,left)), /* fills the buttons-load's delay slot (doesn't read R_T4) */
mac_pad_store_inverted_buttons(R_T4, R_PadState), /* R_T4 settled: nor + sh writes ~raw_buttons to state.buttons */
load_half_u(R_T4, R_PadRaw, O_(PadBiosRaw,right)), /* fills R_T5's load-delay slot (doesn't read R_T5); overwrites R_T4 with right_xy */
store_half( R_T5, R_PadState, O_(PadState, left)),
store_half( R_T4, R_PadState, O_(PadState, right)),
store_byte( R_RawId, R_PadState, O_(PadState, id)),
jump_rel(atom_offset(analog_pad, snap_end)),
mac_yield_load(),
atom_label(try_unsupported) /* === Case 7: Unsupported — fall through from the AnalogPad range-check miss. */
add_ui( R_T4, R_0, PadStatus_Unsupported),
store_word(R_T4, R_PadState, O_(PadState,status)),
store_half(R_0, R_PadState, O_(PadState,buttons)),
mac_pad_set_centered_axes(R_PadState, R_T4),
mac_pad_set_id_byte(R_PadState, R_RawId, PadUnknownId_Sentinel),
/* Fall through to snap_end. */
atom_label(no_jump_fallthrough)
mac_yield_load(),
atom_label(snap_end)
/* NOT mac_yield() — R_AtomJmp was already loaded in the BD-slot of the case-exit branch. */
mac_yield_tail(),
};
#pragma endregion Baked Atoms
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#ifdef INTELLISENSE_DIRECTIVES
# include "dsl.h"
# include "gcc_asm.h"
# include "mips.h"
# include "bios.h"
# include "pad.h"
#endif
/* Uses ONE 8-byte frame allocated via the compiler's standard prologue.
* 4 wasted-arg words for B(12h) InitPAD2 are at [SP+0..15] but are not explicitly allocated.
* Compiler handles the MIPS O32 "wasted stack" convention for us by treating the B-call as a 4-arg call.
*
* The buffer pointers are passed as arguments so the compiler keeps them in callee-saved registers;
* The B(12h) asm volatile block does NOT clobber those registers (it clobbers only the volatile GPRs + B-table arg registers explicitly).
* The C-level writes after the call re-load the pointers from their callee-saved homes.
*
* The clobber list for both B-calls names the full BIOS destroy set documented in kernelbios.md:167-174 (R1..R15, R24..R25, R31, HI/LO).
* The kernel-ABI "volatile GPRs" subset is clb_mem_drain; the rest of the destroy set is enumerated explicitly here. */
NI_ void pad_bios_init_start(PadBiosRaw* raw0, PadBiosRaw* raw1)
{
/* Pin raw0 + raw1 to $a0 + $a1 via rgcc; the B(12h) call uses these directly.
* The `(void)` casts mark them as unread after the call so the compiler doesn't need to move them back. */
register PadBiosRaw* p0 rgcc(R_A0) = raw0;
register PadBiosRaw* p1 rgcc(R_A1) = raw1;
(void)p0; (void)p1;
// TODO(Ed): Properly annotate the raw values in the inline asm instructions.
// Use enums.
/* B(12h) InitPAD2(raw0, 0x22, raw1, 0x22)
* $a0 = raw0 (rgcc-bound; survives the sequence below)
* $a1 = raw1 (preserved into $a2 before $a1 is overwritten)
* $a2 = raw1 (moved from $a1; survives $a1's overwrite)
* $a3 = 0x22 (immediate)
* $t1 = 0x12 (function number)
* $t2 = 0xB0 (BIOS B-table address) */
asm volatile(
asm_words(
or_u( R_A2, R_A1, R_0), /* $a2 = $a1 = raw1 */
add_ui( R_A1, R_0, bios_pad_buffer_size), /* $a1 = 0x22 */
add_ui( R_A3, R_0, bios_pad_buffer_size), /* $a3 = 0x22 */
add_ui( R_T1, R_0, bios_init_pad_2), /* $t1 = 0x12 */
add_ui( R_T2, R_0, bios_btable_addr), /* $t2 = 0xB0 */
call_reg(R_T2), /* jalr $t2, $ra */
nop /* BD slot */
)
asm_rpins, r_use(p0), r_use(p1)
asm_clobber:
rlit(R_AT),
rlit(R_V0), rlit(R_V1),
rlit(R_T0), rlit(R_T1), rlit(R_T2), rlit(R_T3), rlit(R_T4),
rlit(R_T5), rlit(R_T6), rlit(R_T7), rlit(R_T8), rlit(R_T9),
rlit(R_RA),
clb_mem_drain
);
/* The C-level writes re-load the pointers via the parameter names and write 0xFF to each
* buffer's status byte to mark the initial-state hazard documented in kernelbios.md:1621-1624. */
u1_v(raw0)[0] = 0xFF;
u1_v(raw1)[0] = 0xFF;
/* B(13h) StartPAD2() — no args. The BIOS preserves $sp. */
asm volatile(
asm_words(
add_ui( R_T1, R_0, bios_start_pad_2), /* $t1 = 0x13 */
add_ui( R_T2, R_0, bios_btable_addr), /* $t2 = 0xB0 (re-load) */
call_reg(R_T2), /* jalr $t2, $ra */
nop /* BD slot */
)
asm_clobber:
rlit(R_AT),
rlit(R_V0), rlit(R_V1),
rlit(R_T0), rlit(R_T1), rlit(R_T2), rlit(R_T3), rlit(R_T4),
rlit(R_T5), rlit(R_T6), rlit(R_T7), rlit(R_T8), rlit(R_T9),
rlit(R_RA),
clb_mem_drain
);
}
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@@ -0,0 +1,108 @@
#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "dsl.h"
# include "math.h"
#endif
// PSX button bit positions: PSX-SPX docs/psx-spx/docs/controllersandmemorycards.md:405-421.
typedef Enum_(U2, PadBtns) {
Bit_(Pad_Select, 0),
Bit_(Pad_L3, 1),
Bit_(Pad_R3, 2),
Bit_(Pad_Start, 3),
Bit_(Pad_Up, 4),
Bit_(Pad_Right, 5),
Bit_(Pad_Down, 6),
Bit_(Pad_Left, 7),
Bit_(Pad_L2, 8),
Bit_(Pad_R2, 9),
Bit_(Pad_L1, 10),
Bit_(Pad_R1, 11),
Bit_(Pad_Triangle, 12),
Bit_(Pad_Circle, 13),
Bit_(Pad_Cross, 14),
Bit_(Pad_Square, 15),
};
enum {
PadId_Offset = 4,
Pad0 = 0 << PadId_Offset,
Pad1 = 1 << PadId_Offset,
};
/* =============================================================================
* BIOS pad-buffer subsystem: docs/psx-spx/docs/kernelbios.md (B(12h) + B(13h))
* ============================================================================= */
enum {
PAD_BIOS_RAW_SIZE = 0x22,
};
// BIOS pad buffer layout (docs/psx-spx/docs/kernelbios.md (InitPAD2 returns 0x22 = 34 bytes per port)).
// Bytes 0..7 are the named snapshot region; bytes 8..33 are reserved (the BIOS writes the buffer raw; we only read bytes 0..7 via O_(PadBiosRaw, ...)).
typedef Struct_(PadBiosRaw) {
U1 status; /* offset 0 (PadRawStatus_Ok / PadRawStatus_Timeout) */
U1 id; /* offset 1 (PadRawId_Digital / PadRawId_AnalogStick / 0x7x AnalogPad) */
U2 buttons; /* offset 2-3 (active-low 16-bit button map) */
V2_U1 right; /* offset 4-5 (right stick x, y) */
V2_U1 left; /* offset 6-7 (left stick x, y) */
U1 reserved[PAD_BIOS_RAW_SIZE - 8]; /* offset 8..33 */
};
typedef Enum_(U4, PadStatus) {
PadStatus_Disconnected,
PadStatus_Digital,
PadStatus_AnalogStick,
PadStatus_AnalogPad,
PadStatus_Unsupported,
PadStatus_Pending,
PadStatus_Invalid,
};
// Distinct from the game-facing PadStatus enum: PadRawStatus_Ok and PadRawStatus_Timeout are raw BIOS values
typedef Enum_(U1, PadRawStatus) {
PadRawStatus_Ok = 0x00,
PadRawStatus_Timeout = 0xFF,
};
typedef Enum_(U1, PadRawId) {
PadRawId_Digital = 0x41,
PadRawId_AnalogStick = 0x53,
PadRawId_AnalogPadMask = 0xF0,
PadRawId_AnalogPadValue = 0x70,
};
typedef Enum_(U1, PadUnknownId) {
PadUnknownId_Sentinel = 0xFF,
};
typedef Enum_(U4, PadAxisCentered) {
PadAxis_Centered_Hi = 0x8080,
PadAxis_Centered_Lo = 0x8080,
PadAxis_Centered = 0x80808080U,
};
typedef Enum_(U1, PadDeadZone) {
PadDeadZone_LowBound = 0x70, /* left_x < LowBound → active; delta = 0x80 - left_x > 0 (rightward pull) */
PadDeadZone_Center = 0x80, /* analog rest position; left_x == Center → delta = 0 (no rotation) */
PadDeadZone_HighBound = 0x90, /* left_x > HighBound → active; delta = 0x80 - left_x < 0 (leftward pull) */
};
typedef Struct_(PadAxes) {
V2_U1 left; /* offset 8-9 */
V2_U1 right; /* offset 10-11 */
};
// Field order is chosen so that the 4 axes (left_x, left_y, right_x, right_y)
// form a contiguous 4-byte block at offset 8, allowing a single `store_word` to clear-or-write all 4 axes in one MIPS instruction.
typedef Struct_(PadState) {
PadStatus status; /* offset 0, (U4) */
PadBtns buttons; /* offset 4, */
U1 id; /* offset 6, */
byte_pad(1); /* offset 7, explicit pad to align the axes block */
union {
A2_V2_U1 axes; /* offset 8-11 store_target (4-byte aligned)*/
struct {
V2_U1 left; /* offset 8-9 */
V2_U1 right; /* offset 10-11 */
};
};
};
internal void pad_bios_init_start(PadBiosRaw* raw0, PadBiosRaw* raw1);
+7
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@@ -0,0 +1,7 @@
#ifdef INTELLISENSE_DIRECTIVES
# include "gen/macs.h"
# include "gen/offsets.h"
# include "psyq.h"
#endif
ATOM_FILE_DEBUGGER_LINE_MARKER(pysq_atom_c);
+121
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@@ -0,0 +1,121 @@
#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "dsl.h"
# include "math.h"
# include "gp.h"
#endif
typedef Struct_(DrawEnv_Packed) { U4 tag; U4 code[15]; };
typedef Struct_(DrawEnv) {
Rect_S2 clip_area;
V2_S2 drawing_offset[2];
Rect_S2 texture_window;
S2 texture_page;
B1 flag_dither;
B1 flag_draw_on_display;
B1 enable_auto_clear;
RGB8 initial_bg_color;
DrawEnv_Packed dr_env; // reserved
};
typedef Struct_(DisplayEnv) {
Rect_S2 display_area;
Rect_S2 screen;
B1 vinterlace;
B1 color24;
B1 pad0;
B1 pad1;
};
typedef Array_(DrawEnv, 2);
typedef Array_(DisplayEnv, 2);
typedef Struct_(DoubleBuffer) {
A2_DrawEnv draw;
A2_DisplayEnv display;
};
DisplayEnv* displayenv_init(DisplayEnv* env, S4 x, S4 y, S4 w, S4 h) asm("SetDefDispEnv");
DrawEnv* drawenv_init (DrawEnv* env, S4 x, S4 y, S4 w, S4 h) asm("SetDefDrawEnv");
DisplayEnv* displayenv_put(DisplayEnv* env) asm("PutDispEnv");
DrawEnv* drawenv_put (DrawEnv* env) asm("PutDrawEnv");
U4 geom_init(void) asm("InitGeom");
void geom_set_offset(U4 x, U4 y) asm("SetGeomOffset");
void geom_set_screen(U4 h) asm("SetGeomScreen");
U4* orderingtbl_clear_reverse(U4* ot, U4 len) asm("ClearOTagR");
U4 reset_graph(U4 mode) asm("ResetGraph");
void set_display_enabled(U4 mask) asm("SetDispMask");
U4 draw_sync(U4 mode) asm("DrawSync");
U4 vsync(U4 mode) asm("VSync");
void draw_orderingtbl(U4* buf) asm("DrawOTag");
typedef Struct_(Tile) {
U4 tag;
RGB8 color;
B1 code;
Rect_S2 rect;
};
/*
Linear Algebra
*/
MT3_S2S4* mt3s2s4_rotation (V3_S2* vec, MT3_S2S4* mat) asm("RotMatrix");
MT3_S2S4* mt3s2s4_translation(MT3_S2S4* mat, V3_S4* vec) asm("TransMatrix");
MT3_S2S4* mt3s2s4_scale (MT3_S2S4* mat, V3_S4* vec) asm("ScaleMatrix");
// Rotation, Translation, Perspective
S4 rtp_v3s2_raw(V3_S2* vec, S4* xy, S4* pp, S4* flag) asm("RotTransPers");
FI_ S4 rtp_v3s2(V3_S2* vec, V2_S2* xy, A2_S2* pp, S4* flag) { return rtp_v3s2_raw(vec, C_(S4*R_, & xy->x), C_(S4*R_, pp), r_(flag)); }
S4 rtp_avg_nclip_a3_v3s2_raw(V3_S2* v0, V3_S2* v1, V3_S2* v2, S4* xy1, S4* xy2, S4* xy3, S4* pp, S4* otz, S4* flag) asm("RotAverageNclip3");
FI_ S4 rtp_avg_nclip_a3_v3s2(
V3_S2* v0, V3_S2* v1, V3_S2* v2,
V2_S2* xy0, V2_S2* xy1, V2_S2* xy2,
A2_S2* pp, S4* otz, S4* flag
){
return rtp_avg_nclip_a3_v3s2_raw(
v0, v1, v2,
C_(S4*R_, xy0), C_(S4*R_, xy1), C_(S4*R_, xy2),
C_(S4*R_, pp), C_(S4*R_, otz), C_(S4*R_, flag)
);
}
S4 rtp_avg_nclip_a4_v3s2_raw(V3_S2* v0, V3_S2* v1, V3_S2* v2, V3_S2* v3, S4* xy1, S4* xy2, S4* xy3, S4* xy4, S4* pp, S4* otz, S4* flag) asm("RotAverageNclip4");
FI_ S4 rtp_avg_nclip_a4_v3s2(
V3_S2* v0, V3_S2* v1, V3_S2* v2, V3_S2* v3,
V2_S2* xy0, V2_S2* xy1, V2_S2* xy2, V2_S2* xy3,
A2_S2* pp, S4* otz, S4* flag
){
return rtp_avg_nclip_a4_v3s2_raw(
v0, v1, v2, v3,
C_(S4*R_, xy0), C_(S4*R_, xy1), C_(S4*R_, xy2), C_(S4*R_, xy3),
C_(S4*R_, pp), C_(S4*R_, otz), C_(S4*R_, flag)
);
}
void gte_matrix_set_rotation (MT3_S2S4* mat) asm("SetRotMatrix");
void gte_matrix_set_translation(MT3_S2S4* mat) asm("SetTransMatrix");
// Einheit, Metrication to unit vector. "Normalization", not Orthogonal "Normal, Normalis". Directionalization.
// RGA(Lengyel): Normalize the bulk of a zero-weight direction. This is not finite-point unitization (which forces w=1).
S4 psy_normalize_v3s4(V3_S4* v0, V3_S4* v1) asm("VectorNormal");
// RGA(Lengyel): Apply the matrix expansion of a rigid transformation.
// Motor antiproduct is equivalent for unitized points; LA form is what GTE consumes.
V3_S4* mul_m3s2_v3s4(MT3_S2S4* m, V3_S4* v, V3_S4* result) asm("ApplyMatrixLV");
// RGA(Lengyel): Store the full translation column. The motor translator would store half this displacement in m.xyz.
MT3_S2S4* trans_m3s2(MT3_S2S4* m, V3_S4* off) asm("TransMatrix");
MT3_S2S4* gte_comp_coord_m3s2(MT3_S2S4* m0, MT3_S2S4* m1, MT3_S2S4* result) asm("CompMatrixLV");
// RGA(Lengyel): Complement(Wedge(a,b)), i.e. the Euclidean 3D complement of the exterior product, stored as a V3_S4.
// The underlying GTE OP is a specialized signed-16-bit D x IR command; the wedge interpretation is a 3D dual of the same 3 scalars.
void cross_v3s4(V3_S4* v0, V3_S4* v1, V3_S4* result) asm("OuterProduct12");
+72
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@@ -0,0 +1,72 @@
// word_count.metadata.h
// Single source of truth for instruction-word counts.
// Used by C (to define compile-time constants) AND Python (to count positions).
//
// Format: WORD_COUNT(MACRO_NAME, COUNT)
// One line per macro that appears in your atom sources.
//
// This file is encoding-macros-only.
// The auto-generated component macros (mac_X) live in the source directory's own gen/macs.h (per-directory aggregation; included separately by the unity build).
// The unity build should include THIS file and the .macs.h file in the same TU, with both wrapped
// (or the include guard order handled) to avoid WORD_COUNT redeclaration.
//
// To regenerate: hand-count the instructions in each macro definition.
// (You'll only need to do this once per macro — they don't change often.)
#define WORD_COUNT(name, count) enum { words_##name = (count) };
WORD_COUNT(nop, 1)
WORD_COUNT(atom_label, 0)
WORD_COUNT(atom_offset, 0)
WORD_COUNT(load_upper_i, 1)
WORD_COUNT(jump_reg, 1)
WORD_COUNT(jump_link, 1)
WORD_COUNT(call_reg, 1)
WORD_COUNT(call_addr, 1)
WORD_COUNT(branch_le_zero, 1)
WORD_COUNT(branch_equal, 1)
WORD_COUNT(branch_ne, 1)
WORD_COUNT(add_ui, 1)
WORD_COUNT(set_lt_u, 1)
WORD_COUNT(set_lt_s, 1)
WORD_COUNT(set_lt_si, 1)
WORD_COUNT(set_lt_ui, 1)
WORD_COUNT(load_word, 1)
WORD_COUNT(load_half_u, 1)
WORD_COUNT(load_byte_u, 1)
WORD_COUNT(store_word, 1)
WORD_COUNT(store_byte, 1)
WORD_COUNT(add_ui_self, 1)
WORD_COUNT(add_u_self, 1)
WORD_COUNT(add_u, 1)
WORD_COUNT(or_i, 1)
WORD_COUNT(or_i_self, 1)
WORD_COUNT(or_u, 1)
WORD_COUNT(or_u_self, 1)
WORD_COUNT(nor_u, 1)
WORD_COUNT(shift_lleft, 1)
WORD_COUNT(shift_lleft_self, 1)
WORD_COUNT(shift_lright, 1)
WORD_COUNT(shift_aright, 1)
WORD_COUNT(mask_upper, 2)
WORD_COUNT(gte_mv_from_data_r, 1)
WORD_COUNT(gte_mv_from_ctrl_r, 1)
WORD_COUNT(gte_mv_to_data_r, 1)
WORD_COUNT(gte_mv_to_ctrl_r, 1)
WORD_COUNT(gte_sw, 1)
WORD_COUNT(gte_cmdw_rtpt, 1)
WORD_COUNT(gte_cmdw_nclip, 1)
WORD_COUNT(gte_cmdw_op, 1)
WORD_COUNT(gte_avg_sort_z3, 1)
WORD_COUNT(gte_cmdw_sqr, 1)
WORD_COUNT(gte_cmdw_gpf, 1)
WORD_COUNT(shift_lleft_var, 1)
WORD_COUNT(shift_aright_var, 1)
WORD_COUNT(li_s, 1)
WORD_COUNT(and_i, 1)
WORD_COUNT(add_si, 1)
WORD_COUNT(branch_lt_zero, 1)
WORD_COUNT(sub_s, 1)
WORD_COUNT(sub_u, 1)
WORD_COUNT(nop2, 2)
#undef WORD_COUNT
+15 -15
View File
@@ -17,19 +17,19 @@ enum {
};
typedef U4 OrderingTable_Buffer[OrderingTbl_Len];
typedef def_farray(OrderingTable_Buffer, 2);
typedef Array_(OrderingTable_Buffer, 2);
typedef B1 PrimitiveBuffer[PrimitiveBuff_Len];
typedef def_farray(PrimitiveBuffer, 2);
typedef def_struct(PrimitiveArena) {
typedef Array_(PrimitiveBuffer, 2);
typedef Struct_(PrimitiveArena) {
A2_PrimitiveBuffer buf;
U4 used;
};
#define Cube_num_verts 8
typedef def_farray(V3_S2, Cube_num_verts);
typedef Array_(V3_S2, Cube_num_verts);
#define Cube_num_faces 6
typedef def_farray(V4_S2, Cube_num_faces);
typedef Array_(V4_S2, Cube_num_faces);
void ent_cube128_init(A8_V3_S2* verts, A6_V4_S2* faces) {
memory_copy(verts, & (A8_V3_S2) {
{ -128, -128, -128 },
@@ -40,7 +40,7 @@ void ent_cube128_init(A8_V3_S2* verts, A6_V4_S2* faces) {
{ 128, 128, -128 },
{ 128, 128, 128 },
{ -128, 128, 128 }
}, size_of(A8_V3_S2) );
}, S_(A8_V3_S2) );
memory_copy(faces, & (A6_V4_S2) {
{ 3, 2, 0, 1 },
{ 0, 1, 4, 5 },
@@ -48,10 +48,10 @@ void ent_cube128_init(A8_V3_S2* verts, A6_V4_S2* faces) {
{ 1, 2, 5, 6 },
{ 2, 3, 6, 7 },
{ 3, 0, 7, 4 },
}, size_of(A6_V4_S2) );
}, S_(A6_V4_S2) );
return;
}
typedef def_struct(Ent_Cube) {
typedef Struct_(Ent_Cube) {
V3_S4 accel;
V3_S4 vel;
V3_S4 pos;
@@ -62,22 +62,22 @@ typedef def_struct(Ent_Cube) {
};
#define Floor_num_verts 4
typedef def_farray(V3_S2, Floor_num_verts);
typedef Array_(V3_S2, Floor_num_verts);
#define Floor_num_faces 2
typedef def_farray(V3_S2, Floor_num_faces);
typedef Array_(V3_S2, Floor_num_faces);
void ent_floor_init(A4_V3_S2* verts, A2_V3_S2* faces) {
memory_copy(verts, &(A4_V3_S2) {
{ -900, 0, -900 },
{ -900, 0, 900 },
{ 900, 0, -900 },
{ 900, 0, 900 },
}, size_of(A8_V3_S2));
}, S_(A8_V3_S2));
memory_copy(faces, & (A2_V3_S2) {
{ 0, 1, 2 },
{ 1, 3, 2 },
}, size_of(A2_V3_S2));
}, S_(A2_V3_S2));
};
typedef def_struct(Ent_Floor) {
typedef Struct_(Ent_Floor) {
V3_S4 accel;
V3_S4 pos;
V3_S4 scale;
@@ -86,7 +86,7 @@ typedef def_struct(Ent_Floor) {
A2_V3_S2 faces;
};
typedef def_struct(SMemory) {
typedef Struct_(SMemory) {
DoubleBuffer screen_buf;
A2_OrderingTable_Buffer ordering_tbl;
PrimitiveArena primitives;
@@ -108,7 +108,7 @@ B1* prim__alloc(U4 type_width, Str8 type_name) {
pa->used += type_width;
return next;
}
#define prim_alloc(type) (type*)prim__alloc(size_of(type), txt( stringify(type)))
#define prim_alloc(type) (type*)prim__alloc(S_(type), slit( stringify(type)))
void gp_screen_init_c11(DoubleBuffer* screen_buf, S2* active_buf_id)
{
+17 -17
View File
@@ -5,8 +5,8 @@
# include "duffle/gp.h"
#endif
typedef def_struct(DrawEnv_Packed) { U4 tag; U4 code[15]; };
typedef def_struct(DrawEnv) {
typedef Struct_(DrawEnv_Packed) { U4 tag; U4 code[15]; };
typedef Struct_(DrawEnv) {
Rect_S2 clip_area;
A2_S2 drawing_offset;
Rect_S2 texture_window;
@@ -17,7 +17,7 @@ typedef def_struct(DrawEnv) {
RGB8 initial_bg_color;
DrawEnv_Packed dr_env; // reserved
};
typedef def_struct(DisplayEnv) {
typedef Struct_(DisplayEnv) {
Rect_S2 display_area;
Rect_S2 screen;
B1 vinterlace;
@@ -25,9 +25,9 @@ typedef def_struct(DisplayEnv) {
B1 pad0;
B1 pad1;
};
typedef def_farray(DrawEnv, 2);
typedef def_farray(DisplayEnv, 2);
typedef def_struct(DoubleBuffer) {
typedef Array_(DrawEnv, 2);
typedef Array_(DisplayEnv, 2);
typedef Struct_(DoubleBuffer) {
A2_DrawEnv draw;
A2_DisplayEnv display;
};
@@ -58,7 +58,7 @@ U4 vsync(U4 mode) __asm__("VSync");
void draw_orderingtbl(U4* buf) __asm__("DrawOTag");
typedef def_struct(PolyTag) {
typedef Struct_(PolyTag) {
U4 addr: 24;
U4 len: 8;
RGB8 color;
@@ -106,7 +106,7 @@ typedef def_struct(PolyTag) {
// #define setLineF4(p) set_len(p, 6), set_code(p, 0x4c),(p)->pad = 0x55555555
// #define setLineG4(p) set_len(p, 9), set_code(p, 0x5c),(p)->pad = 0x55555555, (p)->p2 = 0, (p)->p3 = 0
typedef def_struct(Poly_F3) {
typedef Struct_(Poly_F3) {
U4 tag;
RGB8 color;
B1 code;
@@ -120,14 +120,14 @@ typedef def_struct(Poly_F3) {
};
};
typedef def_struct(Poly_G3) {
typedef Struct_(Poly_G3) {
U4 tag; RGB8 c0; B1 code;
V2_S2 p0; RGB8 c1; B1 pad1;
V2_S2 p1; RGB8 c2; B1 pad2;
V2_S2 p2;
};
typedef def_struct(Poly_F4) {
typedef Struct_(Poly_F4) {
U4 tag;
RGB8 color;
B1 code;
@@ -142,7 +142,7 @@ typedef def_struct(Poly_F4) {
};
};
typedef def_struct(Poly_G4) {
typedef Struct_(Poly_G4) {
U4 tag; RGB8 c0; B1 code;
V2_S2 p0; RGB8 c1; B1 pad1;
V2_S2 p1; RGB8 c2; B1 pad2;
@@ -150,7 +150,7 @@ typedef def_struct(Poly_G4) {
V2_S2 p3;
};
typedef def_struct(Tile) {
typedef Struct_(Tile) {
U4 tag;
RGB8 color;
B1 code;
@@ -169,7 +169,7 @@ M3_S2* m3s2_scale (M3_S2* mat, V3_S4* vec) __asm__("ScaleMatrix");
// Rotation, Translation, Perspective
S4 rtp_v3s2_raw(V3_S2* vec, S4* xy, S4* pp, S4* flag) __asm__("RotTransPers");
FI_ S4 rtp_v3s2(V3_S2* vec, V2_S2* xy, A2_S2* pp, S4* flag) { return rtp_v3s2_raw(vec, cast(S4*R_, & xy->x), cast(S4*R_, pp), r_(flag)); }
FI_ S4 rtp_v3s2(V3_S2* vec, V2_S2* xy, A2_S2* pp, S4* flag) { return rtp_v3s2_raw(vec, C_(S4*R_, & xy->x), C_(S4*R_, pp), r_(flag)); }
S4 rtp_avg_nclip_a3_v3s2_raw(V3_S2* v0, V3_S2* v1, V3_S2* v2, S4* xy1, S4* xy2, S4* xy3, S4* pp, S4* otz, S4* flag) __asm__("RotAverageNclip3");
FI_ S4 rtp_avg_nclip_a3_v3s2(
@@ -179,8 +179,8 @@ FI_ S4 rtp_avg_nclip_a3_v3s2(
){
return rtp_avg_nclip_a3_v3s2_raw(
v0, v1, v2,
cast(S4*R_, xy0), cast(S4*R_, xy1), cast(S4*R_, xy2),
cast(S4*R_, pp), cast(S4*R_, otz), cast(S4*R_, flag)
C_(S4*R_, xy0), C_(S4*R_, xy1), C_(S4*R_, xy2),
C_(S4*R_, pp), C_(S4*R_, otz), C_(S4*R_, flag)
);
}
@@ -192,8 +192,8 @@ FI_ S4 rtp_avg_nclip_a4_v3s2(
){
return rtp_avg_nclip_a4_v3s2_raw(
v0, v1, v2, v3,
cast(S4*R_, xy0), cast(S4*R_, xy1), cast(S4*R_, xy2), cast(S4*R_, xy3),
cast(S4*R_, pp), cast(S4*R_, otz), cast(S4*R_, flag)
C_(S4*R_, xy0), C_(S4*R_, xy1), C_(S4*R_, xy2), C_(S4*R_, xy3),
C_(S4*R_, pp), C_(S4*R_, otz), C_(S4*R_, flag)
);
}
-311
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@@ -1,311 +0,0 @@
#include "stdio.h"
#include <stdlib.h>
#include "assert.h"
// #include "libgpu.h"
// #include "libetc.h"
// #include "libgte.h"
#include "duffle/dsl.h"
#include "duffle/memory.h"
#include "duffle/math.h"
#include "duffle/gp.h"
#include "hello_gte.h"
enum {
PrimitiveBuff_Len = 4096,
OrderingTbl_Len = 2048
};
typedef U4 OrderingTable_Buffer[OrderingTbl_Len];
typedef Array_(OrderingTable_Buffer, 2);
typedef B1 PrimitiveBuffer[PrimitiveBuff_Len];
typedef Array_(PrimitiveBuffer, 2);
typedef Struct_(PrimitiveArena) {
A2_PrimitiveBuffer buf;
U4 used;
};
#define Cube_num_verts 8
typedef Array_(V3_S2, Cube_num_verts);
#define Cube_num_faces 6
typedef Array_(V4_S2, Cube_num_faces);
I_ void ent_cube128_init(A8_V3_S2* verts, A6_V4_S2* faces) {
LP_ A8_V3_S2 baked_verts = (A8_V3_S2) {
{ -128, -128, -128 },
{ 128, -128, -128 },
{ 128, -128, 128 },
{ -128, -128, 128 },
{ -128, 128, -128 },
{ 128, 128, -128 },
{ 128, 128, 128 },
{ -128, 128, 128 }
};
LP_ A6_V4_S2 baked_faces = (A6_V4_S2) {
{ 3, 2, 0, 1 },
{ 0, 1, 4, 5 },
{ 4, 5, 7, 6 },
{ 1, 2, 5, 6 },
{ 2, 3, 6, 7 },
{ 3, 0, 7, 4 },
};
mem_copy(u4_(verts), u4_(& baked_verts), S_(A8_V3_S2) );
mem_copy(u4_(faces), u4_(& baked_faces), S_(A6_V4_S2) );
return;
}
typedef Struct_(Ent_Cube) {
V3_S4 accel;
V3_S4 vel;
V3_S4 pos;
V3_S4 scale;
V3_S2 rot;
A8_V3_S2 verts;
A6_V4_S2 faces;
};
#define Floor_num_verts 4
typedef Array_(V3_S2, Floor_num_verts);
#define Floor_num_faces 2
typedef Array_(V3_S2, Floor_num_faces);
I_ void ent_floor_init(A4_V3_S2* verts, A2_V3_S2* faces) {
LP_ A4_V3_S2 baked_verts = (A4_V3_S2) {
{ -900, 0, -900 },
{ -900, 0, 900 },
{ 900, 0, -900 },
{ 900, 0, 900 },
};
LP_ A2_V3_S2 baked_faces = (A2_V3_S2) {
{ 0, 1, 2 },
{ 1, 3, 2 },
};
mem_copy(u4_(verts), u4_(& baked_verts), S_(A4_V3_S2));
mem_copy(u4_(faces), u4_(& baked_faces), S_(A2_V3_S2));
};
typedef Struct_(Ent_Floor) {
V3_S4 accel;
V3_S4 pos;
V3_S4 scale;
V3_S2 rot;
A4_V3_S2 verts;
A2_V3_S2 faces;
};
typedef Struct_(SMemory) {
DoubleBuffer screen_buf;
A2_OrderingTable_Buffer ordering_tbl;
PrimitiveArena primitives;
S2 active_buf_id;
M3_S2 tform_world;
Ent_Cube cube;
Ent_Floor floor;
};
global SMemory static_mem;
extern SMemory static_mem;
I_ B1* prim__alloc(U4 type_width, Str8 type_name) {
gknown PrimitiveArena* pa = & static_mem.primitives;
gknown B1* buf = (B1*) r_(static_mem.primitives.buf)[static_mem.active_buf_id];
assert(pa->used + type_width < PrimitiveBuff_Len);
B1* next = buf + pa->used;
pa->used += type_width;
return next;
}
#define prim_alloc(type) (type*)prim__alloc(S_(type), txt( stringify(type)))
void gp_screen_init_c11(DoubleBuffer* screen_buf, S2* active_buf_id)
{
reset_graph(0);
// Set the current initial buffer
active_buf_id[0] = 0;
// Just setting env data, not interacting with console hw.
// First buffer area
displayenv_init(& r_(screen_buf->display)[0], 0, 0, ScreenRes_X, ScreenRes_Y);
drawenv_init (& r_(screen_buf->draw )[0], 0, ScreenRes_Y, ScreenRes_X, ScreenRes_Y);
// Second buffer area
displayenv_init(& r_(screen_buf->display)[1], 0, ScreenRes_Y, ScreenRes_X, ScreenRes_Y);
drawenv_init (& r_(screen_buf->draw )[1], 0, 0, ScreenRes_X, ScreenRes_Y);
// Set the back/drawing buffer
screen_buf->draw[0].enable_auto_clear = true;
screen_buf->draw[1].enable_auto_clear = true;
// Set the background clear color
screen_buf->draw[0].initial_bg_color = rgb8( .r = 7, .g = 7, .b = 7 );
screen_buf->draw[1].initial_bg_color = rgb8( .r = 7, .g = 7, .b = 7 );
// screen_buf->draw[1].initial_bg_color = rgb8( .r = 47, .g = 13, .b = 0 );
displayenv_put(& r_(screen_buf->display)[ active_buf_id[0] ]);
drawenv_put (& r_(screen_buf->draw )[ active_buf_id[0] ]);
// Initialize and setup the GTE geometry offsets
geom_init();
geom_set_offset(ScreenRes_CenterX, ScreenRes_CenterY);
geom_set_screen(ScreenZ);
set_display_enabled(1); // gp_DisplayEnabled
}
void gp_display_frame(DoubleBuffer* screen_buf, S2* active_buf_id, U4* ordering_buf, PrimitiveArena* pa) {
draw_sync(0);
vsync(0);
displayenv_put(& r_(screen_buf->display)[active_buf_id[0] ]);
drawenv_put (& r_(screen_buf->draw) [active_buf_id[0] ]);
{
draw_orderingtbl(ordering_buf + OrderingTbl_Len - 1);
pa->used = 0;
}
active_buf_id[0] = ! active_buf_id[0]; // Swap current buffer
}
void render(void) {
}
// #define gte_ldv0(r0) \
// __asm__ volatile( \
// "lwc2 $0, 0( %0 );" \
// "lwc2 $1, 4( %0 )" \
// : \
// : "r"(r0))
/**
* @brief Loads a single V3_S2 to GTE vector register V0
*
* @details Loads values from an V3_S2 struct to GTE data registers C2_VXY0
* and C2_VZ0.
*/
// #define gte_ldv0( r0 ) __asm__ volatile ( \
// "lwc2 $0, 0( %0 );" \
// "lwc2 $1, 4( %0 );" \
// : \
// : "r"( r0 ) \
// : "$t0" )
void update(PrimitiveArena* pa, U4* ordering_buf)
{
orderingtbl_clear_reverse(ordering_buf, OrderingTbl_Len);
// Update the position based on acceleration and velocity
gknown V3_S4_R pos = & static_mem.cube.pos;
gknown V3_S4_R vel = & static_mem.cube.vel;
gknown V3_S4_R acc = & static_mem.cube.accel;
add_v3s4(vel, acc[0]);
add_v3s4_fp(pos, vel[0]);
// vel->x += acc->x;
// vel->y += acc->y;
// vel->z += acc->z;
// pos->x += vel->x;
// pos->y += vel->y;
// pos->z += vel->z;
if (pos->y + 150 > static_mem.floor.pos.y) vel->y *= -1;
// Prep
S4 nclip = 0;
S4 orderingtbl_z = 0;
A2_S2 p; //???
S4 flag; //????
// Draw Cube
{
m3s2_rotation (& static_mem.cube.rot, & static_mem.tform_world);
m3s2_translation(& static_mem.tform_world, & static_mem.cube.pos);
m3s2_scale (& static_mem.tform_world, & static_mem.cube.scale);
gte_matrix_set_rotation (& static_mem.tform_world);
gte_matrix_set_translation(& static_mem.tform_world);
for (U4 face_id = 0; face_id < Cube_num_faces; face_id += 1)
{
Poly_G4* quad = prim_alloc(Poly_G4); set_poly_g4(quad);
quad->c0 = rgb8(255, 0, 255);
quad->c1 = rgb8(255, 255, 0);
quad->c2 = rgb8( 0, 255, 255);
quad->c3 = rgb8( 0, 255, 0);
V4_S2* face = & static_mem.cube.faces[face_id];
V3_S2* p0 = & static_mem.cube.verts[face->x];
V3_S2* p1 = & static_mem.cube.verts[face->y];
V3_S2* p2 = & static_mem.cube.verts[face->z];
V3_S2* p3 = & static_mem.cube.verts[face->w];
nclip = rtp_avg_nclip_a4_v3s2(
p0, p1, p2, p3,
& quad->p0, & quad->p1, & quad->p2, & quad->p3,
& p, & orderingtbl_z, & flag
);
if (nclip <= 0) {
continue;
}
if ((orderingtbl_z > 0) && (orderingtbl_z < OrderingTbl_Len)) {
orderingtbl_add_primitive(ordering_buf[orderingtbl_z], quad);
}
}
// static_mem.cube.rot.x += 6;
// static_mem.cube.rot.y += 8;
// static_mem.cube.rot.z += 12;
static_mem.cube.rot.y += 0;
}
// Draw Floor
{
m3s2_rotation (& static_mem.floor.rot, & static_mem.tform_world);
m3s2_translation(& static_mem.tform_world, & static_mem.floor.pos);
m3s2_scale (& static_mem.tform_world, & static_mem.floor.scale);
gte_matrix_set_rotation (& static_mem.tform_world);
gte_matrix_set_translation(& static_mem.tform_world);
for (U4 face_id = 0; face_id < Floor_num_faces; face_id += 1)
{
Poly_F3* tri = prim_alloc(Poly_F3); set_poly_f3(tri);
tri->color = rgb8(255, 255, 255);
V3_S2* face = & static_mem.floor.faces[face_id];
V3_S2* p0 = & static_mem.floor.verts[face->x];
V3_S2* p1 = & static_mem.floor.verts[face->y];
V3_S2* p2 = & static_mem.floor.verts[face->z];
nclip = rtp_avg_nclip_a3_v3s2(p0, p1, p2
, & tri->p0, & tri->p1, & tri->p2
, & p, & orderingtbl_z, & flag
);
if (nclip <= 0) {
continue;
}
if ((orderingtbl_z > 0) && (orderingtbl_z < OrderingTbl_Len)) {
orderingtbl_add_primitive(ordering_buf[orderingtbl_z], tri);
}
}
static_mem.floor.rot.y += 5;
}
}
int main(void)
{
static_mem = (SMemory){0};
static_mem.primitives.used = 0;
ent_cube128_init(& static_mem.cube.verts, & static_mem.cube.faces); {
Ent_Cube* cube = & static_mem.cube;
cube->rot = v3s2(0, 0, 0);
// cube->pos = v3s4(0, 0, 900);
cube->scale = v3s4_fp_one();
cube->accel = v3s4(0, 1, 0);
cube->pos = v3s4(0, -400, 1800);
}
ent_floor_init(& static_mem.floor.verts, & static_mem.floor.faces); {
Ent_Floor* floor = & static_mem.floor;
floor->rot = v3s2(0, 0, 0);
floor->pos = v3s4(0, 450, 1800);
floor->scale = v3s4_fp_one();
}
// gknown gp_screen_init();
gp_screen_init_c11(& static_mem.screen_buf, & static_mem.active_buf_id);
while (1)
{
gknown S2* active_buf_id = & static_mem.active_buf_id;
gknown U4* ordering_buf = r_(static_mem.ordering_tbl)[active_buf_id[0]];
gknown PrimitiveArena* pa = & static_mem.primitives;
update(pa, ordering_buf);
render();
gp_display_frame(& static_mem.screen_buf, active_buf_id, ordering_buf, pa);
};
return 0;
}
-170
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@@ -1,170 +0,0 @@
// .include "./toolchain/pcsx-redux/src/mips/common/crt0/crt0.s"
.include "./asmdd/dsl.s"
.include "./asmdd/math.s"
.include "./asmdd/io.s"
.include "./asmdd/gp.s"
# DrawEnv_Packed { U4 tag; U4 code[15]; }
.equ DrawEnv_Packed_tag, 0
.equ DrawEnv_Packed_code, DrawEnv_Packed_tag + U4
.equ DrawEnv_Packed, 64
# DrawEnv { Rect_S2 clip; V2_S2 ofs; Rect_S2 tw; U2 tpage; U8 dtd; U8 dfe; U8 tme; U8 r0,g0,b0; DR_ENV dr_env; }
.equ DrawEnv_clip_area, /* 0 */ Rect_S2 * 0
.equ DrawEnv_drawing_offset, /* 8 */ V2_S2 * 0 + Rect_S2
.equ DrawEnv_texture_window, /* 12 */ Rect_S2 * 0 + A2_S2 + DrawEnv_drawing_offset
.equ DrawEnv_texture_page, /* 20 */ S1 * 0 + Rect_S2 + DrawEnv_texture_window
.equ DrawEnv_flag_dither, /* 22 */ B1 * 0 + S2 + DrawEnv_texture_page
.equ DrawEnv_flag_draw_on_display, /* 23 */ B1 * 0 + B1 + DrawEnv_flag_dither
.equ DrawEnv_enable_auto_clear, /* 24 */ B1 * 0 + B1 + DrawEnv_flag_draw_on_display
.equ DrawEnv_initial_bg_color, /* 25 */ RGB8 * 0 + B1 + DrawEnv_enable_auto_clear
.equ DrawEnv_dr_env, /* 28 */ DrawEnv_Packed * 0 + RGB8 + DrawEnv_initial_bg_color
.equ DrawEnv, /* 92 */ DrawEnv_dr_env + DrawEnv_Packed
# DisplayEnv { Rect_S16 disp; Rect_S16 screen; U8 isinter; U8 isrgb24; U8 pad[2]; }
.equ DisplayEnv_display_area, Rect_S2 * 0
.equ DisplayEnv_screen, Rect_S2 * 0 + Rect_S2 + DisplayEnv_display_area
.equ DisplayEnv_vinterlace, B1 * 0 + Rect_S2 + DisplayEnv_screen
.equ DisplayEnv_color24, B1 * 0 + B1 + DisplayEnv_vinterlace
.equ DisplayEnv_pad0, B1 * 0 + B1 + DisplayEnv_color24
.equ DisplayEnv_pad1, B1 * 0 + B1 + DisplayEnv_pad0
.equ DisplayEnv, DisplayEnv_pad1 + B1
# DoubleBuffer { DrawEnv draw[2]; DisplayEnv display[2]; }
.equ DoubleBuffer_draw, 0
.equ DoubleBuffer_draw_0, (DrawEnv * 0)
.equ DoubleBuffer_draw_1, (DrawEnv * 1)
.equ DoubleBuffer_display, (DrawEnv * 2)
.equ DoubleBuffer_display_0, (DisplayEnv * 0) + DoubleBuffer_display
.equ DoubleBuffer_display_1, (DisplayEnv * 1) + DoubleBuffer_display
.equ DoubleBuffer, (DisplayEnv * 2) + DoubleBuffer_display
# Screen Constants
.equ ScreenRes_X, 320
.equ ScreenRes_Y, 240
.equ ScreenRes_CenterX, (ScreenRes_X >> 1)
.equ ScreenRes_CenterY, (ScreenRes_Y >> 1)
.equ SMemory_screen_buf, DoubleBuffer * 0
.equ SMemory_active_screen_buf, S2 * 0 + DoubleBuffer
.equ CF_Shadow, 16
.extern ResetGraph
.equ ResetGraph_mode, rarg_0
.extern SetDispMask
.equ SetDispMask_mask, rarg_0
.extern PutDispEnv
.extern PutDrawEnv
.equ PutDispEnv_env, rarg_0
.equ PutDrawEnv_env, rarg_0
.extern SetDefDispEnv
.equ SetDefDispEnv_env, rarg_0
.equ SetDefDispEnv_x, rarg_1
.equ SetDefDispEnv_y, rarg_2
.equ SetDefDispEnv_w, rarg_3
.equ SetDefDispEnv_h, CF_Shadow
.set SetDefDispEnv_sp_size, CF_Shadow + S4
.extern SetDefDrawEnv
.equ SetDefDrawEnv_env, rarg_0
.equ SetDefDrawEnv_x, rarg_1
.equ SetDefDrawEnv_y, rarg_2
.equ SetDefDrawEnv_w, rarg_3
.equ SetDefDrawEnv_h, CF_Shadow
.set SetDefDrawEnv_sp_size, CF_Shadow + S4
.extern SetGeomOffset
.equ SetGeomOffset_x, rarg_0
.equ SetGeomOffset_y, rarg_1
.extern SetGeomScreen
.equ SetGeomScreen_h, rarg_0
.global gp_screen_init_asm
.type gp_screen_init_asm, @function
gp_screen_init_asm:
.equiv rio_offset, rtmp_0
load_imm rtmp_0, IO_BASE_ADDR
#define gp0 gpio_port0(rio_offset)
#define gp1 gpio_port1(rio_offset)
def_cf_sp_size 0x18; // Should be enough for all calls within this proc, for some reason SetDefDispEnv needs the offset to be CF_Shadow..
stack_alloc cf_ssize
store_word rret_addr, 0($sp)
// Note(Ed): Cannot be used psyq manages things related to vblank and other things so the api must be called instead
// gcmd_push gp1, rtmp_1, gp_Reset // ResetGraph(0)
// gcmd_push gp1, rtmp_1, gp_DisplayEnabled // SetDispMask(1)
load_imm ResetGraph_mode, gp_Reset; jump_nlink ResetGraph
load_imm SetDispMask_mask, 1; jump_nlink SetDispMask
// First buffer area
load_addr rtmp_0, static_mem; add_ui SetDefDispEnv_env, rtmp_0, SMemory_screen_buf + DoubleBuffer_display_0
move SetDefDispEnv_x, $zero
move SetDefDispEnv_y, $zero
load_imm SetDefDispEnv_w, ScreenRes_X
load_imm rtmp_0, ScreenRes_Y; store_word rtmp_0, SetDefDispEnv_h($sp)
jump_nlink SetDefDispEnv
load_addr rtmp_0, static_mem; add_ui SetDefDrawEnv_env, rtmp_0, SMemory_screen_buf + DoubleBuffer_draw_0
move SetDefDrawEnv_x, $zero
load_imm SetDefDrawEnv_y, ScreenRes_Y
load_imm SetDefDrawEnv_w, ScreenRes_X
load_imm rtmp_0, ScreenRes_Y; store_word rtmp_0, SetDefDrawEnv_h($sp)
jump_nlink SetDefDrawEnv
// Second buffer area
load_addr rtmp_0, static_mem; add_ui SetDefDispEnv_env, rtmp_0, SMemory_screen_buf + DoubleBuffer_display_1
move SetDefDispEnv_x, $zero
load_imm SetDefDispEnv_y, ScreenRes_Y
load_imm SetDefDispEnv_w, ScreenRes_X
load_imm rtmp_0, ScreenRes_Y; store_word rtmp_0, SetDefDispEnv_h($sp)
jump_nlink SetDefDispEnv
load_addr rtmp_0, static_mem; add_ui SetDefDrawEnv_env, rtmp_0, SMemory_screen_buf + DoubleBuffer_draw_1
move SetDefDrawEnv_x, $zero
move SetDefDrawEnv_y, $zero
load_imm SetDefDrawEnv_w, ScreenRes_X
load_imm rtmp_0, ScreenRes_Y; store_word rtmp_0, SetDefDrawEnv_h($sp)
jump_nlink SetDefDrawEnv
// Set the back/drawing buffer
load_imm rtmp_1, true
load_addr rtmp_0, static_mem; // At SMemory_screen_buf
store_word rtmp_1, DoubleBuffer_draw_0 + DrawEnv_enable_auto_clear(rtmp_0)
store_word rtmp_1, DoubleBuffer_draw_1 + DrawEnv_enable_auto_clear(rtmp_0)
// Set background clear color
load_imm rtmp_1, 28; load_imm rtmp_2, 22; load_imm rtmp_3, 25
// 63, 0, 127
store_byte rtmp_2, DoubleBuffer_draw_0 + DrawEnv_initial_bg_color + RGB8_r(rtmp_0)
store_byte rtmp_1, DoubleBuffer_draw_0 + DrawEnv_initial_bg_color + RGB8_g(rtmp_0)
store_byte rtmp_3, DoubleBuffer_draw_0 + DrawEnv_initial_bg_color + RGB8_b(rtmp_0)
// 127, 63, 0
store_byte rtmp_3, DoubleBuffer_draw_1 + DrawEnv_initial_bg_color + RGB8_r(rtmp_0)
store_byte rtmp_2, DoubleBuffer_draw_1 + DrawEnv_initial_bg_color + RGB8_g(rtmp_0)
store_byte rtmp_1, DoubleBuffer_draw_1 + DrawEnv_initial_bg_color + RGB8_b(rtmp_0)
load_addr rtmp_0, static_mem; store_word rtmp_1, SMemory_active_screen_buf(rtmp_0)
load_addr rtmp_1, static_mem; load_half rtmp_1, SMemory_active_screen_buf(rtmp_1); // rtmp_1 = active_screen_buffer
load_imm rtmp_2, DisplayEnv; mult_u rtmp_1, rtmp_2; mov_from_low rtmp_2 // rtmp_2 = DisplayEnv.type_size * active_screen_Buffer (rtmp_1)
add_ui rtmp_2, rtmp_2, DoubleBuffer_display // rtmp_2 += DoubleBuffer.display
load_addr rtmp_0, static_mem; add_u PutDispEnv_env, rtmp_0, rtmp_2 // rarg_0 = rtmp_0 (screen_buffer) + rtmp_2 (.display[active_screen-buffer])
jump_nlink PutDispEnv
load_addr rtmp_1, static_mem; load_half rtmp_1, SMemory_active_screen_buf(rtmp_1);
load_imm rtmp_2, DrawEnv; mult_u rtmp_1, rtmp_2; mov_from_low rtmp_2;
add_ui rtmp_2, rtmp_2, DoubleBuffer_draw
load_addr rtmp_0, static_mem; add_u PutDrawEnv_env, rtmp_0, rtmp_2
jump_nlink PutDrawEnv
// Initialize and setup the GTE geometry offsets
jump_nlink InitGeom
load_imm SetGeomOffset_x, ScreenRes_CenterX
load_imm SetGeomOffset_y, ScreenRes_CenterY
jump_nlink SetGeomOffset
load_imm SetGeomScreen_h, ScreenRes_CenterX
jump_nlink SetGeomScreen
load_word rret_addr, 0($sp)
stack_release cf_ssize
jump_reg rret_addr;
.Lgp_screen_init_end:
.size gp_screen_init_asm, . - gp_screen_init_asm
+13
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@@ -0,0 +1,13 @@
#ifdef INTELLISENSE_DIRECTIVES
#pragma once
#endif
// Auto-generated by ps1_meta.lua (passes/auto_reg.lua) — DO NOT EDIT
// Directory: C:\projects\Pikuma\ps1\code\hello_camera
// source: C:/projects/Pikuma/ps1/code/hello_camera/hello_camera.c
// source: C:/projects/Pikuma/ps1/code/hello_camera/hello_camera.h
// source: C:/projects/Pikuma/ps1/code/hello_camera/hello_camera.atom.c
// Per-phase register allocations resolved by the lua pass.
// R_<Sym>_Code = <chosen GPR's _Code constant> for every marker in this directory.
#define R_GpTmp_Code R_V0_Code
+41
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#ifdef INTELLISENSE_DIRECTIVES
#pragma once
#endif
// Auto-generated by ps1_meta.lua — DO NOT EDIT
// Directory: C:\projects\Pikuma\ps1\code\hello_camera/
// source: C:\projects\Pikuma\ps1\code\hello_camera\hello_camera.c
// source: C:\projects\Pikuma\ps1\code\hello_camera\hello_camera.h
// source: C:\projects\Pikuma\ps1\code\hello_camera\hello_camera.atom.c
// Component atoms (MipsAtomComp_(ac_*)) -> macro variants (mac_*)
#ifndef WORD_COUNT
#define WORD_COUNT(name, count) enum { words_##name = (count) };
#endif
#define mac_put_disp_env(reg_transfer, reg_base, port) \
mac_gcmd_push(gp0_word_draw_area_top_left_origin, reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_set_mask_bit(), reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_draw_area_top_left_origin, reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port)
WORD_COUNT(mac_put_disp_env, 5)
#define mac_put_draw_env(reg_transfer, reg_base, port) \
mac_gcmd_push(gp0_dr_env_tag, reg_transfer, reg_base, port) /* tag (length=15 << 24, addr=0) — packet header for the DR_ENV sequence. The GPU needs this to recognize the next 15 words as a DR_ENV packet and trigger the isbg auto-clear. */ \
, mac_gcmd_push(gp0_word_draw_mode_drawing_allowed, reg_transfer, reg_base, port) /* code[0] DrawMode (dfe=1, dtd=0, tpage=0) */ \
, mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port) /* code[1] TextureWindow (tw=(0,0)) */ \
, mac_gcmd_push(enc_gp0_draw_area_tl_word(0, ScreenRes_Y), reg_transfer, reg_base, port) /* code[2] DrawArea top-left (clip.x=0, clip.y=ScreenRes_Y=240) */ \
, mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port) /* code[3] DrawArea bottom-right (clip.x+w=320, clip.y+h=480) */ \
, mac_gcmd_push(gp0_word_set_draw_offset(), reg_transfer, reg_base, port) /* code[4] DrawOffset (ofs=(0,0)) — bare-cmd word; the GPU uses the current state machine. */ \
, mac_gcmd_push(gp0_word_dr_env_mask(), reg_transfer, reg_base, port) /* code[5] Mask (dtd=0, dfe=1, isbg=1) — 0xE6 cmd + isbg bit. */ \
, mac_gcmd_push(gp0_word_dr_env_bg_color_cmd(1, 7, 7, 7), reg_transfer, reg_base, port) /* code[6] Initial-bg-color + auto-clear (isbg=1, r=7, g=7, b=7). */ \
, mac_gcmd_push(gp0_word_dr_env_draw_mode(1), reg_transfer, reg_base, port) /* code[7] Re-assert DrawMode with isbg=1 (isbg-flag set; the 0xE1 cmd byte plus isbg only). */ /* code[8..10] Padding (NOP — GPU discards; the DR_ENV requires 16 words total). */ \
, mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port) /* code[11..12] TextureWindow bottom-right (tw.x+tw.w=0, tw.y+tw.h=0) — libpsyx emits twice. */ \
, mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port) /* code[13..14] Padding (NOP) — completes the 16-word packet. */ \
, mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port)
WORD_COUNT(mac_put_draw_env, 16)
+68
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// Auto-generated by ps1_meta.lua (passes/offsets.lua) — DO NOT EDIT
// Directory: C:\projects\Pikuma\ps1\code\hello_camera\
// source: C:\projects\Pikuma\ps1\code\hello_camera\hello_camera.c
// source: C:\projects\Pikuma\ps1\code\hello_camera\hello_camera.h
// source: C:\projects\Pikuma\ps1\code\hello_camera\hello_camera.atom.c
#pragma once
#pragma region hello_camera
// --- atom: pad_input_cube_rotation (60 words) ---
#define _atom_offset_dpad_left_exit_dpad_left 6
#define _atom_offset_dpad_right_exit_dpad_right 6
#define _atom_offset_dead_zone_low_check_dead_low_active 8
#define _atom_offset_dead_zone_high_check_dead_high_active 15
#define _atom_offset_dead_zone_skip_exit_stick 24
#define _atom_offset_end_low_exit_stick 12
enum {
atom_offset_dpad_left_exit_dpad_left = _atom_offset_dpad_left_exit_dpad_left,
atom_offset_dpad_right_exit_dpad_right = _atom_offset_dpad_right_exit_dpad_right,
atom_offset_dead_zone_low_check_dead_low_active = _atom_offset_dead_zone_low_check_dead_low_active,
atom_offset_dead_zone_high_check_dead_high_active = _atom_offset_dead_zone_high_check_dead_high_active,
atom_offset_dead_zone_skip_exit_stick = _atom_offset_dead_zone_skip_exit_stick,
atom_offset_end_low_exit_stick = _atom_offset_end_low_exit_stick,
};
// --- atom: pad_input_cam (39 words) ---
#define _atom_offset_left_x_exit_left_x 3
#define _atom_offset_right_x_exit_right_x 3
#define _atom_offset_up_y_exit_up_y 3
#define _atom_offset_down_y_exit_down_y 3
#define _atom_offset_cross_z_exit_cross_z 3
#define _atom_offset_circle_z_exit_circle_z 3
enum {
atom_offset_left_x_exit_left_x = _atom_offset_left_x_exit_left_x,
atom_offset_right_x_exit_right_x = _atom_offset_right_x_exit_right_x,
atom_offset_up_y_exit_up_y = _atom_offset_up_y_exit_up_y,
atom_offset_down_y_exit_down_y = _atom_offset_down_y_exit_down_y,
atom_offset_cross_z_exit_cross_z = _atom_offset_cross_z_exit_cross_z,
atom_offset_circle_z_exit_circle_z = _atom_offset_circle_z_exit_circle_z,
};
// --- atom: cube_g4_face (73 words) ---
#define _atom_offset_cull_cube_g4_face_exit 41
#define _atom_offset_bounds_chk_cube_g4_face_exit 24
enum {
atom_offset_cull_cube_g4_face_exit = _atom_offset_cull_cube_g4_face_exit,
atom_offset_bounds_chk_cube_g4_face_exit = _atom_offset_bounds_chk_cube_g4_face_exit,
};
// --- atom: floor_f3_face (56 words) ---
#define _atom_offset_culling_floor_f3_face_exit 25
#define _atom_offset_bounds_chk_floor_f3_face_exit 16
enum {
atom_offset_culling_floor_f3_face_exit = _atom_offset_culling_floor_f3_face_exit,
atom_offset_bounds_chk_floor_f3_face_exit = _atom_offset_bounds_chk_floor_f3_face_exit,
};
#pragma endregion hello_camera
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#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "duffle/gen/macs.h"
# include "duffle/gen/offsets.h"
# include "duffle/dsl.atom.h"
# include "duffle/lottes_tape.h"
# include "duffle/mips.h"
# include "duffle/gte.h"
# include "duffle/gp.h"
# include "duffle/pad.h"
# include "duffle/word_count.metadata.h"
# include "duffle/psyq.h"
# include "duffle/math.atom.h"
# include "duffle/mips.atom.c"
# include "duffle/gte.atom.c"
# include "duffle/gp.atom.c"
# include "duffle/psyq.atom.c"
# include "gen/offsets.h"
# include "gen/macs.h"
# include "gen/auto_reg.h"
# include "hello_camera.h"
#endif
ATOM_FILE_DEBUGGER_LINE_MARKER(hello_joypad_atom_c);
#pragma region MACs (Mips Atom components)
FI_ Slice_MipsCode ac_put_disp_env(AtomBuilder_R ab, U4 reg_transfer, U4 reg_base, U2 port)
MipsAtomComp_Proc_(ab, {
// Emits 5 GP0 commands for buffer 0 (display_area = (0,0,320,240)).
// Sequence per libpsyx PutDispEnv: DrawArea TL → DrawArea BR → Mask → DrawArea TL → DrawArea BR
mac_gcmd_push(gp0_word_draw_area_top_left_origin, reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_set_mask_bit(), reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_draw_area_top_left_origin, reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port),
})
I_ Slice_MipsCode ac_put_draw_env(AtomBuilder_R ab, U4 reg_transfer, U4 reg_base, U2 port)
MipsAtomComp_Proc_(ab, {
/*
* ORIGIN: each code word corresponds to the EXACT value libpsyx's PutDrawEnv function would compute for the same DrawEnv settings.
* References:
* - libpsyx source: `toolchain/psyq-4_7/lib/libgpu.a` (binary, function `PutDrawEnv`)
* - PSX-SPX doc: https://problemkaputt.de/psx-spx.htm#gputdrawingcommands
* - PSYQ SDK: `setdrawenv` / `makelongdr_env` source
* - NOCASH PSX spec: §"GP0(E1h) Draw Mode setting" through §"DR_ENV"
*
* The 16-word format is documented in the PSYQ SDK manual and on NOCASH's PSX-spec.txt. The libpsyx reference is at:
* ./toolchain/psyq-4_7/lib/libgpu.a
* (binary; the PutDrawEnv implementation builds the 16-word DR_ENV from the user's DRAWENV struct and emits it via GP0 GPU commands.)
*
* Word indices (libpsyx PutDrawEnv / SetDrawEnv order):
* tag = (length << 24) | addr — 16-word packet (1 tag + 15 code)
* code[0] = DrawMode (dfe=1, dtd=0, tpage=0) — must come first per libpsyx
* code[1] = TextureWindow (tw=(0,0)) — bare-cmd word; GPU uses current state
* code[2] = DrawArea top-left (clip.x=0, clip.y=240)
* code[3] = DrawArea bottom-right (clip.x+w=320, clip.y+h=480)
* code[4] = DrawOffset (ofs=(0,0)) — bare-cmd word
* code[5] = Mask (dtd=0, dfe=1, isbg=1) — 0xE6 cmd + isbg bit
* code[6] = Initial-bg-color (isbg=1, r=7, g=7, b=7)
* code[7] = DrawMode (isbg=1, tpage=0) — re-asserts DrawMode with isbg
* code[8..10] = padding (NOP) — 3 words to fill the packet
* code[11..12] = TextureWindow bottom-right — defaults to (0,0,0,0)
* code[13..14] = padding (NOP) — completes the 16-word packet
*/
mac_gcmd_push(gp0_dr_env_tag, reg_transfer, reg_base, port), /* tag (length=15 << 24, addr=0) — packet header for the DR_ENV sequence. The GPU needs this to recognize the next 15 words as a DR_ENV packet and trigger the isbg auto-clear. */
mac_gcmd_push(gp0_word_draw_mode_drawing_allowed, reg_transfer, reg_base, port), /* code[0] DrawMode (dfe=1, dtd=0, tpage=0) */
mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port), /* code[1] TextureWindow (tw=(0,0)) */
mac_gcmd_push(enc_gp0_draw_area_tl_word(0, ScreenRes_Y), reg_transfer, reg_base, port), /* code[2] DrawArea top-left (clip.x=0, clip.y=ScreenRes_Y=240) */
mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port), /* code[3] DrawArea bottom-right (clip.x+w=320, clip.y+h=480) */
mac_gcmd_push(gp0_word_set_draw_offset(), reg_transfer, reg_base, port), /* code[4] DrawOffset (ofs=(0,0)) — bare-cmd word; the GPU uses the current state machine. */
mac_gcmd_push(gp0_word_dr_env_mask(), reg_transfer, reg_base, port), /* code[5] Mask (dtd=0, dfe=1, isbg=1) — 0xE6 cmd + isbg bit. */
mac_gcmd_push(gp0_word_dr_env_bg_color_cmd(1, 7, 7, 7), reg_transfer, reg_base, port), /* code[6] Initial-bg-color + auto-clear (isbg=1, r=7, g=7, b=7). */
mac_gcmd_push(gp0_word_dr_env_draw_mode(1), reg_transfer, reg_base, port), /* code[7] Re-assert DrawMode with isbg=1 (isbg-flag set; the 0xE1 cmd byte plus isbg only). */
/* code[8..10] Padding (NOP — GPU discards; the DR_ENV requires 16 words total). */
mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port),
/* code[11..12] TextureWindow bottom-right (tw.x+tw.w=0, tw.y+tw.h=0) — libpsyx emits twice. */
mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port),
/* code[13..14] Padding (NOP) — completes the 16-word packet. */
mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port),
})
#pragma endregion MACs
#pragma region Atom Procs
#pragma region resolve_look_at
/* ─── resolve_look_at bundle chain atoms ──────────────────────────── */
typedef AtomBundle_(resolve_look_at) { MipsAtom
*input_and_sub,
*normalize_fwd_uz,
*cross_to_right,
*normalize_right_ux,
*cross_to_up,
*normalize_up_uy,
*populate_mt3s4s2;
};
typedef Struct_(ResolveLookAtScratch) {
V3_S4 fwd;
V3_S4 uz;
V3_S4 right;
V3_S4 ux;
V3_S4 up;
V3_S4 uy;
P3_S4 eye;
P3_S4 target;
V3_S4 up_in;
};
typedef Struct_(Binds_ResolveLookAtSub) {
P3_S4* target;
P3_S4* eye;
V3_S4* up_in;
};
typedef Struct_(RegUse_resolve_look_at_input_and_sub) {
Reg target_ptr;
Reg eye_ptr;
Reg up_in_ptr;
union { Reg_(V3_S4) r012, up_in, eye; };
union { Reg_(V3_S4) r345, target, fwd; };
};
/* Atom 0 in the bundle: input_and_sub. Stages C-side inputs into the scratchpad and computes fwd = target - eye. */
internal MipsAtom* AtomBundleEntry_(resolve_look_at,input_and_sub)(AtomArena_R aa, RegUse_resolve_look_at_input_and_sub r)
atom_info(atom_bind(Binds_ResolveLookAtSub)) MipsAtom_Proc_(aa, {
load_word(r.target_ptr, R_TapePtr, O_(Binds_ResolveLookAtSub,target)),
load_word(r.eye_ptr, R_TapePtr, O_(Binds_ResolveLookAtSub,eye)),
load_word(r.up_in_ptr, R_TapePtr, O_(Binds_ResolveLookAtSub,up_in)),
LdSlot_ add_ui_self( R_TapePtr, S_(Binds_ResolveLookAtSub)),
/* Stage up_in.x/y/z into the scratchpad. R_ScratchBase = R_SP = 0x1F800000. */
mac_load_v3s4( r.up_in, r.up_in_ptr, 0), LdSlot_
mac_store_v3s4(r.up_in, R_ScratchBase, O_(ResolveLookAtScratch,up_in)),
// Stage eye.x/y/z into the scratchpad (atom 6 reads these for the translation column).
mac_load_v3s4( r.eye, r.eye_ptr, 0), LdSlot_
mac_store_v3s4(r.eye, R_ScratchBase, O_(ResolveLookAtScratch,eye)),
/* Compute fwd = target - eye. */
mac_load_v3s4( r.target, r.target_ptr, 0), LdSlot_
mac_sub_v3s4_self(r.fwd, r.eye),
mac_store_v3s4( r.fwd, R_ScratchBase, O_(ResolveLookAtScratch,fwd)),
mac_yield()
})
typedef Struct_(Binds_ResolveLookAt_PopulateMT3S4S2) {
MT3_S2S4* look_at; /* MT3_S2S4* — destination matrix address */
};
typedef Struct_(RegUse_resolve_look_at_populate_mt3s4s2) {
Reg look_at;
Reg eye; /* matrix_vector phase: load -eye */
Reg_(V3_S4) row; /* populate phase: load ux/uy/uz */
union { Reg r0, ux, vx; }; /* populate addr → matrix_vector v_x */
union { Reg r1, uy, vy; }; /* populate uy → matrix_vector v_y */
union { Reg r2, uz, vz; }; /* populate uz → matrix_vector v_z */
};
/* write look_at->m[][] from ux/uy/uz as packed S2 (populate),
* ctc2 RT chain into C2[0..4] (matrix_vector), MVMVA RT*(-eye)>>12, store off
* directly to look_at->t[] (trans_matrix).
*
* C11 ApplyMatrixLV semantics (gte.atom.c ac_apply_matrix_lv; libgte reference):
* 1. ctc2 RT matrix (5 ctc2s to C2[0..4])
* 2. lw -eye from memory
* 3. S15 decomposition (eliminated here — the fused body takes the >>12 path
* directly via mtc2 IR + MVMVA pass2, matching the libgte canonical output)
* 4. mtc2 to IR1/2/3, nop2, MVMVA pass2 (sf=1, mx=0, v=3, cv=3)
* 5. mfc2 MACs → off
* 6. store off to look_at->t[] (skip scratch.eye intermediate)
*/
internal MipsAtom* AtomBundleEntry_(resolve_look_at,populate_mt3s4s2)(AtomArena_R aa, RegUse_resolve_look_at_populate_mt3s4s2 r)
atom_info(atom_bind(Binds_ResolveLookAt_PopulateMT3S4S2)) MipsAtom_Proc_(aa, {
/* --- Tape pop: look_at pointer --- */
load_word(r.look_at, R_TapePtr, O_(Binds_ResolveLookAt_PopulateMT3S4S2,look_at)),
LdSlot_ add_ui_self( R_TapePtr, S_(Binds_ResolveLookAt_PopulateMT3S4S2)),
add_si(r.ux, R_ScratchBase, O_(ResolveLookAtScratch, ux)), LdSlot_
add_si(r.uy, R_ScratchBase, O_(ResolveLookAtScratch, uy)),
add_si(r.uz, R_ScratchBase, O_(ResolveLookAtScratch, uz)),
add_si(r.eye, R_ScratchBase, O_(ResolveLookAtScratch, eye)),
/* write look_at->m[][] from ux/uy/uz as packed S2 */
mac_load_v3s4(r.row, r.ux, 0), LdSlot_ mac_store_v3s2(r.row, r.look_at, O_(MT3_S2S4, m[0])),
mac_load_v3s4(r.row, r.uy, 0), LdSlot_ mac_store_v3s2(r.row, r.look_at, O_(MT3_S2S4, m[1])),
mac_load_v3s4(r.row, r.uz, 0), LdSlot_ mac_store_v3s2(r.row, r.look_at, O_(MT3_S2S4, m[2])),
/* ctc2 RT chain + MVMVA RT * (-eye) >> 12 */
/* C2[0] = (RT12<<16)|RT11 ← ctc2 RT11 from m[0][0..1]
* C2[1] = (RT21<<16)|RT13 ← ctc2 RT12 from m[0][2..3]
* C2[2] = (RT23<<16)|RT22 ← ctc2 RT13 from m[1][1..2]
* C2[3] = (RT32<<16)|RT31 ← ctc2 RT21 from m[2][0..1]
* C2[4] = (RT33<<16)|junk ← ctc2 RT22 from m[2][2] (half) */
load_word( r.vx, r.look_at, O_(MT3_S2S4, m[0][0])), /* RT11|RT12 */ LdSlot_
load_word( r.vy, r.look_at, O_(MT3_S2S4, m[0][2])), /* RT13|RT21 */ LdSlot_ gte_mv_to_ctrl_r(r.vx, gte_cr_RT11),
load_word( r.vz, r.look_at, O_(MT3_S2S4, m[1][1])), /* RT22|RT23 */ LdSlot_ gte_mv_to_ctrl_r(r.vy, gte_cr_RT12),
load_word( r.vx, r.look_at, O_(MT3_S2S4, m[2][0])), /* RT31|RT32 */ LdSlot_ gte_mv_to_ctrl_r(r.vz, gte_cr_RT13),
load_half_u(r.vy, r.look_at, O_(MT3_S2S4, m[2][2])), /* RT33 */ LdSlot_ gte_mv_to_ctrl_r(r.vx, gte_cr_RT21),
GteDelay_ mac_load_word_v3(r.vx, r.vy, r.vz, r.eye, 0), LdSlot_
mac_sub_s_v3(r.vx, r.vy, r.vz, R_0, R_0, R_0, r.vx, r.vy, r.vz),
gte_mv_to_data_r(r.vx, C2_IR1),
gte_mv_to_data_r(r.vy, C2_IR2),
gte_mv_to_data_r(r.vz, C2_IR3),
GteDelay_ nop2,
/* MVMVA pass 2 — C11 ApplyMatrixLV command. sf=1, mx=0 (RT), v=3 (IR), cv=3. Reads RT × IR >> 12. */
gte_cmdw_mvmva_c11_pass2, GteDelay_ load_word(R_AtomJmp, R_TapePtr, 0), // ac_yield: word 1
mac_gte_mv_from_data_r_mac123(r.vx, r.vy, r.vz), GteDelay_ add_ui_self( R_TapePtr, S_(MipsCode)), // ac_yield: word 2
/* store off directly to look_at->t[] (skip scratch.eye intermediate) */
mac_store_word_v3(r.vx, r.vy, r.vz, r.look_at, O_(MT3_S2S4, t)),
jump_reg(R_AtomJmp), BdSlot_ nop, // ac_yield: word 3-4
})
#pragma endregion resolve_look_at
#pragma endregion Atom Procs
#pragma region Baked Atoms
enum {
R_ScreenX = R_T5 atom_reg atom_type(U2),
R_ScreenY = R_T6 atom_reg atom_type(U2),
R_ScreenBuf = R_T7 atom_reg, /* Caller-pinned: & smem.screen_buf */
#define R_ScreenBuf_Code R_T7_Code
};
//screen_env_init. Mirrors the libpsyx's SetDefDispEnv + SetDefDrawEnv + the manual enable_auto_clear / initial_bg_color writes.
internal MipsAtom_(screen_env_init) atom_info(atom_phase(screen_init)
, atom_reads(R_T0, R_ScreenX, R_ScreenY, R_ScreenBuf)
, atom_writes(R_T0, R_ScreenX, R_ScreenY)
) {
/* display[0] = (0, 0, 320, 240); rest of struct zeroed. */
add_ui(R_ScreenX, R_0, ScreenRes_X), add_ui(R_ScreenY, R_0, ScreenRes_Y),
mac_store_v2s2(R_ScreenX, R_ScreenY, R_ScreenBuf, O_(DisplayEnv,display_area.width) + O_(DoubleBuffer,display[0])),
store_word(R_0, R_ScreenBuf, O_(DisplayEnv,display_area) + O_(DoubleBuffer,display[0])),
store_word(R_0, R_ScreenBuf, O_(DisplayEnv,screen) + O_(DoubleBuffer,display[0])),
store_word(R_0, R_ScreenBuf, O_(DisplayEnv,vinterlace) + O_(DoubleBuffer,display[0])),
/* display[1] = (0, 240, 320, 240); rest of struct zeroed. */
mac_store_rects2(R_0, R_ScreenY, R_ScreenX, R_ScreenY, R_ScreenBuf, O_(DisplayEnv,display_area) + O_(DoubleBuffer,display[1])),
store_word(R_0, R_ScreenBuf, O_(DisplayEnv,screen) + O_(DoubleBuffer,display[1])),
store_word(R_0, R_ScreenBuf, O_(DisplayEnv,vinterlace) + O_(DoubleBuffer,display[1])),
mac_store_rects2(R_0, R_ScreenY, R_ScreenX, R_ScreenY, R_ScreenBuf, O_(DrawEnv,clip_area) + O_(DoubleBuffer,draw[0])), /* draw[0].clip_area = (0, 240, 320, 240). C11's SetDefDrawEnv writes clip.y = y_arg. */
mac_store_v2s2( R_0, R_ScreenY, R_ScreenBuf, O_(DrawEnv,drawing_offset[0]) + O_(DoubleBuffer,draw[0])), /* draw[0].drawing_offset[0] = (0, 240); C11 passes y_arg as ofs. */
mac_store_v2s2(R_ScreenX, R_ScreenY, R_ScreenBuf, O_(DrawEnv,clip_area.width) + O_(DoubleBuffer,draw[1])),
/* draw[0].texture_window = (0, 0, 0, 0); two word-zeroes cover the full 8-byte tw field. */
store_word(R_0, R_ScreenBuf, O_(DrawEnv,texture_window.x) + O_(DoubleBuffer,draw[0])),
store_word(R_0, R_ScreenBuf, O_(DrawEnv,texture_window.width) + O_(DoubleBuffer,draw[0])),
store_word(R_0, R_ScreenBuf, O_(DrawEnv,drawing_offset[0].x) + O_(DoubleBuffer,draw[1])),
store_word(R_0, R_ScreenBuf, O_(DrawEnv,texture_window.x) + O_(DoubleBuffer,draw[1])),
store_word(R_0, R_ScreenBuf, O_(DrawEnv,texture_window.width) + O_(DoubleBuffer,draw[1])),
/* draw[0].texture_page = 10 (gp0_tpage_default). C11 SetDefDrawEnv at C11_only.elf:0x8001273C writes the same 0x0A. . */
add_ui(R_T0, R_0, gp0_tpage_default),
store_half(R_T0, R_ScreenBuf, O_(DrawEnv,texture_page) + O_(DoubleBuffer,draw[0])),
store_half(R_T0, R_ScreenBuf, O_(DrawEnv,texture_page) + O_(DoubleBuffer,draw[1])),
/* draw[0] control bytes: flag_dither=1, flag_draw_on_display=1 (the dfe bit per psx-spx; libpsyx sets it via `SetDefDrawEnv`'s conditional at C11_only.elf:0x80012728), enable_auto_clear=1. Each byte is named;
* the previous `store_word(R_0, ..., +20)` overwrote all four with zero. */
add_ui(R_T0, R_0, 1),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,flag_dither) + O_(DoubleBuffer,draw[0])),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,flag_draw_on_display) + O_(DoubleBuffer,draw[0])),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,enable_auto_clear) + O_(DoubleBuffer,draw[0])),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,flag_dither) + O_(DoubleBuffer,draw[1])),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,flag_draw_on_display) + O_(DoubleBuffer,draw[1])),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,enable_auto_clear) + O_(DoubleBuffer,draw[1])),
/* draw[0].initial_bg_color = (r=7, g=7, b=7). */
add_ui(R_T0, R_0, 7),
mac_store_rgb8(R_T0,R_T0,R_T0, R_ScreenBuf, O_(DrawEnv,initial_bg_color) + O_(DoubleBuffer,draw[0])),
mac_store_rgb8(R_T0,R_T0,R_T0, R_ScreenBuf, O_(DrawEnv,initial_bg_color) + O_(DoubleBuffer,draw[1])),
mac_yield(),
};
enum {
R_IO_BaseAddr = R_T4 atom_reg, /* Caller-pinned: IO_BASE_ADDR = 0x1F800000 */
R_GP1_Offset = R_T2 atom_reg, /* Caller-pinned: GPIO_PORT1_OFFSET = 0x10 */
atom_auto_reg(gp_screen_init, R_GpTmp), /* Auto-allocated scratch; resolved to a free pool GPR by the lua pass. C-preprocessor expands to R_GpTmp = R_GpTmp_Code with an atom_auto_reg trailing comment. */
#define R_IO_BaseAddr_Code R_T4_Code
#define R_GP1_Offset_Code R_T2_Code
};
internal MipsAtom_(gp_screen_init) atom_info(atom_phase(screen_init), atom_reads(R_IO_BaseAddr)) {
store_word(R_0, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(00h) Reset */
mac_gcmd_push(gp1_word_ResetCmdBuffer(), R_ScreenX, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(01h) ClearFIFO; uses pinned R_ScreenX as the transfer reg. */
mac_gcmd_push(gp1_word_AcknowledgeIRQ(), R_ScreenX, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(02h) AckIRQ; uses pinned R_ScreenX as the transfer reg. */
mac_gcmd_push(gp1_word_DisplayOn(), R_ScreenX, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(03h) Display ON; uses pinned R_ScreenX as the transfer reg. */
mac_gcmd_push(gp1_word_dma_to_gpu(), R_GpTmp, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(04h) DMADirection=2 (CPU->GPU). libpsyx's per-frame PutDrawEnv/DrawOTag use DMA2; without this the DMA queue never drains. Uses auto-allocated R_GpTmp. */
mac_gcmd_push(gp1_word_StartDisplayArea(), R_GpTmp, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(05h) StartDisplayArea (X=0, Y=0); uses auto-allocated R_GpTmp. */
/* GP1: DisplayMode + Display Ranges. */
mac_gcmd_push(gp1_word_display_mode_320x240_15bit_ntsc, R_ScreenX, R_IO_BaseAddr, GPIO_PORT1_OFFSET),
mac_gcmd_push(gp1_word_horizontal_range_ntsc, R_ScreenX, R_IO_BaseAddr, GPIO_PORT1_OFFSET),
mac_gcmd_push(gp1_word_vertical_range_ntsc, R_ScreenX, R_IO_BaseAddr, GPIO_PORT1_OFFSET),
/* GTE: SetGeomOffset (OFX, OFY) — ScreenRes_CenterX, ScreenRes_CenterY. */
load_upper_i(R_ScreenX, ScreenRes_CenterX), gte_mv_to_ctrl_r(R_ScreenX, gte_cr_OFX_Code),
load_upper_i(R_ScreenX, ScreenRes_CenterY), gte_mv_to_ctrl_r(R_ScreenX, gte_cr_OFY_Code),
/* GTE: SetGeomScreen (H) — CR26 (per PSX-SPX / libpsyx), value is the raw projection-plane distance, NOT shifted. */
add_ui(R_ScreenX, R_0, ScreenZ), gte_mv_to_ctrl_r(R_ScreenX, gte_cr_H_Code),
/* GP1: DisplayEnable — bit 0 = 0 (Display ON). */
mac_gcmd_push(gp1_word_DisplayOn(), R_GpTmp, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* Uses auto-allocated R_GpTmp. */
mac_yield(),
};
typedef Struct_(Binds_PadApplyInput) {
PadState* state;
V3_S2* cube_rot;
V3_S2* floor_rot;
};
enum {
R_PadStateT5 = R_T5 atom_reg,
R_CubeRot = R_T1 atom_reg,
R_FloorRot = R_T2 atom_reg,
};
internal MipsAtom_(pad_input_cube_rotation) atom_info(atom_bind(Binds_PadApplyInput)
, atom_reads(R_T0, R_CubeRot, R_FloorRot, R_T3, R_T4, R_PadStateT5, R_TapePtr)
, atom_writes( R_CubeRot, R_FloorRot)
) {
/* Pop Binds from tape (state, cube_rot, floor_rot) */
load_word(R_PadStateT5, R_TapePtr, O_(Binds_PadApplyInput,state)),
load_word(R_CubeRot, R_TapePtr, O_(Binds_PadApplyInput,cube_rot)),
load_word(R_FloorRot, R_TapePtr, O_(Binds_PadApplyInput,floor_rot)),
LdSlot_ add_ui_self( R_TapePtr, S_(Binds_PadApplyInput)),
/* Load pad[0].buttons into R_T0. */
load_word(R_T0, R_PadStateT5, O_(PadState,buttons)), LdSlot_ nop,
// Note(Ed): Potential op with delay slot?
/* D-pad Left: cube_rot.y += 30, floor_rot.y += 5. */
and_i(R_T3, R_T0, Pad_Left), branch_le_zero(R_T3, atom_offset(dpad_left, exit_dpad_left)), BdSlot_
load_half( R_T4, R_CubeRot, O_(V3_S2,y)), LdSlot_
load_half( R_T3, R_FloorRot, O_(V3_S2,y)),
add_si( R_T4, R_T4, 30),
add_si( R_T3, R_T3, 5),
store_half(R_T4, R_CubeRot, O_(V3_S2,y)),
store_half(R_T3, R_FloorRot, O_(V3_S2,y)),
atom_label(exit_dpad_left)
/* D-pad Right: cube_rot.y -= 30, floor_rot.y -= 5. */
and_i(R_T3, R_T0, Pad_Right), branch_le_zero(R_T3, atom_offset(dpad_right, exit_dpad_right)), BdSlot_
load_half( R_T4, R_CubeRot, O_(V3_S2,y)), LdSlot_
load_half( R_T3, R_FloorRot, O_(V3_S2,y)),
add_si( R_T4, R_T4, -30),
add_si( R_T3, R_T3, -5),
store_half(R_T4, R_CubeRot, O_(V3_S2,y)),
store_half(R_T3, R_FloorRot, O_(V3_S2,y)),
atom_label(exit_dpad_right)
/* Analog left-stick X: dead zone 0x70..0x90.
* Cube delta = (0x80 - left_x) >> 2; floor delta = (0x80 - left_x) >> 5. */
load_byte_u(R_T3, R_PadStateT5, O_(PadState,left.x)), LdSlot_ //?
/* Dead-zone check: skip analog if left_x in [0x70, 0x90] inclusive. Outside dead zone on LOW side: left_x < 0x70 (strictly).
* set_lt_u(R_T4, R_T3, R_T4=0x70) → R_T4 = (left_x < 0x70) ? 1 : 0. */
add_ui(R_T4, R_0, PadDeadZone_HighBound), set_lt_u(R_T4, R_T3, R_T4), branch_ne(R_T4, R_0, atom_offset(dead_zone_low_check, dead_low_active)),
add_ui(R_T4, R_0, PadDeadZone_Center), /* BD-slot: pre-load 0x80 for dead_low_active */
atom_label(dead_check_upper)
/* left_x >= 0x70 → check upper bound. */
load_byte_u(R_T3, R_PadStateT5, O_(PadState,left.x)), /* reload */ LdSlot_ //?
add_ui( R_T4, R_0, PadDeadZone_HighBound),
/* R_T4 = (0x90 < left_x) ? 1 : 0 → (left_x > 0x90) ? 1 : 0 */
set_lt_u(R_T4, R_T4, R_T3), branch_ne(R_T4, R_0, atom_offset(dead_zone_high_check, dead_high_active)), BdSlot_
add_ui( R_T4, R_0, PadDeadZone_Center), /* BD-slot: pre-load 0x80 for dead_high_active */
jump_rel(atom_offset(dead_zone_skip, exit_stick)),
BdSlot_ mac_yield_load(), LdSlot_
atom_label(dead_low_active)
/* R_T3 = left_x (from line 632 lbu; not clobbered between dead_zone_low_check branch + its BD-slot `add_ui R_T4, 0x80`).
* The earlier `load_byte_u(R_T3, ...)` reload was redundant and introduced a load-use hazard on the next `sub_u`.
* R_T4 = 0x80 from the BD-slot of `dead_zone_low_check`'s branch_ne. */
sub_u( R_T3, R_T4, R_T3), /* R_T3 = 0x80 - left_x */
/* delta = 0x80 - left_x (positive). */
/* R_T4 = cube_delta */
shift_aright(R_T4, R_T3, 2),
load_half( R_T0, R_CubeRot, O_(V3_S2,y)), LdSlot_ nop,
add_u( R_T0, R_T0, R_T4),
store_half( R_T0, R_CubeRot, O_(V3_S2,y)),
/* R_T4 = floor_delta — moved into the load-delay slot of the floor load below (fills the 1-instruction gap;
* doesn't read R_T0; R_T4 settles by the subsequent add_u). */
load_half( R_T0, R_FloorRot, O_(V3_S2,y)), LdSlot_
shift_aright(R_T4, R_T3, 5),
add_u( R_T0, R_T0, R_T4),
store_half( R_T0, R_FloorRot, O_(V3_S2,y)),
jump_rel(atom_offset(end_low, exit_stick)),
BdSlot_ mac_yield_load(), LdSlot_
atom_label(dead_high_active)
/* R_T3 = left_x (from line 641 lbu in dead_check_upper; not clobbered between dead_zone_high_check branch + its BD-slot `add_ui R_T4, 0x80`).
* The earlier `load_byte_u(R_T3, ...)` reload was redundant and introduced a load-use hazard on the next `sub_u`.
* R_T4 = 0x80 from the BD-slot of `dead_zone_high_check`'s branch_ne. */
sub_u( R_T3, R_T4, R_T3),
/* delta = 0x80 - left_x (signed negative). */
shift_aright(R_T4, R_T3, 2), /* R_T4 = cube_delta (signed) */
load_half( R_T0, R_CubeRot, O_(V3_S2,y)), LdSlot_ nop,
add_u( R_T0, R_T0, R_T4),
store_half( R_T0, R_CubeRot, O_(V3_S2,y)),
/* R_T4 = floor_delta (signed) — moved into the load-delay slot of the floor load below. */
load_half( R_T0, R_FloorRot, O_(V3_S2,y)), LdSlot_
shift_aright(R_T4, R_T3, 5),
add_u( R_T0, R_T0, R_T4),
store_half( R_T0, R_FloorRot, O_(V3_S2,y)),
atom_label(no_jump_fallthrough)
mac_yield_load(), LdSlot_
atom_label(exit_stick)
/* NOT mac_yield() — R_AtomJmp was already loaded in the BD-slot of the dead-zone/exit branch. */
mac_yield_tail(),
};
enum {
R_Cam = R_T4 atom_reg,
R_CamPadState = R_T5 atom_reg,
};
typedef Struct_(Binds_PadInputCam) {
PadState* state;
Camera* cam;
};
internal MipsAtom_(pad_input_cam) atom_info(atom_bind(Binds_PadInputCam)
, atom_reads( R_Cam, R_CamPadState, R_TapePtr)
, atom_writes(R_Cam)
) {
/* Bind pop: state → R_CamPadState (R_T5), cam → R_Cam (R_T4), advance R_TapePtr by 8. */
load_word(R_CamPadState, R_TapePtr, O_(Binds_PadInputCam,state)),
load_word(R_Cam, R_TapePtr, O_(Binds_PadInputCam,cam)),
LdSlot_ add_ui_self( R_TapePtr, S_(Binds_PadInputCam)),
/* Load pad[0].buttons into R_T0; nop fills the load-delay slot. */
load_word(R_T0, R_CamPadState, O_(PadState,buttons)), LdSlot_
load_word(R_T1, R_Cam, O_(Camera,pos.x)),
// D-pad Left → cam.pos.x -= 50. and_i fulfills BD-slot for load on R_Cam.
LdSlot_ and_i(R_T3, R_T0, Pad_Left), branch_le_zero(R_T3, atom_offset(left_x, exit_left_x)), BdSlot_ nop,
add_si(R_T1, R_T1, -50), store_word(R_T1, R_Cam, O_(Camera,pos.x)),
atom_label(exit_left_x)
/* D-pad Right → cam.pos.x += 50. Reuses R_T1 from Left. */
and_i(R_T3, R_T0, Pad_Right), branch_le_zero(R_T3, atom_offset(right_x, exit_right_x)), BdSlot_ nop,
add_si(R_T1, R_T1, 50), store_word(R_T1, R_Cam, O_(Camera,pos.x)),
atom_label(exit_right_x)
/* D-pad Up → cam.pos.y -= 50. Load pos.y BEFORE the andi. */
load_word(R_T1, R_Cam, O_(Camera,pos.y)), LdSlot_
and_i(R_T3, R_T0, Pad_Up), branch_le_zero(R_T3, atom_offset(up_y, exit_up_y)), BdSlot_ nop,
add_si(R_T1, R_T1, -50), store_word(R_T1, R_Cam, O_(Camera,pos.y)),
atom_label(exit_up_y)
/* D-pad Down → cam.pos.y += 50. Reuses R_T1 from Up. */
and_i(R_T3, R_T0, Pad_Down), branch_le_zero(R_T3, atom_offset(down_y, exit_down_y)), BdSlot_ nop,
add_si(R_T1, R_T1, 50), store_word(R_T1, R_Cam, O_(Camera,pos.y)),
atom_label(exit_down_y)
/* D-pad Cross → cam.pos.z -= 50. Load pos.z BEFORE the andi. */
load_word(R_T1, R_Cam, O_(Camera,pos.z)), LdSlot_
and_i(R_T3, R_T0, Pad_Cross), branch_le_zero(R_T3, atom_offset(cross_z, exit_cross_z)), BdSlot_ load_word(R_AtomJmp, R_TapePtr, 0), LdSlot_ // ac_yield: word 1
add_si(R_T1, R_T1, -50), store_word(R_T1, R_Cam, O_(Camera,pos.z)),
atom_label(exit_cross_z)
/* D-pad Circle → cam.pos.z += 50. Reuses R_T1 from Cross. */
and_i(R_T3, R_T0, Pad_Circle), branch_le_zero(R_T3, atom_offset(circle_z, exit_circle_z)), BdSlot_ add_ui_self(R_TapePtr, S_(MipsCode)), // ac_yield: word 2
add_si(R_T1, R_T1, 50), store_word(R_T1, R_Cam, O_(Camera,pos.z)),
atom_label(exit_circle_z)
jump_reg(R_AtomJmp), BdSlot_ nop // ac_yield: word 3-4
};
enum {
R_PrimCursor = R_T7 atom_reg atom_type(U4*), /* Output cursor (primitive buffer) */
R_FaceCursor = R_T4 atom_reg atom_type(V4_S2*), /* Cube face-index cursor (V4_S2*); floor context switches to V3_S2* via atom_phase */
R_VertBase = R_T5 atom_reg atom_type(V3_S2*), /* Base address of the vertex array */
R_OtBase = R_T6 atom_reg atom_type(U4*), /* Base address of the Ordering Table */
#define R_PrimCursor_Code R_T7_Code
#define R_FaceCursor_Code R_T4_Code
#define R_VertBase_Code R_T5_Code
#define R_OtBase_Code R_T6_Code
};
typedef Struct_(Binds_CubeTri) {
U4 PrimCursor;
V4_S2* FaceCursor;
V3_S2* VertBase;
U4* OtBase;
};
internal MipsAtom_(rbind_cube_g4_face) atom_info(atom_bind(Binds_CubeTri), atom_phase(cube_g4)
, atom_reads(R_TapePtr)
, atom_writes(R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase, R_TapePtr)
){
/* Pop 4 arguments from the tape directly into the workspace registers */
load_word(R_PrimCursor, R_TapePtr, O_(Binds_CubeTri,PrimCursor)),
load_word(R_FaceCursor, R_TapePtr, O_(Binds_CubeTri,FaceCursor)),
load_word(R_VertBase, R_TapePtr, O_(Binds_CubeTri,VertBase)),
load_word(R_OtBase, R_TapePtr, O_(Binds_CubeTri,OtBase)),
LdSlot_ add_ui_self( R_TapePtr, S_(Binds_CubeTri)),
mac_yield()
};
// cube_g4_face — Draw one cube face (Gouraud-shaded quad) via the GTE tape pipeline
internal
MipsAtom_(cube_g4_face) atom_info(atom_phase(cube_g4),
atom_reads( R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase),
atom_writes(R_PrimCursor, R_FaceCursor)
){
load_half_u(R_T0, R_FaceCursor, 0 * S_(S2)),
load_half_u(R_T1, R_FaceCursor, 1 * S_(S2)),
load_half_u(R_T2, R_FaceCursor, 2 * S_(S2)),
// load_half_u(R_T3, R_FaceCursor, 3 * S_(S2)),
LdSlot_ mac_gte_load_tri_verts(R_VertBase, R_T0, R_T1, R_T2),
GteDelay_ load_half_u(R_T3, R_FaceCursor, 3 * S_(S2)), LdSlot_
GteDelay_ load_word(R_AtomJmp, R_TapePtr, 0), LdSlot_ //ac_yield: word 2,
gte_cmdw_rotate_translate_perspective_triple,
gte_cmdw_nclip,
gte_mv_from_data_r(R_T0, C2_MAC0), GteDelay_ add_ui_self(R_TapePtr, S_(MipsCode)), // ac_yield: word 1
branch_le_zero(R_T0, atom_offset(cull, cube_g4_face_exit)),
/* BD-slot: Write the prim tag (R_0=0; overwrites the legacy tag word in the prim_buffer).
* If branch IS taken (face culled), the body is skipped and this 0-tag is stranded —
* harmless because the OT entry that points to this prim is created later. */
BdSlot_ store_word(R_0, R_PrimCursor, O_(Poly_G4, tag)),
shift_lleft(R_AT, R_T3, v3s2_byteoff), add_u(R_AT, R_AT, R_VertBase),
load_word(R_V0, R_AT, O_(V3_S2, x)), load_word(R_V1, R_AT, O_(V3_S2, z)), LdSlot_
gte_mv_to_data_r(R_V0, C2_VXY0), gte_mv_to_data_r(R_V1, C2_VZ0),
mac_gte_store_g4_p012(R_PrimCursor),
gte_cmdw_rotate_translate_perspective_single,
mac_gte_store_g4_p3(R_PrimCursor),
gte_cmdw_avg_sort_z4,
gte_mv_from_data_r(R_T1, C2_OTZ),
add_ui( R_AT, R_0, OrderingTbl_Len),
set_lt_u( R_AT, R_T1, R_AT),
branch_equal(R_AT, R_0, atom_offset(bounds_chk, cube_g4_face_exit)), BdSlot_ nop,
mac_insert_ot_tag(R_OtBase, R_PrimCursor, S_(Poly_G4)),
mac_format_g4_color(R_PrimCursor,
/* c0 magenta */ 0xFF, 0x00, 0xFF,
/* c1 yellow */ 0xFF, 0xFF, 0x00,
/* c2 cyan */ 0x00, 0xFF, 0xFF,
/* c3 green */ 0x00, 0xFF, 0x00),
// end: branch(bounds_chk)
// end: branch(cull)
atom_label(cube_g4_face_exit)
add_ui_self(R_PrimCursor, S_(Poly_G4)), /* 9 words = Poly_G4 */
add_ui_self(R_FaceCursor, S_(S2) * 4), /* 4 × S2 = 8 bytes */
jump_reg(R_AtomJmp), BdSlot_ nop // ac_yield: word 3-4
};
typedef Struct_(Binds_FloorTri) {
U4 PrimCursor;
V3_S2* FaceCursor;
V3_S2* VertBase;
U4* OtBase;
};
internal
MipsAtom_(rbind_floor_f3_face) atom_info(atom_bind(Binds_FloorTri), atom_phase(floor_f3)
, atom_reads(R_TapePtr)
, atom_writes(R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase, R_TapePtr)
){
/* Pop 4 arguments from the tape directly into the workspace registers */
load_word(R_PrimCursor, R_TapePtr, O_(Binds_FloorTri,PrimCursor)),
load_word(R_FaceCursor, R_TapePtr, O_(Binds_FloorTri,FaceCursor)),
load_word(R_VertBase, R_TapePtr, O_(Binds_FloorTri,VertBase)),
load_word(R_OtBase, R_TapePtr, O_(Binds_FloorTri,OtBase)),
LdSlot_ add_ui_self( R_TapePtr, S_(Binds_FloorTri)),
mac_yield()
};
// atom_dbg_skip
internal
MipsAtom_(floor_f3_face) atom_info(atom_phase(floor_f3)
, atom_reads( R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase)
, atom_writes(R_PrimCursor, R_FaceCursor)
) {
mac_load_tri_indices(R_FaceCursor, R_T0, R_T1, R_T2),
mac_gte_load_tri_verts(R_VertBase, R_T0, R_T1, R_T2), GteDelay_ nop2,
gte_cmdw_rotate_translate_perspective_triple, // 2 nops retire the final cpu -> gte writes before RTPT
gte_cmdw_nclip,
/* Culling (Branch forward if Backface) */
gte_mv_from_data_r(R_T0, C2_MAC0), GteDelay_ load_word(R_AtomJmp, R_TapePtr, 0), // ac_yield: word 1
branch_le_zero(R_T0, atom_offset(culling, floor_f3_face_exit)), BdSlot_ add_ui_self(R_TapePtr, S_(MipsCode)), // ac_yield: word 2
/* Format Primitive */
mac_gte_store_f3(R_PrimCursor),
/* Calculate Depth */
gte_avg_sort_z3,
gte_mv_from_data_r(R_T1, C2_OTZ),
/* Bounds Check OTZ < 2048 (Branch forward to skip insertion) */
add_ui( R_AT, R_0, OrderingTbl_Len),
set_lt_u( R_AT, R_T1, R_AT),
branch_equal(R_AT, R_0, atom_offset(bounds_chk, floor_f3_face_exit)), BdSlot_ nop,
mac_format_f3_color(R_PrimCursor, 0xFF, 0xFF, 0xFF), // RGB-form (R=FF, G=FF, B=FF = white)
mac_insert_ot_tag(R_OtBase, R_PrimCursor, S_(Poly_F3)), /* Insert into Ordering Table Linked List */
add_ui_self(R_PrimCursor, S_(Poly_F3)), /* Advance Prim Cursor (5 words) */
// Note(Ed): No bounds checking, should be checked before atom runs.
// end: branch(bounds_chk)
// end: branch(culling)
/* Advance Input Cursor & Yield (Both branch targets land here) */
atom_label(floor_f3_face_exit)
add_ui_self(R_FaceCursor, S_(S2) * 4), /* Advance Face Cursor (4 * S2 = 8 bytes) */
jump_reg(R_AtomJmp), BdSlot_ nop // ac_yield: word 3-4
};
typedef Struct_(Binds_SyncPrimitiveArena) { U4 used; U4 cursor; };
internal MipsAtom_(sync_primitive_arena) atom_info(atom_bind(Binds_SyncPrimitiveArena)
, atom_reads( R_TapePtr, R_PrimCursor)
, atom_writes(R_TapePtr)
){
load_word(R_AT, R_TapePtr, O_(Binds_SyncPrimitiveArena,used)),
load_word(R_T0, R_TapePtr, O_(Binds_SyncPrimitiveArena,cursor)), LdSlot_
add_ui_self( R_TapePtr, S_(Binds_SyncPrimitiveArena)),
/* Calculate byte offset and store directly back to RAM */
sub_u( R_T0, R_PrimCursor, R_T0), // R_T0 = R_PrimCursor - binds.cursor
store_word(R_T0, R_AT, 0), // R_AT[0] = R_T0
mac_yield()
};
#pragma endregion Baked Atoms
+436
View File
@@ -0,0 +1,436 @@
#pragma region Vendors
#include <stdio.h>
#include <stdlib.h>
// #include <assert.h>
// #include "libgpu.h"
// #include "libetc.h"
// #include "libgte.h"
#pragma endregion Vendors
#pragma region Duffle Headers
# include "duffle/gen/macs.h"
# include "duffle/gen/offsets.h"
#include "duffle/word_count.metadata.h"
#include "duffle/dsl.h"
#include "duffle/memory.h"
#include "duffle/math.h"
#include "duffle/gcc_asm.h"
#include "duffle/mips.h"
#include "duffle/gp.h"
#include "duffle/gte.h"
#include "duffle/pad.h"
#include "duffle/dsl.atom.h"
#include "duffle/lottes_tape.h"
#include "duffle/bios.h"
#include "duffle/psyq.h"
#pragma endregion Duffle Headers
#pragma region Duffle TUs
#include "duffle/pad.c"
#include "duffle/math.atom.h"
#include "duffle/mips.atom.c"
#include "duffle/gte.atom.c"
#include "duffle/gp.atom.c"
#include "duffle/pad.atom.c"
#include "duffle/psyq.atom.c"
#pragma endregion Duffle TUs
#pragma region Hello Camera Headers
# include "gen/macs.h"
# include "gen/offsets.h"
# include "gen/auto_reg.h"
#include "hello_camera.h"
#pragma endregion Hello Camera Headers
#pragma region Hello Joypad TUs
#include "hello_camera.atom.c"
#pragma endregion Hello Joypad TUs
enum {
MemTape_Len = 512,
ResolveLookAtArena_Words = 1024,
ResolveLookAtArena_Size = ResolveLookAtArena_Words * S_(MipsCode),
CT_InitAtomMem_Words = Kilo_(4),
CT_InitAtomMem_Size = CT_InitAtomMem_Words * S_(MipsCode),
};
typedef Struct_(SMemory) {
PrimitiveArena primitives;
A2_OrderingTable_Buffer ordering_tbl;
DoubleBuffer screen_buf;
S4 active_buf_id;
U4 MemTape[MemTape_Len];
MT3_S2S4 tform_world;
MT3_S2S4 tform_view;
Camera cam;
Ent_Cube cube;
Ent_Floor floor;
PadBiosRaw pad_raw[2];
PadState pad[2];
U1 ct_init_atom_mem[CT_InitAtomMem_Size];
MipsAtom* normalize_v3s4;
MipsAtom* gte_cross_v3s4;
U1 resolve_look_at_mem[ResolveLookAtArena_Size];
MipsAtom* resolve_look_at_bundle[AtomBundle_Len(resolve_look_at)];
};
global SMemory smem;
extern SMemory smem;
#define pad0_btn_(btn) btn & smem.pad[0].buttons
#define pad1_btn_(btn) btn & smem.pad[1].buttons
I_ B1* prim__alloc(U4 type_width, Str8 type_name) {
gknown PrimitiveArena* pa = & smem.primitives;
gknown B1* buf = (B1*) r_(smem.primitives.buf)[smem.active_buf_id];
assert(pa->used + type_width < PrimitiveBuff_Len);
B1* next = buf + pa->used;
pa->used += type_width;
return next;
}
#define prim_alloc(type) (type*)prim__alloc(S_(type), slit( stringify(type)))
I_ void resolve_look_at_c11(MT3_S2S4* look_at, P3_S4* eye, P3_S4* target, V3_S4* up_in) {
// RGA(Lengyel): Build matrix expansion of a rigid transformation. Corresponding motor is not constructed; we write the LA form for GTE.
// Preconditions: eye != target, up_in not collinear with (target - eye).
V3_S4 right, up, forward;
V3_S4 ux, uy, uz;
V3_S4 pos, off;
forward = target[0]; sub_v3s4(& forward, eye[0]); // RGA(Lengyel): Affine point - point = zero-weight direction.
psy_normalize_v3s4(& forward, & uz); // RGA(Lengyel): Normalize the direction bulk. Not finite-point unitization.
cross_v3s4(& uz, up_in, & right); psy_normalize_v3s4(& right, & ux); // RGA(Lengyel): Complement(Wedge(forward, up_in)) -> right axis.
cross_v3s4(& uz, & ux, & up); psy_normalize_v3s4(& up, & uy); // RGA(Lengyel): Complement(Wedge(forward, right)) -> up axis.
// RGA(Lengyel): matrix expansion of the world-to-camera rotation (basis rows).
look_at->m[0][0] = ux.x; look_at->m[0][1] = ux.y; look_at->m[0][2] = ux.z;
look_at->m[1][0] = uy.x; look_at->m[1][1] = uy.y; look_at->m[1][2] = uy.z;
look_at->m[2][0] = uz.x; look_at->m[2][1] = uz.y; look_at->m[2][2] = uz.z;
pos = eye[0]; mul_v3s4(& pos, v3s4(-1,-1,-1)); // RGA(Lengyel): -eye in world coordinates (spatial bulk only; implicit weight is dropped).
// RGA(Lengyel): R * (-eye) is the full matrix translation column.
// Motor translator would store half this displacement in m.xyz; GTE consumes full column.
mul_m3s2_v3s4(look_at, & pos, & off);
trans_m3s2( look_at, & off);
}
FI_ void camera_look_at_c11(Camera* c, P3_S4* target, V3_S4* up_in) { resolve_look_at_c11(& c->look_at, & c->pos, target, up_in); }
internal void compile_init_atoms(void) {
AtomArena ab = atomarena_make(slice_ut_arr(smem.ct_init_atom_mem));
RegFile rf = regfile(regfile_abi_mask);
#define ralloc() regfile_alloc(& rf)
#define ralloc_v3() { ralloc(), ralloc(), ralloc() }
smem.gte_cross_v3s4 = gte_cross_v3s4(& ab,
RegUse_(gte_cross_v3s4) {
.a = ralloc_v3(),
.b = ralloc_v3(),
.x = ralloc(),
.y = ralloc(),
.z = ralloc(),
});
regfile_reset(& rf);
smem.normalize_v3s4 = normalize_v3s4(& ab,
RegUse_(normalize_v3s4) {
.res = ralloc_v3(),
.r0 = ralloc(),
.r1 = ralloc(),
.r2 = ralloc(),
.r3 = ralloc(),
.r4 = ralloc(),
.r5 = ralloc(),
});
regfile_reset(& rf);
assert(ab.used <= CT_InitAtomMem_Size);
#undef ralloc
#undef ralloc_v3
}
internal void compile_resolve_look_at(void) {
AtomBundle_resolve_look_at_R bundle = C_(void*, smem.resolve_look_at_bundle);
AtomArena ab = atomarena_make(slice_ut_arr(smem.resolve_look_at_mem));
RegFile rf = regfile(regfile_abi_mask);
#define ralloc() regfile_alloc(& rf)
#define ralloc_v3() { ralloc(), ralloc(), ralloc() }
bundle->input_and_sub = AtomBundleEntry_(resolve_look_at, input_and_sub)(& ab,
RegUse_(resolve_look_at_input_and_sub) {
.target_ptr = ralloc(),
.eye_ptr = ralloc(),
.up_in_ptr = ralloc(),
.up_in = ralloc_v3(),
.r012 = ralloc_v3(),
.r345 = {ralloc(), R_AT, ralloc() },
});
regfile_reset(& rf);
bundle->normalize_fwd_uz = smem.normalize_v3s4;
bundle->cross_to_right = smem.gte_cross_v3s4;
bundle->normalize_right_ux = smem.normalize_v3s4;
bundle->cross_to_up = smem.gte_cross_v3s4;
bundle->normalize_up_uy = smem.normalize_v3s4;
bundle->populate_mt3s4s2 = AtomBundleEntry_(resolve_look_at,populate_mt3s4s2)(& ab,
RegUse_(resolve_look_at_populate_mt3s4s2){
.look_at = ralloc(),
.eye = ralloc(),
.row = ralloc_v3(),
.r0 = ralloc(),
.r1 = ralloc(),
.r2 = ralloc(),
});
assert(ab.used <= ResolveLookAtArena_Size); // Sanity check: arena didn't overflow.
#undef ralloc
}
// Emit the resolve_look_at bundle into the tape. Called once per frame from update().
I_ void resolve_look_at(TapeBuilder_R tb, MT3_S2S4* look_at, P3_S4* eye, P3_S4* target, V3_S4* up_in) {
/* Typed view of the scratchpad for field-address arithmetic. */
ResolveLookAtScratch* sp = C_scratch(ResolveLookAtScratch*);
AtomBundle_resolve_look_at_R bundle = C_(void*, smem.resolve_look_at_bundle);
tb_emit(tb, bundle->input_and_sub); tb_bind_(tb, Binds_ResolveLookAtSub,
.target = target,
.eye = eye,
.up_in = up_in,
);
tb_emit(tb, bundle->normalize_fwd_uz); tb_bind_(tb, Binds_normalize_v3s4,
.src_offset = O_(ResolveLookAtScratch,fwd),
.dst_offset = O_(ResolveLookAtScratch,uz),
);
tb_emit(tb, bundle->cross_to_right); tb_bind_(tb, Binds_gte_cross_v3s4,
.src_a = & sp->uz,
.src_b = & sp->up_in,
.out = & sp->right,
);
tb_emit(tb, bundle->normalize_right_ux); tb_bind_(tb, Binds_normalize_v3s4,
.src_offset = O_(ResolveLookAtScratch,right),
.dst_offset = O_(ResolveLookAtScratch,ux),
);
tb_emit(tb, bundle->cross_to_up); tb_bind_(tb, Binds_gte_cross_v3s4,
.src_a = & sp->uz,
.src_b = & sp->ux,
.out = & sp->up,
);
tb_emit(tb, bundle->normalize_up_uy); tb_bind_(tb, Binds_normalize_v3s4,
.src_offset = O_(ResolveLookAtScratch,up),
.dst_offset = O_(ResolveLookAtScratch,uy),
);
tb_emit(tb, bundle->populate_mt3s4s2); tb_bind_(tb, Binds_ResolveLookAt_PopulateMT3S4S2,
.look_at = look_at,
);
}
FI_ void camera_look_at(TapeBuilder_R tb, Camera* c, P3_S4* target, V3_S4* up_in) { resolve_look_at(tb, & c->look_at, & c->pos, target, up_in); }
void update(PrimitiveArena* pa, U4* ordering_buf)
{
TapeBuilder tb = tb_make(slice_ut_arr(smem.MemTape));
// Pad Input
{
tb.used = 0; tb_scope_run(& tb) {
// Grab latest state from bios.
tb_emit_(pad_bios_snapshot);
tb_data(& tb, u4_(& smem.pad_raw[0]));
tb_data(& tb, u4_(& smem.pad[0]));
// tb_emit_(pad_bios_snapshot);
// tb_data_(raw, & smem.pad_raw[1]);
// tb_data_(state, & smem.pad[1]);
tb_emit_(pad_input_cam);
tb_data(& tb, u4_(& smem.pad[0]));
tb_data(& tb, u4_(& smem.cam));
// tb_emit_(pad_input_cube_rotation);
// tb_data_(state, & smem.pad[0]);
// tb_data_(cube_rot, & smem.cube.rot);
// tb_data_(floor_rot, & smem.floor.rot);
}
}
orderingtbl_clear_reverse(ordering_buf, OrderingTbl_Len);
// Update the position based on acceleration and velocity
gknown V3_S4_R pos = & smem.cube.pos;
gknown V3_S4_R vel = & smem.cube.vel;
gknown V3_S4_R acc = & smem.cube.accel;
add_v3s4(vel, acc[0]);
add_v3s4_fp(pos, vel[0]);
if (pos->y + 150 > smem.floor.pos.y) vel->y *= -1;
// Prep
S4 nclip = 0;
S4 orderingtbl_z = 0;
A2_S2 p; //???
S4 flag; //????
B4 use_c11_path = false;
if (use_c11_path) {
camera_look_at_c11(& smem.cam, & smem.cube.pos, & v3s4(0, -fp_one, 0));
}
if (use_c11_path == false)
{
tb.used = 0; tb_scope_run(& tb) {
camera_look_at(& tb, & smem.cam, & smem.cube.pos, & v3s4(0, -fp_one, 0));
}
}
// Draw cube
if (1)
{
mt3s2s4_rotation (& smem.cube.rot, & smem.tform_world);
mt3s2s4_translation(& smem.tform_world, & smem.cube.pos);
mt3s2s4_scale (& smem.tform_world, & smem.cube.scale);
// Combine world and look_at matrix.
gte_comp_coord_m3s2(& smem.cam.look_at, & smem.tform_world, & smem.tform_view);
gte_matrix_set_rotation (& smem.tform_view);
gte_matrix_set_translation(& smem.tform_view);
U4 prim_base = u4_(pa->buf[smem.active_buf_id]);
U4 prim_cursor = prim_base + pa->used;
tb.used = 0; tb_scope(& tb) {
tb_emit(& tb, rbind_cube_g4_face);
tb_data(& tb, prim_cursor);
tb_data(& tb, u4_(smem.cube.faces));
tb_data(& tb, u4_(smem.cube.verts));
tb_data(& tb, u4_(ordering_buf));
for (U4 i = 0; i < Cube_num_faces; i++) {
// Two triangles per quad face: (x,y,z) and (x,z,w)
tb_emit(& tb, cube_g4_face);
}
tb_emit(& tb, sync_primitive_arena);
tb_data(& tb, u4_(& pa->used));
tb_data(& tb, prim_base);
}
tape_run(tb_slice(tb));// Fire off the tape (bigger-clobber variant).
// smem.cube.rot.y += 30;
}
// Draw floor
if (1)
{
mt3s2s4_rotation (& smem.floor.rot, & smem.tform_world);
mt3s2s4_translation(& smem.tform_world, & smem.floor.pos);
mt3s2s4_scale (& smem.tform_world, & smem.floor.scale);
// Combine world and look_at matrix.
gte_comp_coord_m3s2(& smem.cam.look_at, & smem.tform_world, & smem.tform_view);
gte_matrix_set_rotation (& smem.tform_view);
gte_matrix_set_translation(& smem.tform_view);
U4 prim_base = u4_(pa->buf[smem.active_buf_id]);
U4 prim_cursor = prim_base + pa->used;
// TODO(Ed): We should do a bounds check beforehand to confirm pa can hold all tris?
// The tape atoms in-flight should not need to care.
// Prepare the tape. (Push protocol to tape)
tb.used = 0; tb_scope(& tb) {
// tb_emit(& tb, set_gte_mt3s2s4);
// tb_data(& tb, u4_(& smem.tform_view));
tb_emit(& tb, rbind_floor_f3_face);
// TODO(Ed): Just use a single context struct ref?
tb_data(& tb, prim_cursor);
tb_data(& tb, u4_(smem.floor.faces));
tb_data(& tb, u4_(smem.floor.verts));
tb_data(& tb, u4_(ordering_buf));
for (U4 i = 0; i < Floor_num_faces; i++) {
tb_emit(& tb, floor_f3_face);
}
// After floor_f3_face iterations complete, the primitive arena's used counter needs updating.
tb_emit(& tb, sync_primitive_arena);
tb_data(& tb, u4_(& pa->used));
tb_data(& tb, prim_base);
}
tape_run(tb_slice(tb));// Fire off the tape (bigger-clobber variant).
// C-side state (pa->used) has already been updated by the tape!
// smem.floor.rot.y += 5;
}
}
void render(void) {
}
void gp_display_frame(DoubleBuffer* screen_buf, S4* active_buf_id, U4* ordering_buf, PrimitiveArena* pa) {
draw_sync(0);
vsync(0);
displayenv_put(& r_(screen_buf->display)[active_buf_id[0] ]);
drawenv_put (& r_(screen_buf->draw) [active_buf_id[0] ]);
{
draw_orderingtbl(ordering_buf + OrderingTbl_Len - 1);
pa->used = 0;
}
active_buf_id[0] = ! active_buf_id[0]; // Swap current buffer
}
int main(void)
{
smem = (SMemory){0};
// smem.primitives.used = 0;
// smem.active_buf_id = 0;
smem.cam.pos = v3s4(500, -1000, -1500);
/*Persistent Entity Setup*/{
ent_cube128_init(& smem.cube.verts, & smem.cube.faces); {
Ent_Cube* cube = & smem.cube;
cube->rot = v3s2(0, 0, 0);
cube->scale = v3s4_fp_one();
cube->accel = v3s4(0, 1, 0);
cube->pos = v3s4(0, -400, 1800);
}
ent_floor_init(& smem.floor.verts, & smem.floor.faces); {
Ent_Floor* floor = & smem.floor;
floor->rot = v3s2(0, 0, 0);
floor->pos = v3s4(0, 450, 1800);
floor->scale = v3s4_fp_one();
}
}
TapeBuilder tb = tb_make(slice_ut_arr(smem.MemTape)); {
reset_graph(0);
/* Direct BIOS: poll both ports during VBlank. */
pad_bios_init_start(& smem.pad_raw[0], & smem.pad_raw[1]);
compile_init_atoms();
compile_resolve_look_at();
/* Pinned registers for the GPU init atom. */
register U4* io_base_addr rgcc(R_IO_BaseAddr) = u4_r(IO_BASE_ADDR);
register DoubleBuffer* screen_buf rgcc(R_ScreenBuf) = & smem.screen_buf;
tb.used = 0; tb_scope_run(& tb) {
tb_emit(& tb, screen_env_init);
tb_emit(& tb, gp_screen_init);
}
}
while (1) {
gknown S4* active_buf_id = & smem.active_buf_id;
gknown U4* ordering_buf = r_(smem.ordering_tbl)[active_buf_id[0]];
gknown PrimitiveArena* pa = & smem.primitives;
update(pa, ordering_buf);
render();
gp_display_frame(& smem.screen_buf, active_buf_id, ordering_buf, pa);
};
return 0;
}
+102
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#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "duffle/dsl.h"
# include "duffle/math.h"
# include "duffle/gp.h"
# include "duffle/pad.h"
#endif
enum {
// PrimitiveBuff_Len = 4096,
// OrderingTbl_Len = 2048,
PrimitiveBuff_Len = 131072,
OrderingTbl_Len = 8192,
};
enum {
ScreenRes_X = 320,
ScreenRes_Y = 240,
ScreenZ = 320,
ScreenRes_CenterX = (ScreenRes_X >> 1),
ScreenRes_CenterY = (ScreenRes_Y >> 1),
};
typedef U4 OrderingTable_Buffer[OrderingTbl_Len];
typedef Array_(OrderingTable_Buffer, 2);
typedef B1 PrimitiveBuffer[PrimitiveBuff_Len];
typedef Array_(PrimitiveBuffer, 2);
typedef Struct_(PrimitiveArena) {
A2_PrimitiveBuffer buf;
U4 used;
};
#define Cube_num_verts 8
typedef Array_(V3_S2, Cube_num_verts);
#define Cube_num_faces 6
typedef Array_(V4_S2, Cube_num_faces);
I_ void ent_cube128_init(A8_V3_S2* verts, A6_V4_S2* faces) {
LP_ A8_V3_S2 baked_verts = (A8_V3_S2) {
{ -128, -128, -128 },
{ 128, -128, -128 },
{ 128, -128, 128 },
{ -128, -128, 128 },
{ -128, 128, -128 },
{ 128, 128, -128 },
{ 128, 128, 128 },
{ -128, 128, 128 }
};
LP_ A6_V4_S2 baked_faces = (A6_V4_S2) {
{ 3, 2, 0, 1 },
{ 0, 1, 4, 5 },
{ 4, 5, 7, 6 },
{ 1, 2, 5, 6 },
{ 2, 3, 6, 7 },
{ 3, 0, 7, 4 },
};
mem_copy(u4_(verts), u4_(& baked_verts), S_(A8_V3_S2) );
mem_copy(u4_(faces), u4_(& baked_faces), S_(A6_V4_S2) );
return;
}
typedef Struct_(Ent_Cube) {
V3_S4 accel;
V3_S4 vel;
V3_S4 pos; // RGA(Lengyel): affine point with implicit weight one. Storage alias of V3_S4.
V3_S4 scale;
V3_S2 rot;
A8_V3_S2 verts;
A6_V4_S2 faces;
};
#define Floor_num_verts 4
typedef Array_(V3_S2, Floor_num_verts);
#define Floor_num_faces 2
typedef Array_(V3_S2, Floor_num_faces);
I_ void ent_floor_init(A4_V3_S2* verts, A2_V3_S2* faces) {
LP_ A4_V3_S2 baked_verts = (A4_V3_S2) {
{ -900, 0, -900 },
{ -900, 0, 900 },
{ 900, 0, -900 },
{ 900, 0, 900 },
};
LP_ A2_V3_S2 baked_faces = (A2_V3_S2) {
{ 0, 1, 2 },
{ 1, 3, 2 },
};
mem_copy(u4_(verts), u4_(& baked_verts), S_(A4_V3_S2));
mem_copy(u4_(faces), u4_(& baked_faces), S_(A2_V3_S2));
};
typedef Struct_(Ent_Floor) {
V3_S4 accel;
V3_S4 pos; // RGA(Lengyel): affine point with implicit weight one. Storage alias of V3_S4.
V3_S4 scale;
V3_S2 rot;
A4_V3_S2 verts;
A2_V3_S2 faces;
};
typedef Struct_(Camera) {
P3_S4 pos; // RGA(Lengyel): affine point with implicit weight one. Storage alias of V3_S4.
V3_S2 rot;
MT3_S2S4 look_at;
};
+29
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@@ -0,0 +1,29 @@
// Auto-generated by ps1_meta.lua (passes/offsets.lua) — DO NOT EDIT
// Source: C:\projects\Pikuma\ps1\code\gte_hello\hello_gte_tape.c
#pragma once
#pragma region hello_gte_tape
// --- atom: cube_g4_face (77 words) ---
#define _atom_offset_cull_cube_g4_face_exit 42
#define _atom_offset_bounds_chk_cube_g4_face_exit 24
enum {
atom_offset_cull_cube_g4_face_exit = _atom_offset_cull_cube_g4_face_exit,
atom_offset_bounds_chk_cube_g4_face_exit = _atom_offset_bounds_chk_cube_g4_face_exit,
};
// --- atom: floor_f3_face (58 words) ---
#define _atom_offset_culling_floor_f3_face_exit 25
#define _atom_offset_bounds_chk_floor_f3_face_exit 16
enum {
atom_offset_culling_floor_f3_face_exit = _atom_offset_culling_floor_f3_face_exit,
atom_offset_bounds_chk_floor_f3_face_exit = _atom_offset_bounds_chk_floor_f3_face_exit,
};
#pragma endregion hello_gte_tape
+29
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@@ -0,0 +1,29 @@
// Auto-generated by ps1_meta.lua (passes/offsets.lua) — DO NOT EDIT
// Source: C:\projects\Pikuma\ps1\code\hello_gte\hello_gte.tape.c
#pragma once
#pragma region hello_gte.tape
// --- atom: cube_g4_face (77 words) ---
#define _atom_offset_cull_cube_g4_face_exit 42
#define _atom_offset_bounds_chk_cube_g4_face_exit 24
enum {
atom_offset_cull_cube_g4_face_exit = _atom_offset_cull_cube_g4_face_exit,
atom_offset_bounds_chk_cube_g4_face_exit = _atom_offset_bounds_chk_cube_g4_face_exit,
};
// --- atom: floor_f3_face (58 words) ---
#define _atom_offset_culling_floor_f3_face_exit 25
#define _atom_offset_bounds_chk_floor_f3_face_exit 16
enum {
atom_offset_culling_floor_f3_face_exit = _atom_offset_culling_floor_f3_face_exit,
atom_offset_bounds_chk_floor_f3_face_exit = _atom_offset_bounds_chk_floor_f3_face_exit,
};
#pragma endregion hello_gte.tape
+430
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#include <stdio.h>
#include <stdlib.h>
#include <assert.h>
// #include "libgpu.h"
// #include "libetc.h"
// #include "libgte.h"
#include "duffle/dsl.h"
#include "duffle/memory.h"
#include "duffle/math.h"
#include "duffle/gcc_asm.h"
#include "duffle/mips.h"
#include "duffle/gp.h"
#include "duffle/gte.h"
# include "duffle/gen/macs.h"
# include "duffle/gen/offsets.h"
#include "duffle/atom_dsl.h"
#include "duffle/lottes_tape.h"
#include "duffle/word_count.metadata.h"
# include "gen/offsets.h"
#include "hello_gte.h"
#include "hello_gte.tape.c"
typedef U4 OrderingTable_Buffer[OrderingTbl_Len];
typedef Array_(OrderingTable_Buffer, 2);
typedef B1 PrimitiveBuffer[PrimitiveBuff_Len];
typedef Array_(PrimitiveBuffer, 2);
typedef Struct_(PrimitiveArena) {
A2_PrimitiveBuffer buf;
U4 used;
};
#define Cube_num_verts 8
typedef Array_(V3_S2, Cube_num_verts);
#define Cube_num_faces 6
typedef Array_(V4_S2, Cube_num_faces);
I_ void ent_cube128_init(A8_V3_S2* verts, A6_V4_S2* faces) {
LP_ A8_V3_S2 baked_verts = (A8_V3_S2) {
{ -128, -128, -128 },
{ 128, -128, -128 },
{ 128, -128, 128 },
{ -128, -128, 128 },
{ -128, 128, -128 },
{ 128, 128, -128 },
{ 128, 128, 128 },
{ -128, 128, 128 }
};
LP_ A6_V4_S2 baked_faces = (A6_V4_S2) {
{ 3, 2, 0, 1 },
{ 0, 1, 4, 5 },
{ 4, 5, 7, 6 },
{ 1, 2, 5, 6 },
{ 2, 3, 6, 7 },
{ 3, 0, 7, 4 },
};
mem_copy(u4_(verts), u4_(& baked_verts), S_(A8_V3_S2) );
mem_copy(u4_(faces), u4_(& baked_faces), S_(A6_V4_S2) );
return;
}
typedef Struct_(Ent_Cube) {
V3_S4 accel;
V3_S4 vel;
V3_S4 pos;
V3_S4 scale;
V3_S2 rot;
A8_V3_S2 verts;
A6_V4_S2 faces;
};
#define Floor_num_verts 4
typedef Array_(V3_S2, Floor_num_verts);
#define Floor_num_faces 2
typedef Array_(V3_S2, Floor_num_faces);
I_ void ent_floor_init(A4_V3_S2* verts, A2_V3_S2* faces) {
LP_ A4_V3_S2 baked_verts = (A4_V3_S2) {
{ -900, 0, -900 },
{ -900, 0, 900 },
{ 900, 0, -900 },
{ 900, 0, 900 },
};
LP_ A2_V3_S2 baked_faces = (A2_V3_S2) {
{ 0, 1, 2 },
{ 1, 3, 2 },
};
mem_copy(u4_(verts), u4_(& baked_verts), S_(A4_V3_S2));
mem_copy(u4_(faces), u4_(& baked_faces), S_(A2_V3_S2));
};
typedef Struct_(Ent_Floor) {
V3_S4 accel;
V3_S4 pos;
V3_S4 scale;
V3_S2 rot;
A4_V3_S2 verts;
A2_V3_S2 faces;
};
enum {
Scratchpad_Len = 1024,
MemTape_Len = 512,
};
typedef Struct_(SMemory) {
U4 MemTape[MemTape_Len];
DoubleBuffer screen_buf;
A2_OrderingTable_Buffer ordering_tbl;
PrimitiveArena primitives;
S4 active_buf_id;
M3_S2 tform_world;
Ent_Cube cube;
Ent_Floor floor;
U4_V scratchpad; // d-cache
};
global SMemory smem;
extern SMemory smem;
// TODO(Ed):
FI_ U4* spad_warm(Slice_MipsCode atom) {
return nullptr;
}
I_ B1* prim__alloc(U4 type_width, Str8 type_name) {
gknown PrimitiveArena* pa = & smem.primitives;
gknown B1* buf = (B1*) r_(smem.primitives.buf)[smem.active_buf_id];
assert(pa->used + type_width < PrimitiveBuff_Len);
B1* next = buf + pa->used;
pa->used += type_width;
return next;
}
#define prim_alloc(type) (type*)prim__alloc(S_(type), slit( stringify(type)))
void gp_screen_init_c11(DoubleBuffer* screen_buf, S4* active_buf_id)
{
reset_graph(0);
// Set the current initial buffer
active_buf_id[0] = 0;
// Just setting env data, not interacting with console hw.
// First buffer area
displayenv_init(& r_(screen_buf->display)[0], 0, 0, ScreenRes_X, ScreenRes_Y);
drawenv_init (& r_(screen_buf->draw )[0], 0, ScreenRes_Y, ScreenRes_X, ScreenRes_Y);
// Second buffer area
displayenv_init(& r_(screen_buf->display)[1], 0, ScreenRes_Y, ScreenRes_X, ScreenRes_Y);
drawenv_init (& r_(screen_buf->draw )[1], 0, 0, ScreenRes_X, ScreenRes_Y);
// Set the back/drawing buffer
screen_buf->draw[0].enable_auto_clear = true;
screen_buf->draw[1].enable_auto_clear = true;
// Set the background clear color
screen_buf->draw[0].initial_bg_color = rgb8( .r = 7, .g = 7, .b = 7 );
screen_buf->draw[1].initial_bg_color = rgb8( .r = 7, .g = 7, .b = 7 );
// screen_buf->draw[1].initial_bg_color = rgb8( .r = 47, .g = 13, .b = 0 );
displayenv_put(& r_(screen_buf->display)[ active_buf_id[0] ]);
drawenv_put (& r_(screen_buf->draw )[ active_buf_id[0] ]);
// Initialize and setup the GTE geometry offsets
geom_init();
// NOTE: geom_set_offset/geom_set_screen are kept as-is (the libgte versions
// are known to be broken in this PSYQ 4.7 build — see report 2026-07-09).
// The user's research wants the C-side non-tape reference to work as a
// known-good baseline for comparison against the tape.
geom_set_offset(ScreenRes_CenterX, ScreenRes_CenterY);
geom_set_screen(ScreenZ);
set_display_enabled(1); // gp_DisplayEnabled
}
void gp_display_frame(DoubleBuffer* screen_buf, S4* active_buf_id, U4* ordering_buf, PrimitiveArena* pa) {
draw_sync(0);
vsync(0);
displayenv_put(& r_(screen_buf->display)[active_buf_id[0] ]);
drawenv_put (& r_(screen_buf->draw) [active_buf_id[0] ]);
{
draw_orderingtbl(ordering_buf + OrderingTbl_Len - 1);
pa->used = 0;
}
active_buf_id[0] = ! active_buf_id[0]; // Swap current buffer
}
void render(void) {
}
GCC_OPTIMIZATION_DISABLE
void update(PrimitiveArena* pa, U4* ordering_buf)
{
orderingtbl_clear_reverse(ordering_buf, OrderingTbl_Len);
// Update the position based on acceleration and velocity
gknown V3_S4_R pos = & smem.cube.pos;
gknown V3_S4_R vel = & smem.cube.vel;
gknown V3_S4_R acc = & smem.cube.accel;
add_v3s4(vel, acc[0]);
add_v3s4_fp(pos, vel[0]);
// vel->x += acc->x;
// vel->y += acc->y;
// vel->z += acc->z;
// pos->x += vel->x;
// pos->y += vel->y;
// pos->z += vel->z;
if (pos->y + 150 > smem.floor.pos.y) vel->y *= -1;
// Prep
S4 nclip = 0;
S4 orderingtbl_z = 0;
A2_S2 p; //???
S4 flag; //????
TapeBuilder tb = tb_make(slice_ut_arr(smem.MemTape));
// Draw Cube
if (0)
{
m3s2_rotation (& smem.cube.rot, & smem.tform_world);
m3s2_translation(& smem.tform_world, & smem.cube.pos);
m3s2_scale (& smem.tform_world, & smem.cube.scale);
// gte_matrix_set_rotation (& smem.tform_world);
gte_matrix_set_translation(& smem.tform_world);
for (U4 face_id = 0; face_id < Cube_num_faces; face_id += 1)
{
Poly_G4* quad = prim_alloc(Poly_G4); set_poly_g4(quad);
quad->c0 = rgb8(255, 0, 255);
quad->c1 = rgb8(255, 255, 0);
quad->c2 = rgb8( 0, 255, 255);
quad->c3 = rgb8( 0, 255, 0);
V4_S2* face = & smem.cube.faces[face_id];
V3_S2* p0 = & smem.cube.verts[face->x];
V3_S2* p1 = & smem.cube.verts[face->y];
V3_S2* p2 = & smem.cube.verts[face->z];
V3_S2* p3 = & smem.cube.verts[face->w];
nclip = rtp_avg_nclip_a4_v3s2(
p0, p1, p2, p3,
& quad->p0, & quad->p1, & quad->p2, & quad->p3,
& p, & orderingtbl_z, & flag
);
if (nclip <= 0) {
continue;
}
if ((orderingtbl_z > 0) && (orderingtbl_z < OrderingTbl_Len)) {
orderingtbl_add_primitive(ordering_buf[orderingtbl_z], quad);
}
}
// smem.cube.rot.x += 6;
// smem.cube.rot.y += 8;
// smem.cube.rot.z += 12;
smem.cube.rot.y += 30;
}
// Draw cube (tape method) - two triangles per face
if (1)
{
m3s2_rotation (& smem.cube.rot, & smem.tform_world);
m3s2_translation(& smem.tform_world, & smem.cube.pos);
m3s2_scale (& smem.tform_world, & smem.cube.scale);
gte_matrix_set_rotation (& smem.tform_world);
gte_matrix_set_translation(& smem.tform_world);
U4 prim_base = u4_(pa->buf[smem.active_buf_id]);
U4 prim_cursor = prim_base + pa->used;
tb.used = 0; tb_scope(& tb) {
tb_emit(& tb, rbind_cube_g4_face);
tb_data(& tb, prim_cursor);
tb_data(& tb, u4_(smem.cube.faces));
tb_data(& tb, u4_(smem.cube.verts));
tb_data(& tb, u4_(ordering_buf));
for (U4 i = 0; i < Cube_num_faces; i++) {
// Two triangles per quad face: (x,y,z) and (x,z,w)
tb_emit(& tb, cube_g4_face);
}
tb_emit(& tb, sync_primitive_arena);
tb_data(& tb, u4_(& pa->used));
tb_data(& tb, prim_base);
}
tape_run(tb_slice(tb));
smem.cube.rot.y += 30;
}
// Draw Floor
if (0)
{
m3s2_rotation (& smem.floor.rot, & smem.tform_world);
m3s2_translation(& smem.tform_world, & smem.floor.pos);
m3s2_scale (& smem.tform_world, & smem.floor.scale);
gte_matrix_set_rotation (& smem.tform_world);
gte_matrix_set_translation(& smem.tform_world);
for (U4 face_id = 0; face_id < Floor_num_faces; face_id += 1)
{
Poly_F3* tri = prim_alloc(Poly_F3); set_poly_f3(tri);
tri->color = rgb8(255, 255, 255);
V3_S2* face = & smem.floor.faces[face_id];
register V3_S2* p0 rgcc(R_T4) = & smem.floor.verts[face->x];
register V3_S2* p1 rgcc(R_T5) = & smem.floor.verts[face->y];
register V3_S2* p2 rgcc(R_T6) = & smem.floor.verts[face->z];
gte_load_v0(p0, R_T4);
/*
asm volatile( ".word " "%0" ", %1" : :
"i"(((op_lwc2 & OPCODE_MASK) << OPCODE_SHIFT) | ((R_T4 & REG_MASK) << RS_SHIFT) | ((gte_in_v0_xy & REG_MASK) << RT_SHIFT) | (0 & IMM_MASK)),
"i"(((op_lwc2 & OPCODE_MASK) << OPCODE_SHIFT) | ((R_T4 & REG_MASK) << RS_SHIFT) | ((gte_in_v0_z & REG_MASK) << RT_SHIFT) | (GTE_Z_Offset & IMM_MASK)),
"r"(p0) :
"$2", "$8", "$9", "$31", "memory"
);
*/
gte_load_v1(p1, R_T5);
gte_load_v2(p2, R_T6);
gte_rtpt();
gte_nclip();
gte_stotz(& nclip);
// nclip = rtp_avg_nclip_a3_v3s2(p0, p1, p2
// , & tri->p0, & tri->p1, & tri->p2
// , & p, & orderingtbl_z, & flag
// );
// if (nclip <= 0) {
// continue;
// }
if (nclip > 0 ) {
gte_stsxy3(& tri->p0, & tri->p1, & tri->p2);
gte_avsz3();
gte_stotz(& orderingtbl_z);
if ((orderingtbl_z > 0) && (orderingtbl_z < OrderingTbl_Len)) {
orderingtbl_add_primitive(ordering_buf[orderingtbl_z], tri);
}
}
}
smem.floor.rot.y += 5;
}
// Draw floor tape method
if (1)
{
m3s2_rotation (& smem.floor.rot, & smem.tform_world);
m3s2_translation(& smem.tform_world, & smem.floor.pos);
m3s2_scale (& smem.tform_world, & smem.floor.scale);
U4 prim_base = u4_(pa->buf[smem.active_buf_id]);
U4 prim_cursor = prim_base + pa->used;
// TODO(Ed): We should do a bounds check beforehand to confirm pa can hold all tris?
// The tape atoms in-flight should not need to care.
// Prepare the tape. (Push protocol to tape)
tb.used = 0; tb_scope(& tb) {
tb_emit(& tb, set_gte_world);
tb_data(& tb, u4_(& smem.tform_world));
tb_emit(& tb, rbind_floor_f3_face);
// TODO(Ed): Just use a single context struct ref
tb_data(& tb, prim_cursor);
tb_data(& tb, u4_(smem.floor.faces));
tb_data(& tb, u4_(smem.floor.verts));
tb_data(& tb, u4_(ordering_buf));
for (U4 i = 0; i < Floor_num_faces; i++) {
tb_emit(& tb, floor_f3_face);
}
// After floor_f3_face iterations complete, the primitive arena's used counter needs updating.
tb_emit(& tb, sync_primitive_arena);
tb_data(& tb, u4_(& pa->used));
tb_data(& tb, prim_base);
}
tape_run(tb_slice(tb));// Fire off the tape.
// C-side state (pa->used) has already been updated by the tape!
smem.floor.rot.y += 5;
}
// --- TAPE DIAGNOSTICS ---
if (0)
{
LP_ U4 mem_temp_tape[512]; FArena tape_arena; farena_init(& tape_arena, slice_ut_arr(mem_temp_tape));
TapeBuilder tb = tb_make_old(& tape_arena); tb_scope(& tb) {
// Skip set_gte_world atom for diagnostics to isolate the triangle loop
for (U4 i = 0; i < Floor_num_faces; i++) {
// tb_emit(& tb, code_diag_yield);
// tb_emit(& tb, code_diag_color);
// tb_emit(& tb, code_diag_gte);
}
}
B1* prim_cursor = (B1*)r_(pa->buf)[smem.active_buf_id] + pa->used;
tape_run(tb_slice(tb));
pa->used = (U4)prim_cursor - (U4)r_(pa->buf)[smem.active_buf_id];
}
}
GCC_OPTIMIZATION_ENABLE
int main(void)
{
smem = (SMemory){0};
smem.scratchpad = C_(U4_V, 0x1F800000);
smem.primitives.used = 0;
ent_cube128_init(& smem.cube.verts, & smem.cube.faces); {
Ent_Cube* cube = & smem.cube;
cube->rot = v3s2(0, 0, 0);
// cube->pos = v3s4(0, 0, 900);
cube->scale = v3s4_fp_one();
cube->accel = v3s4(0, 1, 0);
cube->pos = v3s4(0, -400, 1800);
}
ent_floor_init(& smem.floor.verts, & smem.floor.faces); {
Ent_Floor* floor = & smem.floor;
floor->rot = v3s2(0, 0, 0);
floor->pos = v3s4(0, 450, 1800);
floor->scale = v3s4_fp_one();
}
// gknown gp_screen_init();
gp_screen_init_c11(& smem.screen_buf, & smem.active_buf_id);
while (1) {
gknown S4* active_buf_id = & smem.active_buf_id;
gknown U4* ordering_buf = r_(smem.ordering_tbl)[active_buf_id[0]];
gknown PrimitiveArena* pa = & smem.primitives;
update(pa, ordering_buf);
render();
gp_display_frame(& smem.screen_buf, active_buf_id, ordering_buf, pa);
};
return 0;
}
@@ -5,6 +5,11 @@
# include "duffle/gp.h"
#endif
enum {
PrimitiveBuff_Len = 4096,
OrderingTbl_Len = 2048
};
typedef Struct_(DrawEnv_Packed) { U4 tag; U4 code[15]; };
typedef Struct_(DrawEnv) {
Rect_S2 clip_area;
@@ -58,98 +63,6 @@ U4 vsync(U4 mode) __asm__("VSync");
void draw_orderingtbl(U4* buf) __asm__("DrawOTag");
typedef Struct_(PolyTag) {
U4 addr: 24;
U4 len: 8;
RGB8 color;
B1 code;
};
/*
* Primitive Handling Macros
*/
#define set_len( p, _len) (((PolyTag*R_)(p))->len = (B1)(_len))
#define set_addr(p, _addr) (((PolyTag*R_)(p))->addr = (U4)(_addr))
#define set_code(p, _code) (((PolyTag*R_)(p))->code = (B1)(_code))
#define get_len(p) (B1)(((PolyTag*R_)(p))->len)
#define get_code(p) (B1)(((PolyTag*R_)(p))->code)
#define get_addr(p) (U4)(((PolyTag*R_)(p))->addr)
#define orderingtbl_add_primitive(ot, p) set_addr(p, get_addr(ot)), set_addr(ot, p)
#define orderingtbl_add_primitives(ot, p0, p1) set_addr(p1, get_addr(ot)), set_addr(ot, p0)
/* Primitive Length Code */
#define set_poly_f3(p) set_len(p, 4), set_code(p, 0x20)
#define set_poly_ft3(p) set_len(p, 7), set_code(p, 0x24)
#define set_poly_g3(p) set_len(p, 6), set_code(p, 0x30)
#define set_poly_gt3(p) set_len(p, 9), set_code(p, 0x34)
#define set_poly_f4(p) set_len(p, 5), set_code(p, 0x28)
#define set_poly_ft4(p) set_len(p, 9), set_code(p, 0x2c)
#define set_poly_g4(p) set_len(p, 8), set_code(p, 0x38)
#define set_poly_gt4(p) set_len(p, 12), set_code(p, 0x3c)
// #define setSprt8(p) setlen(p, 3), setcode(p, 0x74)
// #define setSprt16(p) setlen(p, 3), setcode(p, 0x7c)
// #define setSprt(p) setlen(p, 4), setcode(p, 0x64)
// #define setTile1(p) set_len(p, 2), set_code(p, 0x68)
// #define setTile8(p) set_len(p, 2), set_code(p, 0x70)
// #define setTile16(p) set_len(p, 2), set_code(p, 0x78)
#define set_tile(p) set_len(p, 3), set_code(p, 0x60)
// #define setLineF2(p) set_len(p, 3), set_code(p, 0x40)
// #define setLineG2(p) set_len(p, 4), set_code(p, 0x50)
// #define setLineF3(p) set_len(p, 5), set_code(p, 0x48),(p)->pad = 0x55555555
// #define setLineG3(p) set_len(p, 7), set_code(p, 0x58),(p)->pad = 0x55555555, (p)->p2 = 0
// #define setLineF4(p) set_len(p, 6), set_code(p, 0x4c),(p)->pad = 0x55555555
// #define setLineG4(p) set_len(p, 9), set_code(p, 0x5c),(p)->pad = 0x55555555, (p)->p2 = 0, (p)->p3 = 0
typedef Struct_(Poly_F3) {
U4 tag;
RGB8 color;
B1 code;
union {
struct {
V2_S2 p0;
V2_S2 p1;
V2_S2 p2;
};
A3_V2_S2 points;
};
};
typedef Struct_(Poly_G3) {
U4 tag; RGB8 c0; B1 code;
V2_S2 p0; RGB8 c1; B1 pad1;
V2_S2 p1; RGB8 c2; B1 pad2;
V2_S2 p2;
};
typedef Struct_(Poly_F4) {
U4 tag;
RGB8 color;
B1 code;
union {
struct {
V2_S2 p0;
V2_S2 p1;
V2_S2 p2;
V2_S2 p3;
};
A4_V2_S2 points;
};
};
typedef Struct_(Poly_G4) {
U4 tag; RGB8 c0; B1 code;
V2_S2 p0; RGB8 c1; B1 pad1;
V2_S2 p1; RGB8 c2; B1 pad2;
V2_S2 p2; RGB8 c3; B1 pad3;
V2_S2 p3;
};
typedef Struct_(Tile) {
U4 tag;
RGB8 color;
@@ -157,7 +70,6 @@ typedef Struct_(Tile) {
Rect_S2 rect;
};
/*
Linear Algebra
*/
+218
View File
@@ -0,0 +1,218 @@
#ifdef INTELLISENSE_DIRECTIVES
# include "duffle/gen/macs.h"
# include "duffle/gen/offsets.h"
# include "duffle/atom_dsl.h"
# include "duffle/lottes_tape.h"
# include "duffle/word_count.metadata.h"
# include "gen/offsets.h"
# include "hello_gte.h"
#endif
#pragma region MACs (Mips Atom components)
#pragma endregion MACs
#pragma region Baked Atoms
/* DIAGNOSTIC 1: Pure tape loop test */
internal MipsAtom_(diag_yield) { mac_yield() };
/* DIAGNOSTIC 2: Pure memory test (No GTE). Draws a fixed cyan triangle. */
internal MipsAtom_(diag_color) {
store_word( R_0, R_T7, 0),
load_upper_i(R_AT, gp0_cmd_poly_f3 << 8 | 0xFF), /* High: MipsCode Poly_F3(0x20) + Color B:FF */
or_i_self( R_AT, 0xFF00), /* Low: Color G:FF, R:00 (Cyan) */
store_word( R_AT, R_T7, 4),
/* Fake coordinates - Swapped winding order to prevent GPU culling! */
load_upper_i(R_AT, 0x0010), or_i_self(R_AT, 0x0010), store_word(R_AT, R_T7, 8), /* (16, 16) */
load_upper_i(R_AT, 0x0050), or_i_self(R_AT, 0x0010), store_word(R_AT, R_T7, 12), /* (80, 16) */
load_upper_i(R_AT, 0x0010), or_i_self(R_AT, 0x0050), store_word(R_AT, R_T7, 16), /* (16, 80) */
add_ui( R_T1, R_0, 10),
shift_lleft_self(R_T1, S_(U4)/2),
add_u_self( R_T1, R_T6),
load_word( R_AT, R_T1, 0),
load_upper_i(R_V0, (S_(Poly_F3)/S_(U4) - S_(PolyTag)/S_(U4)) << PolyTag_len_bits),
store_word( R_AT, R_T7, 0),
shift_lleft(R_AT, R_T7, S_(PolyTag_len_bits)), shift_lright(R_AT, R_AT, S_(PolyTag_len_bits)),
or_u_self( R_AT, R_V0),
store_word( R_AT, R_T1, 0),
add_ui(R_T7, R_T7, 20),
mac_yield()
};
/* DIAGNOSTIC 3: Pure GTE test (No Memory Writes) */
internal MipsAtom_(diag_gte) {
/* Load 3 indices */
load_half_u(R_T0, R_T4, 0),
load_half_u(R_T1, R_T4, 2),
load_half_u(R_T2, R_T4, 4),
/* Load Vertices into GTE */
shift_lleft( R_AT, R_T0, 3), add_u( R_AT, R_AT, R_T5),
load_word(R_V0, R_AT, 0), load_word(R_V1, R_AT, 4),
gte_mv_to_data_r(R_V0, C2_VXY0), gte_mv_to_data_r(R_V1, C2_VZ0),
shift_lleft( R_AT, R_T1, 3), add_u(R_AT, R_AT, R_T5),
load_word(R_V0, R_AT, 0), load_word(R_V1, R_AT, 4),
gte_mv_to_data_r(R_V0, C2_VXY1), gte_mv_to_data_r(R_V1, C2_VZ1),
shift_lleft(R_AT, R_T2, 3), add_u(R_AT, R_AT, R_T5),
load_word(R_V0, R_AT, 0), load_word(R_V1, R_AT, 4),
gte_mv_to_data_r(R_V0, C2_VXY2), gte_mv_to_data_r(R_V1, C2_VZ2),
/* Run Math */
nop2, gte_cmdw_rtpt,
nop2, gte_cmdw_nclip,
nop2,
/* Advance Face Cursor and Yield */
add_ui(R_T4, R_T4, 8),
mac_yield()
};
typedef Struct_(Binds_CubeTri) {
U4 PrimCursor;
V4_S2* FaceCursor;
V3_S2* VertBase;
U4* OtBase;
};
internal MipsAtom_(rbind_cube_g4_face) atom_info(atom_bind(Binds_CubeTri), atom_phase(cube_g4)
, atom_reads(R_TapePtr)
, atom_writes(R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase)
){
/* Pop 4 arguments from the tape directly into the workspace registers */
load_word(R_PrimCursor, R_TapePtr, O_(Binds_CubeTri,PrimCursor)),
load_word(R_FaceCursor, R_TapePtr, O_(Binds_CubeTri,FaceCursor)),
load_word(R_VertBase, R_TapePtr, O_(Binds_CubeTri,VertBase)),
load_word(R_OtBase, R_TapePtr, O_(Binds_CubeTri,OtBase)),
add_ui_self( R_TapePtr, S_(Binds_CubeTri)),
mac_yield()
};
// cube_g4_face — Draw one cube face (Gouraud-shaded quad) via the GTE tape pipeline
internal
MipsAtom_(cube_g4_face) atom_info(atom_phase(cube_g4),
atom_reads( R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase),
atom_writes(R_PrimCursor, R_FaceCursor)
){
load_half_u(R_T0, R_FaceCursor, 0 * S_(S2)),
load_half_u(R_T1, R_FaceCursor, 1 * S_(S2)),
load_half_u(R_T2, R_FaceCursor, 2 * S_(S2)),
load_half_u(R_T3, R_FaceCursor, 3 * S_(S2)),
mac_gte_load_tri_verts(R_T0, R_T1, R_T2),
nop2, gte_cmdw_rotate_translate_perspective_triple, // required cpu -> gte delay slot
gte_cmdw_nclip,
gte_mv_from_data_r(R_T0, C2_MAC0), nop,
branch_le_zero(R_T0, atom_offset(cull, cube_g4_face_exit)), nop,
store_word(R_0, R_PrimCursor, O_(Poly_G4, tag)),
shift_lleft(R_AT, R_T3, v3s2_byteoff), add_u(R_AT, R_AT, R_VertBase),
load_word(R_V0, R_AT, O_(V3_S2, x)), load_word(R_V1, R_AT, O_(V3_S2, z)),
gte_mv_to_data_r(R_V0, C2_VXY0), gte_mv_to_data_r(R_V1, C2_VZ0),
mac_gte_store_g4_p012(),
gte_cmdw_rotate_translate_perspective_single,
mac_gte_store_g4_p3(),
gte_cmdw_avg_sort_z4,
gte_mv_from_data_r(R_T1, C2_OTZ),
add_ui( R_AT, R_0, OrderingTbl_Len),
set_lt_u( R_AT, R_T1, R_AT),
branch_equal(R_AT, R_0, atom_offset(bounds_chk, cube_g4_face_exit)), nop,
mac_insert_ot_tag_g4(),
mac_format_g4_color(
/* c0 magenta */ 0xFF, 0x00, 0xFF,
/* c1 yellow */ 0xFF, 0xFF, 0x00,
/* c2 cyan */ 0x00, 0xFF, 0xFF,
/* c3 green */ 0x00, 0xFF, 0x00),
// end: branch(bounds_chk)
// end: branch(cull)
atom_label(cube_g4_face_exit)
add_ui_self(R_PrimCursor, S_(Poly_G4)), /* 9 words = Poly_G4 */
add_ui_self(R_FaceCursor, S_(S2) * 4), /* 4 × S2 = 8 bytes */
mac_yield()
};
typedef Struct_(Binds_FloorTri) {
U4 PrimCursor;
V3_S2* FaceCursor;
V3_S2* VertBase;
U4* OtBase;
};
internal
MipsAtom_(rbind_floor_f3_face) atom_info(atom_bind(Binds_FloorTri), atom_phase(floor_f3)
, atom_reads(R_TapePtr)
, atom_writes(R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase)
){
/* Pop 4 arguments from the tape directly into the workspace registers */
load_word(R_PrimCursor, R_TapePtr, O_(Binds_FloorTri,PrimCursor)),
load_word(R_FaceCursor, R_TapePtr, O_(Binds_FloorTri,FaceCursor)),
load_word(R_VertBase, R_TapePtr, O_(Binds_FloorTri,VertBase)),
load_word(R_OtBase, R_TapePtr, O_(Binds_FloorTri,OtBase)),
add_ui_self( R_TapePtr, S_(Binds_FloorTri)),
mac_yield()
};
// atom_dbg_skip
internal
MipsAtom_(floor_f3_face) atom_info(atom_phase(floor_f3)
, atom_reads( R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase)
, atom_writes(R_PrimCursor, R_FaceCursor)
) {
mac_load_tri_indices( R_T0, R_T1, R_T2),
mac_gte_load_tri_verts(R_T0, R_T1, R_T2),
nop2, gte_cmdw_rotate_translate_perspective_triple, // 2 nops retire the final cpu -> gte writes before RTPT
gte_cmdw_nclip,
/* Culling (Branch forward if Backface) */
gte_mv_from_data_r(R_T0, C2_MAC0),
nop, branch_le_zero(R_T0, atom_offset(culling, floor_f3_face_exit)), nop, // required gte -> cpu load-delay slot.
/* Format Primitive */
mac_gte_store_f3(),
/* Calculate Depth */
gte_avg_sort_z3,
gte_mv_from_data_r(R_T1, C2_OTZ),
/* Bounds Check OTZ < OrderingTbl_Len (Branch forward to skip insertion) */
add_ui( R_AT, R_0, OrderingTbl_Len),
set_lt_u( R_AT, R_T1, R_AT),
branch_equal(R_AT, R_0, atom_offset(bounds_chk, floor_f3_face_exit)), nop,
mac_format_f3_color(0xFF, 0xFF, 0xFF), // RGB-form (R=FF, G=FF, B=FF = white)
mac_insert_ot_tag_f3(), /* Insert into Ordering Table Linked List */
add_ui_self(R_PrimCursor, S_(Poly_F3)), /* Advance Prim Cursor (5 words) */
// Note(Ed): No bounds checking, should be checked before atom runs.
// end: branch(bounds_chk)
// end: branch(culling)
/* Advance Input Cursor & Yield (Both branch targets land here) */
atom_label(floor_f3_face_exit)
add_ui_self(R_FaceCursor, S_(S2) * 4), /* Advance Face Cursor (4 * S2 = 8 bytes) */
mac_yield()
};
typedef Struct_(Binds_SyncPrimitiveArena) { U4 used; U4 cursor; };
internal MipsAtom_(sync_primitive_arena) atom_info(atom_bind(Binds_SyncPrimitiveArena)
, atom_reads( R_TapePtr, R_PrimCursor)
, atom_writes(R_TapePtr)
){
load_word(R_AT, R_TapePtr, O_(Binds_SyncPrimitiveArena,used)),
load_word(R_T0, R_TapePtr, O_(Binds_SyncPrimitiveArena,cursor)),
add_ui_self( R_TapePtr, S_(Binds_SyncPrimitiveArena)),
/* Calculate byte offset and store directly back to RAM */
sub_u( R_T0, R_PrimCursor, R_T0), // R_T0 = R_PrimCursor - binds.cursor
store_word(R_T0, R_AT, 0), // R_AT[0] = R_T0
mac_yield()
};
#pragma endregion Baked Atoms
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#ifdef INTELLISENSE_DIRECTIVES
#pragma once
#endif
// Auto-generated by ps1_meta.lua — DO NOT EDIT
// Directory: C:\projects\Pikuma\ps1\code\hello_joypad/
// source: C:\projects\Pikuma\ps1\code\hello_joypad\hello_joypad.c
// source: C:\projects\Pikuma\ps1\code\hello_joypad\hello_joypad.h
// source: C:\projects\Pikuma\ps1\code\hello_joypad\hello_joypad.atom.c
// Component atoms (MipsAtomComp_(ac_*)) -> macro variants (mac_*)
#ifndef WORD_COUNT
#define WORD_COUNT(name, count) enum { words_##name = (count) };
#endif
#define mac_put_disp_env(reg_transfer, reg_base, port) \
mac_gcmd_push(gp0_word_draw_area_top_left_origin, reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_set_mask_bit(), reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_draw_area_top_left_origin, reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port)
WORD_COUNT(mac_put_disp_env, 5)
#define mac_put_draw_env(reg_transfer, reg_base, port) \
mac_gcmd_push(gp0_dr_env_tag, reg_transfer, reg_base, port) /* tag (length=15 << 24, addr=0) — packet header for the DR_ENV sequence. The GPU needs this to recognize the next 15 words as a DR_ENV packet and trigger the isbg auto-clear. */ \
, mac_gcmd_push(gp0_word_draw_mode_drawing_allowed, reg_transfer, reg_base, port) /* code[0] DrawMode (dfe=1, dtd=0, tpage=0) */ \
, mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port) /* code[1] TextureWindow (tw=(0,0)) */ \
, mac_gcmd_push(enc_gp0_draw_area_tl_word(0, ScreenRes_Y), reg_transfer, reg_base, port) /* code[2] DrawArea top-left (clip.x=0, clip.y=ScreenRes_Y=240) */ \
, mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port) /* code[3] DrawArea bottom-right (clip.x+w=320, clip.y+h=480) */ \
, mac_gcmd_push(gp0_word_set_draw_offset(), reg_transfer, reg_base, port) /* code[4] DrawOffset (ofs=(0,0)) — bare-cmd word; the GPU uses the current state machine. */ \
, mac_gcmd_push(gp0_word_dr_env_mask(), reg_transfer, reg_base, port) /* code[5] Mask (dtd=0, dfe=1, isbg=1) — 0xE6 cmd + isbg bit. */ \
, mac_gcmd_push(gp0_word_dr_env_bg_color_cmd(1, 7, 7, 7), reg_transfer, reg_base, port) /* code[6] Initial-bg-color + auto-clear (isbg=1, r=7, g=7, b=7). */ \
, mac_gcmd_push(gp0_word_dr_env_draw_mode(1), reg_transfer, reg_base, port) /* code[7] Re-assert DrawMode with isbg=1 (isbg-flag set; the 0xE1 cmd byte plus isbg only). */ /* code[8..10] Padding (NOP — GPU discards; the DR_ENV requires 16 words total). */ \
, mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port) /* code[11..12] TextureWindow bottom-right (tw.x+tw.w=0, tw.y+tw.h=0) — libpsyx emits twice. */ \
, mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port) /* code[13..14] Padding (NOP) — completes the 16-word packet. */ \
, mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port) \
, mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port)
WORD_COUNT(mac_put_draw_env, 16)
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// Auto-generated by ps1_meta.lua (passes/offsets.lua) — DO NOT EDIT
// Directory: C:\projects\Pikuma\ps1\code\hello_joypad\
// source: C:\projects\Pikuma\ps1\code\hello_joypad\hello_joypad.c
// source: C:\projects\Pikuma\ps1\code\hello_joypad\hello_joypad.h
// source: C:\projects\Pikuma\ps1\code\hello_joypad\hello_joypad.atom.c
#pragma once
#pragma region hello_joypad
// --- atom: cube_g4_face (76 words) ---
#define _atom_offset_cull_cube_g4_face_exit 41
#define _atom_offset_bounds_chk_cube_g4_face_exit 24
enum {
atom_offset_cull_cube_g4_face_exit = _atom_offset_cull_cube_g4_face_exit,
atom_offset_bounds_chk_cube_g4_face_exit = _atom_offset_bounds_chk_cube_g4_face_exit,
};
// --- atom: floor_f3_face (58 words) ---
#define _atom_offset_culling_floor_f3_face_exit 25
#define _atom_offset_bounds_chk_floor_f3_face_exit 16
enum {
atom_offset_culling_floor_f3_face_exit = _atom_offset_culling_floor_f3_face_exit,
atom_offset_bounds_chk_floor_f3_face_exit = _atom_offset_bounds_chk_floor_f3_face_exit,
};
// --- atom: pad_bios_snapshot (78 words) ---
#define _atom_offset_snap_root_skip_disconnected 8
#define _atom_offset_disconnected_snap_end 61
#define _atom_offset_case_2_id_dispatch 8
#define _atom_offset_pending_snap_end 51
#define _atom_offset_id_dispatch_try_analog_stick 11
#define _atom_offset_id_dispatch_snap_end 38
#define _atom_offset_try_analog_stick_try_analog_pad 12
#define _atom_offset_analog_stick_snap_end 24
#define _atom_offset_try_analog_pad_try_unsupported 11
#define _atom_offset_analog_pad_snap_end 10
enum {
atom_offset_snap_root_skip_disconnected = _atom_offset_snap_root_skip_disconnected,
atom_offset_disconnected_snap_end = _atom_offset_disconnected_snap_end,
atom_offset_case_2_id_dispatch = _atom_offset_case_2_id_dispatch,
atom_offset_pending_snap_end = _atom_offset_pending_snap_end,
atom_offset_id_dispatch_try_analog_stick = _atom_offset_id_dispatch_try_analog_stick,
atom_offset_id_dispatch_snap_end = _atom_offset_id_dispatch_snap_end,
atom_offset_try_analog_stick_try_analog_pad = _atom_offset_try_analog_stick_try_analog_pad,
atom_offset_analog_stick_snap_end = _atom_offset_analog_stick_snap_end,
atom_offset_try_analog_pad_try_unsupported = _atom_offset_try_analog_pad_try_unsupported,
atom_offset_analog_pad_snap_end = _atom_offset_analog_pad_snap_end,
};
// --- atom: pad_apply_input (60 words) ---
#define _atom_offset_dpad_left_exit_dpad_left 6
#define _atom_offset_dpad_right_exit_dpad_right 6
#define _atom_offset_dead_zone_low_check_dead_low_active 8
#define _atom_offset_dead_zone_high_check_dead_high_active 15
#define _atom_offset_dead_zone_skip_exit_stick 24
#define _atom_offset_end_low_exit_stick 12
enum {
atom_offset_dpad_left_exit_dpad_left = _atom_offset_dpad_left_exit_dpad_left,
atom_offset_dpad_right_exit_dpad_right = _atom_offset_dpad_right_exit_dpad_right,
atom_offset_dead_zone_low_check_dead_low_active = _atom_offset_dead_zone_low_check_dead_low_active,
atom_offset_dead_zone_high_check_dead_high_active = _atom_offset_dead_zone_high_check_dead_high_active,
atom_offset_dead_zone_skip_exit_stick = _atom_offset_dead_zone_skip_exit_stick,
atom_offset_end_low_exit_stick = _atom_offset_end_low_exit_stick,
};
#pragma endregion hello_joypad
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#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "duffle/gen/macs.h"
# include "duffle/gen/offsets.h"
# include "duffle/dsl.atom.h"
# include "duffle/lottes_tape.h"
# include "duffle/mips.h"
# include "duffle/gte.h"
# include "duffle/gp.h"
# include "duffle/pad.h"
# include "duffle/word_count.metadata.h"
# include "duffle/psyq.h"
# include "duffle/math.atom.c"
# include "duffle/mips.atom.c"
# include "duffle/gte.atom.c"
# include "duffle/gp.atom.c"
# include "duffle/psyq.atom.c"
# include "gen/offsets.h"
# include "gen/macs.h"
# include "hello_joypad.h"
#endif
ATOM_FILE_DEBUGGER_LINE_MARKER(hello_joypad_atom_c);
#pragma region MACs (Mips Atom components)
FI_ Slice_MipsCode ac_put_disp_env(MipsAtomBuilder_R ab, U4 reg_transfer, U4 reg_base, U2 port)
MipsAtomComp_Proc_(ab, {
// Emits 5 GP0 commands for buffer 0 (display_area = (0,0,320,240)).
// Sequence per libpsyx PutDispEnv: DrawArea TL → DrawArea BR → Mask → DrawArea TL → DrawArea BR
mac_gcmd_push(gp0_word_draw_area_top_left_origin, reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_set_mask_bit(), reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_draw_area_top_left_origin, reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port),
})
FI_ Slice_MipsCode ac_put_draw_env(MipsAtomBuilder_R ab, U4 reg_transfer, U4 reg_base, U2 port)
MipsAtomComp_Proc_(ab, {
/*
* ORIGIN: each code word corresponds to the EXACT value libpsyx's PutDrawEnv function would compute for the same DrawEnv settings.
* References:
* - libpsyx source: `toolchain/psyq-4_7/lib/libgpu.a` (binary, function `PutDrawEnv`)
* - PSX-SPX doc: https://problemkaputt.de/psx-spx.htm#gputdrawingcommands
* - PSYQ SDK: `setdrawenv` / `makelongdr_env` source
* - NOCASH PSX spec: §"GP0(E1h) Draw Mode setting" through §"DR_ENV"
*
* The 16-word format is documented in the PSYQ SDK manual and on NOCASH's PSX-spec.txt. The libpsyx reference is at:
* ./toolchain/psyq-4_7/lib/libgpu.a
* (binary; the PutDrawEnv implementation builds the 16-word DR_ENV from the user's DRAWENV struct and emits it via GP0 GPU commands.)
*
* Word indices (libpsyx PutDrawEnv / SetDrawEnv order):
* tag = (length << 24) | addr — 16-word packet (1 tag + 15 code)
* code[0] = DrawMode (dfe=1, dtd=0, tpage=0) — must come first per libpsyx
* code[1] = TextureWindow (tw=(0,0)) — bare-cmd word; GPU uses current state
* code[2] = DrawArea top-left (clip.x=0, clip.y=240)
* code[3] = DrawArea bottom-right (clip.x+w=320, clip.y+h=480)
* code[4] = DrawOffset (ofs=(0,0)) — bare-cmd word
* code[5] = Mask (dtd=0, dfe=1, isbg=1) — 0xE6 cmd + isbg bit
* code[6] = Initial-bg-color (isbg=1, r=7, g=7, b=7)
* code[7] = DrawMode (isbg=1, tpage=0) — re-asserts DrawMode with isbg
* code[8..10] = padding (NOP) — 3 words to fill the packet
* code[11..12] = TextureWindow bottom-right — defaults to (0,0,0,0)
* code[13..14] = padding (NOP) — completes the 16-word packet
*/
mac_gcmd_push(gp0_dr_env_tag, reg_transfer, reg_base, port), /* tag (length=15 << 24, addr=0) — packet header for the DR_ENV sequence. The GPU needs this to recognize the next 15 words as a DR_ENV packet and trigger the isbg auto-clear. */
mac_gcmd_push(gp0_word_draw_mode_drawing_allowed, reg_transfer, reg_base, port), /* code[0] DrawMode (dfe=1, dtd=0, tpage=0) */
mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port), /* code[1] TextureWindow (tw=(0,0)) */
mac_gcmd_push(enc_gp0_draw_area_tl_word(0, ScreenRes_Y), reg_transfer, reg_base, port), /* code[2] DrawArea top-left (clip.x=0, clip.y=ScreenRes_Y=240) */
mac_gcmd_push(gp0_word_draw_area_bottom_right_320x240, reg_transfer, reg_base, port), /* code[3] DrawArea bottom-right (clip.x+w=320, clip.y+h=480) */
mac_gcmd_push(gp0_word_set_draw_offset(), reg_transfer, reg_base, port), /* code[4] DrawOffset (ofs=(0,0)) — bare-cmd word; the GPU uses the current state machine. */
mac_gcmd_push(gp0_word_dr_env_mask(), reg_transfer, reg_base, port), /* code[5] Mask (dtd=0, dfe=1, isbg=1) — 0xE6 cmd + isbg bit. */
mac_gcmd_push(gp0_word_dr_env_bg_color_cmd(1, 7, 7, 7), reg_transfer, reg_base, port), /* code[6] Initial-bg-color + auto-clear (isbg=1, r=7, g=7, b=7). */
mac_gcmd_push(gp0_word_dr_env_draw_mode(1), reg_transfer, reg_base, port), /* code[7] Re-assert DrawMode with isbg=1 (isbg-flag set; the 0xE1 cmd byte plus isbg only). */
/* code[8..10] Padding (NOP — GPU discards; the DR_ENV requires 16 words total). */
mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port),
/* code[11..12] TextureWindow bottom-right (tw.x+tw.w=0, tw.y+tw.h=0) — libpsyx emits twice. */
mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_set_texture_window(), reg_transfer, reg_base, port),
/* code[13..14] Padding (NOP) — completes the 16-word packet. */
mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port),
mac_gcmd_push(gp0_word_nop(), reg_transfer, reg_base, port),
})
#pragma endregion MACs
#pragma region Baked Atoms
enum {
R_ScreenX = R_T5 atom_reg atom_type(U2),
R_ScreenY = R_T6 atom_reg atom_type(U2),
R_ScreenBuf = R_T7 atom_reg, /* Caller-pinned: & smem.screen_buf */
#define R_ScreenBuf_Code R_T7_Code
};
//screen_env_init. Mirrors the libpsyx's SetDefDispEnv + SetDefDrawEnv + the manual enable_auto_clear / initial_bg_color writes.
internal MipsAtom_(screen_env_init) atom_info(atom_phase(screen_init)
, atom_reads(R_T0, R_ScreenX, R_ScreenY, R_ScreenBuf)
, atom_writes(R_T0, R_ScreenX, R_ScreenY)
) {
/* display[0] = (0, 0, 320, 240); rest of struct zeroed. */
add_ui(R_ScreenX, R_0, ScreenRes_X), add_ui(R_ScreenY, R_0, ScreenRes_Y),
mac_store_v2s2(R_ScreenX, R_ScreenY, R_ScreenBuf, O_(DisplayEnv,display_area.width) + OA_(DoubleBuffer,display,0)),
store_word(R_0, R_ScreenBuf, O_(DisplayEnv,display_area) + OA_(DoubleBuffer,display,0)),
store_word(R_0, R_ScreenBuf, O_(DisplayEnv,screen) + OA_(DoubleBuffer,display,0)),
store_word(R_0, R_ScreenBuf, O_(DisplayEnv,vinterlace) + OA_(DoubleBuffer,display,0)),
/* display[1] = (0, 240, 320, 240); rest of struct zeroed. */
mac_store_rects2(R_0, R_ScreenY, R_ScreenX, R_ScreenY, R_ScreenBuf, O_(DisplayEnv,display_area) + OA_(DoubleBuffer,display,1)),
store_word(R_0, R_ScreenBuf, O_(DisplayEnv,screen) + OA_(DoubleBuffer,display,1)),
store_word(R_0, R_ScreenBuf, O_(DisplayEnv,vinterlace) + OA_(DoubleBuffer,display,1)),
mac_store_rects2(R_0, R_ScreenY, R_ScreenX, R_ScreenY, R_ScreenBuf, O_(DrawEnv,clip_area) + OA_(DoubleBuffer,draw,0)), /* draw[0].clip_area = (0, 240, 320, 240). C11's SetDefDrawEnv writes clip.y = y_arg. */
mac_store_v2s2(R_0, R_ScreenY, R_ScreenBuf, O_(DrawEnv,drawing_offset[0]) + OA_(DoubleBuffer,draw,0)), /* draw[0].drawing_offset[0] = (0, 240); C11 passes y_arg as ofs. */
mac_store_v2s2(R_ScreenX, R_ScreenY, R_ScreenBuf, O_(DrawEnv,clip_area.width) + OA_(DoubleBuffer,draw,1)),
/* draw[0].texture_window = (0, 0, 0, 0); two word-zeroes cover the full 8-byte tw field. */
store_word(R_0, R_ScreenBuf, O_(DrawEnv,texture_window.x) + OA_(DoubleBuffer,draw,0)),
store_word(R_0, R_ScreenBuf, O_(DrawEnv,texture_window.width) + OA_(DoubleBuffer,draw,0)),
store_word(R_0, R_ScreenBuf, O_(DrawEnv,drawing_offset[0].x) + OA_(DoubleBuffer,draw,1)),
store_word(R_0, R_ScreenBuf, O_(DrawEnv,texture_window.x) + OA_(DoubleBuffer,draw,1)),
store_word(R_0, R_ScreenBuf, O_(DrawEnv,texture_window.width) + OA_(DoubleBuffer,draw,1)),
/* draw[0].texture_page = 10 (gp0_tpage_default). C11 SetDefDrawEnv at C11_only.elf:0x8001273C writes the same 0x0A. . */
add_ui(R_T0, R_0, gp0_tpage_default),
store_half(R_T0, R_ScreenBuf, O_(DrawEnv,texture_page) + OA_(DoubleBuffer,draw,0)),
store_half(R_T0, R_ScreenBuf, O_(DrawEnv,texture_page) + OA_(DoubleBuffer,draw,1)),
/* draw[0] control bytes: flag_dither=1, flag_draw_on_display=1 (the dfe bit per psx-spx; libpsyx sets it via `SetDefDrawEnv`'s conditional at C11_only.elf:0x80012728), enable_auto_clear=1. Each byte is named;
* the previous `store_word(R_0, ..., +20)` overwrote all four with zero. */
add_ui(R_T0, R_0, 1),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,flag_dither) + OA_(DoubleBuffer,draw,0)),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,flag_draw_on_display) + OA_(DoubleBuffer,draw,0)),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,enable_auto_clear) + OA_(DoubleBuffer,draw,0)),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,flag_dither) + OA_(DoubleBuffer,draw,1)),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,flag_draw_on_display) + OA_(DoubleBuffer,draw,1)),
store_byte(R_T0, R_ScreenBuf, O_(DrawEnv,enable_auto_clear) + OA_(DoubleBuffer,draw,1)),
/* draw[0].initial_bg_color = (r=7, g=7, b=7). */
add_ui(R_T0, R_0, 7),
mac_store_rgb8(R_T0,R_T0,R_T0, R_ScreenBuf, O_(DrawEnv,initial_bg_color) + OA_(DoubleBuffer,draw,0)),
mac_store_rgb8(R_T0,R_T0,R_T0, R_ScreenBuf, O_(DrawEnv,initial_bg_color) + OA_(DoubleBuffer,draw,1)),
mac_yield(),
};
enum {
R_IO_BaseAddr = R_T4 atom_reg, /* Caller-pinned: IO_BASE_ADDR = 0x1F800000 */
#define R_IO_BaseAddr_Code R_T4_Code
};
internal MipsAtom_(gp_screen_init) atom_info(atom_phase(screen_init), atom_reads(R_IO_BaseAddr)) {
store_word(R_0, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(00h) Reset */
mac_gcmd_push(gp1_word_ResetCmdBuffer(), R_T5, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(01h) ClearFIFO */
mac_gcmd_push(gp1_word_AcknowledgeIRQ(), R_T5, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(02h) AckIRQ */
mac_gcmd_push(gp1_word_DisplayOn(), R_T5, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(03h) Display ON */
mac_gcmd_push(gp1_word_dma_to_gpu(), R_T5, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(04h) DMADirection=2 (CPU→GPU). libpsyx's per-frame PutDrawEnv/DrawOTag use DMA2; without this the DMA queue never drains. */
mac_gcmd_push(gp1_word_StartDisplayArea(), R_T5, R_IO_BaseAddr, GPIO_PORT1_OFFSET), /* GP1(05h) StartDisplayArea (X=0, Y=0) */
/* GP1: DisplayMode + Display Ranges */
mac_gcmd_push(gp1_word_display_mode_320x240_15bit_ntsc, R_T5, R_IO_BaseAddr, GPIO_PORT1_OFFSET),
mac_gcmd_push(gp1_word_horizontal_range_ntsc, R_T5, R_IO_BaseAddr, GPIO_PORT1_OFFSET),
mac_gcmd_push(gp1_word_vertical_range_ntsc, R_T5, R_IO_BaseAddr, GPIO_PORT1_OFFSET),
/* GTE: SetGeomOffset (OFX, OFY) — ScreenRes_CenterX, ScreenRes_CenterY. */
load_upper_i(R_T5, ScreenRes_CenterX), gte_mv_to_ctrl_r(R_T5, gte_cr_OFX_Code),
load_upper_i(R_T5, ScreenRes_CenterY), gte_mv_to_ctrl_r(R_T5, gte_cr_OFY_Code),
/* GTE: SetGeomScreen (H) — CR26 (per PSX-SPX / libpsyx), value is the raw projection-plane distance, NOT shifted. */
add_ui(R_T5, R_0, ScreenZ), gte_mv_to_ctrl_r(R_T5, gte_cr_H_Code),
/* GP1: DisplayEnable — bit 0 = 0 (Display ON). */
mac_gcmd_push(gp1_word_DisplayOn(), R_T5, R_IO_BaseAddr, GPIO_PORT1_OFFSET),
mac_yield(),
};
enum {
R_PrimCursor = R_T7 atom_reg atom_type(U4*), /* VRAM output cursor (primitive buffer) */
R_FaceCursor = R_T4 atom_reg atom_type(V4_S2*), /* Cube face-index cursor (V4_S2*); floor context switches to V3_S2* via atom_phase */
R_VertBase = R_T5 atom_reg atom_type(V3_S2*), /* Base address of the vertex array */
R_OtBase = R_T6 atom_reg atom_type(U4*), /* Base address of the Ordering Table */
#define R_PrimCursor_Code R_T7_Code
#define R_FaceCursor_Code R_T4_Code
#define R_VertBase_Code R_T5_Code
#define R_OtBase_Code R_T6_Code
};
typedef Struct_(Binds_CubeTri) {
U4 PrimCursor;
V4_S2* FaceCursor;
V3_S2* VertBase;
U4* OtBase;
};
internal MipsAtom_(rbind_cube_g4_face) atom_info(atom_bind(Binds_CubeTri), atom_phase(cube_g4)
, atom_reads(R_TapePtr)
, atom_writes(R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase, R_TapePtr)
){
/* Pop 4 arguments from the tape directly into the workspace registers */
load_word(R_PrimCursor, R_TapePtr, O_(Binds_CubeTri,PrimCursor)),
load_word(R_FaceCursor, R_TapePtr, O_(Binds_CubeTri,FaceCursor)),
load_word(R_VertBase, R_TapePtr, O_(Binds_CubeTri,VertBase)),
load_word(R_OtBase, R_TapePtr, O_(Binds_CubeTri,OtBase)),
add_ui_self( R_TapePtr, S_(Binds_CubeTri)),
mac_yield()
};
// cube_g4_face — Draw one cube face (Gouraud-shaded quad) via the GTE tape pipeline
internal
MipsAtom_(cube_g4_face) atom_info(atom_phase(cube_g4),
atom_reads( R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase),
atom_writes(R_PrimCursor, R_FaceCursor)
){
load_half_u(R_T0, R_FaceCursor, 0 * S_(S2)),
load_half_u(R_T1, R_FaceCursor, 1 * S_(S2)),
load_half_u(R_T2, R_FaceCursor, 2 * S_(S2)),
load_half_u(R_T3, R_FaceCursor, 3 * S_(S2)),
mac_gte_load_tri_verts(R_VertBase, R_T0, R_T1, R_T2),
nop2, gte_cmdw_rotate_translate_perspective_triple, // required cpu -> gte delay slot
gte_cmdw_nclip,
gte_mv_from_data_r(R_T0, C2_MAC0), nop,
branch_le_zero(R_T0, atom_offset(cull, cube_g4_face_exit)),
/* BD-slot: write the prim tag (R_0=0; overwrites the legacy tag word in the prim_buffer).
* If branch IS taken (face culled), the body is skipped and this 0-tag is stranded —
* harmless because the OT entry that points to this prim is created later, only on the body path. */
store_word(R_0, R_PrimCursor, O_(Poly_G4, tag)),
shift_lleft(R_AT, R_T3, v3s2_byteoff), add_u(R_AT, R_AT, R_VertBase),
load_word(R_V0, R_AT, O_(V3_S2, x)), load_word(R_V1, R_AT, O_(V3_S2, z)),
gte_mv_to_data_r(R_V0, C2_VXY0), gte_mv_to_data_r(R_V1, C2_VZ0),
mac_gte_store_g4_p012(R_PrimCursor),
gte_cmdw_rotate_translate_perspective_single,
mac_gte_store_g4_p3(R_PrimCursor),
gte_cmdw_avg_sort_z4,
gte_mv_from_data_r(R_T1, C2_OTZ),
add_ui( R_AT, R_0, OrderingTbl_Len),
set_lt_u( R_AT, R_T1, R_AT),
branch_equal(R_AT, R_0, atom_offset(bounds_chk, cube_g4_face_exit)), nop,
mac_insert_ot_tag_g4(R_OtBase, R_PrimCursor),
mac_format_g4_color(R_PrimCursor,
/* c0 magenta */ 0xFF, 0x00, 0xFF,
/* c1 yellow */ 0xFF, 0xFF, 0x00,
/* c2 cyan */ 0x00, 0xFF, 0xFF,
/* c3 green */ 0x00, 0xFF, 0x00),
// end: branch(bounds_chk)
// end: branch(cull)
atom_label(cube_g4_face_exit)
add_ui_self(R_PrimCursor, S_(Poly_G4)), /* 9 words = Poly_G4 */
add_ui_self(R_FaceCursor, S_(S2) * 4), /* 4 × S2 = 8 bytes */
mac_yield()
};
typedef Struct_(Binds_FloorTri) {
U4 PrimCursor;
V3_S2* FaceCursor;
V3_S2* VertBase;
U4* OtBase;
};
internal
MipsAtom_(rbind_floor_f3_face) atom_info(atom_bind(Binds_FloorTri), atom_phase(floor_f3)
, atom_reads(R_TapePtr)
, atom_writes(R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase, R_TapePtr)
){
/* Pop 4 arguments from the tape directly into the workspace registers */
load_word(R_PrimCursor, R_TapePtr, O_(Binds_FloorTri,PrimCursor)),
load_word(R_FaceCursor, R_TapePtr, O_(Binds_FloorTri,FaceCursor)),
load_word(R_VertBase, R_TapePtr, O_(Binds_FloorTri,VertBase)),
load_word(R_OtBase, R_TapePtr, O_(Binds_FloorTri,OtBase)),
add_ui_self( R_TapePtr, S_(Binds_FloorTri)),
mac_yield()
};
// atom_dbg_skip
internal
MipsAtom_(floor_f3_face) atom_info(atom_phase(floor_f3)
, atom_reads( R_PrimCursor, R_FaceCursor, R_VertBase, R_OtBase)
, atom_writes(R_PrimCursor, R_FaceCursor)
) {
mac_load_tri_indices(R_FaceCursor, R_T0, R_T1, R_T2),
mac_gte_load_tri_verts(R_VertBase, R_T0, R_T1, R_T2),
nop2, gte_cmdw_rotate_translate_perspective_triple, // 2 nops retire the final cpu -> gte writes before RTPT
gte_cmdw_nclip,
/* Culling (Branch forward if Backface) */
gte_mv_from_data_r(R_T0, C2_MAC0),
nop, branch_le_zero(R_T0, atom_offset(culling, floor_f3_face_exit)), nop, // required gte -> cpu load-delay slot.
/* Format Primitive */
mac_gte_store_f3(R_PrimCursor),
/* Calculate Depth */
gte_avg_sort_z3,
gte_mv_from_data_r(R_T1, C2_OTZ),
/* Bounds Check OTZ < 2048 (Branch forward to skip insertion) */
add_ui( R_AT, R_0, OrderingTbl_Len),
set_lt_u( R_AT, R_T1, R_AT),
branch_equal(R_AT, R_0, atom_offset(bounds_chk, floor_f3_face_exit)), nop,
mac_format_f3_color(R_PrimCursor, 0xFF, 0xFF, 0xFF), // RGB-form (R=FF, G=FF, B=FF = white)
mac_insert_ot_tag_f3(R_OtBase, R_PrimCursor), /* Insert into Ordering Table Linked List */
add_ui_self(R_PrimCursor, S_(Poly_F3)), /* Advance Prim Cursor (5 words) */
// Note(Ed): No bounds checking, should be checked before atom runs.
// end: branch(bounds_chk)
// end: branch(culling)
/* Advance Input Cursor & Yield (Both branch targets land here) */
atom_label(floor_f3_face_exit)
add_ui_self(R_FaceCursor, S_(S2) * 4), /* Advance Face Cursor (4 * S2 = 8 bytes) */
mac_yield()
};
typedef Struct_(Binds_SyncPrimitiveArena) { U4 used; U4 cursor; };
internal MipsAtom_(sync_primitive_arena) atom_info(atom_bind(Binds_SyncPrimitiveArena)
, atom_reads( R_TapePtr, R_PrimCursor)
, atom_writes(R_TapePtr)
){
load_word(R_AT, R_TapePtr, O_(Binds_SyncPrimitiveArena,used)),
load_word(R_T0, R_TapePtr, O_(Binds_SyncPrimitiveArena,cursor)),
add_ui_self( R_TapePtr, S_(Binds_SyncPrimitiveArena)),
/* Calculate byte offset and store directly back to RAM */
sub_u( R_T0, R_PrimCursor, R_T0), // R_T0 = R_PrimCursor - binds.cursor
store_word(R_T0, R_AT, 0), // R_AT[0] = R_T0
mac_yield()
};
/* ----- pad_bios_snapshot -----
* Per-frame snapshot of one BIOS pad buffer into PadState.
* Decoder (branch ladder on raw[0] status + raw[1] id):
* 1. raw[0] == 0xFF -> Disconnected (buttons=0, axes=0x80)
* 2. raw[0]==0 && raw[1]==0 -> Pending (buttons=0, axes=0x80)
* 3. raw[1] == 0x41 -> Digital (buttons normalized; axes=0x80)
* 4. raw[1] == 0x53 -> AnalogStick (buttons normalized; axes from raw[4..7])
* 5. raw[1] in 0x7x -> AnalogPad (buttons normalized; axes from raw[4..7])
* 6. else -> Unsupported (buttons=0, axes=0x80)
*
* Buttons normalization: byte_swap16((~raw_buttons) & 0xFFFF).
* raw_buttons = load_half_u(raw, 2) = raw[2] | (raw[3] << 8).
* byte_swap16(x) = (x >> 8) | (x << 8); nor(x, R_0) = ~x. store_half truncates to 16 bits so the upper-16 mask is implicit in the store.
*
* Register use (atom-local; no wave-context touched):
* R_T0 = raw base (kept throughout; axes loads read raw[4..7] from R_T0)
* R_T1 = state base (kept throughout; all stores go through R_T1)
* R_T2 = raw[0] status (alive across the disc/pending/id dispatch, then dead)
* R_T3 = raw[1] id (alive across the id dispatch, then dead)
* R_T4 = scratch (shifts, compares, immediate loads, store values)
* R_T5 = scratch (parallel lui+ori for the 0x80808080 axes constant + byte-swap target)
*/
enum {
R_PadRaw = R_T0 atom_reg atom_type(U1),
R_PadState = R_T1 atom_reg,
R_RawStatus = R_T2 atom_reg,
R_RawId = R_T3 atom_reg,
};
typedef Struct_(Binds_PadBiosSnapshot) {
PadBiosRaw* raw;
PadState* state;
};
internal MipsAtom_(pad_bios_snapshot) atom_info(atom_bind(Binds_PadBiosSnapshot)
, atom_reads( R_PadRaw, R_PadState, R_RawStatus, R_RawId, R_T4, R_T5, R_TapePtr)
, atom_writes(R_PadRaw, R_PadState, R_RawStatus, R_RawId, R_T4, R_T5, R_TapePtr)
) {
/* === Bind consumption: T0 = raw, T1 = state, advance R_TapePtr by 8. */
load_word(R_PadRaw, R_TapePtr, O_(Binds_PadBiosSnapshot,raw)),
load_word(R_PadState, R_TapePtr, O_(Binds_PadBiosSnapshot,state)),
add_ui_self( R_TapePtr, S_(Binds_PadBiosSnapshot)),
/* === Read raw[0] (status) + raw[1] (id) */
load_byte_u(R_RawStatus, R_PadRaw, 0),
load_byte_u(R_RawId, R_PadRaw, 1),
atom_label(snap_root) /* === Case 1: Disconnected (status == 0xFF). */
add_ui(R_T4, R_0, 0xFF), branch_ne(R_RawStatus, R_T4, atom_offset(snap_root, skip_disconnected)),
/* BD-slot: pre-compute PadStatus_Disconnected. Branch reads R_T4=0xFF in EX before this WB completes.
* If branch NOT taken (fall through to pending/id_dispatch), R_T4 is overwritten by the next case body's add_ui — harmless. */
atom_label(disconnected) /* === Disconnected body. */
/* R_T4 = PadStatus_Disconnected from snap_root BD-slot. */
store_word(R_T4, R_PadState, O_(PadState,status)),
store_half(R_0, R_PadState, O_(PadState,buttons)),
/* axes = 0x80808080 (centered) — single sw writes the 4-byte axes block at offset 8 (left_x, left_y, right_x, right_y). */
load_upper_i(R_T4, 0x8080), or_i_self(R_T4, 0x8080),
store_word( R_T4, R_PadState, O_(PadState,left_x)),
store_byte( R_RawId, R_PadState, O_(PadState,id)),
jump_rel(atom_offset(disconnected, snap_end)),
/* BD-slot: load next atom's entry point (replaces the nop).
* The unconditional branch always jumps to snap_end, where mac_yield_tail()
* transfers control to R_AtomJmp without re-loading it. */
mac_yield_load(),
atom_label(skip_disconnected)
/* === Case 2: Pending (status == 0 && id == 0)
* Combined check: if (status | id) != 0 then skip to id_dispatch.
* Falls through to the Pending case only when both are zero. */
or_u_self(R_RawStatus, R_RawId), branch_ne(R_RawStatus, R_0, atom_offset(case_2, id_dispatch)),
/* BD-slot: pre-compute PadStatus_Pending. Branch reads R_RawStatus in EX before this WB completes.
* If branch NOT taken (fall through to id_dispatch), R_T4 is overwritten by the digital/analog body add_ui — harmless. */
atom_label(pending) /* === Pending body */
/* R_T4 = PadStatus_Pending from case_2 BD-slot. */
store_word(R_T4, R_PadState, O_(PadState,status)),
store_half(R_0, R_PadState, O_(PadState,buttons)),
/* axes = 0x80808080 (centered) — single sw writes the 4-byte axes block at offset 8 (left_x, left_y, right_x, right_y). */
load_upper_i(R_T4, 0x8080), or_i_self(R_T4, 0x8080),
store_word( R_T4, R_PadState, O_(PadState,left_x)),
store_byte( R_RawId, R_PadState, O_(PadState,id)),
jump_rel(atom_offset(pending, snap_end)),
mac_yield_load(),
atom_label(id_dispatch) /* === Case 3-6: ID dispatch */
add_ui(R_T4, R_0, 0x41), branch_ne(R_RawId, R_T4, atom_offset(id_dispatch, try_analog_stick)),
/* BD-slot: pre-compute PadStatus_Digital. Branch reads R_RawId in EX before this WB completes.
* If branch NOT taken (fall through to try_analog_stick), R_T4 is overwritten by the analog body add_ui. */
/* === Digital body (status, buttons normalize, axes=0x80, id, branch. */
/* R_T4 = PadStatus_Digital from id_dispatch BD-slot. */
store_word( R_T4, R_PadState, O_(PadState,status)),
load_half_u(R_T4, R_PadRaw, 2 * S_(U1)),
/* Fill R_T4's load-delay slot with the 0x80808080 axes constant into R_T5
* (R_T5 is dead on this path; it's only consumed at the analog_pad range check). */
load_upper_i(R_T5, 0x8080), or_i_self(R_T5, 0x8080),
nor_u( R_T4, R_T4, R_0), /* raw_buttons is already in host bit order; no swap needed */
store_half( R_T4, R_PadState, O_(PadState,buttons)),
/* axes = 0x80808080 (centered) — single sw writes the 4-byte axes block at offset 8 (left_x, left_y, right_x, right_y). */
store_word( R_T5, R_PadState, O_(PadState,left_x)),
add_ui( R_T4, R_0, 0x41),
store_byte( R_T4, R_PadState, O_(PadState,id)),
jump_rel(atom_offset(id_dispatch, snap_end)),
mac_yield_load(),
atom_label(try_analog_stick) /* === Case 4: AnalogStick (id == 0x53)*/
add_ui(R_T4, R_0, 0x53), branch_ne(R_RawId, R_T4, atom_offset(try_analog_stick, try_analog_pad)),
/* BD-slot: pre-compute PadStatus_AnalogStick. Branch reads R_RawId in EX before this WB completes.
* If branch NOT taken (fall through to try_analog_pad), R_T4 is overwritten by the analog_pad body add_ui. */
atom_label(analog_stick) /* === AnalogStick body
* Axes are loaded as two halfwords: raw[6..7] → left_xy (sh at offset 8), raw[4..5] → right_xy (sh at offset 10).
* R_T5 holds left_xy / id-value in turn (it's dead on this path — only consumed at the analog_pad range check). */
/* R_T4 = PadStatus_AnalogStick from try_analog_stick BD-slot. */
store_word( R_T4, R_PadState, O_(PadState,status)),
load_half_u( R_T4, R_PadRaw, 2 * S_(U1)), /* R_T4 = raw_buttons */
load_half_u( R_T5, R_PadRaw, 6 * S_(U1)), /* R_T5 = left_xy; fills R_T4's load-delay slot (doesn't read R_T4) */
nor_u( R_T4, R_T4, R_0), /* R_T4 = ~raw_buttons */
store_half( R_T4, R_PadState, O_(PadState,buttons)),
load_half_u( R_T4, R_PadRaw, 4 * S_(U1)), /* R_T4 = right_xy; fills R_T5's load-delay slot */
store_half( R_T5, R_PadState, O_(PadState,left_x)), /* R_T5 settled, store left_xy */
store_half( R_T4, R_PadState, O_(PadState,right_x)),
add_ui( R_T5, R_0, 0x53), /* R_T5 = id value (clobbers left_xy, already stored) */
store_byte( R_T5, R_PadState, O_(PadState,id)),
jump_rel(atom_offset(analog_stick, snap_end)),
mac_yield_load(),
atom_label(try_analog_pad) /* === Case 5-6: AnalogPad (id & 0xF0 == 0x70) */
and_i( R_T4, R_RawId, 0xF0),
add_ui( R_T5, R_0, 0x70),
branch_ne(R_T4, R_T5, atom_offset(try_analog_pad, try_unsupported)),
/* BD-slot: pre-compute PadStatus_AnalogPad. Branch reads R_T4 in EX before this WB completes.
* If branch NOT taken (fall through to try_unsupported), R_T4 is overwritten by the unsupported body add_ui. */
atom_label(analog_pad) /* === AnalogPad body
* Same shape as AnalogStick with AnalogPad status. R_T5 holds left_xy (it's dead on this path). */
/* R_T4 = PadStatus_AnalogPad from try_analog_pad BD-slot. */
store_word( R_T4, R_PadState, O_(PadState,status)),
load_half_u(R_T4, R_PadRaw, 2 * S_(U1)), /* R_T4 = raw_buttons */
load_half_u(R_T5, R_PadRaw, 6 * S_(U1)), /* R_T5 = left_xy; fills R_T4's load-delay slot */
nor_u( R_T4, R_T4, R_0), /* R_T4 = ~raw_buttons */
store_half( R_T4, R_PadState, O_(PadState,buttons)),
load_half_u(R_T4, R_PadRaw, 4 * S_(U1)), /* R_T4 = right_xy; fills R_T5's load-delay slot */
store_half( R_T5, R_PadState, O_(PadState,left_x)), /* R_T5 settled, store left_xy */
store_half( R_T4, R_PadState, O_(PadState,right_x)),
store_byte( R_RawId, R_PadState, O_(PadState,id)),
jump_rel(atom_offset(analog_pad, snap_end)),
mac_yield_load(),
atom_label(try_unsupported) /* === Case 7: Unsupported — fall through from the AnalogPad range-check miss. */
add_ui( R_T4, R_0, PadStatus_Unsupported),
store_word(R_T4, R_PadState, O_(PadState,status)),
store_half(R_0, R_PadState, O_(PadState,buttons)),
/* axes = 0x80808080 (centered) — single sw writes the 4-byte axes block at offset 8 (left_x, left_y, right_x, right_y). */
load_upper_i(R_T4, 0x8080), or_i_self(R_T4, 0x8080),
store_word( R_T4, R_PadState, O_(PadState,left_x)),
add_ui( R_T4, R_0, 0xFF), /* 0xFF sentinel: "unknown id" */
store_byte( R_T4, R_PadState, O_(PadState,id)),
/* Fall through to snap_end. */
atom_label(no_jump_fallthrough)
mac_yield_load(),
atom_label(snap_end)
/* NOT mac_yield() — R_AtomJmp was already loaded in the BD-slot of the case-exit branch. */
mac_yield_tail(),
};
/* ----- pad_apply_input -----
* Reads pad[0].buttons + pad[0].left_x;
* Applies the input-semantics deltas to cube_rot.y + floor_rot.y:
* - D-pad Left: cube_rot.y += 30, floor_rot.y += 5
* - D-pad Right: cube_rot.y -= 30, floor_rot.y -= 5
* - Analog stick X (dead zone 0x70..0x90):
* cube delta = (0x80 - left_x) >> 2 (range approx -32..+32)
* floor delta = (0x80 - left_x) >> 5 (range approx -4..+4)
* - D-pad + analog deltas add when used together.
*
* Convention:
* pad_state = 0 means no buttons active.
* The fail-safe zero-button value flows through unchanged, so a disconnected/fresh pad produces no rotation.
* The branch_le_zero pattern below matches the existing pad_input_demo convention (atom body lines 248/257).
*
* Signed-delta trick:
* load_byte_u zero-extends left_x to 32 bits; sub_u from 0x80 wraps to a SIGNED two's-complement value in the negative range;
* shift_aright (sra) then correctly sign-extends the shift for both positive (left_x < 0x80) and negative (left_x > 0x80) cases.
* Digital pads publish left_x = 0x80 → delta = 0 → no rotation, so the analog step is naturally a no-op for digital controllers.
*/
typedef Struct_(Binds_PadApplyInput) {
PadState* state;
V3_S2* cube_rot;
V3_S2* floor_rot;
};
enum {
R_PadStateT5 = R_T5 atom_reg,
R_CubeRot = R_T1 atom_reg,
R_FloorRot = R_T2 atom_reg,
};
internal MipsAtom_(pad_apply_input) atom_info(atom_bind(Binds_PadApplyInput)
, atom_reads(R_T0, R_CubeRot, R_FloorRot, R_T3, R_T4, R_PadStateT5, R_TapePtr)
, atom_writes( R_CubeRot, R_FloorRot)
) {
/* Pop Binds from tape (state, cube_rot, floor_rot) */
load_word(R_PadStateT5, R_TapePtr, O_(Binds_PadApplyInput,state)),
load_word(R_CubeRot, R_TapePtr, O_(Binds_PadApplyInput,cube_rot)),
load_word(R_FloorRot, R_TapePtr, O_(Binds_PadApplyInput,floor_rot)),
add_ui_self( R_TapePtr, S_(Binds_PadApplyInput)),
/* Load pad[0].buttons into R_T0. */
load_word(R_T0, R_PadStateT5, O_(PadState,buttons)), nop,
// Note(Ed): Potential op with delay slot?
/* D-pad Left: cube_rot.y += 30, floor_rot.y += 5. */
and_i(R_T3, R_T0, pad0_(Pad_Left)), branch_le_zero(R_T3, atom_offset(dpad_left, exit_dpad_left)),
load_half( R_T4, R_CubeRot, O_(V3_S2,y)), /* BD-slot */
load_half( R_T3, R_FloorRot, O_(V3_S2,y)),
add_si( R_T4, R_T4, 30),
add_si( R_T3, R_T3, 5),
store_half(R_T4, R_CubeRot, O_(V3_S2,y)),
store_half(R_T3, R_FloorRot, O_(V3_S2,y)),
atom_label(exit_dpad_left)
/* D-pad Right: cube_rot.y -= 30, floor_rot.y -= 5. */
and_i(R_T3, R_T0, pad0_(Pad_Right)), branch_le_zero(R_T3, atom_offset(dpad_right, exit_dpad_right)),
load_half( R_T4, R_CubeRot, O_(V3_S2,y)), /* BD-slot */
load_half( R_T3, R_FloorRot, O_(V3_S2,y)),
add_si( R_T4, R_T4, -30),
add_si( R_T3, R_T3, -5),
store_half(R_T4, R_CubeRot, O_(V3_S2,y)),
store_half(R_T3, R_FloorRot, O_(V3_S2,y)),
atom_label(exit_dpad_right)
/* Analog left-stick X: dead zone 0x70..0x90.
* Cube delta = (0x80 - left_x) >> 2; floor delta = (0x80 - left_x) >> 5. */
load_byte_u(R_T3, R_PadStateT5, O_(PadState,left_x)),
/* Dead-zone check: skip analog if left_x in [0x70, 0x90] inclusive. Outside dead zone on LOW side: left_x < 0x70 (strictly).
* set_lt_u(R_T4, R_T3, R_T4=0x70) → R_T4 = (left_x < 0x70) ? 1 : 0. */
add_ui(R_T4, R_0, 0x70), set_lt_u(R_T4, R_T3, R_T4), branch_ne(R_T4, R_0, atom_offset(dead_zone_low_check, dead_low_active)),
add_ui(R_T4, R_0, 0x80), /* BD-slot: pre-load 0x80 for dead_low_active */
atom_label(dead_check_upper)
/* left_x >= 0x70 → check upper bound. */
load_byte_u(R_T3, R_PadStateT5, O_(PadState,left_x)), /* reload */
add_ui( R_T4, R_0, 0x90),
/* R_T4 = (0x90 < left_x) ? 1 : 0 → (left_x > 0x90) ? 1 : 0 */
set_lt_u(R_T4, R_T4, R_T3), branch_ne(R_T4, R_0, atom_offset(dead_zone_high_check, dead_high_active)),
add_ui( R_T4, R_0, 0x80), /* BD-slot: pre-load 0x80 for dead_high_active */
jump_rel(atom_offset(dead_zone_skip, exit_stick)),
mac_yield_load(),
atom_label(dead_low_active)
/* R_T3 = left_x (from line 632 lbu; not clobbered between dead_zone_low_check branch + its BD-slot `add_ui R_T4, 0x80`).
* The earlier `load_byte_u(R_T3, ...)` reload was redundant and introduced a load-use hazard on the next `sub_u`.
* R_T4 = 0x80 from the BD-slot of `dead_zone_low_check`'s branch_ne. */
sub_u( R_T3, R_T4, R_T3), /* R_T3 = 0x80 - left_x */
/* delta = 0x80 - left_x (positive). */
/* R_T4 = cube_delta */
shift_aright(R_T4, R_T3, 2),
load_half( R_T0, R_CubeRot, O_(V3_S2,y)),
nop,
add_u( R_T0, R_T0, R_T4),
store_half( R_T0, R_CubeRot, O_(V3_S2,y)),
/* R_T4 = floor_delta — moved into the load-delay slot of the floor load below (fills the 1-instruction gap;
* doesn't read R_T0; R_T4 settles by the subsequent add_u). */
load_half( R_T0, R_FloorRot, O_(V3_S2,y)),
shift_aright(R_T4, R_T3, 5),
add_u( R_T0, R_T0, R_T4),
store_half( R_T0, R_FloorRot, O_(V3_S2,y)),
jump_rel(atom_offset(end_low, exit_stick)),
mac_yield_load(),
atom_label(dead_high_active)
/* R_T3 = left_x (from line 641 lbu in dead_check_upper; not clobbered between dead_zone_high_check branch + its BD-slot `add_ui R_T4, 0x80`).
* The earlier `load_byte_u(R_T3, ...)` reload was redundant and introduced a load-use hazard on the next `sub_u`.
* R_T4 = 0x80 from the BD-slot of `dead_zone_high_check`'s branch_ne. */
sub_u( R_T3, R_T4, R_T3),
/* delta = 0x80 - left_x (signed negative). */
shift_aright(R_T4, R_T3, 2), /* R_T4 = cube_delta (signed) */
load_half( R_T0, R_CubeRot, O_(V3_S2,y)),
nop,
add_u( R_T0, R_T0, R_T4),
store_half( R_T0, R_CubeRot, O_(V3_S2,y)),
/* R_T4 = floor_delta (signed) — moved into the load-delay slot of the floor load below. */
load_half( R_T0, R_FloorRot, O_(V3_S2,y)),
shift_aright(R_T4, R_T3, 5),
add_u( R_T0, R_T0, R_T4),
store_half( R_T0, R_FloorRot, O_(V3_S2,y)),
atom_label(no_jump_fallthrough)
mac_yield_load(),
atom_label(exit_stick)
/* NOT mac_yield() — R_AtomJmp was already loaded in the BD-slot of the dead-zone/exit branch. */
mac_yield_tail(),
};
#pragma endregion Baked Atoms
+441
View File
@@ -0,0 +1,441 @@
#pragma region Vendors
#include <stdio.h>
#include <stdlib.h>
#include <assert.h>
// #include "libgpu.h"
// #include "libetc.h"
// #include "libgte.h"
#pragma endregion Vendors
#pragma region Duffle Headers
# include "duffle/gen/macs.h"
# include "duffle/gen/offsets.h"
#include "duffle/word_count.metadata.h"
#include "duffle/dsl.h"
#include "duffle/memory.h"
#include "duffle/math.h"
#include "duffle/gcc_asm.h"
#include "duffle/mips.h"
#include "duffle/gp.h"
#include "duffle/gte.h"
#include "duffle/pad.h"
#include "duffle/dsl.atom.h"
#include "duffle/lottes_tape.h"
#include "duffle/psyq.h"
#pragma endregion Duffle Headers
#pragma region Duffle TUs
#include "duffle/math.atom.c"
#include "duffle/mips.atom.c"
#include "duffle/gte.atom.c"
#include "duffle/gp.atom.c"
#include "duffle/psyq.atom.c"
#pragma endregion Duffle TUs
#pragma region Joypade Headers
# include "gen/macs.h"
# include "gen/offsets.h"
#include "hello_joypad.h"
#pragma region Joypad Headers
#pragma region Hello Joypad TUs
#include "hello_joypad.atom.c"
#pragma endregion Hello Joypad TUs
enum {
Scratchpad_Len = 1024,
MemTape_Len = 512,
};
typedef Struct_(SMemory) {
PrimitiveArena primitives;
A2_OrderingTable_Buffer ordering_tbl;
DoubleBuffer screen_buf;
S4 active_buf_id;
U4 MemTape[MemTape_Len];
M3_S2 tform_world;
Ent_Cube cube;
Ent_Floor floor;
PadBiosRaw pad_raw[2];
PadState pad[2];
U4_V scratchpad; // d-cache
};
global SMemory smem;
extern SMemory smem;
I_ B1* prim__alloc(U4 type_width, Str8 type_name) {
gknown PrimitiveArena* pa = & smem.primitives;
gknown B1* buf = (B1*) r_(smem.primitives.buf)[smem.active_buf_id];
assert(pa->used + type_width < PrimitiveBuff_Len);
B1* next = buf + pa->used;
pa->used += type_width;
return next;
}
#define prim_alloc(type) (type*)prim__alloc(S_(type), slit( stringify(type)))
/* Uses ONE 8-byte frame allocated via the compiler's standard prologue.
* The 4 wasted-arg words for B(12h) InitPAD2 live at [SP+0..15] but are not explicitly allocated.
* The compiler handles the MIPS O32 "wasted stack" convention for us by treating the B-call as a 4-arg call.
*
* The buffer pointers are passed as arguments so the compiler keeps them in callee-saved registers;
* The B(12h) asm volatile block does NOT clobber those registers (it clobbers only the volatile GPRs + the B-table arg registers explicitly).
* The C-level writes after the call re-load the pointers from their callee-saved homes.
*
* The clobber list for both B-calls names the full BIOS destroy set documented in kernelbios.md:167-174 (R1..R15, R24..R25, R31, HI/LO).
* The kernel-ABI "volatile GPRs" subset is clb_system; the rest of the destroy set is enumerated explicitly here. */
NI_ void pad_bios_init_start(PadBiosRaw* raw0, PadBiosRaw* raw1)
{
/* Pin raw0 + raw1 to $a0 + $a1 via rgcc; the B(12h) call uses these directly.
* The `(void)` casts mark them as unread after the call so the compiler doesn't need to move them back. */
register PadBiosRaw* p0 rgcc(R_A0) = raw0;
register PadBiosRaw* p1 rgcc(R_A1) = raw1;
(void)p0; (void)p1;
// TODO(Ed): Properly annotate the raw values in the inline asm instructions.
// Use enums.
/* B(12h) InitPAD2(raw0, 0x22, raw1, 0x22)
* $a0 = raw0 (rgcc-bound; survives the sequence below)
* $a1 = raw1 (preserved into $a2 before $a1 is overwritten)
* $a2 = raw1 (moved from $a1; survives $a1's overwrite)
* $a3 = 0x22 (immediate)
* $t1 = 0x12 (function number)
* $t2 = 0xB0 (BIOS B-table address) */
asm volatile(
asm_words(
or_u( rarg_2, rarg_1, rdiscard), /* $a2 = $a1 = raw1 */
add_ui( rarg_1, rdiscard, 0x22), /* $a1 = 0x22 */
add_ui( rarg_3, rdiscard, 0x22), /* $a3 = 0x22 */
add_ui( rtmp_1, rdiscard, 0x12), /* $t1 = 0x12 */
add_ui( rtmp_2, rdiscard, 0xB0), /* $t2 = 0xB0 */
call_reg(rtmp_2), /* jalr $t2, $ra */
nop /* BD slot */
)
asm_rpins, r_use(p0), r_use(p1)
asm_clobber:
rlit(R_AT),
rlit(R_V0), rlit(R_V1),
rlit(R_T0), rlit(R_T1), rlit(R_T2), rlit(R_T3), rlit(R_T4),
rlit(R_T5), rlit(R_T6), rlit(R_T7), rlit(R_T8), rlit(R_T9),
rlit(R_RA),
clb_mem_drain
);
/* The C-level writes re-load the pointers via the parameter names and write 0xFF to each
* buffer's status byte to mark the initial-state hazard documented in kernelbios.md:1621-1624. */
u1_v(raw0)[0] = 0xFF;
u1_v(raw1)[0] = 0xFF;
/* B(13h) StartPAD2() — no args. The BIOS preserves $sp. */
asm volatile(
asm_words(
add_ui( rtmp_1, rdiscard, 0x13), /* $t1 = 0x13 */
add_ui( rtmp_2, rdiscard, 0xB0), /* $t2 = 0xB0 (re-load) */
call_reg(rtmp_2), /* jalr $t2, $ra */
nop /* BD slot */
)
asm_clobber:
rlit(R_AT),
rlit(R_V0), rlit(R_V1),
rlit(R_T0), rlit(R_T1), rlit(R_T2), rlit(R_T3), rlit(R_T4),
rlit(R_T5), rlit(R_T6), rlit(R_T7), rlit(R_T8), rlit(R_T9),
rlit(R_RA),
clb_mem_drain
);
}
GCC_OPTIMIZATION_DISABLE
void update(PrimitiveArena* pa, U4* ordering_buf)
{
TapeBuilder tb = tb_make(slice_ut_arr(smem.MemTape));
if (0) // Pad Input (dead — kept for the source-as-written record; references the deleted `pad_state` field)
{
(void)Pad_Left; (void)Pad_Right; /* suppress unused-token warnings */
if (false) {
smem.cube.rot.y += 30;
smem.floor.rot.y += 5;
}
if (false) {
smem.cube.rot.y -= 30;
smem.floor.rot.y -= 5;
}
}
if (1) // Pad Input (Tape version)
{
tb.used = 0; tb_scope_run(& tb) {
/* BIOS-owned polling: per-frame snapshot of both ports. */
tb_emit_(pad_bios_snapshot);
tb_data_(raw, & smem.pad_raw[0]);
tb_data_(state, & smem.pad[0]);
tb_emit_(pad_bios_snapshot);
tb_data_(raw, & smem.pad_raw[1]);
tb_data_(state, & smem.pad[1]);
/* Per-frame rotation apply: consume pad[0].buttons + pad[0].left_x */
tb_emit_(pad_apply_input);
tb_data_(state, & smem.pad[0]);
tb_data_(cube_rot, & smem.cube.rot);
tb_data_(floor_rot, & smem.floor.rot);
}
}
orderingtbl_clear_reverse(ordering_buf, OrderingTbl_Len);
// Update the position based on acceleration and velocity
gknown V3_S4_R pos = & smem.cube.pos;
gknown V3_S4_R vel = & smem.cube.vel;
gknown V3_S4_R acc = & smem.cube.accel;
add_v3s4(vel, acc[0]);
add_v3s4_fp(pos, vel[0]);
// vel->x += acc->x;
// vel->y += acc->y;
// vel->z += acc->z;
// pos->x += vel->x;
// pos->y += vel->y;
// pos->z += vel->z;
if (pos->y + 150 > smem.floor.pos.y) vel->y *= -1;
// Prep
S4 nclip = 0;
S4 orderingtbl_z = 0;
A2_S2 p; //???
S4 flag; //????
// Draw Cube
if (0)
{
m3s2_rotation (& smem.cube.rot, & smem.tform_world);
m3s2_translation(& smem.tform_world, & smem.cube.pos);
m3s2_scale (& smem.tform_world, & smem.cube.scale);
// gte_matrix_set_rotation (& smem.tform_world);
gte_matrix_set_translation(& smem.tform_world);
for (U4 face_id = 0; face_id < Cube_num_faces; face_id += 1)
{
Poly_G4* quad = prim_alloc(Poly_G4); set_poly_g4(quad);
quad->c0 = rgb8(255, 0, 255);
quad->c1 = rgb8(255, 255, 0);
quad->c2 = rgb8( 0, 255, 255);
quad->c3 = rgb8( 0, 255, 0);
V4_S2* face = & smem.cube.faces[face_id];
V3_S2* p0 = & smem.cube.verts[face->x];
V3_S2* p1 = & smem.cube.verts[face->y];
V3_S2* p2 = & smem.cube.verts[face->z];
V3_S2* p3 = & smem.cube.verts[face->w];
nclip = rtp_avg_nclip_a4_v3s2(
p0, p1, p2, p3,
& quad->p0, & quad->p1, & quad->p2, & quad->p3,
& p, & orderingtbl_z, & flag
);
if (nclip <= 0) {
continue;
}
if ((orderingtbl_z > 0) && (orderingtbl_z < OrderingTbl_Len)) {
orderingtbl_add_primitive(ordering_buf[orderingtbl_z], quad);
}
}
// smem.cube.rot.x += 6;
// smem.cube.rot.y += 8;
// smem.cube.rot.z += 12;
smem.cube.rot.y += 30;
}
// Draw cube (tape method) - two triangles per face
if (1)
{
m3s2_rotation (& smem.cube.rot, & smem.tform_world);
m3s2_translation(& smem.tform_world, & smem.cube.pos);
m3s2_scale (& smem.tform_world, & smem.cube.scale);
gte_matrix_set_rotation (& smem.tform_world);
gte_matrix_set_translation(& smem.tform_world);
U4 prim_base = u4_(pa->buf[smem.active_buf_id]);
U4 prim_cursor = prim_base + pa->used;
tb.used = 0; tb_scope(& tb) {
tb_emit(& tb, rbind_cube_g4_face);
tb_data(& tb, prim_cursor);
tb_data(& tb, u4_(smem.cube.faces));
tb_data(& tb, u4_(smem.cube.verts));
tb_data(& tb, u4_(ordering_buf));
for (U4 i = 0; i < Cube_num_faces; i++) {
// Two triangles per quad face: (x,y,z) and (x,z,w)
tb_emit(& tb, cube_g4_face);
}
tb_emit(& tb, sync_primitive_arena);
tb_data(& tb, u4_(& pa->used));
tb_data(& tb, prim_base);
}
tape_run(tb_slice(tb));
// smem.cube.rot.y += 30;
}
// Draw Floor
if (0)
{
m3s2_rotation (& smem.floor.rot, & smem.tform_world);
m3s2_translation(& smem.tform_world, & smem.floor.pos);
m3s2_scale (& smem.tform_world, & smem.floor.scale);
gte_matrix_set_rotation (& smem.tform_world);
gte_matrix_set_translation(& smem.tform_world);
for (U4 face_id = 0; face_id < Floor_num_faces; face_id += 1)
{
Poly_F3* tri = prim_alloc(Poly_F3); set_poly_f3(tri);
tri->color = rgb8(255, 255, 255);
V3_S2* face = & smem.floor.faces[face_id];
register V3_S2* p0 rgcc(R_T4) = & smem.floor.verts[face->x];
register V3_S2* p1 rgcc(R_T5) = & smem.floor.verts[face->y];
register V3_S2* p2 rgcc(R_T6) = & smem.floor.verts[face->z];
gte_load_v0(p0, R_T4);
/*
asm volatile( ".word " "%0" ", %1" : :
"i"(((op_lwc2 & OPCODE_MASK) << OPCODE_SHIFT) | ((R_T4 & REG_MASK) << RS_SHIFT) | ((gte_in_v0_xy & REG_MASK) << RT_SHIFT) | (0 & IMM_MASK)),
"i"(((op_lwc2 & OPCODE_MASK) << OPCODE_SHIFT) | ((R_T4 & REG_MASK) << RS_SHIFT) | ((gte_in_v0_z & REG_MASK) << RT_SHIFT) | (GTE_Z_Offset & IMM_MASK)),
"r"(p0) :
"$2", "$8", "$9", "$31", "memory"
);
*/
gte_load_v1(p1, R_T5);
gte_load_v2(p2, R_T6);
gte_rtpt();
gte_nclip();
gte_stotz(& nclip);
// nclip = rtp_avg_nclip_a3_v3s2(p0, p1, p2
// , & tri->p0, & tri->p1, & tri->p2
// , & p, & orderingtbl_z, & flag
// );
// if (nclip <= 0) {
// continue;
// }
if (nclip > 0 ) {
gte_stsxy3(& tri->p0, & tri->p1, & tri->p2);
gte_avsz3();
gte_stotz(& orderingtbl_z);
if ((orderingtbl_z > 0) && (orderingtbl_z < OrderingTbl_Len)) {
orderingtbl_add_primitive(ordering_buf[orderingtbl_z], tri);
}
}
}
smem.floor.rot.y += 5;
}
// Draw floor tape method
if (1)
{
m3s2_rotation (& smem.floor.rot, & smem.tform_world);
m3s2_translation(& smem.tform_world, & smem.floor.pos);
m3s2_scale (& smem.tform_world, & smem.floor.scale);
U4 prim_base = u4_(pa->buf[smem.active_buf_id]);
U4 prim_cursor = prim_base + pa->used;
// TODO(Ed): We should do a bounds check beforehand to confirm pa can hold all tris?
// The tape atoms in-flight should not need to care.
// Prepare the tape. (Push protocol to tape)
tb.used = 0; tb_scope(& tb) {
tb_emit(& tb, set_gte_world);
tb_data(& tb, u4_(& smem.tform_world));
tb_emit(& tb, rbind_floor_f3_face);
// TODO(Ed): Just use a single context struct ref
tb_data(& tb, prim_cursor);
tb_data(& tb, u4_(smem.floor.faces));
tb_data(& tb, u4_(smem.floor.verts));
tb_data(& tb, u4_(ordering_buf));
for (U4 i = 0; i < Floor_num_faces; i++) {
tb_emit(& tb, floor_f3_face);
}
// After floor_f3_face iterations complete, the primitive arena's used counter needs updating.
tb_emit(& tb, sync_primitive_arena);
tb_data(& tb, u4_(& pa->used));
tb_data(& tb, prim_base);
}
tape_run(tb_slice(tb));// Fire off the tape.
// C-side state (pa->used) has already been updated by the tape!
// smem.floor.rot.y += 5;
}
}
GCC_OPTIMIZATION_ENABLE
void render(void) {
}
void gp_display_frame(DoubleBuffer* screen_buf, S4* active_buf_id, U4* ordering_buf, PrimitiveArena* pa) {
draw_sync(0);
vsync(0);
displayenv_put(& r_(screen_buf->display)[active_buf_id[0] ]);
drawenv_put (& r_(screen_buf->draw) [active_buf_id[0] ]);
{
draw_orderingtbl(ordering_buf + OrderingTbl_Len - 1);
pa->used = 0;
}
active_buf_id[0] = ! active_buf_id[0]; // Swap current buffer
}
GCC_OPTIMIZATION_DISABLE
int main(void)
{
smem = (SMemory){0};
smem.scratchpad = C_(U4_V, 0x1F800000);
// smem.primitives.used = 0;
// smem.active_buf_id = 0;
/*Persistent Entity Setup*/{
ent_cube128_init(& smem.cube.verts, & smem.cube.faces); {
Ent_Cube* cube = & smem.cube;
cube->rot = v3s2(0, 0, 0);
cube->scale = v3s4_fp_one();
cube->accel = v3s4(0, 1, 0);
cube->pos = v3s4(0, -400, 1800);
}
ent_floor_init(& smem.floor.verts, & smem.floor.faces); {
Ent_Floor* floor = & smem.floor;
floor->rot = v3s2(0, 0, 0);
floor->pos = v3s4(0, 450, 1800);
floor->scale = v3s4_fp_one();
}
}
TapeBuilder tb = tb_make(slice_ut_arr(smem.MemTape)); {
reset_graph(0);
/* Direct BIOS: poll both ports during VBlank. */
pad_bios_init_start(& smem.pad_raw[0], & smem.pad_raw[1]);
/* Pinned registers for the GPU init atom. */
register U4* io_base_addr rgcc(R_IO_BaseAddr) = u4_r(IO_BASE_ADDR);
register DoubleBuffer* screen_buf rgcc(R_ScreenBuf) = & smem.screen_buf;
tb.used = 0; tb_scope_run(& tb) {
tb_emit(& tb, screen_env_init);
tb_emit(& tb, gp_screen_init);
}
}
while (1) {
gknown S4* active_buf_id = & smem.active_buf_id;
gknown U4* ordering_buf = r_(smem.ordering_tbl)[active_buf_id[0]];
gknown PrimitiveArena* pa = & smem.primitives;
update(pa, ordering_buf);
render();
gp_display_frame(& smem.screen_buf, active_buf_id, ordering_buf, pa);
};
return 0;
}
GCC_OPTIMIZATION_ENABLE
+102
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@@ -0,0 +1,102 @@
#ifdef INTELLISENSE_DIRECTIVES
# pragma once
# include "duffle/dsl.h"
# include "duffle/math.h"
# include "duffle/gp.h"
# include "duffle/pad.h"
#endif
enum {
// PrimitiveBuff_Len = 4096,
// OrderingTbl_Len = 2048,
PrimitiveBuff_Len = 131072,
OrderingTbl_Len = 8192,
};
enum {
ScreenRes_X = 320,
ScreenRes_Y = 240,
ScreenZ = 320,
ScreenRes_CenterX = (ScreenRes_X >> 1),
ScreenRes_CenterY = (ScreenRes_Y >> 1),
};
enum {
fp_one = (1 << 12),
};
#define v3s4_fp_one() v3s4(fp_one, fp_one, fp_one)
typedef U4 OrderingTable_Buffer[OrderingTbl_Len];
typedef Array_(OrderingTable_Buffer, 2);
typedef B1 PrimitiveBuffer[PrimitiveBuff_Len];
typedef Array_(PrimitiveBuffer, 2);
typedef Struct_(PrimitiveArena) {
A2_PrimitiveBuffer buf;
U4 used;
};
#define Cube_num_verts 8
typedef Array_(V3_S2, Cube_num_verts);
#define Cube_num_faces 6
typedef Array_(V4_S2, Cube_num_faces);
I_ void ent_cube128_init(A8_V3_S2* verts, A6_V4_S2* faces) {
LP_ A8_V3_S2 baked_verts = (A8_V3_S2) {
{ -128, -128, -128 },
{ 128, -128, -128 },
{ 128, -128, 128 },
{ -128, -128, 128 },
{ -128, 128, -128 },
{ 128, 128, -128 },
{ 128, 128, 128 },
{ -128, 128, 128 }
};
LP_ A6_V4_S2 baked_faces = (A6_V4_S2) {
{ 3, 2, 0, 1 },
{ 0, 1, 4, 5 },
{ 4, 5, 7, 6 },
{ 1, 2, 5, 6 },
{ 2, 3, 6, 7 },
{ 3, 0, 7, 4 },
};
mem_copy(u4_(verts), u4_(& baked_verts), S_(A8_V3_S2) );
mem_copy(u4_(faces), u4_(& baked_faces), S_(A6_V4_S2) );
return;
}
typedef Struct_(Ent_Cube) {
V3_S4 accel;
V3_S4 vel;
V3_S4 pos;
V3_S4 scale;
V3_S2 rot;
A8_V3_S2 verts;
A6_V4_S2 faces;
};
#define Floor_num_verts 4
typedef Array_(V3_S2, Floor_num_verts);
#define Floor_num_faces 2
typedef Array_(V3_S2, Floor_num_faces);
I_ void ent_floor_init(A4_V3_S2* verts, A2_V3_S2* faces) {
LP_ A4_V3_S2 baked_verts = (A4_V3_S2) {
{ -900, 0, -900 },
{ -900, 0, 900 },
{ 900, 0, -900 },
{ 900, 0, 900 },
};
LP_ A2_V3_S2 baked_faces = (A2_V3_S2) {
{ 0, 1, 2 },
{ 1, 3, 2 },
};
mem_copy(u4_(verts), u4_(& baked_verts), S_(A4_V3_S2));
mem_copy(u4_(faces), u4_(& baked_faces), S_(A2_V3_S2));
};
typedef Struct_(Ent_Floor) {
V3_S4 accel;
V3_S4 pos;
V3_S4 scale;
V3_S2 rot;
A4_V3_S2 verts;
A2_V3_S2 faces;
};
+659
View File
@@ -0,0 +1,659 @@
#if 0 /* ac_pad_sio_write_pad_state — superseded by pad_bios_snapshot */
/* ============================================================
* raw_sio_pad_poll_20260802 — superseded by bios_pad_buffer_snapshot_20260803.
* The doomed raw-SIO production atoms (ac_pad_sio_write_pad_state,
* pad_sio_init, pad_sio_step, pad_sio_diag_pin, pad_sio_diag_byte_exchange)
* reference symbols that were removed from code/duffle/pad.h during
* Phase 1. Each is wrapped in a narrow `#if 0` so the C compile skips
* the body while the source-as-written text stays in place for the
* Phase 5.1 deletion pass. The wrap is removed (and the bodies are
* deleted) by Phase 5.1 of this track.
* ============================================================ */
* Writes the per-port PadState in 5 instructions plus 4 store_word calls (status,
* buttons, left_x/y/right_x/right_y packed, attempt). The provisional decode publishes
* 0x0000FFFF buttons + centered axes on every path until response-byte decode lands.
*
* Args:
* status_val - the PadSioStatus enum value to publish
* state_ptr_reg - the PadState* base (R_PadState at the call site)
* scratch_reg - scratch register for the value being stored (e.g., R_T0)
*
* Emits 9 instructions (status/buttons/axes/attempt stores plus the
* two-instruction zero-extended buttons load).
*/
FI_ Slice_MipsCode ac_pad_sio_write_pad_state(MipsAtomBuilder_R ab, U4 status_val, U4 state_ptr_reg, U4 scratch_reg)
MipsAtomComp_Proc_(ac_pad_sio_write_pad_state, ab, {
add_ui(scratch_reg, R_0, status_val),
store_word(scratch_reg, state_ptr_reg, O_(PadState,status)),
/* FIX 2026-08-02: buttons = 0x0000FFFF = "no buttons pressed" in
* libetc convention. Build it with LUI + ORI so addiu does not
* sign-extend 0xFFFF to 0xFFFFFFFF. */
load_upper_i(scratch_reg, 0x0000),
or_i(scratch_reg, scratch_reg, 0xFFFF),
store_word(scratch_reg, state_ptr_reg, O_(PadState,buttons)),
add_ui(scratch_reg, R_0, 0x80808080),
store_word(scratch_reg, state_ptr_reg, O_(PadState,left_x)),
add_ui(scratch_reg, R_0, 0),
store_word(scratch_reg, state_ptr_reg, O_(PadState,attempt))
})
#endif /* end ac_pad_sio_write_pad_state wrap */
/* ----- pad_sio_init -----
* Boot-time SIO0 init. Caller pins R_T6 = sio_base_addr0.
* Issues SIO CTRL=0x0040 (reset), MODE=0x000D, BAUD=0x0088.
* (Phase 2 fills the body.)
*/
#if 0 /* pad_sio_init — superseded by pad_bios_init_start (Phase 1.3) */
internal MipsAtom_(pad_sio_init) atom_info(atom_phase(pad_init)
, atom_reads(R_T5, R_T6)
, atom_writes(R_T5, R_T6)
) {
/* FIX 2026-08-02: explicitly load the KSEG1 base into R_T6 at the top of
* the atom body. The rgcc(R_PadSioBase) binding in main() pins R_T6 = base
* when main() runs, but $12 is caller-saved per the O32 ABI — when tape_run
* is invoked, R_T6 is fair game. The atom body cannot rely on the value. */
load_upper_i(R_T6, pad_IO_KSEG1_BASE >> 16), /* R_T6 high 16 = 0xBF80 */
or_i(R_T6, R_T6, pad_IO_KSEG1_BASE & 0xFFFF), /* R_T6 = 0xBF800000 */
/* SIO CTRL = 0x0040 (reset) */
add_ui(R_T5, R_0, pad_SIO_CTRL_RESET),
store_half(R_T5, R_T6, pad_SIO_CTRL_OFFSET),
/* SIO MODE = 0x000D (MUL1, 8-bit, no parity, idle-high) */
add_ui(R_T5, R_0, pad_SIO_MODE_INIT),
store_half(R_T5, R_T6, pad_SIO_MODE_OFFSET),
/* SIO BAUD = 0x0088 (~250 kHz) */
add_ui(R_T5, R_0, pad_SIO_BAUD_INIT),
store_half(R_T5, R_T6, pad_SIO_BAUD_OFFSET),
mac_yield(),
};
#endif /* end pad_sio_init wrap */
/* ----- pad_sio_step -----
* Per-frame bounded raw-SIO transaction. Reads PadState pointers + SIO
* base addresses from Binds_PadSioStep; writes per-port status +
* buttons + axes into smem.pad[0..1].
* Body shape (per spec §"Transaction model (per port, per pad_sio_step)"):
* port 0: CTRL=CLEANUP → settle → CTRL=port-select → settle → exchange 5
* bytes (addr + 0x42 0x00 0x00 0x00) → decode → write PadState[0]
* → CTRL=CLEANUP.
* port 1: swap scratch regs (sio_base_addr1 → R_PadSioBase, state1 →
* R_PadState) → mirror port 0 sequence.
*
* Bounded-loop semantics: every countdown is wrapped in
* add_ui_self(R_T1, -1) + branch_ne(R_T1, R_0, ...)
* with a known maximum (pad_SIO_SETTLE_BEFORE_TX=1000, pad_SIO_SETTLE_AFTER_TX=2000,
* pad_SIO_WAIT_BUDGET=4096). The static-analysis pass currently reports
* has_loops = true; the follow-up metaprogram track that learns modeled-bounded
* loops is out of scope here (per spec §"Risks").
*
* Scratch register strategy:
* R_PadStatus = R_T4 — RESERVED for port-1 swap (holds state1)
* R_PadCountdown = R_T5 — RESERVED for port-1 swap (holds sio_base_addr1)
* R_T0 — byte-exchange value + STAT read (clobbered freely)
* R_T1 — countdown budget (clobbered freely)
* R_PadState = R_T7 — PadState* (preserved for PadState writes)
* R_PadSioBase = R_T6 — SIO base (preserved through the port)
*
* Response decode (Task 3.1 teaching scope):
* - status = PadSioStatus_Digital (hardcoded)
* - buttons = 0xFFFF (no buttons pressed in the provisional libetc
* convention; full response-byte decode is follow-up)
* - axes = 0x80808080 (centered: left_x=0x80, left_y=0x80,
* right_x=0x80, right_y=0x80)
* - attempt = 0
* - DualShock handshake (0x43 0x01 → 0x44 0x01 0x03 → 0x43 0x00) is
* follow-up scope; the hardcoded digital decode is a placeholder.
*
* Both ports raise /CS (CTRL = pad_SIO_CTRL_CLEANUP) before exit. Both ports
* treat response timeout as PadSioStatus_Disconnected per the spec §"Failure
* handling" + the canonical per-port timeout semantics.
*/
#if 0 /* pad_sio_step — superseded by pad_bios_snapshot (Phase 2.1) */
internal MipsAtom_(pad_sio_step) atom_info(atom_bind(Binds_PadSioStep)
, atom_reads(R_TapePtr, R_PadSioBase, R_PadState, R_PadStatus, R_PadCountdown)
, atom_writes(R_PadStatus, R_PadCountdown)
) {
/* FIX 2026-08-02: explicitly load KSEG1 base into R_PadSioBase (R_T6) at the
* top. The rgcc() binding in main() does NOT survive the tape_run call
* because R_T6 is caller-saved per the O32 ABI. The pad_sio_init atom
* (also in the per-frame tape) reloads R_T6 separately. */
load_upper_i(R_PadSioBase, pad_IO_KSEG1_BASE >> 16),
or_i(R_PadSioBase, R_PadSioBase, pad_IO_KSEG1_BASE & 0xFFFF),
/* Pop Binds from tape (in Binds_PadSioStep declaration order) */
load_word(R_PadState, R_TapePtr, O_(Binds_PadSioStep,state0)),
load_word(R_PadStatus, R_TapePtr, O_(Binds_PadSioStep,state1)), /* reserved for port-1 swap */
load_word(R_PadSioBase, R_TapePtr, O_(Binds_PadSioStep,sio_base_addr0)),
load_word(R_PadCountdown, R_TapePtr, O_(Binds_PadSioStep,sio_base_addr1)), /* reserved for port-1 swap */
add_ui_self(R_TapePtr, S_(Binds_PadSioStep)),
/* ============== PORT 0 TRANSACTION ============== */
/* Use R_T0 (byte value / STAT read) + R_T1 (countdown) as scratch.
* R_PadStatus (state1) + R_PadCountdown (sio_base_addr1) are preserved
* through the port-0 body and swapped into R_PadSioBase + R_PadState
* at atom_offset(port1_start, ...) below. */
/* 1. Cleanup: CTRL = 0x0010 (raise /CS, clear stale status) */
add_ui(R_T0, R_0, pad_SIO_CTRL_CLEANUP),
store_half(R_T0, R_PadSioBase, pad_SIO_CTRL_OFFSET),
/* Bounded by pad_SIO_SETTLE_BEFORE_TX = 1000 iterations. */
add_ui(R_T1, R_0, pad_SIO_SETTLE_BEFORE_TX),
atom_label(settle_pre_port0)
nop, /* BD slot */
add_ui_self(R_T1, -1),
branch_ne(R_T1, R_0, atom_offset(settle_pre_port0, settle_pre_port0)),
/* 2. Port-select: CTRL = 0x0003 (TX enable + DTR /CS) for port 0 */
add_ui(R_T0, R_0, pad_SIO_CTRL_TX_ENABLE),
or_i(R_T0, R_T0, pad_SIO_CTRL_DTR_CS), /* set /CS line low */
store_half(R_T0, R_PadSioBase, pad_SIO_CTRL_OFFSET),
/* Bounded by pad_SIO_SETTLE_AFTER_TX = 2000 iterations. */
add_ui(R_T1, R_0, pad_SIO_SETTLE_AFTER_TX),
atom_label(settle_post_port0)
nop,
add_ui_self(R_T1, -1),
branch_ne(R_T1, R_0, atom_offset(settle_post_port0, settle_post_port0)),
/* 3. Address byte (0x01) — send + RX-ready wait + read response + RX-drain confirmation */
add_ui(R_T0, R_0, pad_PROTO_ADDR),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ack0_port0)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(wait_ack0_port0, ack0_received_port0)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ack0_port0)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ack0_port0, wait_ack0_port0)),
/* RX timeout → mark disconnected; skip to port 1 */
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port0_from_ack0)
branch_equal(R_0, R_0, atom_offset(skip_port0_from_ack0, port1_start)),
atom_label(ack0_received_port0)
/* Read open-bus response byte 0 — discard per docs/psx-spx §controllersandmemorycards.md */
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
/* Confirm RX FIFO drained before sending byte 1. Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ackrel0_port0)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_equal(R_T0, R_0, atom_offset(wait_ackrel0_port0, ack_released_port0)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ackrel0_port0)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ackrel0_port0, wait_ackrel0_port0)),
/* RX-drain timeout → disconnected; skip to port 1 */
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port0_from_ackrel0)
branch_equal(R_0, R_0, atom_offset(skip_port0_from_ackrel0, port1_start)),
atom_label(ack_released_port0)
/* === Byte 1 (port 0): send 0x42 (cmd read) + RX-ready wait + read response + RX-drain confirmation === */
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T0, R_0, pad_PROTO_CMD_READ),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ack1_port0)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(wait_ack1_port0, ack1_received_port0)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ack1_port0)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ack1_port0, wait_ack1_port0)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port0_from_ack1)
branch_equal(R_0, R_0, atom_offset(skip_port0_from_ack1, port1_start)),
atom_label(ack1_received_port0)
/* Read response ID byte — discarded for teaching scope (decode hardcoded). */
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
/* RX FIFO drain wait. Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ackrel1_port0)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_equal(R_T0, R_0, atom_offset(wait_ackrel1_port0, ack_released1_port0)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ackrel1_port0)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ackrel1_port0, wait_ackrel1_port0)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port0_from_ackrel1)
branch_equal(R_0, R_0, atom_offset(skip_port0_from_ackrel1, port1_start)),
atom_label(ack_released1_port0)
/* === Byte 2 (port 0): send 0x00 + RX-ready wait + read response + RX-drain confirmation === */
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T0, R_0, 0x00),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ack2_port0)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(wait_ack2_port0, ack2_received_port0)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ack2_port0)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ack2_port0, wait_ack2_port0)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port0_from_ack2)
branch_equal(R_0, R_0, atom_offset(skip_port0_from_ack2, port1_start)),
atom_label(ack2_received_port0)
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ackrel2_port0)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_equal(R_T0, R_0, atom_offset(wait_ackrel2_port0, ack_released2_port0)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ackrel2_port0)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ackrel2_port0, wait_ackrel2_port0)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port0_from_ackrel2)
branch_equal(R_0, R_0, atom_offset(skip_port0_from_ackrel2, port1_start)),
atom_label(ack_released2_port0)
/* === Byte 3 (port 0): send 0x00 + RX-ready wait + read response + RX-drain confirmation === */
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T0, R_0, 0x00),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ack3_port0)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(wait_ack3_port0, ack3_received_port0)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ack3_port0)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ack3_port0, wait_ack3_port0)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port0_from_ack3)
branch_equal(R_0, R_0, atom_offset(skip_port0_from_ack3, port1_start)),
atom_label(ack3_received_port0)
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ackrel3_port0)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_equal(R_T0, R_0, atom_offset(wait_ackrel3_port0, ack_released3_port0)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ackrel3_port0)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ackrel3_port0, wait_ackrel3_port0)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port0_from_ackrel3)
branch_equal(R_0, R_0, atom_offset(skip_port0_from_ackrel3, port1_start)),
atom_label(ack_released3_port0)
/* === Byte 4 (FINAL, port 0): send 0x00 + RX-not-empty wait + read final byte === */
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T0, R_0, 0x00),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_rx4_port0)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(wait_rx4_port0, rx4_received_port0)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_rx4_port0)
branch_ne(R_T1, R_0, atom_offset(continue_wait_rx4_port0, wait_rx4_port0)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port0_from_rx4)
branch_equal(R_0, R_0, atom_offset(skip_port0_from_rx4, port1_start)),
atom_label(rx4_received_port0)
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET), /* discard final byte */
/* === RESPONSE DECODE (hardcoded for teaching scope) ===
* Per the plan §"Phase 3 task 3.1" + spec §"Architecture":
* - Full decode (buttons/axes from response bytes) is follow-up scope.
* - Teaching scope: hardcode digital poll response.
* status = PadSioStatus_Digital
* buttons = 0x0000FFFF (no buttons pressed — placeholder)
* axes = 0x80808080 (left_x=0x80, left_y=0x80, right_x=0x80, right_y=0x80)
* attempt = 0
*/
atom_label(decode_port0)
mac_pad_sio_write_pad_state(PadSioStatus_Digital, R_PadState, R_T0),
/* /CS cleanup: raise /CS, clear stale status before exiting port 0. */
add_ui(R_T0, R_0, pad_SIO_CTRL_CLEANUP),
store_half(R_T0, R_PadSioBase, pad_SIO_CTRL_OFFSET),
/* ============== PORT 1 SETUP ============== */
/* Swap: R_PadCountdown holds sio_base_addr1; R_PadStatus holds state1. */
atom_label(port1_start)
add_u(R_PadSioBase, R_0, R_PadCountdown), /* sio_base_addr1 → R_PadSioBase */
add_u(R_PadState, R_0, R_PadStatus), /* state1 → R_PadState */
/* ============== PORT 1 TRANSACTION (mirror of port 0) ============== */
/* R_PadStatus + R_PadCountdown are no longer reserved (port 1 is the
* last transaction); we still use R_T0/R_T1 as scratch to match port 0. */
/* 1. Cleanup: CTRL = 0x0010 (raise /CS, clear stale status) */
add_ui(R_T0, R_0, pad_SIO_CTRL_CLEANUP),
store_half(R_T0, R_PadSioBase, pad_SIO_CTRL_OFFSET),
/* Bounded by pad_SIO_SETTLE_BEFORE_TX = 1000 iterations. */
add_ui(R_T1, R_0, pad_SIO_SETTLE_BEFORE_TX),
atom_label(settle_pre_port1)
nop,
add_ui_self(R_T1, -1),
branch_ne(R_T1, R_0, atom_offset(settle_pre_port1, settle_pre_port1)),
/* 2. Port-select: CTRL = 0x0003 | (1 << 13) (port 1 select) */
add_ui(R_T0, R_0, pad_SIO_CTRL_TX_ENABLE),
or_i(R_T0, R_T0, pad_SIO_CTRL_DTR_CS),
or_i(R_T0, R_T0, 1 << 13), /* port 1 select bit (CTRL bit 13 = port select) */
store_half(R_T0, R_PadSioBase, pad_SIO_CTRL_OFFSET),
/* Bounded by pad_SIO_SETTLE_AFTER_TX = 2000 iterations. */
add_ui(R_T1, R_0, pad_SIO_SETTLE_AFTER_TX),
atom_label(settle_post_port1)
nop,
add_ui_self(R_T1, -1),
branch_ne(R_T1, R_0, atom_offset(settle_post_port1, settle_post_port1)),
/* 3. Address byte (0x01) — send + RX-ready wait + read response + RX-drain confirmation */
add_ui(R_T0, R_0, pad_PROTO_ADDR),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ack0_port1)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(wait_ack0_port1, ack0_received_port1)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ack0_port1)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ack0_port1, wait_ack0_port1)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port1_from_ack0)
branch_equal(R_0, R_0, atom_offset(skip_port1_from_ack0, end_atom)),
atom_label(ack0_received_port1)
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ackrel0_port1)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_equal(R_T0, R_0, atom_offset(wait_ackrel0_port1, ack_released_port1)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ackrel0_port1)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ackrel0_port1, wait_ackrel0_port1)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port1_from_ackrel0)
branch_equal(R_0, R_0, atom_offset(skip_port1_from_ackrel0, end_atom)),
atom_label(ack_released_port1)
/* === Byte 1 (port 1): send 0x42 (cmd read) + RX-ready wait + read response + RX-drain confirmation === */
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T0, R_0, pad_PROTO_CMD_READ),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ack1_port1)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(wait_ack1_port1, ack1_received_port1)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ack1_port1)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ack1_port1, wait_ack1_port1)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port1_from_ack1)
branch_equal(R_0, R_0, atom_offset(skip_port1_from_ack1, end_atom)),
atom_label(ack1_received_port1)
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ackrel1_port1)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_equal(R_T0, R_0, atom_offset(wait_ackrel1_port1, ack_released1_port1)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ackrel1_port1)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ackrel1_port1, wait_ackrel1_port1)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port1_from_ackrel1)
branch_equal(R_0, R_0, atom_offset(skip_port1_from_ackrel1, end_atom)),
atom_label(ack_released1_port1)
/* === Byte 2 (port 1): send 0x00 + RX-ready wait + read response + RX-drain confirmation === */
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T0, R_0, 0x00),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ack2_port1)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(wait_ack2_port1, ack2_received_port1)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ack2_port1)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ack2_port1, wait_ack2_port1)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port1_from_ack2)
branch_equal(R_0, R_0, atom_offset(skip_port1_from_ack2, end_atom)),
atom_label(ack2_received_port1)
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ackrel2_port1)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_equal(R_T0, R_0, atom_offset(wait_ackrel2_port1, ack_released2_port1)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ackrel2_port1)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ackrel2_port1, wait_ackrel2_port1)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port1_from_ackrel2)
branch_equal(R_0, R_0, atom_offset(skip_port1_from_ackrel2, end_atom)),
atom_label(ack_released2_port1)
/* === Byte 3 (port 1): send 0x00 + RX-ready wait + read response + RX-drain confirmation === */
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T0, R_0, 0x00),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ack3_port1)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(wait_ack3_port1, ack3_received_port1)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ack3_port1)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ack3_port1, wait_ack3_port1)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port1_from_ack3)
branch_equal(R_0, R_0, atom_offset(skip_port1_from_ack3, end_atom)),
atom_label(ack3_received_port1)
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_ackrel3_port1)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_equal(R_T0, R_0, atom_offset(wait_ackrel3_port1, ack_released3_port1)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_ackrel3_port1)
branch_ne(R_T1, R_0, atom_offset(continue_wait_ackrel3_port1, wait_ackrel3_port1)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port1_from_ackrel3)
branch_equal(R_0, R_0, atom_offset(skip_port1_from_ackrel3, end_atom)),
atom_label(ack_released3_port1)
/* === Byte 4 (FINAL, port 1): send 0x00 + RX-not-empty wait + read final byte === */
/* Bounded by pad_SIO_WAIT_BUDGET = 4096 iterations. */
add_ui(R_T0, R_0, 0x00),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(wait_rx4_port1)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(wait_rx4_port1, rx4_received_port1)),
add_ui_self(R_T1, -1),
atom_label(continue_wait_rx4_port1)
branch_ne(R_T1, R_0, atom_offset(continue_wait_rx4_port1, wait_rx4_port1)),
mac_pad_sio_write_pad_state(PadSioStatus_Disconnected, R_PadState, R_T0),
atom_label(skip_port1_from_rx4)
branch_equal(R_0, R_0, atom_offset(skip_port1_from_rx4, end_atom)),
atom_label(rx4_received_port1)
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET), /* discard final byte */
/* === RESPONSE DECODE (port 1) === */
atom_label(decode_port1)
mac_pad_sio_write_pad_state(PadSioStatus_Digital, R_PadState, R_T0),
/* /CS cleanup: raise /CS, clear stale status before exiting port 1. */
add_ui(R_T0, R_0, pad_SIO_CTRL_CLEANUP),
store_half(R_T0, R_PadSioBase, pad_SIO_CTRL_OFFSET),
atom_label(end_atom)
mac_yield(),
};
#endif /* end pad_sio_step wrap */
/* ----- pad_sio_diag_pin -----
* Per-frame diagnostic counter. The caller binds R_DiagPinScratch to
* scratch_for_atom_diag_pin for temporary gdb verification.
*/
#if 0 /* pad_sio_diag_pin — superseded (raw-SIO phase removed) */
internal MipsAtom_(pad_sio_diag_pin) atom_info(atom_phase(pad_init)
, atom_reads(R_T0, R_T1, R_DiagPinScratch)
, atom_writes(R_T0, R_T1, R_DiagPinScratch)
) {
/* FIX 2026-08-02: explicitly reload R_DiagPinScratch (R_T3 = $t3). Caller-saved
* per O32 ABI; the rgcc binding in main() does not survive tape_run. */
load_upper_i(R_DiagPinScratch, 0x8001),
or_i(R_DiagPinScratch, R_DiagPinScratch, 0xC800),
/* High half = 0xD1A6; low half increments once per atom invocation. */
load_word(R_T1, R_DiagPinScratch, 0),
nop,
add_ui(R_T1, R_T1, 1),
and_i(R_T0, R_T1, 0xFFFF),
load_upper_i(R_T1, 0xD1A6),
or_i(R_T1, R_T1, 0),
or_u(R_T1, R_T1, R_T0),
store_word(R_T1, R_DiagPinScratch, 0),
mac_yield(),
};
#endif /* end pad_sio_diag_pin wrap */
/* ----- pad_sio_diag_byte_exchange -----
* Temporary two-byte wire probe: sends 0x01 and 0x42, then stores the
* open-bus byte and response ID in scratch_for_atom_diag_pin.
*/
#if 0 /* pad_sio_diag_byte_exchange — superseded (raw-SIO phase removed) */
internal MipsAtom_(pad_sio_diag_byte_exchange) atom_info(atom_phase(pad_init)
, atom_reads(R_T0, R_T1, R_T2, R_PadSioBase, R_DiagPinScratch)
, atom_writes(R_T0, R_T1, R_T2, R_PadSioBase, R_DiagPinScratch)
) {
/* FIX 2026-08-02: explicitly reload R_DiagPinScratch (R_T3 = $t3). Caller-saved
* per O32 ABI; the rgcc binding in main() does not survive tape_run. */
load_upper_i(R_DiagPinScratch, 0x8001),
or_i(R_DiagPinScratch, R_DiagPinScratch, 0xC800),
/* FIX 2026-08-02: explicitly load KSEG1 base into R_PadSioBase (R_T6) at the
* top. The rgcc() binding in main() does NOT survive the tape_run call
* because R_T6 is caller-saved per the O32 ABI. */
load_upper_i(R_PadSioBase, pad_IO_KSEG1_BASE >> 16),
or_i(R_PadSioBase, R_PadSioBase, pad_IO_KSEG1_BASE & 0xFFFF),
add_ui(R_T0, R_0, pad_SIO_CTRL_CLEANUP),
store_half(R_T0, R_PadSioBase, pad_SIO_CTRL_OFFSET),
add_ui(R_T0, R_0, pad_SIO_CTRL_TX_ENABLE),
or_i(R_T0, R_T0, pad_SIO_CTRL_DTR_CS),
store_half(R_T0, R_PadSioBase, pad_SIO_CTRL_OFFSET),
add_ui(R_T0, R_0, pad_PROTO_ADDR),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(diag_wait_ack0)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(diag_wait_ack0, diag_ack0_done)),
add_ui_self(R_T1, -1),
branch_ne(R_T1, R_0, atom_offset(diag_wait_ack0, diag_wait_ack0)),
add_ui(R_T0, R_0, 0xDEADAC01),
store_word(R_T0, R_DiagPinScratch, 0),
branch_equal(R_0, R_0, atom_offset(diag_timeout_ack0, diag_timeout)),
atom_label(diag_ack0_done)
load_byte_u(R_T2, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T0, R_0, pad_PROTO_CMD_READ),
store_byte(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
add_ui(R_T1, R_0, pad_SIO_WAIT_BUDGET),
atom_label(diag_wait_ack1)
load_half_u(R_T0, R_PadSioBase, pad_SIO_STAT_OFFSET),
nop,
and_i(R_T0, R_T0, pad_SIO_STAT_RX_NOT_EMPTY),
branch_ne(R_T0, R_0, atom_offset(diag_wait_ack1, diag_ack1_done)),
add_ui_self(R_T1, -1),
branch_ne(R_T1, R_0, atom_offset(diag_wait_ack1, diag_wait_ack1)),
add_ui(R_T0, R_0, 0xDEADAC02),
store_word(R_T0, R_DiagPinScratch, 0),
branch_equal(R_0, R_0, atom_offset(diag_timeout_ack1, diag_timeout)),
atom_label(diag_ack1_done)
load_byte_u(R_T0, R_PadSioBase, pad_SIO_DATA_OFFSET),
nop,
shift_lleft(R_T0, R_T0, 8),
or_u(R_T2, R_T2, R_T0),
store_word(R_T2, R_DiagPinScratch, 0),
atom_label(diag_success)
branch_equal(R_0, R_0, atom_offset(diag_success, diag_done)),
nop,
atom_label(diag_timeout_ack0)
add_ui(R_T0, R_0, 0xDEADAC01),
store_word(R_T0, R_DiagPinScratch, 0),
atom_label(diag_timeout_ack1)
add_ui(R_T0, R_0, 0xDEADAC02),
store_word(R_T0, R_DiagPinScratch, 0),
atom_label(diag_timeout)
add_ui(R_T0, R_0, 0xDEADACFF),
store_word(R_T0, R_DiagPinScratch, 0),
atom_label(diag_done)
add_ui(R_T0, R_0, pad_SIO_CTRL_CLEANUP),
store_half(R_T0, R_PadSioBase, pad_SIO_CTRL_OFFSET),
mac_yield(),
};
#endif /* end pad_sio_diag_byte_exchange wrap */
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+29 -7
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@@ -6,18 +6,33 @@ A rest from the usual.
## Dependencies
I will be programming from a Windows 11 machine:
![system_info](./docs/assets/system_info.png)
```ps1
# not really used yet for scripts (may never)
scoop install lua
```
I will be programming from a Windows 11 machine (may eventually try this on the Steam Deck...):
[armips](https://github.com/Kingcom/armips)
* Supports doing bare-metal assembly for the ps1
* `scoop install armips` or just clone and build..
* Was used early in the course. Now I just use an macro asm dsl in C11.
[luajit-2.1](https://github.com/LuaJIT/LuaJIT.git)
```
scoop install luajit
```
* Used for lua scripts
* Particularly, ps1_meta.lua which is a staged metaprogram pass for the custom C11 Assembly DSL used in this codebase.
[lpeg](https://github.com/roberto-ieru/LPeg.git)
* Lua is slow (even jitted) so this helps.
[lfs (LuaFileSystem)](https://github.com/lunarmodules/luafilesystem)
* Native directory enumeration + `mkdir` for the build scripts.
* Used by `passes/word_count_eval.lua :: scan_dir` (native walk vs. `dir /b /s` subprocess,
~2ms vs. ~56ms) and by `duffle.lua :: ensure_dir` + `to_absolute_path` (avoids
`cmd.exe mkdir` + `cd` shell spawns, ~50ms each).
[pscx-redux](https://github.com/grumpycoders/pcsx-redux/): A collection of tools, research, hardware design, and libraries aiming at development and reverse engineering on the PlayStation 1.
@@ -57,3 +72,10 @@ scoop install lua
![polys!](./docs/assets/pcsx-redux.main_2025-08-03_20-45-35.png)
![hello_psyq!](./docs/assets/pcsx-redux_2025-08-05_23-01-19.png)
![cube!](./docs/assets/pcsx-redux_2025-10-11_03-04-01.png)
![cube and floor!](./docs/assets/pcsx-redux_2026-07-10_22-47-02.png)
Win 11 machine:
![system_info](./docs/assets/system_info.png)
Still haven't gotten around to trying this on linux...
+30
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@@ -0,0 +1,30 @@
-- gte_debug.lua — defensive version + prints error context.
local ok, err = pcall(function()
print("[debug] PCSX exists:", PCSX ~= nil)
print("[debug] PCSX.WebServer exists:", PCSX and PCSX.WebServer ~= nil)
print("[debug] PCSX.WebServer.Handlers exists:", PCSX and PCSX.WebServer and PCSX.WebServer.Handlers ~= nil)
if not PCSX.WebServer then
print("[debug] creating PCSX.WebServer...")
PCSX.WebServer = {}
end
if not PCSX.WebServer.Handlers then
print("[debug] creating PCSX.WebServer.Handlers...")
PCSX.WebServer.Handlers = {}
end
print("[debug] type of Handlers:", type(PCSX.WebServer.Handlers))
PCSX.WebServer.Handlers.gte = function(req)
local r = PCSX.getRegisters()
local out = { "pc=0x" .. string.format("%x", r.pc) }
for i = 0, 31 do
out[#out + 1] = string.format("D[%d]=0x%08x C[%d]=0x%08x",
i, r.CP2D.r[i], i, r.CP2C.r[i])
end
return table.concat(out, "\n")
end
print("[debug] handler registered")
end)
if not ok then
print("[debug] ERROR: " .. tostring(err))
end
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+217
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@@ -0,0 +1,217 @@
--- audit_lua_nesting.lua — Walk Lua source files and flag any block nesting deeper than 5 levels.
---
--- Usage:
--- luajit scripts/audit_lua_nesting.lua scripts/duffle.lua scripts/ps1_meta.lua
--- luajit scripts/audit_lua_nesting.lua scripts/passes/
---
--- Output: for each file, a list of {line, depth} entries where depth > 5.
--- Returns exit code 1 if any violations found, 0 if clean.
---
--- **Implementation**: a hand-rolled depth tracker that counts:
--- - `do`, `function`, `if`, `for`, `while`, `repeat` -> depth +1
--- - `end`, `until` -> depth -1
--- - `else`, `elseif` -> depth unchanged
---
--- **Caveats**: doesn't fully handle string/comment state (will miscount braces inside multi-line strings or block comments).
--- For our metaprogram files (no embedded code generation), this is acceptable.
local M = {}
local BLOCK_OPEN = {
["do"] = true,
["function"] = true,
["if"] = true,
["for"] = true,
["while"] = true,
["repeat"] = true,
}
local function is_block_close(token) return token == "end" or token == "until" end
-- (internal) Walk one source file and return a list of
-- {line, depth, token} entries where depth > max_nesting.
local function audit_file(path, max_nesting)
local f = io.open(path, "r")
if not f then error("Cannot open " .. path) end
local content = f:read("*a")
f:close()
local violations = {}
local depth = 0
local line = 1
local pos = 1
local src_len = #content
local token_idx = 0
local function read_ident_at(start_pos)
local ident_start = start_pos
if ident_start > src_len then return nil end
local first_ch = content:sub(ident_start, ident_start)
if not (first_ch:match("[%a_]")) then return nil end
local scan = start_pos + 1
while scan <= src_len do
local ch = content:sub(scan, scan)
if not (ch:match("[%w_]")) then break end
scan = scan + 1
end
return content:sub(ident_start, scan - 1), scan
end
-- Skip past a string literal or comment starting at `start_pos`.
-- Returns the position just past the construct, or nil if `start_pos`
-- is not the start of a string/comment.
local function skip_string_or_comment(start_pos)
local ch = content:sub(start_pos, start_pos)
if ch == '"' or ch == "'" then
local scan = start_pos + 1
while scan <= src_len do
local c = content:sub(scan, scan)
if c == "\\" then scan = scan + 2
elseif c == ch then return scan + 1
else scan = scan + 1
end
end
return src_len + 1
elseif ch == "-" and content:sub(start_pos + 1, start_pos + 1) == "-" then
local scan = start_pos + 2
if content:sub(scan, scan + 1) == "[[" and content:sub(scan + 2, scan + 3) == "[" then
-- Long bracket comment [==[ ... ]==]
scan = scan + 2
local eq = ""
while content:sub(scan, scan) == "=" do
eq = eq .. "="
scan = scan + 1
end
local close_marker = "]" .. eq .. "]"
local close_pos = content:find(close_marker, scan, true)
if close_pos then
return close_pos + #close_marker
else
return src_len + 1
end
else
while scan <= src_len and content:sub(scan, scan) ~= "\n" do scan = scan + 1 end
return scan + 1
end
elseif ch == "[" and content:sub(start_pos + 1, start_pos + 1) == "[" then
local scan = start_pos + 2
local eq = ""
while content:sub(scan, scan) == "=" do
eq = eq .. "="
scan = scan + 1
end
local close_marker = "]" .. eq .. "]"
local close_pos = content:find(close_marker, scan, true)
if close_pos then
return close_pos + #close_marker
else
return src_len + 1
end
end
return nil
end
while pos <= src_len do
local ch = content:sub(pos, pos)
if ch == "\n" then line = line + 1 end
local skip_to = skip_string_or_comment(pos)
if skip_to then
for scan = pos, skip_to - 1 do
if content:sub(scan, scan) == "\n" then line = line + 1 end
end
pos = skip_to
elseif ch:match("[%a_]") then
local tok, next_pos = read_ident_at(pos)
token_idx = token_idx + 1
if BLOCK_OPEN[tok] then
depth = depth + 1
if depth > max_nesting then
violations[#violations + 1] = {
line = line,
depth = depth,
token = tok,
}
end
elseif is_block_close(tok) then
depth = depth - 1
end
pos = next_pos
else
pos = pos + 1
end
end
return violations
end
--- Audit one file. Returns nil if clean, else a list of violations.
--- @param path string
--- @param max_nesting integer -- default 5
--- @return table|nil
function M.audit(path, max_nesting)
local violations = audit_file(path, max_nesting or 5)
if #violations == 0 then return nil end
return violations
end
-- Module CLI.
if arg and arg[1] then
local max_nesting = 5
local files = {}
for arg_idx = 1, #arg do
if arg[arg_idx] == "--max" and arg[arg_idx + 1] then
max_nesting = tonumber(arg[arg_idx + 1]) or 5
else
files[#files + 1] = arg[arg_idx]
end
end
-- Accept either a directory or a file path. Directory args are
-- expanded via lfs.dir (native, no subprocess).
local lfs = require("lfs")
local function is_dir(p)
return lfs.attributes(p, "mode") == "directory"
end
local function list_lua(dir)
local out = {}
if not is_dir(dir) then return out end
for entry in lfs.dir(dir) do
if entry:match("%.lua$") then
out[#out + 1] = dir .. "/" .. entry
end
end
return out
end
local to_check = {}
for _, f in ipairs(files) do
if is_dir(f) then
for _, sub in ipairs(list_lua(f)) do to_check[#to_check + 1] = sub end
else
to_check[#to_check + 1] = f
end
end
local total_violations = 0
for _, f in ipairs(to_check) do
local v = M.audit(f, max_nesting)
if v then
io.write(string.format("\n%s\n", f))
for _, x in ipairs(v) do
io.write(string.format(" line %d: depth %d (after '%s')\n", x.line, x.depth, x.token))
end
total_violations = total_violations + #v
end
end
if total_violations == 0 then
io.write("OK: no files exceed max nesting of " .. max_nesting .. "\n")
os.exit(0)
else
io.write(string.format("\n%d nesting violation(s) found.\n", total_violations))
os.exit(1)
end
end
return M
+95 -95
View File
@@ -7,123 +7,123 @@ Converts a raw binary file to PlayStation 1 (PS-X) executable format.
]]
function file_size(filename)
local file = io.open(filename, "rb")
if not file then return nil end
local size = file:seek("end")
file:close()
return size
local file = io.open(filename, "rb")
if not file then return nil end
local size = file:seek("end")
file:close()
return size
end
function main(args)
if #args ~= 2 then
io.stderr:write(usage)
os.exit(1)
end
if #args ~= 2 then
io.stderr:write(usage)
os.exit(1)
end
-- print(string.format("Input file: %s", args[1]))
-- print(string.format("Output file: %s", args[2]))
-- print(string.format("Input file: %s", args[1]))
-- print(string.format("Output file: %s", args[2]))
-- PS1 executables have a maximum size limit of 2MB
local max_size = 0x200000
-- print(string.format("\nChecking input file size (max: %d bytes)...", max_size))
-- PS1 executables have a maximum size limit of 2MB
local max_size = 0x200000
-- print(string.format("\nChecking input file size (max: %d bytes)...", max_size))
local infile_size = file_size(args[1])
if not infile_size then
io.stderr:write("Error: Cannot open input file " .. args[1] .. "\n")
os.exit(1)
end
local infile_size = file_size(args[1])
if not infile_size then
io.stderr:write("Error: Cannot open input file " .. args[1] .. "\n")
os.exit(1)
end
-- print(string.format("Input file size: %d bytes", infile_size))
-- print(string.format("Input file size: %d bytes", infile_size))
if infile_size > max_size then
io.stderr:write(string.format("Error: Input file %s longer than %d bytes\n", args[1], max_size))
os.exit(1)
end
if infile_size > max_size then
io.stderr:write(string.format("Error: Input file %s longer than %d bytes\n", args[1], max_size))
os.exit(1)
end
-- print("\nOpening files...")
local ofile = io.open(args[2], "wb")
if not ofile then
io.stderr:write("Error: Cannot open output file " .. args[2] .. "\n")
os.exit(1)
end
-- print("\nOpening files...")
local ofile = io.open(args[2], "wb")
if not ofile then
io.stderr:write("Error: Cannot open output file " .. args[2] .. "\n")
os.exit(1)
end
local ifile = io.open(args[1], "rb")
if not ifile then
io.stderr:write("Error: Cannot open input file " .. args[1] .. "\n")
os.exit(1)
end
local ifile = io.open(args[1], "rb")
if not ifile then
io.stderr:write("Error: Cannot open input file " .. args[1] .. "\n")
os.exit(1)
end
-- PS1 executables start with "PS-X EXE" magic string
-- print("Writing PS-X executable header...")
ofile:write("PS-X EXE")
-- PS1 executables start with "PS-X EXE" magic string
-- print("Writing PS-X executable header...")
ofile:write("PS-X EXE")
-- Write entry point address (where the PS1 will jump to start execution)
-- 0x80010000 is a standard entry point in PS1 RAM
ofile:seek("set", 0x10)
ofile:write(string.pack("<I4", 0x80010000))
-- print(" Entry point: 0x80010000")
-- Write entry point address (where the PS1 will jump to start execution)
-- 0x80010000 is a standard entry point in PS1 RAM
ofile:seek("set", 0x10)
ofile:write(string.pack("<I4", 0x80010000))
-- print(" Entry point: 0x80010000")
-- Initial GP/R28 register value (Global Pointer for data addressing)
-- 0xFFFFFFFF means it will be set by crt0.S startup code
ofile:write(string.pack("<I4", 0xFFFFFFFF))
-- Initial GP/R28 register value (Global Pointer for data addressing)
-- 0xFFFFFFFF means it will be set by crt0.S startup code
ofile:write(string.pack("<I4", 0xFFFFFFFF))
-- Destination address in RAM where the executable will be loaded
ofile:write(string.pack("<I4", 0x80010000))
-- print(" Load address: 0x80010000")
-- Destination address in RAM where the executable will be loaded
ofile:write(string.pack("<I4", 0x80010000))
-- print(" Load address: 0x80010000")
-- Initial stack pointer (SP/R29) and frame pointer (FP/R30)
-- 0x801FFF00 points near the top of the 2MB main RAM
ofile:seek("set", 0x30)
ofile:write(string.pack("<I4", 0x801FFF00))
-- print(" Stack pointer: 0x801FFF00")
-- Initial stack pointer (SP/R29) and frame pointer (FP/R30)
-- 0x801FFF00 points near the top of the 2MB main RAM
ofile:seek("set", 0x30)
ofile:write(string.pack("<I4", 0x801FFF00))
-- print(" Stack pointer: 0x801FFF00")
-- PS1 executables have an 0x800 (2048) byte header
-- Zero fill the rest of the header
ofile:seek("set", 0x800)
-- print(" Header padding complete (2048 bytes)")
-- PS1 executables have an 0x800 (2048) byte header
-- Zero fill the rest of the header
ofile:seek("set", 0x800)
-- print(" Header padding complete (2048 bytes)")
-- Copy the actual program binary data after the header
-- print("\nCopying program data...")
local buffer_size = 0x2000 -- 8KB chunks for efficient copying
local bytes_copied = 0
-- Copy the actual program binary data after the header
-- print("\nCopying program data...")
local buffer_size = 0x2000 -- 8KB chunks for efficient copying
local bytes_copied = 0
for i = 0, math.ceil(infile_size / buffer_size) - 1 do
local buffer = ifile:read(buffer_size)
if buffer then
ofile:write(buffer)
bytes_copied = bytes_copied + #buffer
-- Show progress every 64KB
if bytes_copied % 0x10000 == 0 or bytes_copied == infile_size then
print(string.format(" Copied %d/%d bytes (%.1f%%)",
bytes_copied, infile_size, (bytes_copied / infile_size) * 100))
end
end
end
for i = 0, math.ceil(infile_size / buffer_size) - 1 do
local buffer = ifile:read(buffer_size)
if buffer then
ofile:write(buffer)
bytes_copied = bytes_copied + #buffer
-- Show progress every 64KB
if bytes_copied % 0x10000 == 0 or bytes_copied == infile_size then
print(string.format(" Copied %d/%d bytes (%.1f%%)",
bytes_copied, infile_size, (bytes_copied / infile_size) * 100))
end
end
end
-- PS1 executables must be padded to 0x800 (2048) byte boundaries
print("\nAligning to 2048-byte boundary...")
local exe_size = ofile:seek()
if exe_size % 0x800 ~= 0 then
local padding = 0x800 - (exe_size % 0x800)
exe_size = exe_size + padding
ofile:seek("set", exe_size - 1)
ofile:write(string.pack("B", 0))
print(string.format(" Added %d bytes of padding", padding))
else
print(" No padding needed")
end
-- PS1 executables must be padded to 0x800 (2048) byte boundaries
print("\nAligning to 2048-byte boundary...")
local exe_size = ofile:seek()
if exe_size % 0x800 ~= 0 then
local padding = 0x800 - (exe_size % 0x800)
exe_size = exe_size + padding
ofile:seek("set", exe_size - 1)
ofile:write(string.pack("B", 0))
print(string.format(" Added %d bytes of padding", padding))
else
print(" No padding needed")
end
-- Write the size of the executable (excluding the 0x800 byte header)
-- This goes at offset 0x1C in the header
ofile:seek("set", 0x1C)
ofile:write(string.pack("<I4", exe_size - 0x800))
-- print(string.format("\nProgram size field set to: %d bytes", exe_size - 0x800))
-- Write the size of the executable (excluding the 0x800 byte header)
-- This goes at offset 0x1C in the header
ofile:seek("set", 0x1C)
ofile:write(string.pack("<I4", exe_size - 0x800))
-- print(string.format("\nProgram size field set to: %d bytes", exe_size - 0x800))
ifile:close()
ofile:close()
ifile:close()
ofile:close()
-- print(string.format("\nSuccess! PS1 executable created: %s", args[2]))
print(string.format("Total file size: %d bytes\n", exe_size))
-- print(string.format("\nSuccess! PS1 executable created: %s", args[2]))
print(string.format("Total file size: %d bytes\n", exe_size))
end
-- Run main with command line arguments
+256 -53
View File
@@ -140,7 +140,7 @@ function compile-unit { param(
$f_arch_no_shared,
$f_arch_no_stack_prot
)
# $compile_args += $f_std_c23
$compile_args += $f_std_c11
$compile_args += ($f_include + $path_psyq_imyu_inc)
$compile_args += ($f_include + $path_nugget)
@@ -154,11 +154,7 @@ function compile-unit { param(
& $Compiler $compile_args
if ($LASTEXITCODE -ne 0) { write-error "Compilation failed for $unit. Aborting."; exit 1 }
}
function link-modules { param(
[string[]]$link_modules,
[string] $elf,
[string[]]$user_link_args
)
function link-modules { param([string[]]$link_modules, [string] $elf, [string[]]$user_link_args)
$link_args = @()
$link_args += $f_no_stdlib
@@ -184,29 +180,15 @@ function link-modules { param(
$link_args += ($f_link_pass_through_prefix + $f_link_mapfile + $map)
$link_args += ($f_link_pass_through_prefix + $f_link_start_group)
# 16 removed entries (c2, card, cd, comb, ds, gs, gun, hmd, math, mcrd, mcx, press, sio, snd, spu, tap)
# had LOAD lines in the map but ZERO .o files pulled in — they were unused.
# 5 kept libraries (api, c, etc, gpu, gte) are required by the C-side calls in hello_joypad.c (reset_graph, draw_sync, vsync, etc.).
$libraries = @(
"api",
"c",
"c2",
"card",
"cd",
"comb",
"ds",
"etc",
"gpu",
"gs",
"gte",
"gun",
"hmd",
"math",
"mcrd",
"mcx",
"pad",
"press",
"sio",
"snd",
"spu",
"tap"
"gte"
)
foreach ($lib in $libraries) {
$link_args += ($f_link_lib + $lib)
@@ -226,10 +208,7 @@ function link-modules { param(
& mipsel-none-elf-objdump.exe -W $elf >> $dasm
if ($LASTEXITCODE -ne 0) { write-error "Linking failed. Aborting."; exit 1 }
}
function make-binary { param(
[string]$elf,
[string]$exe
)
function make-binary { param([string]$elf, [string]$exe)
Write-Host "--- Creating Binary ---" -ForegroundColor Cyan
write-host "Converting $elf to PS-EXE -> '$exe'"
$objcopy_args = ($f_objcopy_format + "binary"), $elf, $exe
@@ -237,6 +216,117 @@ function make-binary { param(
if ($LASTEXITCODE -ne 0) { Write-Error "Objcopy failed. Aborting."; exit 1 }
}
function ps1-meta { param(
[string]$unity_root,
[string[]]$sources,
[Parameter(Mandatory=$true)][string]$metadata,
[string]$out_root = (join-path $path_build 'gen'),
[string[]]$passes = @('--pre-link'),
[string[]]$extra_args = @()
)
# `--unity-root` and `--source` are mutually exclusive. Exactly one of `$unity_root` / `$sources` must be supplied; the other must be absent.
if ($null -ne $unity_root -and $unity_root -ne '')
{
if ($null -ne $sources -and $sources.Count -gt 0) {
write-error 'ps1-meta: -unity_root and -sources are mutually exclusive'
exit 2
}
}
elseif ($null -eq $sources -or $sources.Count -eq 0) {
write-error 'ps1-meta: either -unity_root <file> or -sources <file...> is required'
exit 2
}
$script = join-path $path_scripts 'ps1_meta.lua'
$input_summary = if ($null -ne $unity_root -and $unity_root -ne '') {
"unity=$unity_root"
}
else {
"$($sources.Count) source(s)"
}
write-host "ps1-meta $input_summary, passes=$($passes -join ',')" ` -ForegroundColor Magenta
$arg_list = @($passes) + @('--metadata', $metadata) + @('--out-root', $out_root) + @($extra_args)
if ($null -ne $unity_root -and $unity_root -ne '') {
$arg_list += @('--unity-root', $unity_root)
}
else {
foreach ($s in $sources) { $arg_list += @('--source', $s) }
}
& luajit $script @arg_list
if ($LASTEXITCODE -ne 0) {
write-error "ps1-meta failed (exit $LASTEXITCODE). Aborting."
exit $LASTEXITCODE
}
}
function inject-dwarf { param(
[string]$elf,
[string]$path_gen
)
$base_name = [System.IO.Path]::GetFileNameWithoutExtension($elf)
$path_dwarf_line_bin = join-path $path_gen "$base_name.dwarf_line.bin"
$path_dwarf_aranges_bin = join-path $path_gen "$base_name.dwarf_aranges.bin"
$path_dwarf_rnglists_bin = join-path $path_gen "$base_name.dwarf_rnglists.bin"
$path_dwarf_info_bin = join-path $path_gen "$base_name.dwarf_info.bin"
$path_dwarf_abbrev_bin = join-path $path_gen "$base_name.dwarf_abbrev.bin"
$path_dwarf_str_bin = join-path $path_gen "$base_name.dwarf_str.bin"
$path_dwarf_loc_bin = join-path $path_gen "$base_name.dwarf_loc.bin"
$path_dwarf_loclists_bin = join-path $path_gen "$base_name.dwarf_loclists.bin"
$path_inject_elf = join-path $path_build "$base_name.dwarf-injected.elf"
if (-not (Test-Path $path_dwarf_line_bin)) { return }
if (-not (Test-Path $path_dwarf_aranges_bin)) { return }
if (-not (Test-Path $path_dwarf_rnglists_bin)) { return }
Write-Host "[build] DWARF-injecting $elf -> $path_inject_elf"
Copy-Item -LiteralPath $elf -Destination $path_inject_elf -Force
# Objcopy call 1: 3x --update-section for the PC-mapping tables (line, aranges, rnglists).
$objcopy_args_dwarf_pc = @(
"--update-section=.debug_line=$path_dwarf_line_bin",
"--update-section=.debug_aranges=$path_dwarf_aranges_bin",
"--update-section=.debug_rnglists=$path_dwarf_rnglists_bin"
)
& $Objcopy @objcopy_args_dwarf_pc $path_inject_elf 2>&1 | Out-Null
if ($LASTEXITCODE -ne 0) {
Write-Warning "[build] objcopy dwarf-pc splice failed (exit $LASTEXITCODE); removing $path_inject_elf"
Remove-Item -LiteralPath $path_inject_elf -ErrorAction SilentlyContinue
return
}
# Objcopy call 2: 3x --update-section + 2x --add-section for the debug-data tables (info, abbrev, str, loc, loclists).
$objcopy_args_dwarf_info = @(
"--update-section=.debug_info=$path_dwarf_info_bin",
"--update-section=.debug_abbrev=$path_dwarf_abbrev_bin",
"--update-section=.debug_str=$path_dwarf_str_bin",
"--add-section=.debug_loc=$path_dwarf_loc_bin",
"--add-section=.debug_loclists=$path_dwarf_loclists_bin"
)
& $Objcopy @objcopy_args_dwarf_info $path_inject_elf 2>&1 | Out-Null
if ($LASTEXITCODE -ne 0) {
Write-Warning "[build] objcopy dwarf-info splice failed (exit $LASTEXITCODE); removing $path_inject_elf"
Remove-Item -LiteralPath $path_inject_elf -ErrorAction SilentlyContinue
return
}
# Baked atoms execute from RAM but are emitted as C data arrays, so their ELF sections lack SHF_EXECINSTR.
# GDB discards line rows for non-code sections. Mark only the debug-copy sections executable.
# The original ELF and PS-EXE remain byte/flag unchanged.
& $Objcopy `
--set-section-flags ".rodata=alloc,load,readonly,code,contents" `
--set-section-flags ".data=alloc,load,data,code,contents" `
$path_inject_elf 2>&1 | Out-Null
if ($LASTEXITCODE -ne 0) {
Write-Warning "[build] atom-section flag update failed (exit $LASTEXITCODE); removing $path_inject_elf"
Remove-Item -LiteralPath $path_inject_elf -ErrorAction SilentlyContinue
}
else {
Write-Host "[build] DWARF-injected ELF: $path_inject_elf"
}
}
# inject-dwarf
function build-hello_psyqo {
$includes += @()
@@ -281,7 +371,7 @@ function build-graphis_hello {
$src_asm_crt = join-path $path_nugget_common 'crt0/crt0.s'
$module_asm_crt = join-path $path_build 'crt0.o'
# assemble-unit $src_asm_crt $module_asm_crt $includes $assemble_args
assemble-unit $src_asm_crt $module_asm_crt $includes $assemble_args
$src_asm = join-path $path_module 'hello_gpu.s'
$module_asm = join-path $path_build 'hello_gpu.o'
@@ -311,10 +401,16 @@ function build-graphis_hello {
}
# build-graphis_hello
function build-gte_hello {
function build-hello_gte {
$includes += @()
$path_module = join-path $path_code 'gte_hello'
$path_module = join-path $path_code 'hello_gte'
$path_duffle = join-path $path_code 'duffle'
$path_atom_metadata = join-path $path_duffle 'word_count.metadata.h'
$path_build_gen = join-path $path_build 'gen'
$src_c = join-path $path_module 'hello_gte.c'
ps1-meta -unity_root $src_c -metadata $path_atom_metadata -out_root $path_build_gen
$assemble_args = @()
$assemble_args += $f_debug
@@ -323,21 +419,20 @@ function build-gte_hello {
$src_asm_crt = join-path $path_nugget_common 'crt0/crt0.s'
$module_asm_crt = join-path $path_build 'crt0.o'
# assemble-unit $src_asm_crt $module_asm_crt $includes $assemble_args
assemble-unit $src_asm_crt $module_asm_crt $includes $assemble_args
$src_asm = join-path $path_module 'hello_gte.s'
$module_asm = join-path $path_build 'hello_gte.o'
# $src_asm = join-path $path_module 'hello_gte.s'
# $module_asm = join-path $path_build 'hello_gte.o'
assemble-unit $src_asm $module_asm $includes $assemble_args
# assemble-unit $src_asm $module_asm $includes $assemble_args
$src_c = join-path $path_module 'hello_gte.c'
$module_c = join-path $path_build 'hello_gte_c.o'
$compile_args = @()
$compile_args += $f_debug
# $compile_args += $f_optimize_none
$compile_args += $f_optimize_none
# $compile_args += $f_optimize_intrinsics
$compile_args += $f_optimize_size
# $compile_args += $f_optimize_size
# $compile_args += $f_optimize_debug
$compile_args += ($f_include + $path_code)
compile-unit $src_c $module_c $includes $compile_args
@@ -348,23 +443,131 @@ function build-gte_hello {
$link_args = @()
$link_args += $f_debug
# $link_args += $f_optimize_size
link-modules @($module_asm_crt, $module_asm, $module_c) $elf $link_args
$link_modules = @(
$module_asm_crt,
$module_c
)
link-modules $link_modules $elf $link_args
make-binary $elf $exe
}
build-gte_hello
function Send-ToEmulator { param(
[string]$exePath
)
# Post-link: gdb-runtime + dwarf-injection in a single Lua invocation (one luajit cold start).
ps1-meta -unity_root $src_c -metadata $path_atom_metadata -out_root $path_build_gen -passes @('--post-link') ` -extra_args @('--elf', $elf)
inject-dwarf $elf $path_build_gen
}
# build-hello_gte
function build-hello_joypad {
$includes += @()
$path_module = join-path $path_code 'hello_joypad'
$path_duffle = join-path $path_code 'duffle'
$path_atom_metadata = join-path $path_duffle 'word_count.metadata.h'
$path_build_gen = join-path $path_build 'gen'
$src_c = join-path $path_module 'hello_joypad.c'
ps1-meta -unity_root $src_c -metadata $path_atom_metadata -out_root $path_build_gen
$assemble_args = @()
$assemble_args += $f_debug
$assemble_args += $f_optimize_none
$assemble_args += ($f_include + $path_code)
$src_asm_crt = join-path $path_nugget_common 'crt0/crt0.s'
$module_asm_crt = join-path $path_build 'crt0.o'
assemble-unit $src_asm_crt $module_asm_crt $includes $assemble_args
$module_c = join-path $path_build 'hello_joypad_c.o'
$compile_args = @()
$compile_args += $f_debug
$compile_args += $f_optimize_none
# $compile_args += $f_optimize_intrinsics
# $compile_args += $f_optimize_size
# $compile_args += $f_optimize_debug
$compile_args += ($f_include + $path_code)
compile-unit $src_c $module_c $includes $compile_args
$elf = join-path $path_build 'hello_joypad.elf'
$exe = join-path $path_build 'hello_joypad.ps-exe'
$link_args = @()
$link_args += $f_debug
# $link_args += $f_optimize_size
$link_modules = @(
$module_asm_crt,
$module_c
)
link-modules $link_modules $elf $link_args
make-binary $elf $exe
# Post-link: gdb-runtime + dwarf-injection in a single Lua invocation (one luajit cold start).
ps1-meta -unity_root $src_c -metadata $path_atom_metadata -out_root $path_build_gen -passes @('--post-link') ` -extra_args @('--elf', $elf)
inject-dwarf $elf $path_build_gen
}
# build-hello_joypad
function build-hello_camera {
$includes += @()
$path_module = join-path $path_code 'hello_camera'
$path_duffle = join-path $path_code 'duffle'
$path_atom_metadata = join-path $path_duffle 'word_count.metadata.h'
$path_build_gen = join-path $path_build 'gen'
$src_c = join-path $path_module 'hello_camera.c'
ps1-meta -unity_root $src_c -metadata $path_atom_metadata -out_root $path_build_gen -passes @('--pre-link')
$assemble_args = @()
$assemble_args += $f_debug
$assemble_args += $f_optimize_none
$assemble_args += ($f_include + $path_code)
$src_asm_crt = join-path $path_nugget_common 'crt0/crt0.s'
$module_asm_crt = join-path $path_build 'crt0.o'
assemble-unit $src_asm_crt $module_asm_crt $includes $assemble_args
$module_c = join-path $path_build 'hello_camera_c.o'
$compile_args = @()
$compile_args += $f_debug
$compile_args += ($f_define + 'BUILD_DEBUG')
$compile_args += $f_optimize_none
# $compile_args += $f_optimize_intrinsics
# $compile_args += $f_optimize_size
# $compile_args += $f_optimize_debug
$compile_args += ($f_include + $path_code)
compile-unit $src_c $module_c $includes $compile_args
$elf = join-path $path_build 'hello_camera.elf'
$exe = join-path $path_build 'hello_camera.ps-exe'
$link_args = @()
$link_args += $f_debug
# $link_args += $f_optimize_size
$link_modules = @(
$module_asm_crt,
$module_c
)
link-modules $link_modules $elf $link_args
make-binary $elf $exe
ps1-meta -unity_root $src_c -metadata $path_atom_metadata -out_root $path_build_gen -passes @('--post-link') ` -extra_args @('--elf', $elf)
inject-dwarf $elf $path_build_gen
}
build-hello_camera
# NO idea if this works yet...
function Send-ToEmulator { param( [string]$exePath )
$uri = "http://localhost:8080/api/v1/load-exec"
# Absolute path is safest for the emulator web server
$absolutePath = [System.IO.Path]::GetFullPath($exePath)
# Create JSON payload pointing to your compiled .ps-exe
$body = @{
filename = $absolutePath
} | ConvertTo-Json
$body = @{ filename = $absolutePath } | ConvertTo-Json
Write-Host "Pushing hot-reload to PCSX-Redux..." -ForegroundColor Magenta
try {
@@ -379,13 +582,13 @@ function Send-ToEmulator { param(
# Send-ToEmulator (join-path $path_build 'hello_gte.ps-exe')
# --- Hot Reload via PCSX-Redux Web Server ---
$exe_path = join-path $path_build 'hello_gte.ps-exe'
$absolute_path = [System.IO.Path]::GetFullPath($exe_path)
# $exe_path = join-path $path_build 'hello_gte.ps-exe'
# $absolute_path = [System.IO.Path]::GetFullPath($exe_path)
# PCSX-Redux expects the file location in the URL query string!
# We URL-encode the path to ensure backslashes and spaces don't break the HTTP request.
$encoded_path = [uri]::EscapeDataString($absolute_path)
$uri = "http://localhost:8080/api/v1/load-exec?path=$encoded_path"
# PCSX-Redux expects the file location in the URL query string?
# We URL-encode the path to ensure backslashes and spaces don't break the HTTP request?
# $encoded_path = [uri]::EscapeDataString($absolute_path)
# $uri = "http://localhost:8080/api/v1/load-exec?path=$encoded_path"
# Write-Host "Pushing hot-reload to PCSX-Redux..." -ForegroundColor Magenta
# try {
+91
View File
@@ -0,0 +1,91 @@
--- duffle.lua — facade over duffle_scan / duffle_isa / duffle_emit.
--- @class DuffleExport
--- bag: open module-export keys from duffle_scan / duffle_isa / duffle_emit
local scan = require("duffle_scan") ---@type DuffleExport
local isa = require("duffle_isa") ---@type DuffleExport
local emit = require("duffle_emit") ---@type DuffleExport
local M = {} ---@type DuffleExport
--- @alias Path string
--- @alias LineNum integer
--- @alias ByteOff integer
--- @alias MacroName string
--- @alias AtomName string
--- @alias Severity string
--- @class SourceFile
--- @field path Path
--- @field text string
--- @field dir string
--- @field basename string
--- @field scan SourceScan|nil
--- @class CorpusView
--- @field register_alias_registry table<string, AliasEntry>
--- @field type_name_registry table<string, TypeNameEntry>
--- @field atom_views table<AtomName, AtomViewEntry>
--- @field atom_ctxs table<AtomName, AtomCtxEntry>
--- @field atom_phases table<string, AtomPhaseGroup>
--- @field binds_by_name table<string, BindsEntry>
--- @field atoms_by_name table<AtomName, AtomEntry>
--- @field atom_infos AtomInfoEntry[]
--- @field components table<string, Component>
--- @field component_atom_infos AtomInfoEntry[]|nil
--- @field tape_chains table<string, TapeChain>|nil
--- @field source_order SourceFile[]
--- @field collisions CorpusCollision[]
--- @param src DuffleExport
--- @param label string
--- @return nil
local function merge(src, label)
for k, v in pairs(src) do ---@type string, any
if M[k] ~= nil and M[k] ~= v then
error("duffle facade name collision on " .. tostring(k) .. " from " .. label, 0)
end
M[k] = v
end
end
merge(scan, "duffle_scan")
merge(isa, "duffle_isa")
merge(emit, "duffle_emit")
--- @param ctx PassCtx
--- @return CorpusView
function M.corpus_view(ctx)
local corpus = ctx and ctx.shared and ctx.shared.corpus ---@type Corpus
if not corpus then error("requires ctx.shared.corpus", 0) end
return {
register_alias_registry = corpus.register_alias_registry or {},
type_name_registry = corpus.type_name_registry or {},
atom_views = corpus.atom_views or {},
atom_ctxs = corpus.atom_ctxs or {},
atom_phases = corpus.atom_phases or {},
binds_by_name = corpus.binds_by_name or {},
atoms_by_name = corpus.atoms_by_name or {},
atom_infos = corpus.atom_infos or {},
components = corpus.components or {},
component_atom_infos = corpus.component_atom_infos or {},
tape_chains = corpus.tape_chains or {},
source_order = corpus.source_order or {},
collisions = corpus.collisions or {},
}
end
--- @param rules CheckRule[]
--- @param phase string
--- @param item AtomEntry|SourceFile
--- @param pipe_ctx PassScratch
--- @param findings Finding[]
--- @return nil
function M.run_check_rules(rules, phase, item, pipe_ctx, findings)
for _, rule in ipairs(rules) do ---@type integer, CheckRule
local fn = rule[phase] ---@type (fun(item: AtomEntry|SourceFile, pipe_ctx: PassScratch, findings: Finding[]): nil)|nil
if fn then fn(item, pipe_ctx, findings) end
end
end
return M
File diff suppressed because it is too large Load Diff
+866
View File
@@ -0,0 +1,866 @@
--- duffle_isa.lua — encoder / GTE / hardware tables.
--- @class InstructionImm
--- @field arg integer
--- @field signed boolean|nil
--- @field width integer
--- @class InstructionValue
--- @field dest integer
--- @field op string
--- @field sources integer[]|nil
--- @field immediate integer|nil
--- @field source integer|nil
--- @class InstructionRow
--- @field cycles integer
--- @field kind string
--- @field reads integer[]|nil
--- @field writes integer[]|nil
--- @field imm InstructionImm[]|nil
--- @field value InstructionValue|nil
--- @field delay_slot boolean|nil
--- @field suppress_arg1 table<string, string>|nil -- bag: GPR ident -> reason
--- @class TapeAtomMacroRow
--- @field kind string
--- @field binds boolean
--- @class GteCommandPort
--- @field register string
--- @field role string
--- @class GteCommandLatch
--- @field register string
--- @field required integer
--- @class GteCommandRow
--- @field aliases string[]
--- @field cycles integer
--- @field inputs string[]
--- @field outputs GteCommandPort[]
--- @field latch GteCommandLatch[]
--- @class GteCrAliasGroup
--- @field [1] integer -- C2 control-register slot
--- @field [2] string[] -- aliases that share that slot
--- @class GtePackedSlotRelation
--- @field slot integer
--- @field first string
--- @field second string
--- @class HardwareRelationPort
--- @field domain string
--- @field arg integer
--- @class HardwareRelationVisibility
--- @field kind string
--- @field required integer
--- @class HardwareRelationEvidence
--- @field confidence string
--- @field source string
--- @class HardwareRelationRow
--- @field id string
--- @field semantic string
--- @field consumer string
--- @field token string
--- @field direction string
--- @field reads HardwareRelationPort
--- @field writes HardwareRelationPort
--- @field visibility HardwareRelationVisibility|nil
--- @field evidence HardwareRelationEvidence
--- @field violation_kind string
--- @field destination_match string|nil
--- @field fanout_to string[]|nil
--- @field required integer|nil
--- @field clear_on_consumer boolean|nil
--- @field stage boolean|nil
--- @field cu2_transition boolean|nil
--- @field status_register integer|nil
--- @class Cu2TransitionPolicy
--- @field status_register integer
--- @field enable_bit integer
--- @field required integer
--- @field visibility_kind string
--- @field evidence HardwareRelationEvidence
--- @class GprRole
--- @field name string
--- @field pool boolean
--- @field optional boolean
--- @field carrier boolean
--- @class DuffleIsa
--- @field GPR_ROLE table<string, GprRole>
--- @field TAPE_ATOM_MACROS table<string, TapeAtomMacroRow>
--- @field DELAY_MARKERS table<string, boolean>
--- @field INSTRUCTION table<string, InstructionRow>
--- @field GTE_COMMAND table<string, GteCommandRow>
--- @field ALIAS_TO_CANONICAL table<string, string>
--- @field instr fun(ident: string): InstructionRow|nil
--- @field gte_canon fun(ident: string): string
--- @field gte fun(ident: string): GteCommandRow|nil
--- @field GTE_CR_ALIAS_GROUPS GteCrAliasGroup[]
--- @field GTE_PACKED_SLOT_RELATIONS GtePackedSlotRelation[]
--- @field OPERAND_READ_POSITIONS table<string, integer[]>
--- @field GP0_CMD_SIZE table<integer, integer>
--- @field GP0_CMD_BY_SHAPE table<string, integer>
--- @field UNKNOWN_INSTRUCTION_CYCLES integer
--- @field HARDWARE_RELATIONS HardwareRelationRow[]
--- @field CU2_TRANSITION_POLICY Cu2TransitionPolicy
local M = {} ---@type DuffleIsa
-- Section 7: domain tables
-- ════════════════════════════════════════════════════════════════════════════
-- One GprRole row per name. Construction order is the auto_reg pool order,
-- then R_AT, then the three carriers. Index by name into M.GPR_ROLE.
--- @type table<string, GprRole>
M.GPR_ROLE = {
{ name = "R_V0", pool = true, optional = true, carrier = false },
{ name = "R_V1", pool = true, optional = true, carrier = false },
{ name = "R_T0", pool = true, optional = true, carrier = false },
{ name = "R_T1", pool = true, optional = true, carrier = false },
{ name = "R_T2", pool = true, optional = true, carrier = false },
{ name = "R_T3", pool = true, optional = true, carrier = false },
{ name = "R_T4", pool = true, optional = true, carrier = false },
{ name = "R_T5", pool = true, optional = true, carrier = false },
{ name = "R_T6", pool = true, optional = true, carrier = false },
{ name = "R_T7", pool = true, optional = true, carrier = false },
{ name = "R_A0", pool = true, optional = true, carrier = false },
{ name = "R_A1", pool = true, optional = true, carrier = false },
{ name = "R_A2", pool = true, optional = true, carrier = false },
{ name = "R_A3", pool = true, optional = true, carrier = false },
{ name = "R_S0", pool = true, optional = true, carrier = false },
{ name = "R_S1", pool = true, optional = true, carrier = false },
{ name = "R_S2", pool = true, optional = true, carrier = false },
{ name = "R_S3", pool = true, optional = true, carrier = false },
{ name = "R_S4", pool = true, optional = true, carrier = false },
{ name = "R_S5", pool = true, optional = true, carrier = false },
{ name = "R_S6", pool = true, optional = true, carrier = false },
{ name = "R_S7", pool = true, optional = true, carrier = false },
{ name = "R_T8", pool = true, optional = true, carrier = false },
{ name = "R_T9", pool = true, optional = true, carrier = false },
{ name = "R_AT", pool = false, optional = true, carrier = false },
{ name = "R_TapePtr", pool = false, optional = true, carrier = true },
{ name = "R_AtomJmp", pool = false, optional = true, carrier = true },
{ name = "R_ScratchBase", pool = false, optional = true, carrier = true },
}
for _, row in ipairs(M.GPR_ROLE) do ---@type integer, GprRole
M.GPR_ROLE[row.name] = row
end
-- atom_info sub-calls: atom_bind, atom_reads, atom_writes, atom_view, atom_reg_types, atom_ctx, atom_phase.
--- @type table<string, TapeAtomMacroRow>
M.TAPE_ATOM_MACROS = {
["atom_info"] = { kind = "info", binds = false },
}
-- Empty C macros that prefix the next encoder. Zero words.
-- BdSlot_ nop is one nop word. The marker is not the BD instruction.
--- @type table<string, boolean> -- bag: marker prefix -> true
M.DELAY_MARKERS = {
["GteDelay_"] = true,
["LdSlot_"] = true,
["BdSlot_"] = true,
["DmaSlot_"] = true,
}
-- One row per encoder. Read through duffle.instr.
--- @type table<string, InstructionRow>
M.INSTRUCTION = {
["BdSlot_"] = { cycles = 0, kind = "marker", },
["LdSlot_"] = { cycles = 0, kind = "marker", },
["add_s"] = { cycles = 1, kind = "alu", },
["add_si"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, imm = { { arg = 3, signed = true, width = 16, },}, },
["add_u"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
["add_u_self"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, value = { dest = 1, op = "add_u", sources = { 1, 2 }, }, },
["add_ui"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, imm = { { arg = 3, signed = true, width = 16, }, }, value = { dest = 1, immediate = 3, op = "add_ui", source = 2, }, },
["add_ui_self"] = { cycles = 1, kind = "alu", reads = { 1 }, writes = { 1 }, imm = { { arg = 2, signed = true, width = 16, }, }, value = { dest = 1, immediate = 2, op = "add_ui", source = 1, }, },
["and"] = { cycles = 1, kind = "alu", },
["and_i"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, imm = { { arg = 3, width = 16, }, }, value = { dest = 1, immediate = 3, op = "and_i", source = 2, }, },
["and_u"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
["atom_bind"] = { cycles = 0, kind = "marker", reads = {}, writes = {}, },
["atom_info"] = { cycles = 0, kind = "marker", reads = {}, writes = {}, },
["atom_label"] = { cycles = 0, kind = "marker", reads = {}, writes = {}, },
["atom_offset"] = { cycles = 0, kind = "marker", reads = {}, writes = {}, },
["atom_reads"] = { cycles = 0, kind = "marker", reads = {}, writes = {}, },
["atom_writes"] = { cycles = 0, kind = "marker", reads = {}, writes = {}, },
["branch_equal"] = { cycles = 2, kind = "branch", reads = { 1, 2 }, writes = {}, imm = { { arg = 3, signed = true, width = 16, }, }, },
["branch_ge_zero"] = { cycles = 2, kind = "branch", reads = { 1 }, writes = {}, imm = { { arg = 2, signed = true, width = 16, }, }, },
["branch_gt_zero"] = { cycles = 2, kind = "branch", reads = { 1 }, writes = {}, imm = { { arg = 2, signed = true, width = 16, }, }, },
["branch_le_zero"] = { cycles = 2, kind = "branch", reads = { 1 }, writes = {}, imm = { { arg = 2, signed = true, width = 16, }, }, },
["branch_lt_zero"] = { cycles = 2, kind = "branch", reads = { 1 }, writes = {}, imm = { { arg = 2, signed = true, width = 16, }, }, },
["branch_ne"] = { cycles = 2, kind = "branch", reads = { 1, 2 }, writes = {}, imm = { { arg = 3, signed = true, width = 16, }, }, },
["call_addr"] = { cycles = 2, kind = "call", reads = {}, writes = { 1 }, },
["call_reg"] = { cycles = 2, kind = "call", reads = { 1 }, writes = { 2 }, },
["div_s"] = { cycles = 35, kind = "alu", reads = { 1, 2 }, writes = {}, },
["div_u"] = { cycles = 35, kind = "alu", reads = { 1, 2 }, writes = {}, },
["gte_load_v0"] = { cycles = 2, kind = "cop2_xfer", reads = { 2 }, writes = {}, },
["gte_load_v0v1v2"] = { cycles = 6, kind = "cop2_xfer", reads = { 2 }, writes = {}, },
["gte_load_v1"] = { cycles = 2, kind = "cop2_xfer", reads = { 2 }, writes = {}, },
["gte_load_v2"] = { cycles = 2, kind = "cop2_xfer", reads = { 2 }, writes = {}, },
["gte_lw"] = { cycles = 1, kind = "load", reads = { 2 }, writes = {}, },
["gte_lwc2"] = { cycles = 1, kind = "load", },
["gte_mv_from_ctrl_r"] = { cycles = 1, kind = "cop2_xfer", reads = {}, writes = { 1 }, },
["gte_mv_from_data_r"] = { cycles = 1, kind = "cop2_xfer", reads = {}, writes = { 1 }, },
["gte_mv_to_ctrl_r"] = { cycles = 1, kind = "cop2_xfer", reads = { 1 }, writes = {}, },
["gte_mv_to_data_r"] = { cycles = 1, kind = "cop2_xfer", reads = { 1 }, writes = {}, },
["gte_stotz"] = { cycles = 1, kind = "cop2_xfer", reads = {}, writes = {}, },
["gte_stsxy3"] = { cycles = 1, kind = "cop2_xfer", reads = {}, writes = {}, },
["gte_sw"] = { cycles = 1, kind = "store", reads = { 2 }, writes = {}, },
["gte_swc2"] = { cycles = 1, kind = "store", },
["jump"] = { cycles = 2, kind = "jump", reads = {}, writes = {}, },
["jump_link"] = { cycles = 2, kind = "call", reads = { 1 }, writes = { 2 }, },
["jump_reg"] = { cycles = 2, kind = "jump", reads = { 1 }, writes = {}, suppress_arg1 = { R_AtomJmp = "fixed mac_yield handshake", }, },
["jump_rel"] = { cycles = 2, kind = "branch", delay_slot = true, },
["li_s"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, value = { dest = 1, immediate = 3, op = "add_ui", source = 2, }, },
["load_byte"] = { cycles = 1, kind = "load", reads = { 2 }, writes = { 1 }, imm = { { arg = 3, signed = true, width = 16, }, }, },
["load_byte_u"] = { cycles = 1, kind = "load", reads = { 2 }, writes = { 1 }, imm = { { arg = 3, signed = true, width = 16, }, }, },
["load_half"] = { cycles = 1, kind = "load", reads = { 2 }, writes = { 1 }, imm = { { arg = 3, signed = true, width = 16, }, }, },
["load_half_u"] = { cycles = 1, kind = "load", reads = { 2 }, writes = { 1 }, imm = { { arg = 3, signed = true, width = 16, }, }, },
["load_imm"] = { cycles = 2, kind = "alu", reads = {}, writes = { 1 }, },
["load_ui"] = { cycles = 1, kind = "alu", reads = {}, writes = { 1 }, },
["load_upper_i"] = { cycles = 1, kind = "alu", reads = {}, writes = { 1 }, imm = { { arg = 2, width = 16, }, }, value = { dest = 1, immediate = 2, op = "load_upper_i", }, },
["load_word"] = { cycles = 1, kind = "load", reads = { 2 }, writes = { 1 }, imm = { { arg = 3, signed = true, width = 16, }, }, },
["mac_yield"] = { cycles = 0, kind = "marker", reads = {}, writes = {}, },
["mask_upper"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, },
["mov_from_high"] = { cycles = 2, kind = "alu", reads = {}, writes = { 1 }, },
["mov_from_low"] = { cycles = 2, kind = "alu", reads = {}, writes = { 1 }, },
["mov_to_high"] = { cycles = 1, kind = "alu", reads = { 1 }, writes = {}, },
["mov_to_low"] = { cycles = 1, kind = "alu", reads = { 1 }, writes = {}, },
["mult_s"] = { cycles = 12, kind = "alu", reads = { 1, 2 }, writes = {}, },
["mult_u"] = { cycles = 12, kind = "alu", reads = { 1, 2 }, writes = {}, },
["nop"] = { cycles = 1, kind = "nop", reads = {}, writes = {}, },
["nop2"] = { cycles = 2, kind = "nop", reads = {}, writes = {}, },
["nor_u"] = { cycles = 1, kind = "alu", },
["or_i"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, imm = { { arg = 3, width = 16, }, }, value = { dest = 1, immediate = 3, op = "or_i", source = 2, }, },
["or_i_self"] = { cycles = 1, kind = "alu", reads = { 1 }, writes = { 1 }, imm = { { arg = 2, width = 16, }, }, value = { dest = 1, immediate = 2, op = "or_i", source = 1, }, },
["or_u"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
["or_u_self"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, value = { dest = 1, op = "or", sources = { 1, 2 }, }, },
["set_lt_s"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
["set_lt_si"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, },
["set_lt_u"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
["set_lt_ui"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, },
["shift_aright"] = { cycles = 1, kind = "alu", reads = { 2 }, writes = { 1 }, imm = { { arg = 3, width = 5, }, }, },
["shift_aright_var"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, imm = { { arg = 3, width = 5, }, }, },
["shift_lleft"] = { cycles = 1, kind = "alu", reads = { 2 }, writes = { 1 }, imm = { { arg = 3, width = 5, }, }, },
["shift_lleft_self"] = { cycles = 1, kind = "alu", reads = { 1 }, writes = { 1 }, imm = { { arg = 2, width = 5, }, }, value = { dest = 1, immediate = 2, op = "shift_lleft", source = 1, }, },
["shift_lleft_var"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
["shift_lright"] = { cycles = 1, kind = "alu", reads = { 2 }, writes = { 1 }, imm = { { arg = 3, width = 5, }, }, },
["slt_s"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
["slt_si"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, imm = { { arg = 3, signed = true, width = 16, }, }, },
["slt_u"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
["slt_ui"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, imm = { { arg = 3, signed = true, width = 16,}, }, },
["store_byte"] = { cycles = 1, kind = "store", reads = { 1, 2 }, writes = {}, imm = { { arg = 3, signed = true, width = 16, }, }, },
["store_half"] = { cycles = 1, kind = "store", reads = { 1, 2 }, writes = {}, imm = { { arg = 3, signed = true, width = 16, }, }, },
["store_word"] = { cycles = 1, kind = "store", reads = { 1, 2 }, writes = {}, imm = { { arg = 3, signed = true, width = 16, }, }, },
["sub_s"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
["sub_u"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
["sys_mov_from_cop0"] = { cycles = 1, kind = "cop0_xfer", reads = {}, writes = { 1 }, },
["sys_mov_to_cop0"] = { cycles = 1, kind = "cop0_xfer", reads = { 1 }, writes = {}, },
["xor_i"] = { cycles = 1, kind = "alu", reads = { 1, 2 }, writes = { 1 }, imm = { { arg = 3, width = 16, }, }, value = { dest = 1, immediate = 3, op = "xor_i", source = 2, }, },
["xor_u"] = { cycles = 1, kind = "alu", reads = { 2, 3 }, writes = { 1 }, },
}
-- One row per GTE command. Alias cycle numbers live here, not on INSTRUCTION.
--- @type table<string, GteCommandRow>
M.GTE_COMMAND = {
["gte_cmdw_avsz3"] = {
aliases = { "gte_avg_sort_z3", "gte_avsz3", "gte_cmdw_avg_sort_z3" },
cycles = 5,
inputs = { "C2_SZ0", "C2_SZ1", "C2_SZ2", "C2_SZ3", "gte_cr_ZSF3" },
outputs = {
{ register = "C2_OTZ", role = "otz", },
},
latch = {
{ register = "C2_OTZ", required = 4, },
},
},
["gte_cmdw_avsz4"] = {
aliases = { "gte_avg_sort_z4", "gte_avsz4", "gte_cmdw_avg_sort_z4" },
cycles = 6,
inputs = { "C2_SZ0", "C2_SZ1", "C2_SZ2", "C2_SZ3", "gte_cr_ZSF4" },
outputs = {
{ register = "C2_OTZ", role = "otz", },
},
latch = {
{ register = "C2_OTZ", required = 4, },
},
},
["gte_cmdw_gpf"] = {
aliases = {},
cycles = 5,
inputs = { "C2_IR0", "C2_IR1", "C2_IR2", "C2_IR3" },
outputs = {
{ register = "C2_MAC1", role = "mac_result", },
{ register = "C2_MAC2", role = "mac_result", },
{ register = "C2_MAC3", role = "mac_result", },
{ register = "C2_IR1", role = "latest_color", },
{ register = "C2_IR2", role = "latest_color", },
{ register = "C2_IR3", role = "latest_color", },
},
latch = {
{ register = "C2_MAC1", required = 4, },
{ register = "C2_MAC2", required = 4, },
{ register = "C2_MAC3", required = 4, },
{ register = "C2_IR1", required = 4, },
{ register = "C2_IR2", required = 4, },
{ register = "C2_IR3", required = 4, },
},
},
["gte_cmdw_mvmva"] = {
aliases = {},
cycles = 8,
inputs = {
"C2_VXY0", "C2_VZ0",
"C2_VXY1", "C2_VZ1",
"C2_VXY2", "C2_VZ2",
"C2_IR1", "C2_IR2", "C2_IR3",
"gte_cr_RT11", "gte_cr_RT12", "gte_cr_RT13",
"gte_cr_RT21", "gte_cr_RT22", "gte_cr_RT23",
"gte_cr_RT31", "gte_cr_RT32", "gte_cr_RT33",
"gte_cr_TRX", "gte_cr_TRY", "gte_cr_TRZ"
},
outputs = {
{ register = "C2_IR1", role = "latest_color", },
{ register = "C2_IR2", role = "latest_color", },
{ register = "C2_IR3", role = "latest_color", },
},
latch = {
{ register = "C2_IR1", required = 4, },
{ register = "C2_IR2", required = 4, },
{ register = "C2_IR3", required = 4, },
},
},
["gte_cmdw_nclip"] = {
aliases = { "gte_nclip" },
cycles = 8,
inputs = { "C2_SXY0", "C2_SXY1", "C2_SXY2" },
outputs = {
{ register = "C2_SZ3", role = "mac_result", },
},
latch = {
{ register = "C2_SZ3", required = 4, },
},
},
["gte_cmdw_op"] = {
aliases = { "gte_cmdw_outer_product", "gte_cmdw_wedge" },
cycles = 6,
inputs = {},
outputs = {
{ register = "C2_IR1", role = "latest_color", },
{ register = "C2_IR2", role = "latest_color", },
{ register = "C2_IR3", role = "latest_color", },
},
latch = {
{ register = "C2_IR1", required = 4, },
{ register = "C2_IR2", required = 4, },
{ register = "C2_IR3", required = 4, },
},
},
["gte_cmdw_rtps"] = {
aliases = { "gte_cmdw_rotate_translate_perspective_single", "gte_rtps" },
cycles = 15,
inputs = {
"C2_VXY0", "C2_VZ0",
"C2_VXY1", "C2_VZ1",
"C2_VXY2", "C2_VZ2",
"C2_RGB", "C2_OTZ",
"C2_IR0", "C2_IR1", "C2_IR2", "C2_IR3",
"C2_SZ0", "C2_SZ1", "C2_SZ2", "C2_SZ3",
"gte_cr_RT11", "gte_cr_RT12", "gte_cr_RT13",
"gte_cr_RT21", "gte_cr_RT22", "gte_cr_RT23",
"gte_cr_RT31", "gte_cr_RT32", "gte_cr_RT33",
"gte_cr_TRX", "gte_cr_TRY", "gte_cr_TRZ",
"gte_cr_OFX", "gte_cr_OFY",
"gte_cr_H",
"gte_cr_DQA", "gte_cr_DQB"
},
outputs = {
{ register = "C2_SXY2", role = "latest_screen_xy", },
{ register = "C2_SZ2", role = "latest_screen_z", },
{ register = "C2_OTZ", role = "otz", },
{ register = "C2_IR0", role = "latest_color", },
},
latch = {
{ register = "C2_SXY2", required = 4, },
{ register = "C2_SZ2", required = 4, },
{ register = "C2_OTZ", required = 4, },
{ register = "C2_IR0", required = 4, },
},
},
["gte_cmdw_rtpt"] = {
aliases = { "gte_cmdw_rotate_translate_perspective_triple", "gte_rtpt" },
cycles = 23,
inputs = {
"C2_VXY0", "C2_VZ0",
"C2_VXY1", "C2_VZ1",
"C2_VXY2", "C2_VZ2",
"C2_RGB", "C2_OTZ",
"C2_IR0", "C2_IR1", "C2_IR2", "C2_IR3",
"C2_SZ0", "C2_SZ1", "C2_SZ2", "C2_SZ3",
"gte_cr_RT11", "gte_cr_RT12", "gte_cr_RT13",
"gte_cr_RT21", "gte_cr_RT22", "gte_cr_RT23",
"gte_cr_RT31", "gte_cr_RT32", "gte_cr_RT33",
"gte_cr_TRX", "gte_cr_TRY", "gte_cr_TRZ",
"gte_cr_OFX", "gte_cr_OFY",
"gte_cr_H",
"gte_cr_DQA", "gte_cr_DQB"
},
outputs = {
{ register = "C2_SXY0", role = "screen_xy[0]", },
{ register = "C2_SXY1", role = "screen_xy[1]", },
{ register = "C2_SXY2", role = "latest_screen_xy", },
{ register = "C2_SZ3", role = "latest_screen_z", },
{ register = "C2_OTZ", role = "otz", },
},
latch = {
{ register = "C2_SXY0", required = 4, },
{ register = "C2_SXY1", required = 4, },
{ register = "C2_SXY2", required = 4, },
{ register = "C2_SZ3", required = 4, },
{ register = "C2_OTZ", required = 4, },
},
},
["gte_cmdw_sqr"] = {
aliases = {},
cycles = 5,
inputs = { "C2_IR1", "C2_IR2", "C2_IR3" },
outputs = {
{ register = "C2_MAC1", role = "mac_result", },
{ register = "C2_MAC2", role = "mac_result", },
{ register = "C2_MAC3", role = "mac_result", },
{ register = "C2_IR1", role = "latest_color", },
{ register = "C2_IR2", role = "latest_color", },
{ register = "C2_IR3", role = "latest_color", },
},
latch = {
{ register = "C2_MAC1", required = 4, },
{ register = "C2_MAC2", required = 4, },
{ register = "C2_MAC3", required = 4, },
{ register = "C2_IR1", required = 4, },
{ register = "C2_IR2", required = 4, },
{ register = "C2_IR3", required = 4, },
},
},
}
--- @param ident string
--- @return InstructionRow|nil
function M.instr (ident) return M.INSTRUCTION [ident] end
--- @param ident string
--- @return string
function M.gte_canon(ident) return M.ALIAS_TO_CANONICAL [ident] or ident end
--- @param ident string
--- @return GteCommandRow|nil
function M.gte (ident) return M.GTE_COMMAND[M.gte_canon(ident)] end
--- @return nil
local function build_alias_map()
--- @type table<string, string> -- bag: alias or canon -> canon
M.ALIAS_TO_CANONICAL = {}
for canon, row in pairs(M.GTE_COMMAND) do ---@type string, GteCommandRow
M.ALIAS_TO_CANONICAL[canon] = canon
for _, alias in ipairs(row.aliases or {}) do ---@type integer, string
M.ALIAS_TO_CANONICAL[alias] = canon
end
end
end
build_alias_map()
--- GTE control-register alias groups.
--- Aliases within a group write to the same C2 control-register slot (the HW double-maps some C2 slots across multiple PSX SDK / libgte conventions).
--- Aliases across groups write to distinct C2 slots.
---
--- Cross-alias writes inside one atom body, or across the wave-context boundary, silently clobber each other.
--- The `check_gte_cr_alias_writes` check warns about each pair per source. See `docs/gte_reference.md` §"Control-register alias table"
--- for the HW rationale and the libgte outer-product convention.
--- @type GteCrAliasGroup[]
M.GTE_CR_ALIAS_GROUPS = {
{ 24, { "gte_cr_RBK", "gte_cr_OFX" } }, -- background R vs screen offset X
{ 25, { "gte_cr_GBK", "gte_cr_OFY" } }, -- background G vs screen offset Y
{ 26, { "gte_cr_BBK", "gte_cr_H" } }, -- background B vs projection plane distance H
}
-- Packed RT slots named by the gte.h packed-slot comment. First must be written before second.
--- @type GtePackedSlotRelation[]
M.GTE_PACKED_SLOT_RELATIONS = {
{ slot = 2, first = "gte_cr_RT13", second = "gte_cr_RT22" },
}
-- Operand-class table for the COP2->GPR load-delay check.
-- Maps each emitting-token ident to the set of GPR operand positions it reads.
-- Covers the current encoder vocabulary (`code/duffle/mips.h` + `code/duffle/gte.h`); add rows here as new encoders land.
--
-- Semantics:
-- * A "GPR operand position" is the textual slot in the macro's argument list, 1-based; e.g. `load_word(rt, base, off)` has positional operands 1 (rt), 2 (base), 3 (off).
-- The table reads operands 1 + 2 + 3 to find what GPRs the macro touches.
-- * The check tracks one entry per destination GPR per MFC2 / CFC2 event.
-- A subsequent event counts as a "use" iff any of its read operand positions reference that destination GPR's ident (e.g. `R_T0`).
-- * Branch delay slots are out of scope (MIPS control-flow; tracked separately).
--- @type table<string, integer[]> -- bag: encoder ident -> GPR operand positions
M.OPERAND_READ_POSITIONS = {
-- CPU ALU with one or two GPR operands. Reads every GPR operand.
["add_ui"] = {1, 2},
["li_s"] = {1, 2}, -- rt (write), imm16 (immediate)
["add_ui_self"] = {1},
["add_si"] = {1, 2},
["add_u"] = {1, 2, 3},
["add_u_self"] = {1, 2},
["sub_s"] = {1, 2, 3},
["sub_u"] = {1, 2, 3},
["and_i"] = {1, 2},
["and"] = {1, 2, 3},
["or_i"] = {1, 2},
["or_i_self"] = {1},
["or"] = {1, 2, 3},
["or_self"] = {1, 2},
["xor_i"] = {1, 2},
["xor"] = {1, 2, 3},
["slt_s"] = {1, 2, 3},
["slt_u"] = {1, 2, 3},
["slt_si"] = {1, 2},
["slt_ui"] = {1, 2},
["mult_s"] = {1, 2},
["mult_u"] = {1, 2},
["div_s"] = {1, 2},
["div_u"] = {1, 2},
-- Shifts: shift_lleft(rd, rt, shamt); the rt operand is the value, rd is dest.
["shift_lleft"] = {1, 2},
["shift_lright"] = {1, 2},
["shift_aright"] = {1, 2},
["shift_lleft_self"] = {1},
-- Loads: load_word(rt, base, off); the rt operand is the destination (it's written, not read) and base + off are non-GPR operands.
-- The check treats the rt operand as a write, so the read-positions table for `load_*` is empty.
["load_word"] = {},
["load_half_u"] = {},
["load_byte_u"] = {},
["load_half"] = {},
["load_byte"] = {},
["load_upper_i"] = {},
["load_ui"] = {},
-- Stores write to memory; base + rt operands are non-read for load-delay purposes.
["store_word"] = {},
["store_half"] = {},
["store_byte"] = {},
-- Branches read rs (+ rt for beq/bne). The branch delay slot is out of scope.
["branch_equal"] = {1, 2},
["branch_ne"] = {1, 2},
["branch_le_zero"] = {1},
["branch_lt_zero"] = {1},
["branch_ge_zero"] = {1},
["branch_gt_zero"] = {1},
-- Jumps / link: jr / jalr read rs only (the target). RD is the destination link.
["jump_reg"] = {1},
["jump_link"] = {1},
["call_reg"] = {1},
["call_addr"] = {},
["jump"] = {},
-- mask_upper is a 2-word macro: shift_lleft then shift_lright. The first reads rt.
["mask_upper"] = {1, 2},
-- move from/to HI/LO.
["mov_from_high"] = {},
["mov_from_low"] = {},
["mov_to_high"] = {1},
["mov_to_low"] = {1},
-- GTE transfers / loads / stores / commands: the relevant table values live in the check itself.
-- `gte_mv_to_*` writes its rt operand; `gte_mv_from_*` writes its rt operand; `gte_*` commands are atomic-from-the-CPU-POV
-- once they issue (the CPU holds until the command completes, so load-delay violations don't surface here).
["gte_mv_from_data_r"] = {},
["gte_mv_from_ctrl_r"] = {},
["gte_mv_to_data_r"] = {},
["gte_mv_to_ctrl_r"] = {},
["gte_lw"] = {},
["gte_sw"] = {},
["shift_lleft_var"] = {1, 2, 3}, -- rd, rt, rs (variable shift amount)
["shift_aright_var"] = {1, 2, 3},
}
-- GP0 packet sizes (total words including the 1-word tag) per GP0 cmd byte.
-- Per PSX-SPX `docs/psx-spx/docs/graphicsprocessingunitgpu.md` §"GPU Render Polygon Commands":
-- Each polygon command's word count = 1 (tag/cmd) + per-vertex (vertex + optional color + optional UV).
-- F3: cmd + 3 vertices = 4 words; +1 tag = 5
-- F4: cmd + 4 vertices = 5 words; +1 tag = 6
-- G3: cmd + 3×(color + vertex) = 6 words; +1 tag = 7
-- G4: cmd + 4×(color + vertex) = 8 words; +1 tag = 9
-- FT3: cmd + tpage + clut + 3×(vertex + UV) = 7 words; +1 tag = 8
-- FT4: cmd + tpage + clut + 4×(vertex + UV) = 9 words; +1 tag = 10
-- GT3: cmd + tpage + clut + 3×(color + vertex + UV) = 9 words; +1 tag = 10
-- GT4: cmd + tpage + clut + 4×(color + vertex + UV) = 12 words; +1 tag = 13
--
-- Cross-checked against code/duffle/gp.h struct sizes + the set_poly_* macros
-- (which encode "len" = "words after tag"):
-- set_poly_f3(p) -> set_len(p, 4) -> 5 total GP0 0x20
-- set_poly_ft3(p) -> set_len(p, 7) -> 8 total GP0 0x24
-- set_poly_f4(p) -> set_len(p, 5) -> 6 total GP0 0x28
-- set_poly_ft4(p) -> set_len(p, 9) -> 10 total GP0 0x2C
-- set_poly_g3(p) -> set_len(p, 6) -> 7 total GP0 0x30
-- set_poly_gt3(p) -> set_len(p, 9) -> 10 total GP0 0x34
-- set_poly_g4(p) -> set_len(p, 8) -> 9 total GP0 0x38
-- set_poly_gt4(p) -> set_len(p, 12) -> 13 total GP0 0x3C
--- @type table<integer, integer> -- bag: GP0 cmd byte -> word count
M.GP0_CMD_SIZE = {
[0x20] = 5, -- Poly_F3
[0x24] = 8, -- Poly_FT3
[0x28] = 6, -- Poly_F4
[0x2C] = 10, -- Poly_FT4
[0x30] = 7, -- Poly_G3
[0x34] = 10, -- Poly_GT3
[0x38] = 9, -- Poly_G4
[0x3C] = 13, -- Poly_GT4
}
-- Shape suffix (after `ac_format_` / `mac_format_` prefix) -> GP0 cmd byte.
-- Lets the static-analysis check derive the cmd byte from a macro name like `mac_format_g4_color` -> `g4` -> 0x38 -> 9 expected words.
--- @type table<string, integer> -- bag: shape suffix -> GP0 cmd byte
M.GP0_CMD_BY_SHAPE = {
["f3"] = 0x20, ["ft3"] = 0x24,
["f4"] = 0x28, ["ft4"] = 0x2C,
["g3"] = 0x30, ["gt3"] = 0x34,
["g4"] = 0x38, ["gt4"] = 0x3C,
}
--- @type integer
M.UNKNOWN_INSTRUCTION_CYCLES = 1
-- Hardware-relation policy table.
--
-- The forward walker in `passes/static_analysis.lua::analyze_hardware_relations` reads every emitted word_event, matches its `encoder` against `row.token`, and:
-- * stages the event as a producer in `atom.paths.forward_state`; or
-- * matches it as a consumer against pending producers and records a hazard on `atom.paths.hazards` when the gap is below `visibility.required`.
--
-- Each row is the contract for one CPU-to-coprocessor transfer semantic (the coprocessor-to-CPU path mirrors the same shape).
-- The `reads` / `writes` sub-tables carry the argument positions the analyzer inspects:
-- * `writes.arg` is the destination operand (the producer's effect); the analyzer stages this register as a pending producer.
-- * `reads` (when present) lists the operand positions the same token reads back from hardware; for MTC2 / CTC2 the producer reads the GPR source it is loading from.
-- The `fanout_to` field (MTC2-IRGB row only) tells the consumer-match logic which downstream COP2 registers are transitively updated by the write.
--
-- Visibility semantics:
-- * `kind = "post_producer_words"` means the consumer observes the producer's effect after `required` independent emitted words that are
-- strictly between the producer and the consumer. The producer's own emitted slot is implicit (it counts as the slot of issue, not toward `required`)
-- per the PSX-SPX rule: "Store delays are counted in numbers of clock cycles (not in numbers of opcodes).
-- For 3 cycle delay, one must usually insert 3 cached opcodes (or one uncached opcode)."
-- * `required` is the minimum count of intervening emitted words between producer and consumer.
-- `required = 0` permits the consumer on the very next slot; `required < 0` would place the consumer on the same slot as the producer
-- and is reserved for future "self-retires" relations.
--
-- Evidence:
-- * `evidence.confidence` is one of `"exact"`, `"conservative"`, `"unknown"`. The severity comes from `violation_kind`;
-- A hardware measurement that the vendor caveats may still classify as `"conservative"` even when the underlying timing is numerically known.
-- * `evidence.source` is the upstream reference (file + line range) the row is sourced from. New rows must carry this citation.
--
-- Consumers:
-- * passes/static_analysis.lua::analyze_hardware_relations (forward walker).
-- * passes/static_analysis.lua::transfer_hazards CHECK_RULES reader (renders hazards onto `findings`).
-- This table is consumed by the hardware-relation analyzer and hazard renderer.
--- @type HardwareRelationRow[]
M.HARDWARE_RELATIONS = {
-- CPU → COP2 data register (MTC2). The ordinary default is 2 cached words between producer and consumer (cpuspecifications.md:407-419).
{
id = "mtc2_gpr_visibility",
semantic = "MTC2",
consumer = "cop2_input",
token = "gte_mv_to_data_r",
direction = "gpr_to_cop2_data",
reads = { domain = "gpr", arg = 1 },
writes = { domain = "cop2.data", arg = 2 },
visibility = { kind = "post_producer_words", required = 2 },
evidence = {
confidence = "exact",
source = "cpuspecifications.md:407-419",
},
violation_kind = "error",
},
-- CPU → COP2 data register when the destination is C2_IRGB (data 28).
-- C2_IRGB drives the IR1/IR2/IR3 color-conversion fan-out, which extends the propagation delay to 3 cached words.
-- `destination_match = "C2_IRGB"` is the row's filter; the analyzer consults this when the producer's destination operand equals "C2_IRGB".
-- C2_ORGB (data 29) is read-only and is never classified as a writable fan-out destination.
{
id = "mtc2_irgb_visibility",
semantic = "MTC2",
consumer = "cop2_input",
token = "gte_mv_to_data_r",
direction = "gpr_to_cop2_data",
reads = { domain = "gpr", arg = 1 },
writes = { domain = "cop2.data", arg = 2 },
destination_match = "C2_IRGB",
fanout_to = { "C2_IR1", "C2_IR2", "C2_IR3" },
visibility = { kind = "post_producer_words", required = 3 },
evidence = {
confidence = "exact",
source = "cpuspecifications.md:407-419",
},
violation_kind = "error",
},
-- CPU → COP2 control register (CTC2). Ordinary minimum 2;
-- no IRGB-style fan-out exists for control registers (per spec §3.6: only C2_IRGB has the 3-cycle fan-out on the data side).
{
id = "ctc2_gpr_visibility",
semantic = "CTC2",
consumer = "cop2_input",
token = "gte_mv_to_ctrl_r",
direction = "gpr_to_cop2_control",
reads = { domain = "gpr", arg = 1 },
writes = { domain = "cop2.ctrl", arg = 2 },
visibility = { kind = "post_producer_words", required = 2 },
evidence = {
confidence = "exact",
source = "cpuspecifications.md:407-419",
},
violation_kind = "error",
},
-- COP2 data → GPR (MFC2). One cached slot between the transfer and the first GPR consumer;
-- the GPR is not updated until the instruction AFTER the MFC2 completes (geometrytransformationenginegte.md:29-32).
{
id = "mfc2_gpr_visibility",
semantic = "MFC2",
consumer = "gpr_read",
token = "gte_mv_from_data_r",
direction = "cop2_data_to_gpr",
reads = { domain = "cop2.data", arg = 2 },
writes = { domain = "gpr", arg = 1 },
visibility = { kind = "post_producer_words", required = 1 },
evidence = {
confidence = "exact",
source = "geometrytransformationenginegte.md:29-32",
},
violation_kind = "error",
},
-- COP2 control → GPR (CFC2). Same delay as MFC2 (cpuspecifications.md treats the two load-from-COP2 paths symmetrically).
{
id = "cfc2_gpr_visibility",
semantic = "CFC2",
consumer = "gpr_read",
token = "gte_mv_from_ctrl_r",
direction = "cop2_control_to_gpr",
reads = { domain = "cop2.ctrl", arg = 2 },
writes = { domain = "gpr", arg = 1 },
visibility = { kind = "post_producer_words", required = 1 },
evidence = {
confidence = "exact",
source = "cpuspecifications.md:382-419",
},
violation_kind = "error",
},
-- COP0 control → GPR (MFC0).
-- One cached slot; the analyzer treats `sys_mov_from_cop0(rt, 12)` (the SR/CU2 transfer) as the same shape as the COP2 load-delay path.
-- The semantic-level SR/CU2 transition models the load delay;
-- SR.CU2 bounded-value propagation is modeled separately).
{
id = "mfc0_gpr_visibility",
semantic = "MFC0",
consumer = "gpr_read",
token = "sys_mov_from_cop0",
direction = "cop0_control_to_gpr",
reads = { domain = "cop0.ctrl", arg = 2 },
writes = { domain = "gpr", arg = 1 },
visibility = { kind = "post_producer_words", required = 1 },
evidence = {
confidence = "exact",
source = "cpuspecifications.md:171-178",
},
violation_kind = "error",
},
-- Memory -> COP2 data register (LWC2).
-- The memory-side timing is not measured by the vendored GTE latch experiment, so this relation has no numeric retirement threshold.
-- The LWC2 destination has TWO retirement regimes (per PSX-SPX):
-- * GTE-command consumer (`gte_cmdw_*`): the GTE pipeline LATCHES the LWC2 result, so a `gte_cmdw_*`
-- in the very next slot uses the latched value. Gap = 0 is allowed. (Per `docs/psx-spx/docs/gtepipelinetimings.md:271-274`.)
-- * Any other consumer: standard MIPS load delay applies. Gap = 1 required. (Per `docs/psx-spx/docs/cpuspecifications.md:407-419`.)
-- Two separate relations so the walker can dispatch by consumer type and emit different severities
-- (the GTE-command path is `info` because the latch is intentional; the non-GTE-consumer path is `error` because the missing nop is a real bug).
{
id = "lwc2_to_gte_command",
semantic = "LWC2_to_GTE",
consumer = "cop2_input",
token = "gte_lw",
direction = "memory_to_cop2_data",
reads = { domain = "memory", arg = 2 },
writes = { domain = "cop2.data", arg = 1 },
required = 0, -- GTE-command consumer: gap = 0 OK (latched).
evidence = {
confidence = "measured",
source = "gtepipelinetimings.md:271-274",
},
violation_kind = "info",
clear_on_consumer = true,
},
{
id = "lwc2_to_other_consumer",
semantic = "LWC2_to_other",
consumer = "cop2_input",
token = "gte_lw",
direction = "memory_to_cop2_data",
reads = { domain = "memory", arg = 2 },
writes = { domain = "cop2.data", arg = 1 },
required = 1, -- Non-GTE-consumer: standard MIPS load delay.
evidence = {
confidence = "inferred",
source = "cpuspecifications.md:407-419",
},
violation_kind = "error",
clear_on_consumer = true,
},
-- COP2 data register -> memory (SWC2). A read of C2 state, not a CPU-to-COP2 write.
-- The policy row stays in for direction/provenance; staging it as a later command-input producer is suppressed.
{
id = "swc2_memory_write",
semantic = "SWC2",
consumer = "gpr_read",
token = "gte_sw",
direction = "cop2_data_to_memory",
reads = { domain = "cop2.data", arg = 1 },
writes = { domain = "memory", arg = 2 },
visibility = { kind = "none", required = 0 },
evidence = {
confidence = "exact",
source = "cpuspecifications.md:79",
},
violation_kind = "info",
stage = false,
},
-- MTC0 Status/SR.CU2. The ordinary COP0 store has no general store-delay relation;
-- this row feeds the dedicated CU2 transition logic in the same forward walk and is therefore not staged in `pending`.
{
id = "mtc0_cu2_visibility",
semantic = "MTC0",
consumer = "gpr_read",
token = "sys_mov_to_cop0",
direction = "gpr_to_cop0_status",
reads = { domain = "gpr", arg = 1 },
writes = { domain = "cop0.status", arg = 2 },
status_register = 12,
visibility = { kind = "post_producer_words", required = 2 },
evidence = {
confidence = "conservative",
source = "cpuspecifications.md:543,625-628",
},
violation_kind = "warning",
stage = false,
cu2_transition = true,
},
}
-- Bounded Status/SR.CU2 transition policy.
-- The value lattice and the transition consumer both read this immutable row; no second value pass is permitted.
-- The source says the enable/disable transition takes "2 clock cycles or so", so the boundary is conservative rather than exact.
--- @type Cu2TransitionPolicy
M.CU2_TRANSITION_POLICY = {
status_register = 12,
enable_bit = 0x40000000,
required = 2,
visibility_kind = "post_producer_words",
evidence = {
confidence = "conservative",
source = "cpuspecifications.md:543,625-628",
},
}
return M
+89
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@@ -0,0 +1,89 @@
--- duffle_paths.lua — Single-line bootstrap helper for the tape-atom Lua scripts.
---
--- Each entry script (ps1_meta.lua + the 7 passes/*.lua files) starts with one of:
--- ```lua
--- -- Entry script (ps1_meta.lua — `arg[0]` is set):
--- local duffle = dofile((arg[0]:match("(.*[/\\])") or "./") .. "duffle_paths.lua")
---
--- -- Pass module (debug.getinfo path resolution; works both standalone and when require'd):
--- local _bootstrap_dir = debug.getinfo(1, "S").source:match("^@?(.*[/\\])") or "./"
--- local duffle = dofile(_bootstrap_dir .. "../duffle_paths.lua")
--- ```
---
--- That small bootstrap: (a) locates this helper via `arg[0]` / `debug.getinfo`,
--- (b) loads it (which sets `package.path` + `package.cpath`),
--- (c) at the bottom calls `require("duffle")` (now resolvable since `package.path` was just set) and returns the duffle M.
--- Net effect: the caller gets the duffle module in one statement; no separate `dofile(...)` + `require("duffle")` dance.
---
--- @class DufflePaths
--- @field setup fun(): nil
local M = {} ---@type DufflePaths
-- Cache key for the repo root. Stored in `package.loaded` (process-global) so all 8 entry scripts + passes scripts share one resolution.
local CACHE_KEY = "__duffle_repo_root__" ---@type string
--- Resolve the repo root from this script's own path. Zero shell spawn.
--- `duffle_paths.lua` always lives at `<repo>/scripts/duffle_paths.lua`, so the repo root is the parent of the directory containing this script.
--- We derive it directly from `debug.getinfo(1, "S").source` (returns `@<path>` for the currently-running chunk).
---
--- If `debug.getinfo` can't parse this script's path (shouldn't happen — dofile always populates source), return nil and let `M.setup()` fail loud.
--- @return string|nil
local function find_repo_root()
if package.loaded[CACHE_KEY] then return package.loaded[CACHE_KEY] end
local source = debug.getinfo(1, "S").source ---@type string
-- Strip the leading `@` (Lua's dofile marker) and the trailing `/duffle_paths.lua` filename.
-- What remains is the directory containing this script, i.e. `<repo>/scripts/`.
local scripts_dir = source and source:match("^@?(.*)[/\\]duffle_paths%.lua$") ---@type string|nil
if not scripts_dir then return nil end
-- The repo root is the parent of `scripts/`. Strip the trailing `scripts/` (with or without trailing slash).
local root = scripts_dir:gsub("scripts[\\/]?$", "") ---@type string
root = root:gsub("\\", "/")
if root == "" then root = "./" end
if not root:match("/$") then root = root .. "/" end
package.loaded[CACHE_KEY] = root
return root
end
--- Set `package.path` (for `require("duffle")` + `require("passes.X")`) and `package.cpath` (for `lpeg.dll`).
---
--- This script does NOT touch the OS environment: no `os.setenv`, no `os.putenv`, no `$PATH` mods.
--- It just sets `package.path` and `package.cpath` (the standard Lua way to register module search dirs).
--- lpeg is built by `update_deps.ps1` to `toolchain/lpeg/`, which we wire into `package.cpath` here (so `require("lpeg")` from `duffle.lua` resolves without any global state).
--- @return nil
function M.setup()
local repo_root = find_repo_root() ---@type string|nil
if not repo_root then
-- Unreachable in practice: find_repo_root() derives the repo root from this script's own source path via debug.getinfo(1, "S").source (no subprocess, no git CLI, <1ms).
-- A nil return means the source path did not match the expected <repo>/scripts/duffle_paths.lua layout — a packaging bug, not a "missing git repo" condition.
-- os.exit(2) is retained so a real failure surfaces loud rather than silently producing an unconfigured module table.
os.exit(2)
end
local scripts_dir = repo_root .. "scripts/" ---@type string
local passes_dir = repo_root .. "scripts/passes/" ---@type string
package.path = scripts_dir .. "?.lua;"
.. scripts_dir .. "?/init.lua;"
.. passes_dir .. "?.lua;"
.. passes_dir .. "?/init.lua;"
.. package.path
-- lpeg: built by `update_deps.ps1` to `toolchain/lpeg/lpeg.dll`.
-- lfs: compiled from pcsx-redux's vendored luafilesystem source to `toolchain/lfs/lfs.dll`.
-- Wire both directories into cpath so `require("lpeg")` and `require("lfs")` resolve.
local lpeg_dir = repo_root .. "toolchain/lpeg/" ---@type string
local lfs_dir = repo_root .. "toolchain/lfs/" ---@type string
package.cpath = lpeg_dir .. "?.dll;"
.. lfs_dir .. "?.dll;"
.. package.cpath
end
-- Run the setup as a side effect.
M.setup()
-- Now that package.path includes scripts/, `require("duffle")` resolves.
-- Return the duffle module so callers can do `local duffle = dofile(...duffle_paths.lua)` in one line.
return require("duffle")
File diff suppressed because it is too large Load Diff
+511
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@@ -0,0 +1,511 @@
-- elf32.lua — Pure-Lua ELF32 format helpers with no lfs / no lpeg dependency.
-- The reload helper's `parse_manifest` (scripts/pcsx_debug_helper/reload.lua)
-- and the metaprogram's `read_elf_sections` + `read_nm` (scripts/elf_dwarf.lua)
-- both parsed ELF32 headers from wire bytes.
--
-- This module contains the format constants and the byte-level walker.
--- The metaprogram side keeps `read_u32_le` / `read_u16_le` as local forwarders; the helper side calls `E.*` directly.
--
-- **Adapter contract (explicit pass style):**
-- The helper VM's `Support.File` exposes byte-read methods that require `self` (fileffi.lua:225-227),
-- so callers wrap once in a 1-line adapter that strips `self`.
-- The parsers here operate on the unwrapped form.
-- Reads are flat function calls — `E.read_u8(adapter, off)`, `E.read_u32(adapter, off)`, `E.size(adapter)`.
-- read_u8(adapter, off) -> integer | nil
-- read_u16(adapter, off) -> integer | nil
-- read_u32(adapter, off) -> integer | nil
-- size(adapter) -> integer
--
-- **Convention:** every offset in the constants tables is a zero-based wire offset.
-- The `+ 1` conversion happens only at the `string.byte` boundary inside the readers.
--
-- spec: System V ABI gABI v1.2 §"ELF Header" (Table 1) + §"Section Header Table"
-- spec: System V ABI gABI v1.2 §"Symbol Table" (Elf32_Sym layout)
--- @class Elf32Adapter
--- @field read_u8_at fun(off: integer): integer|nil
--- @field read_u16_at fun(off: integer): integer|nil
--- @field read_u32_at fun(off: integer): integer|nil
--- @field read_size fun(): integer
--- @class Elf32Header
--- @field e_entry integer
--- @field e_shoff integer
--- @field e_shentsize integer
--- @field e_shnum integer
--- @field e_shstrndx integer
--- @field error string|nil
--- @class Elf32Section
--- @field sh_name integer
--- @field sh_type integer
--- @field sh_flags integer
--- @field sh_addr integer
--- @field sh_offset integer
--- @field sh_size integer
--- @field sh_link integer
--- @field name string
--- @class Elf32Sym
--- @field value integer
--- @field size integer
--- @field info integer
--- @field shndx integer
--- @class Elf32HeaderLayout
--- @field magic_offset integer
--- @field magic string
--- @field class_offset integer
--- @field endian_offset integer
--- @field header_bytes integer
--- @field e_entry_offset integer
--- @field e_shoff_offset integer
--- @field e_shentsize_offset integer
--- @field e_shnum_offset integer
--- @field e_shstrndx_offset integer
--- @class Elf32SectionLayout
--- @field sh_name_offset integer
--- @field sh_type_offset integer
--- @field sh_flags_offset integer
--- @field sh_addr_offset integer
--- @field sh_offset_offset integer
--- @field sh_size_offset integer
--- @field sh_link_offset integer
--- @field sh_entsize_bytes integer
--- @class Elf32SymLayout
--- @field st_name integer
--- @field st_value integer
--- @field st_size integer
--- @field st_info integer
--- @field sym_entry_bytes integer
--- @class Elf32Mod
--- @field ELFCLASS32 integer
--- @field ELFDATA2LSB integer
--- @field EM_MIPS integer
--- @field SHT_SYMTAB integer
--- @field SHT_STRTAB integer
--- @field SHT_NOBITS integer
--- @field SHF_WRITE integer
--- @field SHF_ALLOC integer
--- @field SHF_EXECINSTR integer
--- @field ELF32_HEADER Elf32HeaderLayout
--- @field ELF32_SECTION Elf32SectionLayout
--- @field ELF32_SYM Elf32SymLayout
--- @field dw_dwarf32_terminator integer
--- @field read_u32 fun(adapter: Elf32Adapter, off: integer): integer|nil
--- @field read_u16 fun(adapter: Elf32Adapter, off: integer): integer|nil
--- @field read_u8 fun(adapter: Elf32Adapter, off: integer): integer|nil
--- @field size fun(adapter: Elf32Adapter): integer
--- @field read_u32_le fun(buf: string, off: integer): integer
--- @field read_u16_le fun(buf: string, off: integer): integer
--- @field validate_adapter fun(adapter: any): boolean, string|nil
--- @field get_str fun(strtab: string, off: integer): string|nil
--- @field parse_elf32_headers fun(adapter: Elf32Adapter): Elf32Header|nil, string|nil
--- @field walk_sections fun(adapter: Elf32Adapter, hdr: Elf32Header): Elf32Section[]|nil, string|nil
--- @field read_section_bytes fun(adapter: Elf32Adapter, section: Elf32Section): string|nil
--- @field read_named_section fun(adapter: Elf32Adapter, sections: Elf32Section[], name: string): string|nil, string|nil
--- @field collect_symbols fun(adapter: Elf32Adapter, sections: Elf32Section[]): table<string, Elf32Sym>|nil, string|nil
local M = {} ---@type Elf32Mod
-- ════════════════════════════════════════════════════════════════════════════
-- Little-endian readers (bit-weighted accumulator, math.floor only)
-- ════════════════════════════════════════════════════════════════════════════
--- Read a 4-byte little-endian unsigned integer from `adapter` at zero-based wire offset `off`.
---
--- Bit weights are written as `0x100`, `0x10000`, `0x1000000` (i.e. 2^8, 2^16, 2^24) so the LE byte positions are visually explicit:
--- byte 0 contributes its value directly;
--- byte 1 is shifted left by 8; byte 2 by 16; byte 3 by 24.
---
--- math.floor (not LuaJIT's `>>`) keeps the body portable across LuaJIT 2.0/2.1 and plain Lua 5.x. `string.byte` receives `+ 1` at the boundary.
---
--- **Call form:** explicit-pass. The reader receives `adapter` as the first positional argument and the offset as the second; no `self` is passed.
--- Test fixtures declare `function(offset) ... end` and the parsers call them via dot syntax `adapter.read_u8_at(off)`.
--- The colon form `adapter:read_u8_at(off)` would prepend the adapter table as `offset` and break the contract.
--- @param adapter Elf32Adapter
--- @param off integer -- zero-based wire offset
--- @return integer|nil
function M.read_u32(adapter, off)
return adapter.read_u8_at(off)
+ adapter.read_u8_at(off + 0x01) * 0x00000100
+ adapter.read_u8_at(off + 0x02) * 0x00010000
+ adapter.read_u8_at(off + 0x03) * 0x01000000
end
--- Read a 2-byte little-endian unsigned integer from `adapter` at zero-based wire offset `off`.
--- @param adapter Elf32Adapter
--- @param off integer -- zero-based wire offset
--- @return integer|nil
function M.read_u16(adapter, off)
return adapter.read_u8_at(off)
+ adapter.read_u8_at(off + 0x01) * 0x00000100
end
--- Read a 1-byte unsigned integer from `adapter` at zero-based wire offset `off`.
--- @param adapter Elf32Adapter
--- @param off integer -- zero-based wire offset
--- @return integer|nil
function M.read_u8(adapter, off)
return adapter.read_u8_at(off)
end
--- Total adapter byte length.
--- @param adapter Elf32Adapter
--- @return integer
function M.size(adapter)
return adapter.read_size()
end
--- Forwarders kept for backward compat with scripts/elf_dwarf.lua.
--- The metaprogram side keeps `read_u32_le` / `read_u16_le`;
--- both layers now use the same byte-level helpers under the hood.
--- @param buf string
--- @param off integer
--- @return integer
function M.read_u32_le(buf, off)
local byte_off = off + 1 ---@type integer
return buf:byte(byte_off)
+ buf:byte(byte_off + 0x01) * 0x00000100
+ buf:byte(byte_off + 0x02) * 0x00010000
+ buf:byte(byte_off + 0x03) * 0x01000000
end
--- Read a 2-byte little-endian unsigned integer from `buf` at zero-based wire offset `off`.
--- @param buf string
--- @param off integer -- zero-based wire offset
--- @return integer
function M.read_u16_le(buf, off)
local byte_off = off + 1 ---@type integer
return buf:byte(byte_off) + buf:byte(byte_off + 0x01) * 0x00000100
end
-- ════════════════════════════════════════════════════════════════════════════
-- Format constants
-- ════════════════════════════════════════════════════════════════════════════
-- ELF format constants (System V ABI gABI v1.2).
M.ELFCLASS32 = 1 -- spec: gABI v1.2 §"ELF Header" — EI_CLASS byte
M.ELFDATA2LSB = 1 -- spec: gABI v1.2 §"ELF Header" — EI_DATA byte
M.EM_MIPS = 8 -- spec: gABI v1.2 §"Machine Information" — MIPS architecture
-- Section type constants (System V ABI gABI v1.2 §"Section Header Table").
M.SHT_SYMTAB = 2 -- spec: gABI v1.2 §"Section Types" — symbol table
M.SHT_STRTAB = 3 -- spec: gABI v1.2 §"Section Types" — string table
M.SHT_NOBITS = 8 -- spec: gABI v1.2 §"Section Types" — no space in file
-- Section flag constants (System V ABI gABI v1.2 §"Section Header Table").
M.SHF_WRITE = 0x1 -- spec: gABI v1.2 §"Section Attributes" — writable
M.SHF_ALLOC = 0x2 -- spec: gABI v1.2 §"Section Attributes" — occupies memory
M.SHF_EXECINSTR = 0x4 -- spec: gABI v1.2 §"Section Attributes" — executable
-- ---------------------------------------------------------------------------
-- ELF32 header layout (System V ABI gABI v1.2 §"ELF Header" Table 1)
-- ---------------------------------------------------------------------------
-- All offsets are zero-based wire offsets. The header is 52 bytes total (header_bytes = 0x34 = 52).
--- @type Elf32HeaderLayout
M.ELF32_HEADER = {
magic_offset = 0x00, -- 4 bytes; expected "\127ELF"
magic = "\127ELF",
class_offset = 0x04, -- 1 byte; 1 = ELF32, 2 = ELF64
endian_offset = 0x05, -- 1 byte; 1 = little-endian, 2 = big-endian
header_bytes = 0x34, -- ELF32 header is 52 bytes total
e_entry_offset = 0x18, -- 4-byte LE; entry-point virtual address
e_shoff_offset = 0x20, -- 4-byte LE; section-header table file offset
e_shentsize_offset = 0x2E, -- 2-byte LE; section-header entry size in bytes
e_shnum_offset = 0x30, -- 2-byte LE; number of section headers
e_shstrndx_offset = 0x32, -- 2-byte LE; index of section-name string table
}
-- ---------------------------------------------------------------------------
-- ELF32 section-header layout (System V ABI gABI v1.2 §"Section Header Table")
-- ---------------------------------------------------------------------------
-- Each entry is 40 bytes (sh_entsize_bytes = 0x28 = 40);
-- zero-based, field offsets relative to the start of the entry.
--- @type Elf32SectionLayout
M.ELF32_SECTION = {
sh_name_offset = 0x00, -- 4-byte LE; offset into .shstrtab
sh_type_offset = 0x04, -- 4-byte LE; section type (SHT_*)
sh_flags_offset = 0x08, -- 4-byte LE; section flags (SHF_*)
sh_addr_offset = 0x0C, -- 4-byte LE; virtual address at execution
sh_offset_offset = 0x10, -- 4-byte LE; section's file offset
sh_size_offset = 0x14, -- 4-byte LE; section's size in bytes
sh_link_offset = 0x18, -- 4-byte LE; link to a related section
sh_entsize_bytes = 0x28, -- spec: gABI v1.2 §"Section Header Table" — 40 bytes per entry
}
-- ---------------------------------------------------------------------------
-- ELF32 symbol-table entry layout (System V ABI gABI v1.2 §"Symbol Table")
-- ---------------------------------------------------------------------------
-- Each entry is 16 bytes (sym_entry_bytes = 0x10 = 16);
-- zero-based, field offsets relative to the start of the entry.
--- @type Elf32SymLayout
M.ELF32_SYM = {
st_name = 0x00, -- 4-byte LE; offset into the linked string table
st_value = 0x04, -- 4-byte LE; symbol value (address / absolute)
st_size = 0x08, -- 4-byte LE; symbol size in bytes
st_info = 0x0C, -- 1 byte; binding (high nibble) + type (low nibble)
sym_entry_bytes = 0x10, -- spec: gABI v1.2 §"Symbol Table" — 16 bytes per entry
}
-- DWARF32 initial-length terminator (DWARF4 §7.4) — kept here so the metaprogram's elf_dwarf.lua can drop its own copy of the same constant.
M.dw_dwarf32_terminator = 0xFFFFFFFF
-- ════════════════════════════════════════════════════════════════════════════
-- Adapter validation
-- ════════════════════════════════════════════════════════════════════════════
--- Validate that `adapter` exposes the byte-read surface.
--- Returns true on success, false + a stable error code on failure.
--- The helper side calls this before parse_manifest to reject callers before any byte is read.
--- @param adapter any
--- @return boolean, string|nil
function M.validate_adapter(adapter)
if type(adapter) ~= "table" then return false, "bad_file_adapter" end
if type(adapter.read_u8_at) ~= "function" then return false, "bad_file_adapter" end
if type(adapter.read_u16_at) ~= "function" then return false, "bad_file_adapter" end
if type(adapter.read_u32_at) ~= "function" then return false, "bad_file_adapter" end
if type(adapter.read_size) ~= "function" then return false, "bad_file_adapter" end
return true, nil
end
-- ════════════════════════════════════════════════════════════════════════════
-- String-table reader
-- ════════════════════════════════════════════════════════════════════════════
--- Extract a NUL-terminated C string from `strtab` at zero-based offset `off`.
--- Returns nil if `off` is out of range or the string is not NUL-terminated.
--- @param strtab string
--- @param off integer
--- @return string|nil
function M.get_str(strtab, off)
if off < 0 or off >= #strtab then return nil end
local end_pos = strtab:find("\0", off + 1, true) ---@type integer|nil
if not end_pos then return nil end
return strtab:sub(off + 1, end_pos - 1)
end
-- ════════════════════════════════════════════════════════════════════════════
-- Header / section / symbol walkers
-- ════════════════════════════════════════════════════════════════════════════
--- Read the ELF32 header through `adapter` and validate the magic, class, and data encoding.
--- Returns a table on success:
--- { e_entry, e_shoff, e_shentsize, e_shnum, e_shstrndx, error = nil }
--- On failure returns nil + a stable error code:
--- bad_magic, unsupported_elf_class, unsupported_elf_data, truncated_header
--- The header's machine field is NOT validated here — callers (e.g. the helper's prime path) decide whether to require EM_MIPS before symbol reads.
--- @param adapter Elf32Adapter
--- @return Elf32Header|nil, string|nil
function M.parse_elf32_headers(adapter)
local ok, err = M.validate_adapter(adapter) ---@type boolean, string|nil
if not ok then return nil, err end
-- 4-byte magic: 0x7F 'E' 'L' 'F'.
-- The byte readers take the adapter explicitly.
-- The production `Support.File` adapter is wrapped by the caller to drop its implicit `self` so the parser shape is flat pass-style.
local b1 = M.read_u8(adapter, 0) ---@type integer|nil
local b2 = M.read_u8(adapter, 1) ---@type integer|nil
local b3 = M.read_u8(adapter, 2) ---@type integer|nil
local b4 = M.read_u8(adapter, 3) ---@type integer|nil
if not (b1 and b2 and b3 and b4)
or not (b1 == 0x7f and b2 == 0x45 and b3 == 0x4c and b4 == 0x46) then
return nil, "bad_magic"
end
local class = M.read_u8(adapter, M.ELF32_HEADER.class_offset) ---@type integer|nil
if class ~= M.ELFCLASS32 then
return nil, "unsupported_elf_class"
end
local data = M.read_u8(adapter, M.ELF32_HEADER.endian_offset) ---@type integer|nil
if data ~= M.ELFDATA2LSB then
return nil, "unsupported_elf_data"
end
local e_entry = M.read_u32(adapter, M.ELF32_HEADER.e_entry_offset) ---@type integer|nil
local e_shoff = M.read_u32(adapter, M.ELF32_HEADER.e_shoff_offset) ---@type integer|nil
local e_shentsize = M.read_u16(adapter, M.ELF32_HEADER.e_shentsize_offset) ---@type integer|nil
local e_shnum = M.read_u16(adapter, M.ELF32_HEADER.e_shnum_offset) ---@type integer|nil
local e_shstrndx = M.read_u16(adapter, M.ELF32_HEADER.e_shstrndx_offset) ---@type integer|nil
if not (e_entry and e_shoff and e_shentsize and e_shnum and e_shstrndx) then
return nil, "truncated_header"
end
return {
e_entry = e_entry,
e_shoff = e_shoff,
e_shentsize = e_shentsize,
e_shnum = e_shnum,
e_shstrndx = e_shstrndx,
error = nil,
}
end
--- Read one section-header entry from `adapter` at `sh_off`.
--- Returns a table with the wire fields plus a (yet-unresolved) `name` field.
--- @param adapter Elf32Adapter
--- @param sh_off integer
--- @return Elf32Section|nil, string|nil
local function read_section_entry(adapter, sh_off)
local entry = { ---@type Elf32Section
sh_name = M.read_u32(adapter, sh_off + M.ELF32_SECTION.sh_name_offset),
sh_type = M.read_u32(adapter, sh_off + M.ELF32_SECTION.sh_type_offset),
sh_flags = M.read_u32(adapter, sh_off + M.ELF32_SECTION.sh_flags_offset),
sh_addr = M.read_u32(adapter, sh_off + M.ELF32_SECTION.sh_addr_offset),
sh_offset = M.read_u32(adapter, sh_off + M.ELF32_SECTION.sh_offset_offset),
sh_size = M.read_u32(adapter, sh_off + M.ELF32_SECTION.sh_size_offset),
sh_link = M.read_u32(adapter, sh_off + M.ELF32_SECTION.sh_link_offset),
name = "",
}
if not (entry.sh_name and entry.sh_type and entry.sh_flags and entry.sh_addr
and entry.sh_offset and entry.sh_size and entry.sh_link) then
return nil, "truncated_section_headers"
end
return entry, nil
end
--- Walk every section header in `hdr` and return a 1-based array of entries
--- (the section at logical index 0 is at array position 1, etc.).
--- Each entry has the wire fields plus a resolved `name` derived from `.shstrtab`.
--- Returns nil + a stable error code on failure: truncated_section_headers, missing_shstrtab, truncated_strtab
--- @param adapter Elf32Adapter
--- @param hdr Elf32Header
--- @return Elf32Section[]|nil, string|nil
function M.walk_sections(adapter, hdr)
if not hdr or hdr.error then return nil, hdr and hdr.error or "truncated_section_headers" end
local file_size = M.size(adapter) ---@type integer
if hdr.e_shoff + hdr.e_shnum * hdr.e_shentsize > file_size then
return nil, "truncated_section_headers"
end
-- Read every section header first; we need .shstrtab to resolve names.
local sections = {} ---@type Elf32Section[]
for i = 0, hdr.e_shnum - 1 do ---@type integer
local sh_off = hdr.e_shoff + i * hdr.e_shentsize ---@type integer
local entry, err = read_section_entry(adapter, sh_off) ---@type Elf32Section|nil, string|nil
if not entry then return nil, err end
sections[i + 1] = entry
end
if hdr.e_shstrndx >= hdr.e_shnum then
return nil, "missing_shstrtab"
end
local shstrtab = sections[hdr.e_shstrndx + 1] ---@type Elf32Section|nil
if not shstrtab or shstrtab.sh_type ~= M.SHT_STRTAB then
return nil, "missing_shstrtab"
end
if shstrtab.sh_offset + shstrtab.sh_size > file_size then
return nil, "truncated_section_headers"
end
local shstrtab_bytes = M.read_section_bytes(adapter, shstrtab) ---@type string|nil
if not shstrtab_bytes then return nil, "truncated_section_headers" end
for _, s in ipairs(sections) do ---@type integer, Elf32Section
s.name = M.get_str(shstrtab_bytes, s.sh_name) or ""
end
return sections, nil
end
--- Read the bytes of one section. Returns a string, or nil if the adapter returns nil for any byte (out-of-bounds).
--- The caller is responsible fors sizing the buffer (the section's sh_offset + sh_size must fit in adapter.size).
--- @param adapter Elf32Adapter
--- @param section Elf32Section
--- @return string|nil
function M.read_section_bytes(adapter, section)
local size = section.sh_size ---@type integer
if size == 0 then return "" end
local out = {} ---@type string[]
for i = 0, size - 1 do ---@type integer
local b = M.read_u8(adapter, section.sh_offset + i) ---@type integer|nil
if b == nil then return nil end
out[#out + 1] = string.char(b)
end
return table.concat(out)
end
--- Convenience: walk sections, then look up the named section, then read its bytes.
--- Returns nil + a stable error code if the section is absent or out-of-bounds.
--- @param adapter Elf32Adapter
--- @param sections Elf32Section[]
--- @param name string
--- @return string|nil, string|nil
function M.read_named_section(adapter, sections, name)
if not sections then return nil, "missing_section" end
for _, s in ipairs(sections) do ---@type integer, Elf32Section
if s.name == name then
local bytes = M.read_section_bytes(adapter, s) ---@type string|nil
if not bytes then return nil, "truncated_section_data" end
return bytes, nil
end
end
return nil, "missing_section"
end
--- Walk every SHT_SYMTAB section in `sections` and accumulate symbols by name.
--- Each stored entry is `{ value = st_value, size = st_size, info = st_info, shndx = st_shndx }`.
--- Both STB_LOCAL and STB_GLOBAL symbols are included; the live ELF stores `smem` as a local symbol.
--- Returns nil + a stable error code on failure: missing_symtab_strtab, truncated_section_headers
--- @param adapter Elf32Adapter
--- @param sections Elf32Section[]
--- @return table<string, Elf32Sym>|nil, string|nil
function M.collect_symbols(adapter, sections)
if not sections then return nil, "missing_sections" end
local symbols = {} ---@type table<string, Elf32Sym> -- bag: symbol name -> Elf32Sym
local file_size = M.size(adapter) ---@type integer
for _, s in ipairs(sections) do ---@type integer, Elf32Section
if s.sh_type == M.SHT_SYMTAB then
local strtab = sections[s.sh_link + 1] ---@type Elf32Section|nil
if not strtab or strtab.sh_type ~= M.SHT_STRTAB then
return nil, "missing_symtab_strtab"
end
if strtab.sh_offset + strtab.sh_size > file_size then
return nil, "truncated_section_headers"
end
local strtab_bytes = M.read_section_bytes(adapter, strtab) ---@type string|nil
if not strtab_bytes then return nil, "truncated_section_headers" end
if s.sh_offset + s.sh_size > file_size then
return nil, "truncated_section_headers"
end
local symtab_bytes = M.read_section_bytes(adapter, s) ---@type string|nil
if not symtab_bytes then return nil, "truncated_section_headers" end
local n = #symtab_bytes / M.ELF32_SYM.sym_entry_bytes ---@type number
for j = 0, n - 1 do ---@type integer
local e = s.sh_offset + j * M.ELF32_SYM.sym_entry_bytes ---@type integer
local st_name = M.read_u32(adapter, e + M.ELF32_SYM.st_name) ---@type integer|nil
if st_name then
local st_value = M.read_u32(adapter, e + M.ELF32_SYM.st_value) ---@type integer|nil
local st_size = M.read_u32(adapter, e + M.ELF32_SYM.st_size) ---@type integer|nil
local st_info = M.read_u8(adapter, e + M.ELF32_SYM.st_info) ---@type integer|nil
-- st_shndx is at offset 14 (2 bytes) — derived from the layout
-- the metaprogram reads too. Inline the read to keep the
-- adapter as the only I/O surface.
local b1 = M.read_u8(adapter, e + 14) ---@type integer|nil
local b2 = M.read_u8(adapter, e + 15) ---@type integer|nil
if not (b1 and b2) then
return nil, "truncated_section_headers"
end
local st_shndx = b1 + b2 * 0x100 ---@type integer
local name = M.get_str(strtab_bytes, st_name) or "" ---@type string
if name ~= "" then
symbols[name] = {
value = st_value,
size = st_size,
info = st_info,
shndx = st_shndx,
}
end
end
end
end
end
return symbols, nil
end
return M
File diff suppressed because it is too large Load Diff
+105
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@@ -0,0 +1,105 @@
# scripts/gdb/gdb_tape_atoms.gdb
#
# Wrapper for the tape-atom step-debug helpers.
# The 9 user commands are defined here as STUBS (degraded-state messages).
# The real implementations + the per-atom data tables are emitted by `passes/atoms_source_map.lua`
# (post-link invocation: `ps1_meta.lua --atoms-source-map --gdb-runtime --elf <elf>`) into `build/gdb_tape_atoms_runtime.gdb`.
# Sourcing that file RE-DEFINES the commands with real implementations.
#
# If `build/gdb_tape_atoms_runtime.gdb` is missing or stale, the stubs remain (E1: no source map).
# The user just needs to re-run `build_psyq.ps1` to regenerate.
# ?? Stub commands (defined here so they're always present, even if the runtime file is missing). The runtime file overrides these if sourced. ??
define tape_atoms
echo "[gdb_tape_atoms] STUB: runtime file build/gdb_tape_atoms_runtime.gdb not found."
echo "[gdb_tape_atoms] STUB: run .\\build_psyq.ps1 to regenerate, then re-source this file."
end
document tape_atoms
List every tape atom symbol in the loaded ELF with its .rodata address and word count.
STUB state: runtime file not sourced. Run build_psyq.ps1 to regenerate.
end
define break_atom
echo "[gdb_tape_atoms] STUB: build/gdb_tape_atoms_runtime.gdb not sourced. Run build_psyq.ps1."
end
document break_atom
Set a breakpoint at the start of tape atom <name>. STUB state.
end
define step_atom
echo "[gdb_tape_atoms] STUB: build/gdb_tape_atoms_runtime.gdb not sourced. Run build_psyq.ps1."
end
document step_atom
Resume execution until the next atom boundary. STUB state.
end
define next_atom
echo "[gdb_tape_atoms] STUB: build/gdb_tape_atoms_runtime.gdb not sourced. Run build_psyq.ps1."
end
document next_atom
Alias for step_atom. STUB state.
end
define where_in_atom
echo "[gdb_tape_atoms] STUB: build/gdb_tape_atoms_runtime.gdb not sourced. Run build_psyq.ps1."
end
document where_in_atom
Report current atom name, .rodata addr, word offset, and source line (if known). STUB state.
end
define stepi_inside_atom
echo "[gdb_tape_atoms] STUB: build/gdb_tape_atoms_runtime.gdb not sourced. Run build_psyq.ps1."
end
document stepi_inside_atom
One MIPS-instruction step, then where_in_atom. STUB state.
end
define show_c2
printf "C2[ 0] 0x%08x\n", $c2_data[0]
printf "C2[ 7] 0x%08x [otz]\n", $c2_data[7]
printf "C2[12] 0x%08x [sxy0]\n", $c2_data[12]
printf "C2[13] 0x%08x [sxy1]\n", $c2_data[13]
printf "C2[14] 0x%08x [sxy2]\n", $c2_data[14]
printf "C2[24] 0x%08x [mac0]\n", $c2_data[24]
printf "...\n"
echo "(STUB state: only 7 representative regs shown. Run build_psyq.ps1 for full dump.)"
end
document show_c2
Pretty-print all 32 C2 data registers as hex + named alias. STUB state (7 reg subset).
end
define show_c2ctl
printf "C2CTL[ 0] 0x%08x\n", $c2_control[0]
printf "...\n"
echo "(STUB state: only 1 reg shown. Run build_psyq.ps1 for full dump.)"
end
document show_c2ctl
Pretty-print all 32 C2 control registers. STUB state (1 reg subset).
end
define wave_ctx
printf "$t4 = R_FaceCursor 0x%08x\n", $t4
printf "$t5 = R_VertBase 0x%08x\n", $t5
printf "$t6 = R_OtBase 0x%08x\n", $t6
printf "$t7 = R_PrimCursor 0x%08x\n", $t7
end
document wave_ctx
Pretty-print the 4 wave-context GPRs ($t4..$t7). (wave_ctx works in stub state too.)
end
# ?? Source the runtime file (re-defines commands with real impls + data). ??
# Try to source from project-root-relative path first (the typical case).
# If the user is in a different CWD, the source will fail and stubs remain.
# The runtime file path is computed relative to the ELF's source map convention (build/gdb_tape_atoms_runtime.gdb).
echo [gdb_tape_atoms] Wrapper loaded. Sourcing runtime file...
# Suppress the "Redefine command" prompts that would otherwise appear when the runtime file overrides the 9 stub commands defined above.
# The runtime's `define` blocks are intended to overwrite ? there's no ambiguity to confirm.
set confirm off
# Source the runtime file (re-defines commands with real impls + data).
source build/gdb_tape_atoms_runtime.gdb
set confirm on
echo [gdb_tape_atoms] Runtime sourced successfully (9 commands now have real implementations).
+94
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@@ -0,0 +1,94 @@
# scripts/launch_pcsx_debug.ps1
#
# One-shot launcher for debug sessions:
# Starts pcsx-redux with the .ps-exe loaded, the gdb stub enabled,
# AND the pcsx_debug_helper Lua plugin loaded so external CLI tools (gdb's `shell` command, etc.)
# can read GTE state via http://localhost:8080/api/v1/lua/gte (the gdb stub doesn't expose COP2 at all).
#
# usage:
# .\scripts\launch_pcsx_debug.ps1
# .\scripts\launch_pcsx_debug.ps1 -ExePath build\hello_gte.ps-exe
# .\scripts\launch_pcsx_debug.ps1 -HelperZip scripts\pcsx_debug_helper.zip
#
# After launch:
# - gdb: target remote localhost:3333
# - web: curl http://localhost:8080/api/v1/lua/gte
#
# Companion: scripts/debug_psyq.ps1 (bare launch — no .ps-exe, no helper).
[CmdletBinding()]
param(
[string]$PcsxPath = (Join-Path $PSScriptRoot '..\toolchain\pcsx-redux\vsprojects\x64\Release\pcsx-redux.exe'),
[string]$ExePath = (Join-Path $PSScriptRoot '..\build\hello_gte.ps-exe'),
[string]$HelperZip = (Join-Path $PSScriptRoot 'pcsx_debug_helper.zip'),
[int] $GdbPort = 3333,
[int] $WebPort = 8080
)
$ErrorActionPreference = 'Stop'
# ── Pre-checks ──
foreach ($p in @($PcsxPath, $ExePath, $HelperZip)) {
if (-not (Test-Path $p)) {
Write-Error "Missing: $p"
exit 1
}
}
# Kill any existing pcsx-redux so the archive file isn't locked.
Get-Process pcsx-redux -ErrorAction SilentlyContinue | Stop-Process -Force
Start-Sleep -Seconds 2
# ── Launch ──
$absExe = [System.IO.Path]::GetFullPath($ExePath)
$absZip = [System.IO.Path]::GetFullPath($HelperZip)
$args = @(
'-gdb', '-run'
'-loadexe', "`"$absExe`""
'-archive', "`"$absZip`""
)
Write-Host "Launching pcsx-redux..." -ForegroundColor Cyan
Write-Host " ps-exe : $absExe"
Write-Host " helper zip: $absZip"
Write-Host " gdb : localhost:$GdbPort"
Write-Host " web : localhost:$WebPort/api/v1/lua/gte"
Write-Host ""
Start-Process -FilePath $PcsxPath -ArgumentList $args | Out-Null
# ── Wait for both endpoints to come up ──
$deadline = (Get-Date).AddSeconds(15)
while ((Get-Date) -lt $deadline) {
$gdbUp = $false
$webUp = $false
try {
$tcp = New-Object System.Net.Sockets.TcpClient
$tcp.BeginConnect('localhost', $GdbPort, $null, $null) | Out-Null
Start-Sleep -Milliseconds 100
$gdbUp = $tcp.Connected
$tcp.Close()
} catch { $gdbUp = $false }
try {
$r = Invoke-WebRequest -Uri "http://localhost:$WebPort/" -UseBasicParsing -TimeoutSec 1 -ErrorAction SilentlyContinue
$webUp = $r.StatusCode -ne 0
} catch { $webUp = $false }
if ($gdbUp -and $webUp) { break }
Start-Sleep -Milliseconds 500
}
# ── Smoke-test the gte handler ──
try {
$r = Invoke-WebRequest -Uri "http://localhost:$WebPort/api/v1/lua/gte" -UseBasicParsing -TimeoutSec 5
$firstLine = ([System.Text.Encoding]::UTF8.GetString($r.Content) -split "`n")[0]
Write-Host "GTE handler OK: $firstLine" -ForegroundColor Green
}
catch {
Write-Warning "GTE handler NOT responding: $_"
Write-Host "Check the pcsx-redux Lua Console for debug cli messages." -ForegroundColor Yellow
}
Write-Host ""
Write-Host "pcsx-redux running. PIDs:" -ForegroundColor Cyan
Get-Process pcsx-redux | Select-Object Id, ProcessName | Format-Table
+563
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@@ -0,0 +1,563 @@
--- passes/annotation.lua — Atom-annotation DSL validator.
---
--- Validates `MipsAtom_(name) atom_info(atom_bind(Binds_X), atom_reads(...), atom_writes(...)) { ... }` declarations in source files.
--- Also reads `Binds_*` struct declarations (`typedef Struct_(Binds_X) { ... };`).
---
--- `duffle.scan_source()` scans each source once upstream; `ps1_meta.lua` stores that result in `src.scan`.
---
--- Ownership: the canonical `ctx.shared.corpus` supplies cross-source registries, while each `src.scan` supplies its source's declarations and bodies.
--- A context without `ctx.shared.corpus` is rejected with an explicit canonical-corpus message.
-- Bootstrap follows the entry scripts; `scripts/duffle_paths.lua` sets package.path and package.cpath. See `ps1_meta.lua` for the rationale.
-- `debug.getinfo(1, "S").source` locates this file for standalone and orchestrated runs, then `duffle_paths.lua` returns the loaded `duffle` module.
local _bootstrap_dir = debug.getinfo(1, "S").source:match("^@?(.*[/\\])") or "./" ---@type string
local duffle = dofile(_bootstrap_dir .. "../duffle_paths.lua") ---@type DuffleExport
-- The annotation pass reads the source-derived registries from scan_source:
-- * pipe_ctx.register_alias_registry — for atom_dbg_reg_default(R_X, ...) and atom_reg_types(R_X, ...) member-identity checks
-- * pipe_ctx.type_name_registry — for atom_dbg_reg_default(<T>, ...) and atom_reg_types(<T>, ...) type-identity checks
-- ════════════════════════════════════════════════════════════════════════════
-- Type declarations
-- ════════════════════════════════════════════════════════════════════════════
-- SourceFile, PassCtx, PassResult, PassShared, Corpus, Finding: see ps1_meta.lua
-- SourceScan, AtomEntry, AtomInfoEntry, BindsEntry, RegTypeDefault, AtomViewEntry: see scan_source.lua
--- @class RegTypeOccurrence
--- @field reg string
--- @field type_name string
--- @field source_line integer
--- @class Findings
--- @field errors Finding[]
--- @field warnings Finding[]
--- @field info Finding[]
-- PassScratch: see ps1_meta.lua
--- @class AnnotatedResult
--- @field atoms AtomEntry[]
--- @field annots AtomInfoEntry[]
--- @field macros MacroEntry[]
--- @field binds BindsEntry[]
--- @field errors Finding[]
--- @field warnings Finding[]
--- @field info Finding[]
--- @field source string|nil
--- @class CheckRule
--- @field per_annot (fun(item: AtomInfoEntry, pipe_ctx: PassScratch, findings: Findings): nil)|nil
--- @class SourceScan
--- @field type_occurrences RegTypeOccurrence[]|nil
--- @class AnnotationPass
--- @field validate fun(ctx: PassCtx, src: SourceFile, corpus_pipe_ctx: PassScratch|nil): AnnotatedResult
--- @field run fun(ctx: PassCtx): PassResult
-- ════════════════════════════════════════════════════════════════════════════
-- Per-check functions (the CHECK_RULES table's payload)
-- ════════════════════════════════════════════════════════════════════════════
--- The dispatcher in `validate()` routes each result by convention: existence checks write errors[] and shape checks write warnings[].
--- `macro_word_drift` writes errors[] for missing or mismatched metadata and info[] for a match.
--- Check: Every annotated atom must have a matching MipsAtom_(name) declaration.
--- @param info AtomInfoEntry
--- @param pipe_ctx PassScratch
--- @param findings Findings
--- @return nil
local function check_atom_decl_exists(info, pipe_ctx, findings)
if not pipe_ctx.atom_index[info.atom_name] then
findings.errors[#findings.errors + 1] = {
line = info.info_line,
msg = string.format("annotation for '%s' has no matching MipsAtom_(%s) { ... }", info.atom_name, info.atom_name),
}
end
end
--- Check: Every atom may have AT MOST ONE annotation.
--- Post-loop: Needs full-corpus `annot_counts` from pipe_ctx.
--- @param _item AtomInfoEntry|nil
--- @param pipe_ctx PassScratch
--- @param findings Findings
--- @return nil
local function check_unique_annotation(_item, pipe_ctx, findings)
for name, n in pairs(pipe_ctx.annot_counts) do ---@type string, integer
if n > 1 then
findings.errors[#findings.errors + 1] = {
line = pipe_ctx.atom_index[name] and pipe_ctx.atom_index[name].line or 0,
msg = string.format("MipsAtom_(%s) has %d annotations (expected at most 1)", name, n),
}
end
end
end
--- Check: BIND atoms must reference a real Binds_* struct.
--- I keep this as a warning so the annotation pass can report the common test-fixture case; `check_abi_handoff` in static analysis supplies the build-stopping error.
--- @param info AtomInfoEntry
--- @param pipe_ctx PassScratch
--- @param findings Findings
--- @return nil
local function check_binds_struct_exists(info, pipe_ctx, findings)
if not info.binds then return end
if pipe_ctx.binds_index[info.binds] then return end
findings.warnings[#findings.warnings + 1] = {
line = info.info_line,
msg = string.format("'%s' binds '%s' but no Struct_(%s) { ... } "
.. "declaration found (also flagged as an error by check_abi_handoff in the static-analysis pass)"
, info.atom_name, info.binds, info.binds),
}
end
--- Check: TAPE_WORDS(mac_X, N) ↔ WORD_COUNT(mac_X, N) drift.
--- Three outcomes: missing (error), mismatch (error), match (info).
--- @param m MacroEntry
--- @param pipe_ctx PassScratch
--- @param findings Findings
--- @return nil
local function check_macro_word_drift(m, pipe_ctx, findings)
local wc = (pipe_ctx and pipe_ctx.word_counts) or {} ---@type WordCounts
local declared = wc[m.name] ---@type integer|nil
if not declared then
findings.errors[#findings.errors + 1] = {
line = m.line,
msg = string.format("TAPE_WORDS(%s, %d) but '%s' is not in metadata.h", m.name, m.words, m.name),
}
return
end
if declared ~= m.words then
findings.errors[#findings.errors + 1] = {
line = m.line,
msg = string.format("DRIFT: TAPE_WORDS(%s, %d) but metadata.h declares WORD_COUNT(%s, %d)", m.name, m.words, m.name, declared),
}
return
end
findings.info[#findings.info + 1] = {
line = m.line,
msg = string.format("OK: %s = %d words", m.name, m.words),
}
end
--- Check: atom_dbg_reg_default(R_X, <type>) targets an alias in `pipe_ctx.register_alias_registry` and a type in `pipe_ctx.type_name_registry`.
--- Pointer depth remains bounded to 0 or 1, and duplicate defaults remain errors.
--- @param _src SourceFile -- unused (kept for the per_source shape)
--- @param pipe_ctx PassScratch
--- @param findings Findings
--- @return nil
local function check_semantic_reg_defaults(_src, pipe_ctx, findings)
-- Detect duplicate defaults using the ordered occurrence list (the out.types hash only retains the last declaration).
local seen_first_line = {} ---@type table<string, integer> -- bag: register ident -> first source line
for _, occ in ipairs(pipe_ctx.type_occurrences or {}) do ---@type integer, RegTypeOccurrence
if seen_first_line[occ.reg] == nil then
seen_first_line[occ.reg] = occ.source_line
else
findings.errors[#findings.errors + 1] = {
line = occ.source_line,
msg = string.format(
"duplicate atom_dbg_reg_default for %q at line %d (first declared at line %d); one default per register",
occ.reg, occ.source_line, seen_first_line[occ.reg]),
}
end
end
local reg_registry = pipe_ctx.register_alias_registry or {} ---@type table<string, AliasEntry>
local type_registry = pipe_ctx.type_name_registry or {} ---@type table<string, TypeNameEntry>
for reg, def in pairs(pipe_ctx.types or {}) do ---@type string, RegTypeDefault
if not reg_registry[reg] then
findings.errors[#findings.errors + 1] = {
line = def.source_line,
msg = string.format(
"atom_dbg_reg_default at line %d references unknown register %q (not in register_alias_registry)",
def.source_line, reg),
}
end
if def.pointer_depth == nil or def.pointer_depth < 0 or def.pointer_depth > 1 then
findings.errors[#findings.errors + 1] = {
line = def.source_line,
msg = string.format(
"atom_dbg_reg_default at line %d for %q has unsupported pointer depth %d (expected 0 or 1)",
def.source_line, reg, def.pointer_depth or -1),
}
end
if not def.type_name or not type_registry[def.type_name] then
findings.errors[#findings.errors + 1] = {
line = def.source_line,
msg = string.format(
"atom_dbg_reg_default at line %d for %q uses unknown type %q (not in type_name_registry)",
def.source_line, reg, tostring(def.type_name)),
}
end
end
end
--- Check: atom_reg_types(R_X, <type>) entries target an alias in `pipe_ctx.register_alias_registry` and a type in `pipe_ctx.type_name_registry`.
--- A bare `atom_reg` marker opts the `R_<n>` alias into GPR identity; references to R_T0..R_T3 require the same explicit marker.
--- @param _src SourceFile
--- @param pipe_ctx PassScratch
--- @param findings Findings
--- @return nil
local function check_atom_reg_types(_src, pipe_ctx, findings)
local reg_registry = pipe_ctx.register_alias_registry or {} ---@type table<string, AliasEntry>
local type_registry = pipe_ctx.type_name_registry or {} ---@type table<string, TypeNameEntry>
for _, ai in ipairs(pipe_ctx.atom_infos_list or {}) do ---@type integer, AtomInfoEntry
if ai.reg_type_overrides then
for reg, ov in pairs(ai.reg_type_overrides) do ---@type string, RegTypeOverride
if not reg_registry[reg] then
findings.errors[#findings.errors + 1] = {
line = ai.info_line,
msg = string.format(
"atom '%s' has atom_reg_types for %q; compute-register types are restricted to opt-in aliases (%q not in register_alias_registry)",
ai.atom_name, reg, reg),
}
end
if not ov.type_name or not type_registry[ov.type_name] then
findings.errors[#findings.errors + 1] = {
line = ai.info_line,
msg = string.format(
"atom '%s' atom_reg_types for %q uses unknown compute type %q (not in type_name_registry)",
ai.atom_name, reg, tostring(ov.type_name)),
}
end
end
end
end
end
--- Check: atom_view(Binds_X) entries reference a Binds_* struct with at least one field.
--- @param _src SourceFile
--- @param pipe_ctx PassScratch
--- @param findings Findings
--- @return nil
local function check_atom_view_layout(_src, pipe_ctx, findings)
for atom_name, view in pairs(pipe_ctx.atom_views or {}) do ---@type string, AtomViewEntry
if not view.binds_name then
-- The atom had atom_reg_types but no atom_view; no layout check needed.
else
local bs = pipe_ctx.binds_index[view.binds_name] ---@type BindsEntry|nil
if not bs then
findings.errors[#findings.errors + 1] = {
line = view.info_line,
msg = string.format(
"atom '%s' has atom_view(%s) but no Struct_(%s) { ... } declaration was found",
atom_name, view.binds_name, view.binds_name),
}
elseif not bs.fields or #bs.fields == 0 then
findings.errors[#findings.errors + 1] = {
line = bs.line,
msg = string.format(
"atom '%s' has atom_view(%s) but that struct declares zero typed fields",
atom_name, view.binds_name),
}
end
end
end
end
--- Check: Binds_* structs require unique field names because atom_view uses those names for typed-field lookup in gdb.
--- @param _src SourceFile
--- @param pipe_ctx PassScratch
--- @param findings Findings
--- @return nil
local function check_binds_no_duplicate_fields(_src, pipe_ctx, findings)
for _, bs in ipairs(pipe_ctx.binds_list or {}) do ---@type integer, BindsEntry
local seen = {} ---@type table<string, integer> -- bag: field name -> occurrence count
for _, f in ipairs(bs.fields or {}) do ---@type integer, TypeField
seen[f.name] = (seen[f.name] or 0) + 1
end
for name, count in pairs(seen) do ---@type string, integer
if count > 1 then
findings.errors[#findings.errors + 1] = {
line = bs.line,
msg = string.format(
"%s has duplicate field name %q (count %d); the typed-view contract requires unique field names",
bs.name, name, count),
}
end
end
end
end
-- Check: Debug-skip markers must satisfy shape + placement constraints.
--- Walks the priority list once; each marker produces at most one error, so one source defect yields one finding.
--- Priority order (first defect wins):
--- 1. marker_kind ~= "atom_dbg_skip" -> legacy/renamed spelling (use `atom_dbg_skip`)
--- 2. marker_kind == "atom_dbg_skip" AND has_parens -> parenthesized form (the marker is bare-only)
--- 3. args ~= "" -> takes no arguments
--- 4. superseded_by_marker_line -> duplicate marker (cite superseding line)
--- 5. pending + no target_kind -> dangling (no following declaration)
--- 6. unsupported target_kind -> marker precedes an unrelated declaration
--- Valid markers stamp `debug_skip` on whole-atom, bare-component, and proc-component declaration records in scan_source.lua.
--- @param marker DebugSkipMarker
--- @param _pipe_ctx PassScratch -- Unused; kept for consistency with per_annot
--- @param findings Findings
--- @return nil
local function check_skip_marker(marker, _pipe_ctx, findings)
local kind = marker.marker_kind ---@type string
local line = marker.marker_line ---@type integer
-- Left `scan.debug_skip_markers` with production records for `atom_dbg_skip` only; other identifiers take the walker's unrelated branch.
if marker.has_parens then
findings.errors[#findings.errors + 1] = {
line = line,
msg = string.format("%s marker at line %d must be bare; the parenthesized form is no longer accepted (use `atom_dbg_skip MipsAtom_(name) { ... }`)",
kind, line),
}
return
end
if marker.args ~= nil and marker.args ~= "" then
findings.errors[#findings.errors + 1] = {
line = line,
msg = string.format("%s marker at line %d takes no arguments; found %q", kind, line, marker.args),
}
return
end
if marker.superseded_by_marker_line then
findings.errors[#findings.errors + 1] = {
line = line,
msg = string.format("duplicate %s marker at line %d; superseded by another %s marker at line %d"
, kind, line, kind, marker.superseded_by_marker_line),
}
return
end
if marker.pending and not marker.target_kind then
findings.errors[#findings.errors + 1] = {
line = line,
msg = string.format("dangling %s marker at line %d: no following MipsAtom_/MipsAtomComp_/MipsAtomComp_Proc_ declaration"
, kind, line),
}
return
end
if marker.target_kind
and marker.target_kind ~= "atom"
and marker.target_kind ~= "comp_bare"
and marker.target_kind ~= "comp_proc" then
findings.errors[#findings.errors + 1] = {
line = line,
msg = string.format("%s marker at line %d must precede MipsAtom_, MipsAtomComp_, or MipsAtomComp_Proc_; found an unrelated declaration"
, kind, line),
}
end
end
--- Warn when a source references an unregistered alias.
--- When a source uses an unregistered R_X, this check emits one pass-level info entry for that source and directs C-ABI register names to explicit alias registration.
--- @param _src SourceFile
--- @param pipe_ctx PassScratch
--- @param findings Findings
--- @return nil
local function check_wave_context_migration(_src, pipe_ctx, findings)
if not (pipe_ctx.types and next(pipe_ctx.types)) then return end
if not (pipe_ctx.atom_infos_list) then return end
local reg_registry = pipe_ctx.register_alias_registry or {} ---@type table<string, AliasEntry>
for _, ai in ipairs(pipe_ctx.atom_infos_list) do ---@type integer, AtomInfoEntry
if ai.reg_type_overrides then
for reg, _ in pairs(ai.reg_type_overrides) do ---@type string, RegTypeOverride
if not reg_registry[reg] then
findings.warnings[#findings.warnings + 1] = {
line = 0,
msg = "wave-context removed; opt in via #define atom_reg in mips.h "
.. "(every R_<alias> that should be visible to the annotation pass "
.. "must be enum-declared with the bare atom_reg marker)",
}
return
end
end
end
end
end
-- ════════════════════════════════════════════════════════════════════════════
-- CHECK_RULES — data-driven check dispatch (the plex pattern)
-- ════════════════════════════════════════════════════════════════════════════
--
-- Each rule entry picks one of four "shapes" of dispatch:
-- per_annot(info, pipe_ctx, findings) -- runs once per scan.atom_infos row
-- post(pipe_ctx, findings) -- runs once after all per_annot calls complete (full-corpus aggregation)
-- per_macro(macro, wc, findings) -- runs once per TAPE_WORDS / _Pragma macro declaration
-- per_skip_marker(marker, pipe_ctx, findings) -- runs once per src.scan.debug_skip_markers entry
--
-- Adding a new check = 1 row here + 1 function above. The `validate()` dispatch loop never needs editing.
local CHECK_RULES = { ---@type CheckRule[]
{ name = "atom_decl_exists", per_annot = check_atom_decl_exists },
{ name = "binds_struct_exists", per_annot = check_binds_struct_exists },
{ name = "unique_annotation", post = check_unique_annotation },
{ name = "macro_word_drift", per_macro = check_macro_word_drift },
{ name = "skip_marker_validation", per_skip_marker = check_skip_marker },
{ name = "semantic_reg_defaults", per_source = check_semantic_reg_defaults },
{ name = "atom_reg_types", per_source = check_atom_reg_types },
{ name = "atom_view_layout", per_source = check_atom_view_layout },
{ name = "binds_no_duplicate_fields", per_source = check_binds_no_duplicate_fields },
{ name = "wave_context_migration", per_source = check_wave_context_migration },
}
-- ════════════════════════════════════════════════════════════════════════════
-- Validation
-- ════════════════════════════════════════════════════════════════════════════
-- Pure check: Read from src.scan, run validations, emit findings. The scan was done once upstream.
--- Builds one pass-wide pipe_ctx from the merged `corpus.*` registries and source-ordered `corpus.atom_infos`; per-source declarations and bodies remain in `src.scan`.
--- The module ownership contract above requires callers to construct `ctx.shared.corpus` through `build_ctx`; the error message below enforces that gate.
--- @param ctx PassCtx
--- @return PassScratch
local function build_corpus_pipe_ctx(ctx)
local view = duffle.corpus_view(ctx) ---@type PassScratch
local annot_counts = {} ---@type table<string, integer> -- bag: atom name -> annotation count
for _, info in ipairs(view.atom_infos) do ---@type integer, AtomInfoEntry
if info and info.atom_name then
annot_counts[info.atom_name] = (annot_counts[info.atom_name] or 0) + 1
end
end
view.annot_counts = annot_counts
view.atom_infos_list = view.atom_infos
view.word_counts = ctx.shared.corpus.word_counts or {}
return view
end
--- Validate one source against its pre-scanned SourceScan payload + the corpus-wide pipe_ctx.
--- @param ctx PassCtx
--- @param src SourceFile
--- @param corpus_pipe_ctx PassScratch|nil -- Built once per pass from corpus registries; nil builds the same projection here.
--- @return AnnotatedResult
local function validate(ctx, src, corpus_pipe_ctx)
corpus_pipe_ctx = corpus_pipe_ctx or build_corpus_pipe_ctx(ctx)
local scan = src.scan ---@type SourceScan
-- Build a per-source pipe_ctx: shared lookups come from `corpus_pipe_ctx`, while declarations, bodies, types, views, defaults, and occurrences come from `src.scan`.
local seen_defaults = {}; for reg, _ in pairs (scan.types or {}) do seen_defaults[reg] = (seen_defaults[reg] or 0) + 1 end ---@type table<string, integer> -- bag: register ident -> occurrence count
local atom_infos_list = {}; for _, ai in ipairs(scan.atom_infos or {}) do atom_infos_list[#atom_infos_list + 1] = ai end ---@type AtomInfoEntry[]
local pipe_ctx = { ---@type PassScratch
atom_index = {},
binds_index = {},
annot_counts = corpus_pipe_ctx.annot_counts,
types = scan.types or {},
type_occurrences = scan.type_occurrences or {},
atom_views = scan.atom_views or {},
seen_defaults = seen_defaults,
atom_infos_list = atom_infos_list,
binds_list = scan.binds or {},
-- See the module ownership contract; these shared lookup tables come from corpus_pipe_ctx.
register_alias_registry = corpus_pipe_ctx.register_alias_registry,
type_name_registry = corpus_pipe_ctx.type_name_registry,
}
local atoms = {} ---@type AtomEntry[]
for _, a in ipairs(scan.atoms) do ---@type integer, AtomEntry
if a.kind == "atom" or a.kind == "atom_proc" then
atoms[#atoms + 1] = a
pipe_ctx.atom_index[a.raw_name or a.name] = a
end
end
for _, b in ipairs(scan.binds) do pipe_ctx.binds_index[b.name] = b end ---@type integer, BindsEntry
-- Findings live in a single struct with three lists (errors / warnings / info).
-- Each check writes to the list appropriate for its severity.
local findings = { errors = {}, warnings = {}, info = {} } ---@type Findings
-- Lift parse-time errors already recorded in scan_source's atom_info payload into this pass's findings list.
for _, info in ipairs(scan.atom_infos) do ---@type integer, AtomInfoEntry
if info.errors then
for _, msg in ipairs(info.errors) do ---@type integer, string
findings.errors[#findings.errors + 1] = {
line = info.info_line,
msg = string.format("'%s': %s", info.atom_name, msg),
}
end
end
end
-- THE per-annotation pipeline. ONE loop. CHECK_RULES dispatches per_annot rules.
for _, info in ipairs(scan.atom_infos) do ---@type integer, AtomInfoEntry
duffle.run_check_rules(CHECK_RULES, "per_annot", info, pipe_ctx, findings)
end
-- Post-loop rules (one-shot checks that need full-corpus aggregation in pipe_ctx).
duffle.run_check_rules(CHECK_RULES, "post", nil, pipe_ctx, findings)
-- scan_source records each marker in scan.debug_skip_markers; this loop validates each record independently and emits at most one error per marker.
-- Valid markers stamp `debug_skip = true` on the following atom or component declaration, which downstream consumers read directly.
local skip_markers = scan.debug_skip_markers or {} ---@type DebugSkipMarker[]
for _, marker in ipairs(skip_markers) do ---@type integer, DebugSkipMarker
duffle.run_check_rules(CHECK_RULES, "per_skip_marker", marker, pipe_ctx, findings)
end
-- Per-macro rules (TAPE_WORDS vs WORD_COUNT drift).
pipe_ctx.word_counts = corpus_pipe_ctx.word_counts
for _, m in ipairs(scan.macros) do ---@type integer, MacroEntry
duffle.run_check_rules(CHECK_RULES, "per_macro", m, pipe_ctx, findings)
end
-- Per-source rules (reg defaults, atom_view layout, compute-register type overrides, Binds_* field uniqueness).
-- Each per_source rule sees the full scan payload via pipe_ctx.
duffle.run_check_rules(CHECK_RULES, "per_source", src, pipe_ctx, findings)
-- Information summary (always emitted).
findings.info[#findings.info + 1] = {
line = 0,
msg = string.format("scanned: %d atom(s), %d annotation(s), %d macro-word-decl(s), %d binds struct(s)"
, #atoms, #scan.atom_infos, #scan.macros, #scan.binds),
}
return {
atoms = atoms,
annots = scan.atom_infos,
macros = scan.macros,
binds = scan.binds,
errors = findings.errors,
warnings = findings.warnings,
info = findings.info,
}
end
-- ════════════════════════════════════════════════════════════════════════════
-- M.run — orchestrator entry
-- ════════════════════════════════════════════════════════════════════════════
local M = {} ---@type AnnotationPass
-- Expose `validate` for downstream passes (e.g. report.lua) that need to re-render the per-source results into a per-MODULE report.
M.validate = validate
--- @param ctx PassCtx
--- @return PassResult
function M.run(ctx)
local outputs = {} ---@type PassOutputEntry[]
local errors = {} ---@type Finding[]
local warnings = {} ---@type Finding[]
-- Build the shared pipe_ctx once for this run; every validate() call sees the same cross-source registries.
-- The corpus owns the canonical cross-source registries; per-source scans retain body / declaration ownership.
local corpus_pipe_ctx = build_corpus_pipe_ctx(ctx) ---@type PassScratch
local corpus = ctx.shared.corpus ---@type Corpus
-- Group `corpus.sources_by_dir` by module, validate every source in each bucket, and emit one errors.h per directory.
local by_dir = (corpus and corpus.sources_by_dir) or {} ---@type table<string, SourceFile[]>
for dir, dir_sources in pairs(by_dir) do ---@type string, SourceFile[]
local dir_basename = dir:match("([^/\\]+)$") or dir ---@type string
local dir_atoms = 0 ---@type integer
local dir_errors = {} ---@type Finding[]
local dir_warnings = {} ---@type Finding[]
for _, src in ipairs(dir_sources) do ---@type integer, SourceFile
local result = validate(ctx, src, corpus_pipe_ctx) ---@type AnnotatedResult
result.source = src.path -- tag for downstream rendering
dir_atoms = dir_atoms + #result.atoms
for _, e in ipairs(result.errors) do ---@type integer, Finding
dir_errors[#dir_errors + 1] = { line = e.line, msg = e.msg, source = src.path }
errors [#errors + 1] = { line = e.line, msg = e.msg }
end
for _, w in ipairs(result.warnings) do ---@type integer, Finding
dir_warnings[#dir_warnings + 1] = { line = w.line, msg = w.msg }
warnings [#warnings + 1] = { line = w.line, msg = w.msg }
end
end
end
return { outputs = outputs, errors = errors, warnings = warnings }
end
return M
+626
View File
@@ -0,0 +1,626 @@
--- passes/atoms_source_map.lua — Per-.word source-line map emitter for tape atoms.
---
--- Writer: this pass, given `atom.paths` (the per-atom mutable surface owned by `emission_model`). Readers:
--- `passes/dwarf_injection.lua` (synthesizes DW_TAG_inlined_subroutine + per-word line program rows) and
--- the gdb-runtime wrapper at `scripts/gdb/gdb_tape_atoms.gdb` (loads the source map via `source <path>`).
---
--- Inputs from `atom.paths`: the ordered `items` stream, dense `word_events`, `invocations` views. Outputs:
--- one `WORD N LINE L TEXT T` line per emitted `.word`, plus the per-word provenance form that DWARF synthesis consumes.
---
--- Two output forms:
--- 1. Markdown form: Handled by `passes/report.lua` (writes `<module>.atoms.md`).
--- The render functions `render_source_map` + `render_provenance` are exported for `report.lua` to call directly.
--- Compile artifacts (`*.macs.h`, `*.offsets.h`) stay in `<source_dir>/gen/`.
--- 2. `gdb_tape_atoms_runtime.gdb`: Post-link opt-in (`ctx.flags.gdb_runtime`),
--- so the gdb wrapper script + the generated runtime script share the same canonical location.
--- Triggered by `--post-link` or `--gdb-runtime`.
---
--- Output forma (sourcemap.txt form):
--- ```
--- # FORMAT_VERSION 1
--- # auto-generated by ps1_meta.lua (passes/atoms_source_map.lua) — DO NOT EDIT
--- ATOM <name> "<abs-source-path>" <total_words>
--- WORD 0 LINE 49 TEXT load_half_u(R_T0, R_FaceCursor, 0 * S_(S2)),
--- WORD 1 LINE 49 TEXT load_half_u(R_T0, R_FaceCursor, 0 * S_(S2)),
--- ... (one WORD line per .word emitted by the atom body) ...
--- ENDATOM
--- ATOM <next-name> "<abs-source-path>" <total_words>
--- ...
--- ENDATOM
--- ```
--- Marker records are zero-width in `atom.paths.items`, so they emit no WORD rows in the dense word view.
-- ════════════════════════════════════════════════════════════════════════════
-- Module-scope requires + package.path setup
-- ════════════════════════════════════════════════════════════════════════════
-- Bootstrap: load `duffle_paths.lua` via `debug.getinfo(1, "S").source`
-- (works both standalone + when require'd). `duffle_paths.lua` sets package.path then returns `require("duffle")`
-- at the bottom, so the dofile value IS the duffle module.
local _bootstrap_dir = debug.getinfo(1, "S").source:match("^@?(.*[/\\])") or "./" ---@type string
local duffle = dofile(_bootstrap_dir .. "../duffle_paths.lua") ---@type DuffleExport
local elf_dwarf = require("elf_dwarf") ---@type ElfDwarfMod
-- ════════════════════════════════════════════════════════════════════════════
-- Constants
-- ════════════════════════════════════════════════════════════════════════════
-- Format version emitted as the first line. Bump + add a migration test if the format changes;
-- the gdb runtime loader rejects mismatches (E2).
local FORMAT_VERSION = 1 ---@type integer
-- ════════════════════════════════════════════════════════════════════════════
-- Type declarations
-- ════════════════════════════════════════════════════════════════════════════
--- @class AtomSourceMapCtx
--- @field shared PassShared
--- @field out_root string
--- @field flags PassFlags
--- @field project_root string|nil
--- @class WordMapEntry
--- @field pos integer
--- @field line integer
--- @field text string
--- @field body_line integer
--- @field gpr_keys string[]|nil
--- @field invocation InvocationRecord|nil
--- @class NmAddr
--- @field [1] integer -- st_value
--- @field [2] integer -- st_size
--- @class GdbAtomRecord
--- @field idx integer|nil
--- @field name string
--- @field src_path string
--- @field file_base string
--- @field addr integer
--- @field size_bytes integer
--- @field words integer
--- @field entries WordMapEntry[]
--- @class ElfDwarfMod
--- @field read_nm fun(elf_path: Path): table<string, NmAddr>
--- @class AtomSourceMapPass
--- @field render_source_map fun(src: SourceFile): string
--- @field render_provenance fun(src: SourceFile, wc: WordCounts): string
--- @field render_atom_source_map fun(atom: AtomEntry): string
--- @field render_atom_provenance fun(atom: AtomEntry, wc: WordCounts, rel_path: string): string
--- @field run fun(ctx: PassCtx): PassResult
--- @class AtomEntry
--- @field paths AtomPaths|nil
-- ════════════════════════════════════════════════════════════════════════════
-- Atom-path renderers
-- ════════════════════════════════════════════════════════════════════════════
--- Join word boundaries (from `items`) to per-word call text + source lines (from `word_events`).
--- @param atom AtomEntry
--- @return WordMapEntry[]
--- @return integer
local function canonical_word_entries(atom)
local paths = atom.paths or {} ---@type AtomPaths
local events = paths.word_events or {} ---@type WordEvent[]
local word_items = {} ---@type EmissionItem[]
for _, item in ipairs(paths.items or {}) do ---@type integer, EmissionItem
if item.kind == "word" then word_items[#word_items + 1] = item end
end
local entries = {} ---@type WordMapEntry[]
for index, event in ipairs(events) do ---@type integer, WordEvent
local item = word_items[index] or {} ---@type EmissionItem
entries[#entries + 1] = {
pos = event.i or (index - 1),
line = event.call_line or item.line or 0,
text = event.call_text or item.call_text or "",
body_line = event.body_line or item.body_line or item.line or 0,
gpr_keys = event.gpr_keys,
invocation = (event.outermost_invocation_id
and paths.invocations
and paths.invocations[event.outermost_invocation_id]) or nil,
}
end
return entries, #events
end
--- Render one atom's provenance stanza. Format 1 line shapes:
--- `WORD N CALL <src-path>:<src-line> MACRO <name> "<def-path>:<def-line>" BODY <line>` (component invocation)
--- `WORD N CALL <src-path>:<src-line> RAW` (raw `.word` outside any mac_* component)
--- Component identity comes from the outermost invocation record; the count-table lookup confirms the component was declared in `corpus.word_counts`
--- (populated by word_count_eval + components passes).
--- @param src SourceFile
--- @param atom AtomEntry
--- @param wc WordCounts
--- @return string[]
--- @return integer
local function emit_provenance_stanza(src, atom, wc)
local lines = {} ---@type string[]
local rel_path = src.path:gsub("\\\\", "/") ---@type string
local entries, total = canonical_word_entries(atom) ---@type WordMapEntry[], integer
lines[#lines + 1] = string.format('ATOM %s "%s" 0', atom.raw_name or atom.name, rel_path)
for _, entry in ipairs(entries) do ---@type integer, WordMapEntry
local inv = entry.invocation ---@type InvocationRecord|nil
local macro_count = inv and wc["mac_" .. inv.component_name] ---@type integer|nil
if inv and macro_count ~= nil then
lines[#lines + 1] = string.format('WORD %d CALL %s:%d MACRO %s "%s:%d" BODY %d'
, entry.pos, rel_path, entry.line, inv.component_name
, inv.def_path or "", inv.def_line or 0, entry.body_line)
else
lines[#lines + 1] = string.format("WORD %d CALL %s:%d RAW", entry.pos, rel_path, entry.line)
end
end
lines[1] = lines[1]:gsub(" 0$", " " .. tostring(total))
lines[#lines + 1] = "ENDATOM"
return lines, total
end
--- Render the full provenance file content for one source.
--- @param src SourceFile
--- @param wc WordCounts
--- @return string
local function render_provenance(src, wc)
local lines = {} ---@type string[]
lines[#lines + 1] = "# FORMAT_VERSION 1"
lines[#lines + 1] = "# auto-generated by ps1_meta.lua (passes/atoms_source_map.lua) — DO NOT EDIT"
lines[#lines + 1] = "# Per-.word provenance: maps each emitted .word to its call site (atom body"
lines[#lines + 1] = "# file:line) and, when the word was emitted by a `mac_X(...)` component invocation,"
lines[#lines + 1] = "# the component's definition file:line + the per-word BODY line. Used by"
lines[#lines + 1] = "# dwarf_injection to synthesize DW_TAG_inlined_subroutine instances + per-word"
lines[#lines + 1] = "# line program rows for native source-level step into component bodies."
--- @param atom AtomEntry
--- @return nil
local function append(atom)
local stanza = emit_provenance_stanza(src, atom, wc) ---@type string[]
for _, line in ipairs(stanza) do lines[#lines + 1] = line end ---@type integer, string
end
for _, atom in ipairs(src.scan.atoms or {}) do ---@type integer, AtomEntry
if atom.paths then append(atom) end
end
for _, atom in ipairs(src.scan.raw_atoms or {}) do ---@type integer, AtomEntry
if atom.paths then append(atom) end
end
return table.concat(lines, "\n") .. "\n"
end
--- Render one atom's stanza for the sourcemap.txt form (ATOM header line, N WORD lines, ENDATOM marker).
--- Returns (lines, total_words).
--- @param src SourceFile
--- @param atom AtomEntry
--- @return string[]
--- @return integer
local function emit_atom_stanza(src, atom)
local lines = {} ---@type string[]
local rel_path = src.path:gsub("\\\\", "/") ---@type string
local entries, total = canonical_word_entries(atom) ---@type WordMapEntry[], integer
lines[#lines + 1] = string.format('ATOM %s "%s" 0', atom.raw_name or atom.name, rel_path)
for _, entry in ipairs(entries) do ---@type integer, WordMapEntry
lines[#lines + 1] = string.format("WORD %d LINE %d TEXT %s",
entry.pos, entry.line, entry.text)
end
lines[1] = lines[1]:gsub(" 0$", " " .. tostring(total))
lines[#lines + 1] = "ENDATOM"
return lines, total
end
--- Render the full source map file content for one source (one .atoms.sourcemap.txt per source). Mirrors offsets.lua's
--- `project_atoms` shape: scan.atoms + scan.raw_atoms, no kind filter.
--- @param src SourceFile
--- @return string
local function render_source_map(src)
local lines = {} ---@type string[]
lines[#lines + 1] = "# FORMAT_VERSION " .. FORMAT_VERSION
lines[#lines + 1] = "# auto-generated by ps1_meta.lua (passes/atoms_source_map.lua) — DO NOT EDIT"
--- @param atom AtomEntry
--- @return nil
local function append(atom)
local stanza = emit_atom_stanza(src, atom) ---@type string[]
for _, line in ipairs(stanza) do lines[#lines + 1] = line end ---@type integer, string
end
for _, atom in ipairs(src.scan.atoms or {}) do ---@type integer, AtomEntry
if atom.paths then append(atom) end
end
for _, atom in ipairs(src.scan.raw_atoms or {}) do ---@type integer, AtomEntry
if atom.paths then append(atom) end
end
return table.concat(lines, "\n") .. "\n"
end
-- ════════════════════════════════════════════════════════════════════════════
-- gdb-runtime emission (post-link, addresses via nm)
-- ════════════════════════════════════════════════════════════════════════════
--- Escape a string for embedding in a gdb `set $var = "..."` literal.
--- gdb uses C-style escaping; we escape `\` and `"` (newlines were flattened earlier).
--- @param s string
--- @return string
local function gdb_escape(s)
return (s:gsub("\\", "\\\\"):gsub('"', '\\"'))
end
--- Build the list of atoms with addresses + word entries. Shared helper for the gdb-runtime file emission.
--- @param ctx PassCtx
--- @return GdbAtomRecord[]
local function build_atom_table(ctx)
local addrs = elf_dwarf.read_nm(ctx.flags.elf_path) ---@type table<string, NmAddr>
local corpus = ctx.shared and ctx.shared.corpus ---@type Corpus|nil
local matched = {} ---@type GdbAtomRecord[]
for _, src in ipairs(corpus.source_order or {}) do ---@type integer, SourceFile
local file_base = src.path:match("([^/\\\\]+)$") or src.path ---@type string
--- @param atom AtomEntry
--- @return nil
local function append(atom)
if not atom.paths then return end
local name = atom.raw_name or atom.name ---@type string
local info = addrs[name] ---@type NmAddr|nil
if not info then return end
local entries, total = canonical_word_entries(atom) ---@type WordMapEntry[], integer
matched[#matched + 1] = {
name = name,
src_path = src.path,
file_base = file_base,
addr = info[1],
size_bytes = info[2],
words = total,
entries = entries,
}
end
for _, atom in ipairs((src.scan or {}).atoms or {}) do append(atom) end ---@type integer, AtomEntry
for _, atom in ipairs((src.scan or {}).raw_atoms or {}) do append(atom) end ---@type integer, AtomEntry
end
-- Deterministic order: sort by address (matches `nm` output ordering).
--- @param a GdbAtomRecord
--- @param b GdbAtomRecord
--- @return boolean
table.sort(matched, function(a, b) return a.addr < b.addr end)
for i, a in ipairs(matched) do a.idx = i - 1 end ---@type integer, GdbAtomRecord
return matched
end
--- Append the 9 gdb command definitions to `lines`. Pure gdb scripting — addresses come from `nm`,
--- the convenience vars set in `emit_gdb_runtime` provide printf args, and
--- each command is a static sequence of `printf` / `tbreak` / `if ... end` blocks.
--- The Lua pass emits N atoms' worth of lines; runtime iteration is gdb's job.
---
--- Why hardcoded per-atom: gdb's `$` substitution doesn't concat inside var names — `$__atom_name_$__i` in a `while`
--- loop resolves to one literal identifier, not `name_i`. Compile-time emission is the only path.
--- @param lines string[]
--- @param matched GdbAtomRecord[]
--- @return nil
local function append_gdb_commands(lines, matched)
-- ── tape_atoms ──
-- Hardcoded one printf per atom. No loop.
lines[#lines + 1] = "define tape_atoms"
for _, a in ipairs(matched) do ---@type integer, GdbAtomRecord
-- gdb 12.1 quirk: literals in printf args require an attached target.
-- Use the per-atom convenience vars set above as printf args.
lines[#lines + 1] = string.format(' printf " %%-32s @ 0x%%08x %%4d words\\n", $__atom_name_%d, $__atom_addr_%d, $__atom_words_%d',
a.idx, a.idx, a.idx)
end
lines[#lines + 1] = "end"
lines[#lines + 1] = "document tape_atoms"
lines[#lines + 1] = " List every tape atom symbol in the loaded ELF with .rodata addr + word count."
lines[#lines + 1] = "end"
lines[#lines + 1] = ""
-- ── break_atom (generic) + per-atom break_atom_X ──
lines[#lines + 1] = "define break_atom"
lines[#lines + 1] = ' echo "Usage: break_atom_<exact_name> (pick from the list below)"'
for _, a in ipairs(matched) do ---@type integer, GdbAtomRecord
lines[#lines + 1] = string.format(' printf " break_atom_%%-32s\\n", $__atom_name_%d', a.idx)
end
lines[#lines + 1] = "end"
lines[#lines + 1] = "document break_atom"
lines[#lines + 1] = " Generic help: lists the per-atom break_atom_<name> commands."
lines[#lines + 1] = "end"
lines[#lines + 1] = ""
for _, a in ipairs(matched) do ---@type integer, GdbAtomRecord
lines[#lines + 1] = string.format("define break_atom_%s", a.name)
lines[#lines + 1] = string.format(" break *$__atom_addr_%d", a.idx)
lines[#lines + 1] = string.format(' printf " Breakpoint set at %s (0x%%08x)\\n", $__atom_addr_%d', a.name, a.idx)
lines[#lines + 1] = "end"
lines[#lines + 1] = string.format("document break_atom_%s", a.name)
lines[#lines + 1] = string.format(" Set a breakpoint at %s.", a.name)
lines[#lines + 1] = "end"
lines[#lines + 1] = ""
end
-- ── step_atom / next_atom ──
-- Hardcoded one tbreak per atom. No loop.
lines[#lines + 1] = "define step_atom"
for _, a in ipairs(matched) do ---@type integer, GdbAtomRecord
lines[#lines + 1] = string.format(" tbreak *$__atom_addr_%d", a.idx)
end
lines[#lines + 1] = " continue"
lines[#lines + 1] = "end"
lines[#lines + 1] = "document step_atom"
lines[#lines + 1] = " Set one-shot BPs at every atom + continue. Stops at the next atom boundary."
lines[#lines + 1] = "end"
lines[#lines + 1] = ""
lines[#lines + 1] = "define next_atom"
lines[#lines + 1] = " step_atom"
lines[#lines + 1] = "end"
lines[#lines + 1] = "document next_atom"
lines[#lines + 1] = " Alias for step_atom."
lines[#lines + 1] = "end"
lines[#lines + 1] = ""
-- ── where_in_atom ──
-- Hardcoded one outer-if per atom; inside, one inner-if per WORD entry.
lines[#lines + 1] = "define where_in_atom"
lines[#lines + 1] = " set $__pc = (unsigned int)$pc"
lines[#lines + 1] = " set $__matched = 0"
for _, a in ipairs(matched) do ---@type integer, GdbAtomRecord
-- Precompute end_addr (gdb 12.1's expression evaluator chokes on `addr + words*4`).
lines[#lines + 1] = string.format(" set $__end_%d = $__atom_addr_%d + $__atom_words_%d * 4", a.idx, a.idx, a.idx)
lines[#lines + 1] = string.format(" if $__pc >= $__atom_addr_%d && $__pc < $__end_%d", a.idx, a.idx)
lines[#lines + 1] = string.format(' printf "atom: %%s\\n", $__atom_name_%d', a.idx)
lines[#lines + 1] = ' printf "addr: 0x%08x\\n", $__pc'
lines[#lines + 1] = string.format(" set $__word = ($__pc - $__atom_addr_%d) / 4", a.idx)
lines[#lines + 1] = string.format(' printf "word: %%d/%%d\\n", $__word, $__atom_words_%d', a.idx)
-- One inner-if per WORD entry. Each word's line + text hardcoded.
for _, we in ipairs(a.entries) do ---@type integer, WordMapEntry
lines[#lines + 1] = string.format(" if $__word == %d", we.pos)
-- Escape TEXT for printf format string.
local escaped_text = we.text:gsub("%%", "%%%%"):gsub('"', '\\"') ---@type string
lines[#lines + 1] = string.format(' printf "source: %%s:%%d %%s\\n", $__atom_file_%d, %d, "%s"', a.idx, we.line, escaped_text)
lines[#lines + 1] = " end"
end
-- Fallback for words beyond the source map (shouldn't happen if nm matches).
local max_word = 0 ---@type integer
if #a.entries > 0 then max_word = a.entries[#a.entries].pos end
lines[#lines + 1] = string.format(' if $__word > %d', max_word)
lines[#lines + 1] = ' printf "source: (no source-map entry for word %%d; map may be stale)\\n", $__word'
lines[#lines + 1] = " end"
lines[#lines + 1] = " set $__matched = 1"
lines[#lines + 1] = " end"
end
lines[#lines + 1] = " if !$__matched"
lines[#lines + 1] = ' echo PC is not inside any known atom (in .text or unmapped region).'
lines[#lines + 1] = " end"
lines[#lines + 1] = "end"
lines[#lines + 1] = "document where_in_atom"
lines[#lines + 1] = " Report current atom name, .rodata addr, word offset, and source line."
lines[#lines + 1] = "end"
lines[#lines + 1] = ""
-- ── stepi_inside_atom ──
-- Hardcoded one if-containment-check per atom (no loop).
-- Precompute end_addr in Lua so we don't ask gdb to evaluate `addr + words*4` inside the if condition
-- (gdb 12.1's expression evaluator chokes on the `*` and emits a misleading 'function malloc' error in some gdb builds).
lines[#lines + 1] = "define stepi_inside_atom"
lines[#lines + 1] = " set $__in_atom = 0"
lines[#lines + 1] = " set $__did_step = 0"
lines[#lines + 1] = " set $__pc = (unsigned int)$pc"
for _, a in ipairs(matched) do ---@type integer, GdbAtomRecord
-- Precompute end_addr in the convenience var (single expression gdb handles).
lines[#lines + 1] = string.format(" set $__end_%d = $__atom_addr_%d + $__atom_words_%d * 4", a.idx, a.idx, a.idx)
lines[#lines + 1] = string.format(" if $__pc >= $__atom_addr_%d && $__pc < $__end_%d", a.idx, a.idx)
lines[#lines + 1] = " set $__in_atom = 1"
lines[#lines + 1] = " stepi"
lines[#lines + 1] = " set $__did_step = 1"
lines[#lines + 1] = " end"
end
lines[#lines + 1] = " if !$__did_step"
lines[#lines + 1] = ' echo [gdb_tape_atoms] stepi_inside_atom: PC is not inside any atom; refusing to step.'
lines[#lines + 1] = " end"
lines[#lines + 1] = " where_in_atom"
lines[#lines + 1] = "end"
lines[#lines + 1] = "document stepi_inside_atom"
lines[#lines + 1] = " One MIPS-instruction step, then where_in_atom. The step-and-see-source-line workflow."
lines[#lines + 1] = "end"
lines[#lines + 1] = ""
-- ── wave_ctx ──
lines[#lines + 1] = "define wave_ctx"
lines[#lines + 1] = ' printf "$t4 = R_FaceCursor 0x%08x\\n", $t4'
lines[#lines + 1] = ' printf "$t5 = R_VertBase 0x%08x\\n", $t5'
lines[#lines + 1] = ' printf "$t6 = R_OtBase 0x%08x\\n", $t6'
lines[#lines + 1] = ' printf "$t7 = R_PrimCursor 0x%08x\\n", $t7'
lines[#lines + 1] = "end"
lines[#lines + 1] = "document wave_ctx"
lines[#lines + 1] = " Pretty-print the 4 wave-context GPRs ($t4=R_FaceCursor, $t5=R_VertBase, $t6=R_OtBase, $t7=R_PrimCursor). Requires target attached."
lines[#lines + 1] = "end"
end
--- Emit the gdb-runtime file (post-link). Pure gdb scripting — addresses come from `mipsel-none-elf-nm -S`, get embedded
--- in `<ctx.out_root>/gdb_tape_atoms_runtime.gdb`, and load via `set $var = ...` + `define ... end` blocks at gdb source-time.
--- @param ctx PassCtx
--- @return nil
local function emit_gdb_runtime(ctx)
if not (ctx.flags and ctx.flags.gdb_runtime) then return end
local elf_path = ctx.flags.elf_path ---@type string|nil
if not elf_path or elf_path == "" then
io.stderr:write("[atoms_source_map] --gdb-runtime requires --elf <elf>\n")
return
end
if lfs.attributes(elf_path, "mode") ~= "file" then
io.stderr:write(string.format(
"[atoms_source_map] --gdb-runtime: ELF not found at %s\n", elf_path))
return
end
local matched = build_atom_table(ctx) ---@type GdbAtomRecord[]
if #matched == 0 then
io.stderr:write("[atoms_source_map] --gdb-runtime: no atoms matched against nm symbols (stale scan?).\n")
return
end
local lines = {} ---@type string[]
lines[#lines + 1] = "# Auto-generated by ps1_meta.lua (passes/atoms_source_map.lua)"
lines[#lines + 1] = "# DO NOT EDIT — re-run ps1_meta.lua --atoms-source-map --gdb-runtime to regenerate"
lines[#lines + 1] = "# Sourced by scripts/gdb/gdb_tape_atoms.gdb (the wrapper)."
lines[#lines + 1] = "# Pure gdb scripting — no Python, no Tcl, no Guile required."
lines[#lines + 1] = "# Commands are FULLY HARDCODED per-atom because gdb doesn't do nested"
lines[#lines + 1] = "# `$` substitution in var names (`$foo_$i` is one literal identifier)."
lines[#lines + 1] = "# Per-atom convenience vars ($__atom_name_<i> etc.) are set so gdb's"
lines[#lines + 1] = "# `printf` has valid expression args (gdb 12.1 quirks: literals in"
lines[#lines + 1] = "# printf args require an attached target; convenience-var args do not)."
lines[#lines + 1] = string.format("# %d atoms from ELF: %s", #matched, elf_path)
lines[#lines + 1] = ""
-- Format version + count + ELF path (the latter is referenced by the load-line).
lines[#lines + 1] = "set $__atom_format_version = " .. FORMAT_VERSION
lines[#lines + 1] = string.format("set $__atom_count = %d", #matched)
lines[#lines + 1] = string.format('set $__elf_path = "%s"', gdb_escape(elf_path))
lines[#lines + 1] = ""
-- Per-atom convenience vars (used as printf args; literals aren't accepted
-- without an attached target on gdb 12.1).
for _, a in ipairs(matched) do ---@type integer, GdbAtomRecord
lines[#lines + 1] = string.format('set $__atom_name_%d = "%s"', a.idx, gdb_escape(a.name))
lines[#lines + 1] = string.format("set $__atom_addr_%d = 0x%x", a.idx, a.addr)
lines[#lines + 1] = string.format("set $__atom_words_%d = %d", a.idx, a.words)
lines[#lines + 1] = string.format('set $__atom_file_%d = "%s"', a.idx, gdb_escape(a.file_base))
end
lines[#lines + 1] = ""
-- The 9 commands (each `define ... end` overrides the wrapper's stub).
lines[#lines + 1] = "# ── 9 user commands (overrides wrapper stubs) ──"
append_gdb_commands(lines, matched)
lines[#lines + 1] = ""
-- Confirmation line for the source operator.
lines[#lines + 1] = 'printf "[gdb_tape_atoms] runtime loaded %d atoms from %s\\n", $__atom_count, $__elf_path'
local out_path ---@type string
-- Move out of `<out_root>/gdb_tape_atoms_runtime.gdb` to `<out_root>/../gdb_tape_atoms_runtime.gdb` when the conventional `<out_root>` is `<build>/gen`
-- (any equivalent spelling — relative, absolute backslash, absolute forward-slash, trailing-separator variants).
-- This puts the gdb runtime alongside the ELF at `build/` rather than under the report subdir.
--- @param p string
--- @return boolean
local function ends_with_gen_dir(p)
if type(p) ~= "string" then return false end
return p:match("[/\\]gen[/\\]?$") ~= nil or p == "build/gen" or p == "build\\gen"
end
if ends_with_gen_dir(ctx.out_root) then
-- Strip the trailing `/gen` segment, then write the runtime script under `build/`.
-- e.g. "C:/projects/Pikuma/ps1/build/gen" -> "C:/projects/Pikuma/ps1/build".
local parent = ctx.out_root:gsub("[/\\]gen[/\\]?$", "") ---@type string
out_path = parent .. "/gdb_tape_atoms_runtime.gdb"
else
out_path = ctx.out_root .. "/gdb_tape_atoms_runtime.gdb"
end
duffle.ensure_dir(duffle.dirname(out_path))
duffle.write_file_lf(out_path, table.concat(lines, "\n") .. "\n")
-- io.stderr:write(string.format("[atoms_source_map] wrote %s (%d atoms)\n", out_path, #matched))
end
-- ════════════════════════════════════════════════════════════════════════════
-- M — module exports
-- ════════════════════════════════════════════════════════════════════════════
local M = {} ---@type AtomSourceMapPass
-- Expose the pure render functions so `report.lua` and the focused tests can call them directly without triggering the file-emit path.
M.render_source_map = render_source_map
M.render_provenance = render_provenance
--- Render ONE atom's sourcemap stanza.
--- @param atom AtomEntry
--- @return string
function M.render_atom_source_map(atom)
assert(type(atom) == "table", "render_atom_source_map: atom must be a table")
assert(type(atom.paths) == "table", "render_atom_source_map: atom.paths must be a table")
local entries, total = canonical_word_entries(atom) ---@type WordMapEntry[], integer
local lines = {} ---@type string[]
lines[#lines + 1] = string.format("ATOM %s %d", (atom.raw_name or atom.name), total)
for _, entry in ipairs(entries) do ---@type integer, WordMapEntry
local word_line = string.format("WORD %d LINE %d TEXT %s", ---@type string
entry.pos, entry.line, entry.text)
local keys = {} ---@type string[]
for pos = 1, 16 do ---@type integer
local k = entry.gpr_keys and entry.gpr_keys[pos] ---@type string|nil
if type(k) == "string" and k:sub(1, 7) == "reguse:" then
keys[#keys + 1] = k
end
end
if #keys > 0 then
word_line = word_line .. " KEYS " .. table.concat(keys, ",")
end
lines[#lines + 1] = word_line
end
lines[#lines + 1] = "ENDATOM"
return table.concat(lines, "\n") .. "\n"
end
--- Render ONE atom's provenance stanza — no per-file format header, no enumeration of other atoms.
---
--- `rel_path` is the source path (forward-slashes) embedded in every `CALL` line.
--- The .md caller (report.lua) is expected to derive this once per `## <source>` heading and pass it down for each atom in that source.
--- @param atom AtomEntry
--- @param wc WordCounts
--- @param rel_path string
--- @return string
function M.render_atom_provenance(atom, wc, rel_path)
assert(type(atom) == "table", "render_atom_provenance: atom must be a table")
assert(type(atom.paths) == "table", "render_atom_provenance: atom.paths must be a table")
assert(type(rel_path) == "string", "render_atom_provenance: rel_path must be a string")
local entries, total = canonical_word_entries(atom) ---@type WordMapEntry[], integer
local lines = {} ---@type string[]
lines[#lines + 1] = string.format("ATOM %s %d", (atom.raw_name or atom.name), total)
for _, entry in ipairs(entries) do ---@type integer, WordMapEntry
local inv = entry.invocation ---@type InvocationRecord|nil
local macro_count = inv and wc and wc["mac_" .. inv.component_name] ---@type integer|nil
if inv and macro_count ~= nil then
lines[#lines + 1] = string.format('WORD %d CALL %s:%d MACRO %s "%s:%d" BODY %d'
, entry.pos, rel_path, entry.line, inv.component_name, inv.def_path or "", inv.def_line or 0, entry.body_line)
else
lines[#lines + 1] = string.format(
"WORD %d CALL %s:%d RAW", entry.pos, rel_path, entry.line)
end
end
return table.concat(lines, "\n") .. "\n"
end
--- Pass entry. For each source that declares at least one tape atom,
--- emit two files in `<out_root>/`: `<basename>.atoms.sourcemap.txt` (per-word call-site map) and `<basename>.atoms.provenance.txt`
--- (per-word definition + body line, resolved via the outermost `mac_X(...)` invocation).
--- When `ctx.flags.gdb_runtime` is true and `ctx.flags.elf_path` exists, also emit the post-link gdb script `<ctx.out_root>/gdb_tape_atoms_runtime.gdb`.
--- @param ctx PassCtx
--- @return PassResult
function M.run(ctx)
local outputs = {} ---@type PassOutputEntry[]
local errors = {} ---@type Finding[]
local warnings = {} ---@type Finding[]
local corpus = ctx.shared and ctx.shared.corpus ---@type Corpus|nil
if type(corpus) ~= "table" or type(corpus.source_order) ~= "table" then
error("atoms_source_map.run requires ctx.shared.corpus.source_order (canonical corpus).", 0)
end
-- Word counts come from `corpus.word_counts` (populated by word_count_eval + components passes).
local wc = corpus.word_counts or {} ---@type WordCounts
if not next(wc) then
warnings[#warnings + 1] = {
line = 0,
msg = "atoms_source_map: corpus.word_counts is empty; the word-counts + components passes may not have populated it. Check the PASSES dep edges.",
}
end
-- atoms.sourcemap.txt + atoms.provenance.txt content moved to report.lua via `<module>.atoms.md` markdown file.
-- This pass emits only the post-link gdb_runtime artifact (see emit_gdb_runtime below).
-- Optionally emit the gdb-runtime form (post-link, one file per build).
if ctx.flags and ctx.flags.gdb_runtime then
emit_gdb_runtime(ctx)
end
return { outputs = outputs, errors = errors, warnings = warnings }
end
return M
+366
View File
@@ -0,0 +1,366 @@
--- passes/auto_reg.lua — Per-phase automatic GPR allocator + gen/auto_reg.h emitter.
---
--- Reads the per-source + corpus-level `atom_auto_regs` + `phase_auto_regs` registries populated by `passes/scan_source.lua`.
--- Runs a deterministic first-fit allocator in the `R_T0..R_T7 + R_V0..R_V1` pool (10 physical GPRs).
--- Emits one `#define R_<Sym>_Code R_Tn_Code` per marker into per-directory `gen/auto_reg.h`.
---
--- User-pinned GPRs : The corpus's `register_alias_registry` is consulted to exclude GPRs the user has pinned via
--- `atom_reg` + `_Code` defs (e.g. carriers like `R_ResolveScratch = R_T4 atom_reg`).
--- These GPRs are unavailable to EVERY atom's source pool.
--- Carriers are preserved across atoms by context discipline and must never be reallocated.
--- Per-atom body parsing also catches alias references (R_<Alias>) and hardcoded R_Tn references,
--- so the user can write either `R_T4` or `R_ResolveScratch` in an atom body and the pass will exclude R_T4 from that atom's pool.
---
--- Conflict detection: If the user hardcodes `R_Tn` in an atom body that shares a phase with an auto-reg that picked `R_Tn`,
--- emit `phase_register_clash` as an info finding (no build stop).
--- Should be unreachable after the user-pinning + body-parsing fix above; kept as a defensive safety net.
---
--- Pool exhaustion: If a phase declares more `R_<Sym>` mappings than the 10-register pool can hold,
--- emit `phase_register_pool_exhausted` as a build-stopping error.
--- @alias GprIdent string
--- @class GprAllocMap
--- @field [string] GprIdent -- bag: auto-reg symbol -> physical GPR
--- @class AutoRegOutput
--- @field auto_reg_h string
--- @class AutoRegResult
--- @field outputs AutoRegOutput[]
--- @field errors Finding[]
--- @field warnings Finding[]
--- @class AutoRegPass
--- @field run fun(ctx: PassCtx): AutoRegResult
--- @field POOL GprIdent[]
local _bootstrap_dir = debug.getinfo(1, "S").source:match("^@?(.*[/\\])") or "./" ---@type string
local duffle = dofile(_bootstrap_dir .. "../duffle_paths.lua") ---@type DuffleExport
local isa = require("duffle_isa") ---@type DuffleIsa
--- ════════════════════════════════════════════════════════════════════════════
--- THE GPR ALLOCATION POOL — what's allocatable, and (more importantly) WHY
--- ════════════════════════════════════════════════════════════════════════════
---
--- The auto-reg pass picks physical GPRs for `atom_auto_reg(...)` / `phase_auto_reg(...)` markers.
--- The 24-register pool covers R2-R25 (the user/atom allocatable surface):
--- R_T0..R_T7, R_V0..R_V1, R_A0..A3, R_S0..S7, R_T8..T9.
--- Excluded (and never added to the pool):
--- R_0 (code 0) — Hardwired zero. Cannot be written.
--- R_AT (code 1) — Assembler temporary. Reserved by the MIPS O32 ABI.
--- R_A0..A3 — Explicitly omitted above even though their integer codes map to POOL entries;
--- the pool-construction loop below only references the POOL string literals, never the integer codes, so they are NOT auto-allocated by default.
--- (A0-A3 become available when the user adds them to POOL or hardcodes an R_A0 reference in the atom body.)
--- R_K0/K1 (codes 26-27) — Kernel / interrupt handler reserves. Never touched by user code.
--- R_GP/SP/FP/RA (codes 28-31) — R_SP/R_FP/R_RA are tape-runtime carriers between tape_enter and tape_exit; R_GP stays the host global pointer.
---
local POOL = {} ---@type GprIdent[]
for _, row in ipairs(isa.GPR_ROLE) do ---@type integer, GprRole
if row.pool then
POOL[#POOL + 1] = row.name
end
end
-- Map from integer MIPS GPR code (the `code` field on AliasEntry) to the physical GPR ident in POOL.
-- The standard MIPS O32 ABI register numbering matches mips.h's R_*_Code #defines (mips.h).
-- Only the POOL entries matter for auto_reg — non-pool aliases
-- (R_AT=1, R_A0..A3=4..7, R_T8=24, R_T9=25, R_K0/K1=26..27, R_GP/SP/FP/RA=28..31)
-- are deliberately omitted — see the comment block above for the WHY of each exclusion.
local INT_CODE_TO_POOL_GPR = { ---@type table<integer, GprIdent> -- bag: MIPS GPR code -> POOL ident
[2] = "R_V0", [3] = "R_V1",
[4] = "R_A0", [5] = "R_A1", [6] = "R_A2", [7] = "R_A3",
[8] = "R_T0", [9] = "R_T1", [10] = "R_T2", [11] = "R_T3",
[12] = "R_T4", [13] = "R_T5", [14] = "R_T6", [15] = "R_T7",
[16] = "R_S0", [17] = "R_S1", [18] = "R_S2", [19] = "R_S3",
[20] = "R_S4", [21] = "R_S5", [22] = "R_S6", [23] = "R_S7",
[24] = "R_T8", [25] = "R_T9",
}
-- Stable sort for deterministic allocation order.
--- @param tbl table<string, string> -- bag: key set only; values unused
--- @return string[]
local function stable_sort_keys(tbl)
local keys = {} ---@type string[]
for k in pairs(tbl) do keys[#keys + 1] = k end ---@type string
table.sort(keys)
return keys
end
-- Allocate one phase's auto-reg mappings.
-- Returns (allocated_map, errors). On pool exhaustion, errors is populated and the function halts.
--- @param phase_label string
--- @param decls table<string, string> -- bag: auto-reg symbol -> decl payload
--- @return GprAllocMap
--- @return Finding[]
local function allocate_phase(phase_label, decls)
-- Deep-copy POOL into a fresh sequence table. The original `table.unpack and table.unpack(POOL) or { unpack(POOL) }`
-- idiom wraps the unpacked values in a single inner table under LuaJIT 5.1 (`table.unpack` is nil; the `or` returns one value),
-- which corrupts the pool into `{ {R_T0, R_T1, ...} }` — making `table.remove(pool, 1)` return the inner table on iteration.
local pool = {} ---@type GprIdent[]
for i = 1, #POOL do pool[i] = POOL[i] end ---@type integer
local result = {} ---@type GprAllocMap
local errors = {} ---@type Finding[]
for _, sym in ipairs(stable_sort_keys(decls)) do ---@type integer, string
local next_gpr = table.remove(pool, 1) ---@type GprIdent|nil
if not next_gpr then
errors[#errors + 1] = {
line = 0,
msg = string.format("phase_register_pool_exhausted: "
.. "phase '%s' requested symbol '%s' but the pool has no remaining registers "
.. "(max 24 per phase: R_T0..R_T7 + R_V0..R_V1 + R_A0..R_A3 + R_S0..R_S7 + R_T8..R_T9). Split the phase or use hardcoded GPRs."
, phase_label, sym),
}
return result, errors
end
result[sym] = next_gpr
end
return result, errors
end
-- Build two projections from corpus.register_alias_registry:
-- user_pinned -- { [physical_gpr_ident] = true } -- GPRs unavailable to auto_reg globally (wave-context carriers, file-scope pinned aliases)
-- alias_to_gpr -- { [alias_ident] = physical_gpr_ident } -- for body parsing
-- Both projections are derived from the same set of entries: every AliasEntry in register_alias_registry has `has_atom_reg = true`
-- (only those entries are added to the registry; see passes/scan_source.lua parse_enum_entry).
-- Each entry's `code` is the integer MIPS GPR number (0..31); INT_CODE_TO_POOL_GPR translates it back to the physical GPR ident.
-- Aliases whose `code` points to a non-POOL GPR (e.g. R_S0, R_T8, R_K1) are ignored —
-- they don't affect the auto_reg pool, and they're already excluded from POOL above.
--- @param corpus Corpus
--- @return table<GprIdent, boolean>
--- @return table<string, GprIdent>
local function build_user_pins(corpus)
local user_pinned = {} ---@type table<GprIdent, boolean> -- bag: pinned physical GPR -> true
local alias_to_gpr = {} ---@type table<string, GprIdent> -- bag: alias ident -> physical GPR
if not corpus.register_alias_registry then return user_pinned, alias_to_gpr end
for alias_name, alias_entry in pairs(corpus.register_alias_registry) do ---@type string, AliasEntry
if alias_entry.has_atom_reg and alias_entry.code then
local gpr = INT_CODE_TO_POOL_GPR[alias_entry.code] ---@type GprIdent|nil
if gpr then
user_pinned[gpr] = true
alias_to_gpr[alias_name] = gpr
end
end
end
return user_pinned, alias_to_gpr
end
--- Find every physical GPR referenced in the atom body, via EITHER:
--- (a) A hardcoded physical GPR ident (R_T\d+|R_V\d+|R_A\d+|R_S\d+) — the existing regex;
--- (b) An alias ident (R_<Alias>) resolved via alias_to_gpr back to its physical GPR ident.
--- Returns { [physical_gpr_ident] = count }.
--- Clash-detection and source-pool-exclusion logic only needs the presence of each GPR (boolean test),
--- but keeping count preserves the original find_hardcoded_rn shape so callers can switch without churn.
--- The alias pattern is sorted lexicographically to keep the regex deterministic.
--- @param body_text string
--- @param alias_to_gpr table<string, GprIdent> -- bag: alias ident -> physical GPR
--- @return table<GprIdent, integer>
local function find_used_gprs(body_text, alias_to_gpr)
local found = {} ---@type table<GprIdent, integer> -- bag: physical GPR -> hit count
-- (a) Hardcoded physical GPRs (R_T0..R_T7, R_V0..R_V1, R_A0..R_A3, R_S0..R_S7).
for gpr in body_text:gmatch("(R_T%d+|R_V%d+|R_A%d+|R_S%d+)") do ---@type GprIdent
found[gpr] = (found[gpr] or 0) + 1
end
-- (b) Alias references (R_<Alias>) resolved to physical GPRs via the registry.
-- Sorted by name so the regex is byte-stable across runs.
if alias_to_gpr and next(alias_to_gpr) then
local aliases = {} ---@type string[]
for alias_name in pairs(alias_to_gpr) do ---@type string
aliases[#aliases + 1] = alias_name
end
table.sort(aliases)
local pattern = "(" .. table.concat(aliases, "|") .. ")" ---@type string
for alias_name in body_text:gmatch(pattern) do ---@type string
local gpr = alias_to_gpr[alias_name] ---@type GprIdent|nil
if gpr and not found[gpr] then
found[gpr] = 1
end
end
end
return found
end
-- Emit one gen/auto_reg.h header per directory.
--- @param out_dir string
--- @param dir string
--- @param sources SourceFile[]
--- @param mappings GprAllocMap
--- @return string|nil
local function emit_auto_reg_h(out_dir, dir, sources, mappings)
if not mappings or next(mappings) == nil then return end
local out_path = out_dir .. "/" .. "auto_reg.h" ---@type string
duffle.ensure_dir(out_dir)
local lines = { ---@type string[]
"#ifdef INTELLISENSE_DIRECTIVES",
"#pragma once",
"#endif",
"// Auto-generated by ps1_meta.lua (passes/auto_reg.lua) — DO NOT EDIT",
"// Directory: " .. dir:gsub("/", "\\"),
}
for _, src in ipairs(sources) do ---@type integer, SourceFile
lines[#lines + 1] = "// source: " .. src.path
end
lines[#lines + 1] = "// Per-phase register allocations resolved by the lua pass."
lines[#lines + 1] = "// R_<Sym>_Code = <chosen GPR's _Code constant> for every marker in this directory."
lines[#lines + 1] = ""
for _, sym in ipairs(stable_sort_keys(mappings)) do ---@type integer, string
local gpr = mappings[sym] ---@type GprIdent
local gpr_code = gpr .. "_Code" ---@type string
lines[#lines + 1] = "#define " .. sym .. "_Code " .. gpr_code
end
lines[#lines + 1] = ""
duffle.write_file_lf(out_path, table.concat(lines, "\n") .. "\n")
print(" -> " .. out_path)
return out_path
end
-- ════════════════════════════════════════════════════════════════════════════
-- Pass entry
-- ════════════════════════════════════════════════════════════════════════════
local M = {} ---@type AutoRegPass
--- @param ctx PassCtx
--- @return AutoRegResult
function M.run(ctx)
local outputs = {} ---@type AutoRegOutput[]
local errors = {} ---@type Finding[]
local warnings = {} ---@type Finding[]
local corpus = ctx.shared and ctx.shared.corpus ---@type Corpus|nil
if type(corpus) ~= "table" then
error("auto_reg.run requires ctx.shared.corpus", 0)
end
-- 0. Build the user-pinned GPR exclusion set + alias-to-GPR resolution map.
-- Wave-context carriers (e.g. `R_ResolveScratch = R_T4 atom_reg` in hello_camera.atom.c)
-- MUST NOT be allocated to any auto-reg marker — they're preserved across atoms by the wave-context discipline.
-- The corpus's register_alias_registry is the source of truth for these opt-in pins.
-- Body references to those aliases (via alias_to_gpr) are also excluded on a per-atom basis in step 2 below.
local user_pinned, alias_to_gpr = build_user_pins(corpus) ---@type table<GprIdent, boolean>, table<string, GprIdent>
-- 1. Allocate phase pools first (phase declarations take precedence over per-atom declarations).
local phase_allocations = {} ---@type table<string, GprAllocMap> -- bag: phase_label -> alloc map
for phase_label, decls in pairs(corpus.phase_auto_regs or {}) do ---@type string, table<string, string>
local mapping, errs = allocate_phase(phase_label, decls) ---@type GprAllocMap, Finding[]
for sym, gpr in pairs(mapping) do ---@type string, GprIdent
phase_allocations[phase_label] = phase_allocations[phase_label] or {}
phase_allocations[phase_label][sym] = gpr
end
for _, e in ipairs(errs) do ---@type integer, Finding
errors[#errors + 1] = e
end
end
-- 2. Allocate per-atom auto-regs. If the atom scope matches a phase, reuse the phase pool.
-- Otherwise, allocate a private pool for the atom.
-- The phase membership is in `corpus.atom_phases[phase_label].atoms` (an array of atom names declared via `atom_phase(<phase>)`
-- in the atom's `atom_info` line). Build a reverse map `atom_name -> phase_label` so the lookup is O(1) per atom scope.
local atom_name_to_phase = {} ---@type table<AtomName, string> -- bag: atom name -> phase label
for phase_label, entry in pairs(corpus.atom_phases or {}) do ---@type string, AtomPhaseGroup
for _, atom_name in ipairs(entry.atoms or {}) do ---@type integer, AtomName
atom_name_to_phase[atom_name] = phase_label
end
end
local atom_allocations = {} ---@type table<AtomName, GprAllocMap> -- bag: atom scope -> alloc map
for atom_scope, decls in pairs(corpus.atom_auto_regs or {}) do ---@type AtomName, table<string, string>
local phase_label = atom_name_to_phase[atom_scope] ---@type string|nil
-- Build the atom's source pool: start with the full POOL, subtract:
-- (a) every GPR already committed (phase allocations + prior atom allocations)
-- (b) every USER-PINNED GPR (wave-context carriers + file-scope pinned aliases)
-- (c) every GPR referenced in the atom's body — either hardcoded R_X or alias R_Xxx
-- (the latter resolved via alias_to_gpr; this catches cases where the user wrote R_ResolveScratch instead of R_T4 directly)
-- Atoms whose scope matches a phase share the global pool with the phase allocations;
-- the original `source_pool = phase_allocations[phase_label]` form used the phase
-- allocation MAP as a pool, but that map has no array part, so `table.remove(source_pool, 1)`
-- returned nil and every atom-with-phase marker errored with `phase_register_pool_exhausted`.
local used = {} ---@type table<GprIdent, boolean> -- bag: committed or body-referenced GPR -> true
for _, m in pairs(phase_allocations) do for _, gpr in pairs(m) do used[gpr] = true end end ---@type integer, GprAllocMap
for _, m in pairs(atom_allocations) do for _, gpr in pairs(m) do used[gpr] = true end end ---@type integer, GprAllocMap
-- (c) Body references — scan the atom body for hardcoded + alias-resolved GPRs.
-- Folded into `used` so the source_pool exclusion is a single check.
local atom = corpus.atoms_by_name and corpus.atoms_by_name[atom_scope] ---@type AtomEntry|nil
if atom and atom.body then
local body_used = find_used_gprs(atom.body, alias_to_gpr) ---@type table<GprIdent, integer>
for gpr in pairs(body_used) do used[gpr] = true end ---@type GprIdent
end
local source_pool = {} ---@type GprIdent[]
for _, gpr in ipairs(POOL) do ---@type integer, GprIdent
-- Exclude (a) prior commitments, (b) USER-PINNED GPRs (wave-context carriers declared via atom_reg + _Code defs, preserved across atoms globally).
if not used[gpr] and not user_pinned[gpr] then
source_pool[#source_pool + 1] = gpr
end
end
local result = {} ---@type GprAllocMap
for _, sym in ipairs(stable_sort_keys(decls)) do ---@type integer, string
local next_gpr = table.remove(source_pool, 1) ---@type GprIdent|nil
if not next_gpr then
errors[#errors + 1] = {
line = 0,
msg = string.format("phase_register_pool_exhausted: atom '%s' requested symbol '%s' "
.. "but no free registers remain in its scope pool."
, atom_scope, sym),
}
else
result[sym] = next_gpr
end
end
atom_allocations[atom_scope] = result
end
-- 3. Conflict-with-hardcoded detection (defensive — should be unreachable now).
-- The source_pool exclusion in step 2 (b) + (c) already accounts for both user-pinned GPRs
-- and body-referenced GPRs (hardcoded R_Tn OR alias R_<Alias>).
-- An auto-reg allocation that matched an existing body reference would be impossible by construction.
-- This warning is kept as a defensive safety net for cases the body scanner might miss
-- (e.g. macros that expand to register references the scanner cannot resolve).
-- For each resolved (scope, sym) -> R_Tn mapping, scan the atom body source for used GPRs.
for atom_scope, decls in pairs(atom_allocations) do ---@type AtomName, GprAllocMap
local atom = corpus.atoms_by_name and corpus.atoms_by_name[atom_scope] ---@type AtomEntry|nil
if atom and atom.body then
local used_in_body = find_used_gprs(atom.body, alias_to_gpr) ---@type table<GprIdent, integer>
for sym, allocated_gpr in pairs(decls) do ---@type string, GprIdent
if used_in_body[allocated_gpr] and used_in_body[allocated_gpr] > 0 then
warnings[#warnings + 1] = {
line = atom.line or 0,
msg = string.format("phase_register_clash: atom '%s' has hardcoded '%s' in its body AND an auto-reg marker '%s' "
.. "that was allocated to '%s' (same phase). Resolve by removing the hardcoded reference or renaming the auto-reg."
, atom_scope, allocated_gpr, sym, allocated_gpr),
}
end
end
end
end
-- 4. Emit per-directory gen/auto_reg.h.
-- For each source directory that has atom_auto_regs or phase_auto_regs entries, emit one header.
local sources_by_dir = corpus.sources_by_dir or {} ---@type table<string, SourceFile[]>
for dir, sources in pairs(sources_by_dir) do ---@type string, SourceFile[]
local per_dir_mappings = {} ---@type GprAllocMap
for _, src in ipairs(sources) do ---@type integer, SourceFile
-- Collect every (sym -> gpr) entry that originated from a source in this directory.
-- `src.scan.atom_auto_regs` is keyed by ATOM SCOPE NAME; `pairs(t)` iterates KEYS so `scope_name` here is the scope ident (e.g. "cube_g4_face").
-- The previous `for _, scan_atom_auto` form silently assigned the VALUE (a `{sym = sym}` table) to the variable,
-- which made `atom_allocations[scan_atom_auto]` a table-indexed lookup that never resolved.
for scope_name in pairs(src.scan and src.scan.atom_auto_regs or {}) do ---@type string
for sym, gpr in pairs(atom_allocations[scope_name] or {}) do ---@type string, GprIdent
per_dir_mappings[sym] = gpr
end
end
for scope_name in pairs(src.scan and src.scan.phase_auto_regs or {}) do ---@type string
for sym, gpr in pairs(phase_allocations[scope_name] or {}) do ---@type string, GprIdent
per_dir_mappings[sym] = gpr
end
end
end
local out_dir = dir .. "/gen" ---@type string
local out_path = emit_auto_reg_h(out_dir, dir, sources, per_dir_mappings) ---@type string|nil
if out_path then outputs[#outputs + 1] = { auto_reg_h = out_path } end
end
return { outputs = outputs, errors = errors, warnings = warnings }
end
M.POOL = POOL
return M
+920
View File
@@ -0,0 +1,920 @@
--- passes/components.lua — Component-macro header generator.
---
--- Ownership: `corpus.word_counts` and `corpus.components`.
--- Scanner owns `declaration_comment` and `debug_skip` on each declaration record; this pass projects both forward.
---
--- Reads the pre-scanned SourceScan payload from `duffle.scan_source` for `MipsAtomComp_(ac_X)` and `MipsAtomComp_Proc_(ac_X, { body })` declarations (kind="comp_bare" / "comp_proc"),
--- then resolves the function-args string from the preceding `FI_ Slice_MipsCode ac_X(...)` declaration via a backward walk.
---
--- `MipsAtom_Proc_(X, ab, { body })` declarations (kind="atom_proc") are ATOMS, not components, and are deliberately excluded —
--- the ELF symbol is the C ident. Raw `MipsCode code_*` is leftover, not the atom rule.
---
--- Emits one `gen/macs.h` per *immediate source directory* with `#define mac_X(sig) \` macros plus `WORD_COUNT(mac_X, N)` entries for downstream offset computation.
--- All sources inside the same directory contribute to the same file (per-directory aggregation).
--- The directory itself is the namespace, so the filename does not repeat the module name.
-- ════════════════════════════════════════════════════════════════════════════
-- Module-scope requires + package.path setup
-- ════════════════════════════════════════════════════════════════════════════
-- Bootstrap: same as entry scripts. See `ps1_meta.lua` for the rationale.
-- Bootstrap: load `scripts/duffle_paths.lua` (sets package.path + package.cpath).
-- Uses `debug.getinfo` to find this file's own directory, so it works both standalone and when require'd from the orchestrator.
-- Bootstrap: load `duffle_paths.lua` via `debug.getinfo(1, "S").source` (works both standalone + when require'd).
-- duffle_paths.lua sets package.path then returns `require("duffle")` at the bottom, so the dofile value IS the duffle module.
local _bootstrap_dir = debug.getinfo(1, "S").source:match("^@?(.*[/\\])") or "./" ---@type string
local duffle = dofile(_bootstrap_dir .. "../duffle_paths.lua") ---@type DuffleExport
-- ════════════════════════════════════════════════════════════════════════════
-- Constants
-- ════════════════════════════════════════════════════════════════════════════
-- Atom component declaration identifiers.
local ATOM_COMP_PROC = "MipsAtomComp_Proc_" ---@type string
local MIPS_ATOM = "Slice_MipsCode" ---@type string -- prefix on the function declaration that wraps an AtomComp_Proc_
-- Component-name prefixes.
local AC_PREFIX = "ac_" ---@type string -- arg to MipsAtomComp_(ac_X); the X is the atom name
local AC_PREFIX_LEN = 3 ---@type integer
local MAC_PREFIX = "mac_" ---@type string -- prefix on generated macros; the rest is the atom name
local MAC_PREFIX_LEN = 4 ---@type integer
-- ASCII byte values used in tokenization.
local BYTE_NEWLINE = 10 ---@type integer
local BYTE_SLASH = 47 ---@type integer
-- Output gen subdirectory + filename (per-directory aggregation; the directory name is the namespace).
local GEN_SUBDIR = "gen" ---@type string
local MACS_FILENAME = "macs.h" ---@type string
-- ════════════════════════════════════════════════════════════════════════════
-- Type declarations
-- ════════════════════════════════════════════════════════════════════════════
-- SourceFile, PassCtx, PassResult: see ps1_meta.lua
-- DuffleExport: see duffle.lua
-- SourceScan, AtomEntry, CorpusCollision, CollisionSite: see scan_source.lua
-- BodyToken: see emission_model.lua
-- WordCounts: see word_count_eval.lua
-- InstructionRow, GteCommandRow: see duffle_isa.lua
--- @class Component
--- @field name string -- Atom name (without `ac_` prefix)
--- @field body string -- Brace-delimited body (without the braces)
--- @field body_off integer|nil -- Byte offset of body[1] in source
--- @field body_tokens BodyToken[]|nil
--- @field args string|nil -- Function-args string (function form only)
--- @field arg_names string[]|nil -- Formal names with leading `ab` dropped
--- @field line integer -- Source line of the declaration
--- @field comment string|nil -- Scanner-owned `declaration_comment`; the components pass reads it from the scanner record
--- @field kind string -- "comp_bare" | "comp_proc" (atom_proc is NOT a component — see `project_components`)
--- @field debug_skip boolean -- Mirror of `a.debug_skip` (scanner-owned); true iff a bare `atom_dbg_skip` marker immediately preceded the declaration
--- @field path string|nil -- Slash-normalized source path (collision sites)
--- @field source string|nil -- Absolute source path (emit)
--- @field line_of (fun(pos: integer): integer)|nil
--- @field cycle_cost integer|nil -- From metadata[c.name]; nil when the body was not costed
--- @field gp0_contrib integer|nil -- From metadata[c.name]; nil when the body was not costed
--- @class ComponentMeta
--- @field cycle_cost integer
--- @field gp0_contrib integer
--- @class ComponentMetaMap
--- @field [string] ComponentMeta -- bag: bare component name -> meta
--- @class MacsOutput
--- @field macs_h string
--- @class ComponentsPass
--- @field run fun(ctx: PassCtx): PassResult
-- ════════════════════════════════════════════════════════════════════════════
-- Local helpers (file I/O + path normalization)
-- ════════════════════════════════════════════════════════════════════════════
local M = {} ---@type ComponentsPass
-- ════════════════════════════════════════════════════════════════════════════
-- Back-walk helpers (composed into the entry point below: find_function_args_for)
--
-- Only the function-args lookup for proc components occurs here.
-- The preceding-comment walk occur in `scan_source.lua` — `a.declaration_comment` carries the resolved comment,
-- so this file reads it forward rather than re-walking the source.
-- ════════════════════════════════════════════════════════════════════════════
--- Find the args of the function declaration that immediately precedes a `MipsAtomComp_Proc_` invocation.
--- Returns the args string (e.g., `"U4 off, U4 code, U1 r, U1 g, U1 b"`) or nil if no function declaration is found.
---
--- After the `sym` arg was dropped from MipsAtomComp_Proc_, the component name
--- and the args both come from the preceding `FI_ Slice_MipsCode ac_X(args)` declaration.
--- The shared `duffle.find_function_decl_for` helper does the backward walk; this function returns just the args.
---
--- @param source string
--- @param name string (retained for signature stability; unused — the walk derives the name)
--- @param before_pos integer
--- @return string|nil
local function find_function_args_for(source, name, before_pos)
local _, args_inner = duffle.find_function_decl_for(source, before_pos, #MIPS_ATOM) ---@type string|nil, string|nil
return args_inner
end
-- ════════════════════════════════════════════════════════════════════════════
-- Argument-name extraction
-- ════════════════════════════════════════════════════════════════════════════
--- Extract just the parameter NAMES from a function-args string (stripping type annotations). E.g.,
--- `"U4 off, U4 code, U1 r, U1 g, U1 b"` -> `{"off", "code", "r", "g", "b"}`
--- `"U4 *ptr"` -> `{"ptr"}`
--- `""` -> nil
--- @param args_str string|nil
--- @return string[]|nil
local function extract_arg_names(args_str)
if not args_str or args_str == "" then return nil end
local names = {} ---@type string[]
local tokens = duffle.split_top_level_commas(args_str) ---@type string[]
for _, tok in ipairs(tokens) do ---@type integer, string
local trimmed = duffle.trim(tok) ---@type string
if trimmed ~= "" then
-- Strip trailing block comment (/* ... */) from the token, if present.
-- split_top_level_commas only skips block comments at TOP LEVEL (between commas),
-- not block comments embedded WITHIN a token between a parameter and a trailing comma.
-- Without this strip, the identifier-walk below stops at the `/` of `*/` and returns
-- the wrong name (or nothing). See `test_extract_arg_names_handles_trailing_block_comments`.
local trimmed_end = #trimmed ---@type integer
if trimmed_end >= 2 and trimmed:sub(trimmed_end - 1, trimmed_end) == "*/" then
-- Find the matching `/*` that opens the trailing comment.
-- Walk back from the `*/` looking for `/*` (whitespace + `/*`).
local close_pos = trimmed_end - 1 ---@type integer -- position of the second-to-last char
-- Walk back: skip trailing whitespace, then look for the `/*` opener.
while close_pos > 1 do
local ch = trimmed:sub(close_pos, close_pos) ---@type string
if ch == " " or ch == "\t" or ch == "\n" or ch == "\r" then
close_pos = close_pos - 1
else
break
end
end
-- Now scan back from close_pos for the `/*` opener (slashes are at close_pos-1 and close_pos-2).
local opener_pos = nil ---@type integer|nil
local scan = close_pos - 3 ---@type integer
while scan >= 1 do
if trimmed:sub(scan, scan + 1) == "/*" then
opener_pos = scan
break
end
scan = scan - 1
end
if opener_pos then
-- Truncate everything from opener_pos onwards.
trimmed = duffle.trim(trimmed:sub(1, opener_pos - 1))
end
end
if trimmed == "" then goto continue end
-- Strip trailing array suffix `[N]` if present.
-- Example: `Reg r_data[4]` → identifier is `r_data`, not `4`.
trimmed_end = #trimmed
if trimmed_end >= 4 and trimmed:sub(trimmed_end, trimmed_end) == "]" then
-- Walk back: skip digits, expect `[`.
local bracket_pos = trimmed_end - 1 ---@type integer
while bracket_pos > 1 do
local ch = trimmed:sub(bracket_pos, bracket_pos) ---@type string
if ch >= "0" and ch <= "9" then
bracket_pos = bracket_pos - 1
else
break
end
end
if bracket_pos >= 1 and trimmed:sub(bracket_pos, bracket_pos) == "[" then
trimmed = duffle.trim(trimmed:sub(1, bracket_pos - 1))
end
end
if trimmed == "" then goto continue end
-- Find the identifier at the end: walk back over trailers (whitespace + `*` + `[]`),
-- then walk back over the identifier chars (alnum + `_`).
local ident_end = #trimmed ---@type integer
while ident_end > 0 do
local ch = trimmed:sub(ident_end, ident_end) ---@type string
if ch == " " or ch == "\t" or ch == "*" or ch == "]" or ch == "[" then
ident_end = ident_end - 1
else
break
end
end
local ident_start = ident_end ---@type integer
while ident_start > 0 do
local ch = trimmed:sub(ident_start, ident_start) ---@type string
if duffle.is_alnum_byte(string.byte(ch)) or ch == "_" then
ident_start = ident_start - 1
else
break
end
end
ident_start = ident_start + 1
local name = trimmed:sub(ident_start, ident_end) ---@type string
if name ~= "" then names[#names + 1] = name end
::continue::
end
end
if #names == 0 then return nil end
return names
end
--- @param args_str string|nil
--- @return string[]|nil
local function formal_arg_names(args_str)
local names = extract_arg_names(args_str) ---@type string[]|nil
if not names then return nil end
if names[1] == "ab" then table.remove(names, 1) end
if #names == 0 then return nil end
return names
end
-- ════════════════════════════════════════════════════════════════════════════
-- Component projection (read from pre-scanned SourceScan)
-- ════════════════════════════════════════════════════════════════════════════
--- Project pre-scanned MipsAtomComp_ / MipsAtomComp_Proc_ entries into Component shape.
--- Reads the scanner-owned `declaration_comment` (resolved by scan_source.lua, skipping backward across an associated bare `atom_dbg_skip` marker when present).
--- Per-source backward lookups remain in place only for the function `args` of proc components.
--- That lookup is unique to components.lua and stays separate from the declaration-comment walk.
--- Carries `body_tokens` forward from scan-source so word_count_rec reads from the precomputed table instead of calling duffle.tokenize_body again.
--- Carries the scanner-owned `debug_skip` flag forward so the generated projection can emit `/* atom_dbg_skip */`
--- before the authored comment and so `update_canonical_components` can mirror the same field onto `corpus.components[name]`.
--- @param source string -- the full source text (needed for backward lookups)
--- @param scan SourceScan
--- @return Component[]
local function project_components(source, scan)
local out = {} ---@type Component[]
for _, a in ipairs(scan.atoms) do ---@type integer, AtomEntry
-- Only `MipsAtomComp_(ac_X)` (kind="comp_bare") and `MipsAtomComp_Proc_(ac_X, ...)` (kind="comp_proc")
-- are COMPONENTS — they get inlined via `mac_<name>` aliases inside atom bodies.
-- `MipsAtom_Proc_` (kind="atom_proc") is an ATOM (ends with `mac_yield()`); it gets emitted via
-- `tb_emit` of the C ident, NOT inlined as a macro. Including `atom_proc` here
-- would incorrectly emit `mac_<name>` aliases for atoms, polluting `gen/macs.h`.
-- See `docs/duffle_dsl_primer.md` §"mac_* aliases" for the contract.
if a.kind == "comp_bare" or a.kind == "comp_proc" then
-- Function-args lookup is meaningful for `MipsAtomComp_Proc_` components
-- (the macro sits inside `FI_ Slice_MipsCode ac_X(...)`); the alias expansion
-- discards the `ab` (atom-builder) arg the same way both forms do.
local args = find_function_args_for(source, a.raw_name, a.ident_pos) ---@type string|nil
-- Comment ownership: scan_source.lua stamps `declaration_comment` on the record by walking backward past any associated bare marker.
-- The pass reads `declaration_comment` directly.
local comment = a.declaration_comment or "" ---@type string
out[#out + 1] = {
line = a.line,
name = a.name,
body = a.body,
body_off = a.body_off,
body_tokens = a.body_tokens,
args = args,
arg_names = formal_arg_names(args),
comment = comment,
kind = a.kind, -- "comp_bare" | "comp_proc"; provenance emitter reads this.
debug_skip = a.debug_skip == true,
}
end
end
return out
end
-- ════════════════════════════════════════════════════════════════════════════
-- Line-comment → block-comment conversion
-- ════════════════════════════════════════════════════════════════════════════
-- Convert `//` line comments to `/* */` block comments in a token.
-- C macros use `\` line-continuations; a `//` comment before `\` would consume the continuation,
-- breaking the macro. We convert `//` to `/* */` so the multi-line macro structure is preserved.
--
-- Skips `//` sequences that are inside string or character literals
-- (a rough heuristic — sufficient for component bodies which don't have those constructs).
--- @param s string
--- @return string
local function convert_line_comments_to_block(s)
local result = s ---@type string
local pos = 1 ---@type integer
local len = #result ---@type integer
while pos <= len do
local is_double_slash = result:byte(pos) == BYTE_SLASH ---@type boolean
and pos + 1 <= len and result:byte(pos + 1) == BYTE_SLASH
if not is_double_slash then
pos = pos + 1
else
-- Find end of line.
local eol = pos ---@type integer
while eol <= len and result:byte(eol) ~= BYTE_NEWLINE do
eol = eol + 1
end
local before = result:sub(1, pos - 1) ---@type string
local comment = result:sub(pos + 2, eol - 1) ---@type string -- skip the `//`
local after ---@type string
if eol <= len and result:byte(eol) == BYTE_NEWLINE then
after = " */" .. result:sub(eol) -- keep the newline
else
after = " */"
end
result = before .. "/*" .. comment .. after
pos = #before + 2 + #comment + 3 -- skip past converted comment
end
end
return result
end
-- ════════════════════════════════════════════════════════════════════════════
-- Word-count computation (memoized recursive lookup)
-- ════════════════════════════════════════════════════════════════════════════
--- Strip the `mac_` prefix from a component-call ident so we can look it up against the components-by-name table.
--- Returns the ident unchanged if it doesn't start with the prefix
--- (so a non-component ident like `mask_upper` falls through to the wc-table branch).
--- @param ident string|nil
--- @return string|nil
local function strip_mac_prefix(ident)
if not ident then return nil end
if ident:sub(1, MAC_PREFIX_LEN) == MAC_PREFIX then
return ident:sub(MAC_PREFIX_LEN + 1)
end
return ident
end
--- Strip a leading delay marker (`LdSlot_` / `BdSlot_` / `GteDelay_` / `DmaSlot_`)
--- plus following whitespace and block comments. Returns the remainder, or ""
--- when the token is only the marker.
--- `BdSlot_ nop` becomes `nop`. Bare `LdSlot_` becomes "".
--- @param tok string
--- @return string
local function strip_leading_delay_marker(tok)
local ident = duffle.read_ident(tok, 1) ---@type string|nil
if not ident or not duffle.DELAY_MARKERS[ident] then return tok end
local rest = tok:sub(#ident + 1):match("^%s*(.*)$") or "" ---@type string
while rest:sub(1, 2) == "/*" do
local close = rest:find("*/", 3, true) ---@type integer|nil
if not close then return "" end
rest = rest:sub(close + 2):match("^%s*(.*)$") or ""
end
return rest
end
--- (internal) Recursive word-count lookup. `cache` is the memoization table shared across all components
--- in a single source's `count_all_components` pass; the in-progress -1 sentinel detects cycles (A -> B -> A).
--- @param name string -- the component name (without `mac_`)
--- @param comp_by_name table<string, Component>
--- @param wc WordCounts
--- @param cache table<string, integer> -- bag: name -> count; -1 in-progress sentinel
--- @return integer
local function word_count_rec(name, comp_by_name, wc, cache)
if cache[name] ~= nil then return cache[name] end
cache[name] = -1 -- mark in-progress (cycle detection)
local cc = comp_by_name[name] ---@type Component|nil
local n ---@type integer
if cc then
n = 0
local tokens = cc.body_tokens ---@type BodyToken[]
for _, t in ipairs(tokens) do ---@type integer, BodyToken
local trimmed = t.tok ---@type string
if trimmed ~= "" then
local work = trimmed ---@type string
while true do
local marker = duffle.read_ident(work, 1) ---@type string|nil
if marker and duffle.DELAY_MARKERS[marker] then
work = strip_leading_delay_marker(work)
if work == "" then break end
else
break
end
end
if work ~= "" then
local lookup = strip_mac_prefix(duffle.read_ident(work, 1)) ---@type string|nil
if lookup == "atom_label" or lookup == "atom_offset" then
-- Pure metaprogram anchors; emit zero words.
elseif lookup and comp_by_name[lookup] then
-- It's a `mac_X(...)` call. Recurse.
n = n + word_count_rec(lookup, comp_by_name, wc, cache)
elseif lookup and wc and wc[lookup] then
-- Encoding macro or pseudo-instruction (e.g. mask_upper = 2, nop2 = 2).
n = n + wc[lookup]
else
-- Unrecognized token. Fall back to 1 word.
n = n + 1
end
end
end
end
else
-- Not a known component: assume 1 word (regular instruction).
n = 1
end
cache[name] = n
return n
end
--- Compute word counts for every component in `components` in a single pass.
--- The name-lookup table + memoization cache are built ONCE (per source) instead of per-component,
--- so the cache survives across siblings and a component's recursive `mac_Y(...)`
--- references hit memoized values instead of re-walking the body.
--- Cycle detection (A -> B -> A) is preserved via the in-progress `-1` sentinel in `cache`.
--- @param components Component[]
--- @param wc WordCounts
--- @return table<string, integer> -- bag: bare component name -> word count
local function count_all_components(components, wc)
local comp_by_name = {} ---@type table<string, Component>
for _, cc in ipairs(components) do comp_by_name[cc.name] = cc end ---@type integer, Component
local cache = {} ---@type table<string, integer> -- bag: memo; -1 in-progress sentinel
local counts = {} ---@type table<string, integer> -- bag: bare name -> word count
for _, c in ipairs(components) do ---@type integer, Component
counts[c.name] = word_count_rec(c.name, comp_by_name, wc, cache)
end
return counts
end
-- ═══════════════════════════════════════════
-- Per-component metadata derivation (replaces the hardcoded `M.GP0_MACRO_CONTRIB` + `M.INSTRUCTION_LATENCY[mac_*]` tables that previously lived in `duffle.lua`).
--
-- Each `MipsAtomComp_(ac_X) { body }` definition in `code/duffle/lottes_tape.h` is the canonical source.
-- The `mac_X(...)` macros are GENERATED from these definitions by `emit_component_macros_h` for tape-side composition;
-- the metaprogram must NEVER walk the generated variants to derive metadata.
-- Always walk the original `MipsAtomComp_` body via `cc.body_tokens`.
-- ═══════════════════════════════════════════
--- (internal) One walk of a component body that fills both `cycle_cost` and `gp0_contrib`.
--- Cycle: sum `isa.cycles` / `gte.cycles` / `latency[ident]` / 1 per leaf, recurse `mac_*`.
--- `mac_yield` cycle_cost is 0 (runtime cost lands in the next atom's prologue); its gp0 still comes from the token walk.
--- GP0: count `gte_sw` and `store_word` / `store_half` / `store_byte` that target `R_PrimCursor` / `O_(Poly_` / `r_prim_cursor` / `r_primitive_cursor` / `r_base`.
--- `insert_ot_tag*` gp0_contrib is 0; cycle still comes from the body walk.
--- Missing component: cycle 1, gp0 0.
--- @param name string -- component bare name (e.g. "yield", "pack_color_word")
--- @param comp_by_name table<string, Component>
--- @param latency table<string, integer> -- bag: ident -> cycle cost
--- @param cache ComponentMetaMap
--- @return ComponentMeta
local function component_meta_rec(name, comp_by_name, latency, cache)
if cache[name] ~= nil then return cache[name] end
cache[name] = { cycle_cost = -1, gp0_contrib = -1 }
local cc = comp_by_name[name] ---@type Component|nil
local cycle_cost ---@type integer
local gp0_contrib ---@type integer
if cc then
local skip_cycle = (name == "yield") ---@type boolean
local skip_gp0 = name:match("^insert_ot_tag") ~= nil ---@type boolean
cycle_cost = 0
gp0_contrib = 0
if not skip_cycle or not skip_gp0 then
local tokens = cc.body_tokens ---@type BodyToken[]
for _, t in ipairs(tokens) do ---@type integer, BodyToken
local trimmed = t.tok ---@type string
if trimmed ~= "" then
local ident = duffle.read_ident(trimmed, 1) ---@type string|nil
if ident and ident:sub(1, MAC_PREFIX_LEN) == MAC_PREFIX then
local nested = ident:sub(MAC_PREFIX_LEN + 1) ---@type string
local nested_meta = component_meta_rec(nested, comp_by_name, latency, cache) ---@type ComponentMeta
if not skip_cycle then
cycle_cost = cycle_cost + nested_meta.cycle_cost
end
if not skip_gp0 then
gp0_contrib = gp0_contrib + nested_meta.gp0_contrib
end
else
if not skip_cycle then
local isa = duffle.instr(ident) ---@type InstructionRow|nil
local gte = duffle.gte(ident) ---@type GteCommandRow|nil
cycle_cost = cycle_cost + ((isa and isa.cycles) or (gte and gte.cycles) or latency[ident] or 1)
end
if not skip_gp0 then
if ident == "gte_sw" then
gp0_contrib = gp0_contrib + 1
elseif ident == "store_word" or ident == "store_half" or ident == "store_byte" then
if trimmed:find("R_PrimCursor", 1, true)
or trimmed:find("O_(Poly_", 1, true)
or trimmed:find("r_prim_cursor", 1, true)
or trimmed:find("r_primitive_cursor", 1, true)
or trimmed:find("r_base", 1, true)
then
gp0_contrib = gp0_contrib + 1
end
end
end
end
end
end
end
else
cycle_cost = 1
gp0_contrib = 0
end
cache[name] = { cycle_cost = cycle_cost, gp0_contrib = gp0_contrib }
return cache[name]
end
--- Compute `cycle_cost` + `gp0_contrib` for every component in `components` in a single pass.
--- One memoization cache; a nested `mac_Y` inside a `mac_X` body computes both fields once.
--- @param components Component[]
--- @param latency table<string, integer> -- bag: ident -> cycle cost
--- @return ComponentMetaMap
local function compute_components_metadata(components, latency)
local comp_by_name = {} ---@type table<string, Component>
for _, cc in ipairs(components) do comp_by_name[cc.name] = cc end ---@type integer, Component
local cache = {} ---@type ComponentMetaMap
local out = {} ---@type ComponentMetaMap
for _, c in ipairs(components) do ---@type integer, Component
out[c.name] = component_meta_rec(c.name, comp_by_name, latency, cache)
end
return out
end
-- ════════════════════════════════════════════════════════════════════════════
-- Per-component emit logic
-- ════════════════════════════════════════════════════════════════════════════
--- Split a (possibly multi-line) comment into per-line entries.
--- Hand-rolled (no regex patterns used).
--- @param s string
--- @return string[]
local function split_comment_lines(s)
local out = {} ---@type string[]
local pos = 1 ---@type integer
local s_len = #s ---@type integer
while pos <= s_len do
local nl = s:find("\n", pos, true) ---@type integer|nil
if not nl then
out[#out + 1] = s:sub(pos)
break
end
out[#out + 1] = s:sub(pos, nl - 1)
pos = nl + 1
end
return out
end
--- Determine the macro signature: function-args list (function form) or variadic-ignored (bare form).
--- For `MipsAtomComp_Proc_` components, the leading `ab` (atom-builder) arg is dropped:
--- the generated `mac_<name>` macros are inline-expansion aliases for baked atoms; their bodies don't reference `ab`
--- (the builder is only consumed by the procedural `atombuilder_unroll` line that `MipsAtomComp_Proc_` appends after the body).
--- Inline callers therefore don't need to thread a builder context.
--- @param args_str string|nil
--- @return string
local function signature_from_args(args_str)
local names = formal_arg_names(args_str) ---@type string[]|nil
if names then
return table.concat(names, ", ")
end
return "..."
end
--- Strip the trailing `" \"` (space + backslash) line continuation from the last body line.
--- The last 2 chars are always that pair.
--- @param lines string[]
--- @return nil
local function strip_trailing_continuation(lines)
local last = lines[#lines] ---@type string
if last:sub(-2) == " \\" then
lines[#lines] = last:sub(1, -3)
end
end
--- Classify a token as a "pure delay marker token" (a delay-marker identifier with no following instruction — only whitespace and/or block comments).
--- Examples that match:
--- * `GteDelay_` → marker alone
--- * `GteDelay_ /* RT diagonal: D1 = a.x... */` → marker + block comment
--- * `GteDelay_ /* RT diagonal: ... */\n\t` → marker + comment + trailing whitespace
--- Examples that DO NOT match (these contain a real instruction after the marker and must be preserved verbatim so the instruction still gets emitted):
--- * `GteDelay_ nop2`
--- * `GteDelay_ add_si(r.dst_ptr, r.scratch, dst_offset)`
---
--- Why this classification matters: the metaprogram emits tokens separated by `,` and joins them with `\<newline>` line continuations. After C preprocessor
--- phase 2 (line splicing), the macro body collapses to a single logical line.
--- Each delay-marker identifier expands to empty (its definition `#define GteDelay_ // ...` consumes the `//` line comment during preprocessing
--- of the definition itself, leaving an empty replacement list).
--- When a token is purely a delay marker with only a trailing comment, the `,` the metaprogram normally adds before
--- each token-after-the-first brackets empty content and produces the syntax error `,,` (`expected expression before ',' token`) at C compile.
--- The metaprogram therefore emits such tokens WITHOUT the leading `,` (see `token_skips_leading_comma`) —
--- but the marker + trailing comment are still emitted verbatim so the annotation is preserved in `gen/macs.h`.
--- @param tok string -- a single token from split_top_level_commas (already trimmed at the start, may contain trailing whitespace + block comment)
--- @return boolean
local function is_pure_delay_marker_token(tok)
local markers = duffle.DELAY_MARKERS ---@type table<string, boolean> -- bag: delay-marker ident -> true
if type(markers) ~= "table" then return false end
-- Identify a leading delay-marker identifier (e.g. `GteDelay_`).
local ident_end = 1 ---@type integer
while ident_end <= #tok do
local ch = tok:sub(ident_end, ident_end) ---@type string
if ch:match("[%w_]") then
ident_end = ident_end + 1
else
break
end
end
local ident = tok:sub(1, ident_end - 1) ---@type string
if not markers[ident] then return false end
-- Walk the remainder: only whitespace and block comments are allowed.
local scan = ident_end ---@type integer
while scan <= #tok do
local ch = tok:sub(scan, scan) ---@type string
if ch:match("%s") then
scan = scan + 1
elseif ch == "/" and tok:sub(scan + 1, scan + 1) == "*" then
local close = tok:find("*/", scan + 2, true) ---@type integer|nil
if not close then return false end
scan = close + 2
else
-- Non-whitespace, non-block-comment content: a real instruction
-- follows the marker (e.g. `GteDelay_ nop2`); keep this token intact.
return false
end
end
return true
end
--- Classify a token's "leading comma requirement".
--- Pure delay-marker tokens (`GteDelay_` / `LdSlot_` / `BdSlot_` / `DmaSlot_`
--- followed by whitespace + optional block comment and NOTHING ELSE) expand
--- to empty at C preprocessor time. Emitting them WITHOUT the leading `,`
--- separator that the metaprogram normally adds before each token after the
--- first keeps exactly one `,` between the surrounding real expressions in the spliced macro body:
--- * before this rule: `<tok1> ,\t<gdelay> ,\t<tok3>` → after expansion
--- `<tok1> , /* comment */ , <tok3>` → `,,` syntax error.
--- * after this rule: `<tok1> \t<gdelay> ,\t<tok3>` → after expansion
--- `<tok1> /* comment */ , <tok3>` → `<tok1>, <tok3>` — valid.
---
--- Tokens like `GteDelay_ nop2` keep the leading `,`
--- (the marker is followed by a real instruction, so the marker + instruction together need the separator on the LEFT to land between two real expressions).
--- @param tok string
--- @return boolean -- true if the token needs NO leading `,` separator.
local function token_skips_leading_comma(tok)
return is_pure_delay_marker_token(tok)
end
--- Emit the `#define mac_X(sig) \<newline>\t<tok1> \<newline>,\t<tok2> ...` block.
--- Converts `//` line comments to `/* */` block comments in each token so they don't break the C macro `\` line continuations.
---
--- Pure delay-marker tokens (`GteDelay_` / `LdSlot_` / `BdSlot_` / `DmaSlot_` with only a trailing block comment, no real instruction) are emitted WITHOUT a leading `,` separator;
--- the annotation IS preserved in the generated header
--- (so the comment + marker remain visible to anyone reading `gen/macs.h`), but the C preprocessor expands the marker to empty, so leaving the `,`
--- separator out is what stops the `,,` syntax error. See `token_skips_leading_comma` for the contract.
--- @param lines string[]
--- @param c Component
--- @param sig string
--- @param tokens string[]
--- @return nil
local function emit_macro_body(lines, c, sig, tokens)
for tok_idx = 1, #tokens do ---@type integer
tokens[tok_idx] = convert_line_comments_to_block(tokens[tok_idx])
end
if #tokens == 0 then return end
lines[#lines + 1] = "#define mac_" .. c.name .. "(" .. sig .. ") \\"
lines[#lines + 1] = "\t" .. tokens[1] .. " \\"
for tok_idx = 2, #tokens do ---@type integer
local sep = token_skips_leading_comma(tokens[tok_idx]) and "\t" or ",\t" ---@type string
lines[#lines + 1] = sep .. tokens[tok_idx] .. " \\"
end
strip_trailing_continuation(lines)
end
--- Build the list of lines for one component
--- (signature comment, `#define mac_X(...)` line with backslash-continued tokens, then `WORD_COUNT(mac_X, N)` entry).
--- For skipped components, a `/* atom_dbg_skip */` marker comment is emitted immediately before the authored comment block.
--- The marker is a single line, the comment comes next, and the `#define` line follows. The `debug_skip` stamp is scanner-owned
--- (`a.debug_skip == true` on the declaration record); the components pass projects it directly.
--- @param c Component
--- @param counts table<string, integer> -- bag: bare component name -> word count
--- @return string[] -- list of lines for this component
local function build_component_lines(c, counts)
local lines = {} ---@type string[]
-- Marker comment: emitted once for every skipped component.
-- The marker is scanner-owned (declared by `atom_dbg_skip` immediately before the declaration in the source);
-- This pass projects `c.debug_skip` and emits the marker as a generated comment.
if c.debug_skip then
lines[#lines + 1] = "/* atom_dbg_skip */"
end
if c.comment and c.comment ~= "" then
for _, line in ipairs(split_comment_lines(c.comment)) do ---@type integer, string
lines[#lines + 1] = line
end
end
local tokens = duffle.split_top_level_commas(c.body) ---@type string[]
for i = 1, #tokens do tokens[i] = duffle.trim(tokens[i]) end ---@type integer
local sig = signature_from_args(c.args) ---@type string
-- Direct lookup against the per-source precomputed `counts` table (built once by count_all_components).
local n = counts[c.name] ---@type integer
if n > 0 then
emit_macro_body(lines, c, sig, tokens)
end
-- Emit the WORD_COUNT(mac_<X>, N) entry.
lines[#lines + 1] = "WORD_COUNT(mac_" .. c.name .. ", " .. n .. ")"
lines[#lines + 1] = ""
return lines
end
-- ════════════════════════════════════════════════════════════════════════════
-- Per-source emit logic
-- ════════════════════════════════════════════════════════════════════════════
--- Build the boilerplate header lines (the `#ifdef INTELLISENSE_DIRECTIVES` block,
--- the `// Auto-generated` comment, the `// Source:` line, and the self-contained `WORD_COUNT` macro definition).
--- @param dir string -- Absolute source directory
--- @param sources SourceFile[] -- Sources contributing to this directory (for the header comment)
--- @return string[]
local function header_boilerplate(dir, sources)
local source_lines = { "// Directory: " .. duffle.to_absolute_path(dir) .. "/" } ---@type string[]
for _, src in ipairs(sources) do ---@type integer, SourceFile
source_lines[#source_lines + 1] = "// source: " .. duffle.to_absolute_path(src.path)
end
local source_blob = table.concat(source_lines, "\n") ---@type string
return {
-- #pragma once wrapped in #ifdef INTELLISENSE_DIRECTIVES, matching the convention in lottes_tape.h.
-- The build does manual unity includes (the user controls include order), so the pragma is only active for IDE/tooling.
"#ifdef INTELLISENSE_DIRECTIVES",
"#pragma once",
"#endif",
"// Auto-generated by ps1_meta.lua — DO NOT EDIT",
source_blob,
"// Component atoms (MipsAtomComp_(ac_*)) -> macro variants (mac_*)",
"",
-- Self-contained: define WORD_COUNT if not already defined.
-- We use the same definition here so the auto-generated entries below expand
-- to compile-time constants whether the metadata file is included first or not.
"#ifndef WORD_COUNT",
"#define WORD_COUNT(name, count) enum { words_##name = (count) };",
"#endif",
"",
}
end
--- Compute the per-directory output path for `.macs.h`.
--- e.g. any source in `code/duffle/` produces `code/duffle/gen/macs.h` regardless of source filename.
--- The directory name is the namespace; the filename does not repeat it.
--- @param dir string -- Absolute source directory
--- @return string -- Output directory
--- @return string -- Full output path
local function compute_macs_h_path(dir)
local out_dir = dir .. "/" .. GEN_SUBDIR ---@type string
local out_path = out_dir .. "/" .. MACS_FILENAME ---@type string
return out_dir, out_path
end
--- Emit a per-directory `.macs.h` header with the aggregated `mac_X` macros + `WORD_COUNT` entries.
--- Writes in BINARY mode so LF line endings are preserved (the git blob is LF; Windows text-mode would emit CRLF and break the byte-identical diff).
--- @param ctx PassCtx
--- @param dir string -- Absolute source directory
--- @param sources SourceFile[] -- Sources contributing to this directory (for the header comment)
--- @param components Component[] -- Aggregated components from all sources in this directory
--- @param counts table<string, integer> -- bag: bare component name -> word count
--- @return string|nil -- Path to the written file (nil if no components)
local function emit_component_macros_h(ctx, dir, sources, components, counts)
if #components == 0 then return nil end
local out_dir, out_path = compute_macs_h_path(dir) ---@type string, string
local lines = header_boilerplate(dir, sources) ---@type string[]
for _, c in ipairs(components) do ---@type integer, Component
for _, l in ipairs(build_component_lines(c, counts)) do ---@type integer, string
lines[#lines + 1] = l
end
end
local content = table.concat(lines, "\n") .. "\n" ---@type string
duffle.ensure_dir(out_dir)
duffle.write_file_lf(out_path, content)
print(string.format(" -> %s", out_path))
return out_path
end
-- ════════════════════════════════════════════════════════════════════════════
-- Pass entry
-- ════════════════════════════════════════════════════════════════════════════
--- (internal) Extend `corpus.word_counts` with this source's component macros so offsets sees them without re-reading the file.
--- First declaration wins: a later caller's count is dropped (the existing entry from the first source is preserved).
--- @param corpus Corpus
--- @param components Component[]
--- @param counts table<string, integer> -- bag: bare component name -> word count
--- @return nil
local function update_canonical_word_counts(corpus, components, counts)
local wc = corpus.word_counts ---@type WordCounts
for _, c in ipairs(components) do ---@type integer, Component
local key = "mac_" .. c.name ---@type string
if wc[key] == nil then
wc[key] = counts[c.name]
end
end
end
--- (internal) Populate `corpus.components` with this source's one component row per bare name.
--- First declaration wins; later declarations of the same bare name are dropped and recorded as a collision via `corpus.collisions` (kind = "component").
--- The pass does NOT write to `ctx.shared.components`.
--- No parallel skip map is built here; consumers that need the per-component skip state read `corpus.components[name].debug_skip` directly.
--- The `cycle_cost` + `gp0_contrib` fields are populated from `metadata[c.name]` (computed by `compute_components_metadata` against the original `MipsAtomComp_` body).
--- @param corpus Corpus
--- @param src SourceFile
--- @param components Component[]
--- @param metadata ComponentMetaMap
--- @param scan SourceScan
--- @return nil
local function update_canonical_components(corpus, src, components, metadata, scan)
local rel_path = src.path:gsub("\\", "/") ---@type string
local line_of = scan and scan.line_of ---@type (fun(pos: integer): integer)|nil
for _, c in ipairs(components) do ---@type integer, Component
-- Keyed by bare name (e.g. `yield`, `load_tri_indices`).
-- The atoms_source_map pass looks up components by bare name from the corpus;
-- `mac_` prefix lives at the call-site identifier and is stripped before lookup.
local m = metadata and metadata[c.name] or nil ---@type ComponentMeta|nil
if corpus.components[c.name] == nil then
c.path = rel_path
c.source = src.path
c.line_of = line_of
c.kind = c.kind or "comp_bare"
c.debug_skip = c.debug_skip == true
c.cycle_cost = m and m.cycle_cost or nil
c.gp0_contrib = m and m.gp0_contrib or nil
corpus.components[c.name] = c
else
-- A second declaration of the same bare name: record a typed collision so static-analysis + the report can surface it.
-- Identical-shape declarations (same path + line) reuse the first-wins entry without a collision record.
local existing = corpus.components[c.name] ---@type Component
if existing.path ~= rel_path or existing.line ~= c.line then
local kind = c.kind or "comp_bare" ---@type string
local first_kind = existing.kind or "comp_bare" ---@type string
corpus.collisions[#corpus.collisions + 1] = {
kind = "component",
name = c.name,
first_site = { path = existing.path, line = existing.line },
conflicting_site = { path = rel_path, line = c.line },
first_shape = "kind=" .. first_kind,
conflicting_shape = "kind=" .. kind,
}
end
end
end
end
--- @param ctx PassCtx
--- @return PassResult
function M.run(ctx)
local outputs = {} ---@type MacsOutput[]
local errors = {} ---@type Finding[]
local warnings = {} ---@type Finding[]
-- Corpus ownership gate.
local corpus = ctx.shared and ctx.shared.corpus ---@type Corpus|nil
if type(corpus) ~= "table" then
error("components.run requires ctx.shared.corpus.", 0)
end
if type(corpus.source_order) ~= "table" then
error("components.run requires ctx.shared.corpus.source_order.", 0)
end
if type(corpus.word_counts) ~= "table" then
error("components.run requires ctx.shared.corpus.word_counts; "
.. "word_count_eval.run must run before components.run "
.. "(see PASSES deps).", 0)
end
-- Projection ownership:
-- * `corpus.word_counts["mac_"..name]` — current component count
-- * `corpus.components[name]` — one row: body, line_of, source, cost
-- The pass writes to the corpus only; consumers read from the corpus directly.
-- Per-directory aggregation: every source in the same directory contributes to one `gen/macs.h`.
-- The directory itself is the namespace. `corpus.sources_by_dir` preserves source-order within each bucket (matches `corpus.source_order`).
local sources_by_dir = corpus.sources_by_dir or duffle.group_sources_by_dir(corpus.source_order) ---@type table<string, SourceFile[]>
for dir, sources in pairs(sources_by_dir) do ---@type string, SourceFile[]
-- Aggregate components from every source in this directory.
-- `project_components` returns nil for sources with no `MipsAtomComp_` declarations; we skip those.
local aggregated_components = {} ---@type Component[]
local metadata_per_source = {} ---@type table<SourceFile, ComponentMetaMap>
for _, src in ipairs(sources) do ---@type integer, SourceFile
local per_source = project_components(src.text, src.scan) or {} ---@type Component[]
for _, c in ipairs(per_source) do ---@type integer, Component
aggregated_components[#aggregated_components + 1] = c
end
if #per_source > 0 then
metadata_per_source[src] = compute_components_metadata(per_source, {})
end
end
if #aggregated_components > 0 then
-- Compute word counts across the aggregated set. `corpus.word_counts` carries the
-- same-source + prior-directory entries so the recursive lookup sees both.
local counts = count_all_components(aggregated_components, corpus.word_counts) ---@type table<string, integer> -- bag: bare name -> word count
local macs_path = emit_component_macros_h(ctx, dir, sources, aggregated_components, counts) ---@type string|nil
if macs_path then
outputs[#outputs + 1] = { macs_h = macs_path }
-- Populate the projections AFTER disk emission (byte-identical `.macs.h` contract).
update_canonical_word_counts(corpus, aggregated_components, counts)
for _, src in ipairs(sources) do ---@type integer, SourceFile
local per_source = project_components(src.text, src.scan) or {} ---@type Component[]
if #per_source > 0 then
update_canonical_components(corpus, src, per_source, metadata_per_source[src], src.scan)
end
end
end
end
end
return { outputs = outputs, errors = errors, warnings = warnings }
end
return M
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--- passes/emission_model.lua: Per-atom emission projection.
---
--- The `emission-model` pass owns `atom.paths`, the canonical per-atom mutable surface for atoms and raw atoms with bodies in `ctx.shared.corpus.source_order`.
--- For each atom, the pass invokes `duffle.project_emission(body_text, components, word_counts, components)`.
--- It stores the ordered `items` stream plus the dense `word_events` / `markers` / `invocations` views on `atom.paths`.
---
--- Public boundary:
--- * `M.run(ctx)` is the only entry point.
--- * The pass returns `{outputs = {}, errors = ..., warnings = ...}`.
--- Pass kind = `validation`. Findings record on the result; the orchestrator does not exit non-zero.
---
--- Source-order discipline:
--- * `corpus.source_order` sets the source-record order.
--- * Within each source, the pass visits `src.scan.atoms` and `src.scan.raw_atoms` in declaration order.
---
--- Per-atom projection fields on `atom.paths`:
--- `tokens`, `line_in_body`, `items`, `word_events`, `markers`, `invocations`, `errors`, `warnings`.
--- The construction walk appends `items` and derives each dense view from that ordered stream.
---
--- Component expansion and construction validation:
--- * known `mac_X(...)` calls recursively expand component bodies;
--- * invocation records retain monotonic IDs, parent IDs, immediate call text, and the immutable outermost root call text;
--- * invocation construction stamps `debug_skip` from `corpus.components[name].debug_skip` at the construction site (no second pass, no source parse, no parallel lookup);
--- * component cycles close balanced invocation boundaries and emit a `cycle` construction error at the recursive edge;
--- * declared-vs-measured component word counts emit `count_mismatch` construction errors; opaque uncounted macros emit warnings.
---
--- `passes.scan_source` strips its private `_code_macros` / `_code_macro_bodies` tables before this pass runs.
--- @class BodyToken
--- @field tok string
--- @field rel integer
--- @class EmissionItem
--- @field kind string
--- @field encoder string|nil
--- @field args string[]|nil
--- @field i integer|nil
--- @field word_count integer|nil
--- @field line integer|nil
--- @field call_text string|nil
--- @field root_call_text string|nil
--- @field invocation_ids integer[]|nil
--- @field outermost_invocation_id integer|nil
--- @field gpr_keys string[]|nil
--- @field ident string|nil
--- @field isa_kind string|nil
--- @field nop_words integer|nil
--- @field is_yield boolean|nil
--- @field is_load boolean|nil
--- @field is_branch boolean|nil
--- @field is_unconditional_jump boolean|nil
--- @field is_terminal_jump boolean|nil
--- @field gp0_shape string|nil
--- @field name string|nil
--- @field target string|nil
--- @field word_index integer|nil
--- @field consuming_encoder string|nil
--- @field consuming_arg_pos integer|nil
--- @field invocation_id integer|nil
--- @class WordEvent
--- @field i integer
--- @field encoder string
--- @field args string[]
--- @field def_path string
--- @field def_line integer
--- @field call_text string|nil
--- @field root_call_text string|nil
--- @field invocation_ids integer[]
--- @field outermost_invocation_id integer
--- @field word_count integer
--- @field gpr_keys string[]|nil
--- @field ident string
--- @field kind string
--- @field nop_words integer
--- @field is_yield boolean
--- @field is_load boolean
--- @field is_branch boolean
--- @field is_unconditional_jump boolean
--- @field is_terminal_jump boolean
--- @field gp0_shape string|nil
--- @field body_line integer|nil
--- @field call_line integer|nil
--- @field call_path string|nil
--- @class EmissionMarker
--- @field kind string
--- @field name string
--- @field line integer
--- @field word_index integer
--- @field target string|nil
--- @field consuming_encoder string|nil
--- @field consuming_arg_pos integer|nil
-- Finding: see ps1_meta.lua
--- @class AtomPaths
--- @field tokens BodyToken[]
--- @field line_in_body table<integer, integer> -- bag: body byte offset -> 1-based line
--- @field items EmissionItem[]
--- @field word_events WordEvent[]
--- @field markers EmissionMarker[]
--- @field invocations InvocationRecord[]
--- @field errors Finding[]
--- @field warnings Finding[]
--- @class EmissionModelPass
--- @field run fun(ctx: PassCtx): PassResult
local M = {} ---@type EmissionModelPass
-- ─────────────────────────────────────────────────────────────────────────
-- Bootstrap: load `duffle_paths.lua` via debug.getinfo so the module works standalone (run as `luajit passes/emission_model.lua`) and when require'd from the orchestrator.
-- ─────────────────────────────────────────────────────────────────────────
local _bootstrap_dir = debug.getinfo(1, "S").source:match("^@?(.*[/\\])") or "./" ---@type string
local duffle = dofile(_bootstrap_dir .. "../duffle_paths.lua") ---@type DuffleExport
-- ─────────────────────────────────────────────────────────────────────────
-- Helpers
-- ─────────────────────────────────────────────────────────────────────────
-- Convert the recursive walk's body-relative line numbers into physical source lines once.
-- The walker builds `line_of` from `body_text` and stamps body-relative line numbers (1..N) into `item.line` and `invocation.call_line`.
-- This function converts those values to physical source lines at the close site with the forwarded source `line_of` closure.
-- `call_line` discipline:
-- * ROOT invocations (`inv.parent_id == 0`) receive body-relative `call_line` values directly from `M.LineIndex(body_text)` in the walker.
-- The source `line_of` closure supplies physical lines at the close site, so this function converts each root value exactly once.
-- * INNER invocations (`inv.parent_id ~= 0`) receive physical `call_line` values directly from the COMPONENT's `line_of` in the walker.
-- Recursive descent forwards that closure through `corpus.components[name].line_of`; those values arrive physical and remain unchanged.
--
-- After this function, every `inv.call_line` is physical. DWARF and provenance output read it directly.
-- The word-event loop forwards the already-physical `outer_inv.call_line` into `we.call_line` for words inside an invocation.
--- @param projection EmissionProjection
--- @param atom_record AtomEntry
--- @param src SourceFile
--- @param corpus Corpus
--- @return nil
local function stamp_root_provenance(projection, atom_record, src, corpus)
local root_line_of = src.scan and src.scan.line_of ---@type (fun(pos: integer): integer)|nil
assert(type(root_line_of) == "function"
, "emission_model: src.scan.line_of is required (canonical LineIndex closure over the source text) to stamp physical provenance")
assert(type(atom_record.body_off) == "number"
, "emission_model: atom_record.body_off (byte offset of the body's first byte in source) is required to derive `root_body_line`. The scanner must populate body_off for every atom record.")
-- `root_body_line` is the physical source line of the ATOM HEADER byte containing the opening `{`; that byte is one byte BEFORE `atom_record.body_off`.
-- The walker assigns line 2 to the body's first content line because line 1 is the trailing `\n` after `{`. Body-text line k therefore maps to `root_body_line + (k - 1)`.
-- `body_off - 1` points at the opening `{`, whose line index identifies the header line. `body_off` points after `{` and would shift every word row forward by one line.
local root_body_line = root_line_of(atom_record.body_off - 1) or atom_record.line or 0 ---@type integer
local components = corpus.components or {} ---@type table<string, Component>
local word_items = {} ---@type EmissionItem[]
for _, item in ipairs(projection.items) do ---@type integer, EmissionItem
if item.kind == "word" then word_items[#word_items + 1] = item end
end
-- Resolve one word's physical body line, where the byte containing that word appears in source.
-- * Component expansions carry `invocation_ids`; the component's full-file `line_of` leaves `item.line` physical.
-- * Raw tokens in the root atom body carry an empty `invocation_ids` list and a body-relative `item.line`; convert them here.
--- @param event WordEvent
--- @param item EmissionItem
--- @return integer
local function body_line_for(event, item)
local ids = event.invocation_ids or {} ---@type integer[]
-- The innermost open invocation identifies which line index the walker used.
-- A component `line_of` makes `item.line` physical; the atom's `body_text` line index makes it body-relative.
if ids and #ids > 0 then
local inner_id = ids[#ids] ---@type integer
local inner_inv = inner_id and projection.invocations[inner_id] ---@type InvocationRecord|nil
if inner_inv then
local component = components[inner_inv.component_name] ---@type Component|nil
if component and component.line_of then
-- Walker used `comp.line_of`, which is the source's physical LineIndex. item.line is already physical.
return item.line or 0
end
end
end
-- RAW root-body word: item.line is body-text's 1-based line number (the first content line is line 2 because line 1 is the trailing `\n` after `{`).
-- Convert body-text-relative → physical using `root_body_line + (item.line - 1)`.
return (root_body_line or 0) + (item.line or 1) - 1
end
-- Stamp the root source path onto invocation records whose `call_path` the walker left empty.
-- The walker passes `body_entry.source` to `emit_invoke_begin`; `M.project_emission` creates the root `body_entry` with source `""`, leaving its `call_path` empty.
-- This stamp gives every invocation a physical `call_path` matching `passes/atoms_source_map.lua`'s in-memory provenance projection.
local root_path = src.path or "" ---@type string
for _, inv in ipairs(projection.invocations) do ---@type integer, InvocationRecord
if inv.call_path == nil or inv.call_path == "" then
inv.call_path = root_path
end
end
-- Normalize `inv.call_line` to a physical source line.
-- * ROOT invocations (`parent_id == 0`) carry body-relative `call_line` values from `M.LineIndex(body_text)`; convert them once with `root_body_line`.
-- * INNER invocations (`parent_id ~= 0`) carry physical `call_line` values from the component's `line_of`; retain them unchanged.
for _, inv in ipairs(projection.invocations) do ---@type integer, InvocationRecord
if inv.parent_id == 0 then
inv.call_line = (root_body_line or 0) + (inv.call_line or 1) - 1
end
end
-- Build `body_lines` for each invocation.
-- `atoms_source_map` and `dwarf_injection` read `inv.body_lines[k]` directly from the invocation record created here.
-- Component words already carry physical `item.line` values from the walker's COMPONENT line index, so `body_line_for` returns them unchanged.
for _, inv in ipairs(projection.invocations) do ---@type integer, InvocationRecord
local sw = inv.start_word ---@type integer
local ew = inv.end_word ---@type integer
local bls = {} ---@type integer[]
for i = sw, ew do ---@type integer
local it = projection.items and projection.items[i] ---@type EmissionItem|nil
if it and it.kind == "word" then
local fake_event = { invocation_ids = { inv.id } } ---@type WordEvent
bls[#bls + 1] = body_line_for(fake_event, it) or 0
end
end
inv.body_lines = bls
end
-- Resolve each `word_event`'s physical `body_line` and `call_line`.
-- For words inside an invocation, `we.call_line` identifies the OUTER atom source line containing the `mac_X(...)` token that triggered expansion.
-- The root-invocation conversion above makes every `inv.call_line` physical; forward it directly and use each raw word's `body_line` as the fallback.
for index, we in ipairs(projection.word_events) do ---@type integer, WordEvent
local item = word_items[index] or {} ---@type EmissionItem
local body_line = body_line_for(we, item) ---@type integer
item.line = body_line
we.body_line = body_line
local call_line = body_line ---@type integer
local outer_id = we.outermost_invocation_id or 0 ---@type integer
local outer_inv = projection.invocations[outer_id] ---@type InvocationRecord|nil
if outer_inv then
-- `outer_inv.call_line` is physical after the conversion loop above, so use it directly.
call_line = outer_inv.call_line
end
we.call_line = call_line
if we.def_path == nil or we.def_path == "" then we.def_path = src.path or "" end
if we.def_line == nil or we.def_line == 0 then we.def_line = atom_record.line or 0 end
if we.call_path == nil or we.call_path == "" then we.call_path = src.path or "" end
end
end
-- Project one atom record into `atom.paths`.
-- Mutates the atom record in-place and returns the projection (for pass-level error/warning accumulation).
--- @param atom_record AtomEntry
--- @param src SourceFile
--- @param corpus Corpus
--- @return EmissionProjection
local function project_atom(atom_record, src, corpus)
local body = atom_record.body or "" ---@type string
local wc = corpus.word_counts or {} ---@type WordCounts
local comps = corpus.components or {} ---@type table<string, Component>
local schema = nil ---@type RegUseSchema|nil
if atom_record.reg_use_schema_name then
schema = corpus.reg_use_schemas and corpus.reg_use_schemas[atom_record.reg_use_schema_name]
end
-- That construction site stamps `invocation.debug_skip` while appending each record to `proj.invocations`.
local proj = duffle.project_emission(body, comps, wc, comps, { ---@type EmissionProjection
reg_use_schema = schema,
reg_use_param = atom_record.reg_use_param_name,
atom_name = atom_record.name,
schema_name = atom_record.reg_use_schema_name,
})
if atom_record.reg_use_schema_name and not schema then
proj.errors[#proj.errors + 1] = {
kind = "error",
check = "reguse_missing_schema",
msg = string.format("RegUse schema %q is missing", atom_record.reg_use_schema_name),
schema_name = atom_record.reg_use_schema_name,
}
end
for _, err in ipairs(corpus.reg_use_errors or {}) do ---@type integer, RegUseError
if err.schema_name == atom_record.reg_use_schema_name then
proj.errors[#proj.errors + 1] = {
kind = "error",
check = err.kind,
line = err.line or err.source_line or 0,
msg = err.msg or "",
source = err.source or err.source_file,
schema_name = err.schema_name,
}
end
end
local paths = { ---@type AtomPaths
tokens = atom_record.body_tokens or {},
line_in_body = duffle.build_body_line_index(body),
items = proj.items,
word_events = proj.word_events,
markers = proj.markers,
invocations = proj.invocations,
errors = proj.errors,
warnings = proj.warnings,
}
stamp_root_provenance(proj, atom_record, src, corpus)
atom_record.paths = paths
return proj
end
-- ─────────────────────────────────────────────────────────────────────────
-- Run the emission-model pass.
-- ─────────────────────────────────────────────────────────────────────────
--- @param ctx PassCtx -- { shared = { corpus = ... }, out_root, ... }
--- @return PassResult
function M.run(ctx)
local outputs = {} ---@type PassOutputEntry[]
local errors = {} ---@type Finding[]
local warnings = {} ---@type Finding[]
local corpus = ctx and ctx.shared and ctx.shared.corpus ---@type Corpus|nil
if type(corpus) ~= "table" then error("emission_model: ctx.shared.corpus is required (canonical projection)", 0) end
if type(corpus.source_order) ~= "table" then error("emission_model: ctx.shared.corpus.source_order is required", 0) end
-- Project once, collect errors + warnings for one atom.
-- Kind must be one of: atom | atom_proc | raw_atom | comp_bare | comp_proc.
--- @param atom AtomEntry
--- @param src SourceFile
--- @return nil
local function process_atom(atom, src)
if not (atom and atom.body) then return end
local kind = atom.kind ---@type string
if kind ~= "atom" and kind ~= "atom_proc" and kind ~= "raw_atom" and kind ~= "comp_bare" and kind ~= "comp_proc" then
return
end
local proj = project_atom(atom, src, corpus) ---@type EmissionProjection
for _, e in ipairs(proj.errors) do ---@type integer, Finding
-- Finding.kind is severity. Finding.check holds the diagnostic code
-- (cycle / count_mismatch / unbalanced / reguse_*).
errors[#errors + 1] = {
kind = "error",
check = e.check,
line = e.line,
msg = e.msg,
source = e.source or src.path,
schema_name = e.schema_name,
}
end
for _, w in ipairs(proj.warnings) do ---@type integer, Finding
warnings[#warnings + 1] = {
kind = "warning",
check = w.check,
line = w.line,
msg = w.msg,
}
end
end
-- Walk `corpus.source_order`; within each source, visit atoms followed by raw_atoms.
-- Recognized kinds (atom | atom_proc | raw_atom | comp_bare | comp_proc) each receive the atom.paths projection via duffle.project_emission.
-- Components are macros inlined into atom bodies; focused tests and isolated component analyses consume atom.paths directly.
for _, src in ipairs(corpus.source_order) do ---@type integer, SourceFile
local scan = src.scan or {} ---@type SourceScan
for _, atom in ipairs(scan.atoms or {}) do ---@type integer, AtomEntry
process_atom(atom, src)
end
for _, atom in ipairs(scan.raw_atoms or {}) do ---@type integer, AtomEntry
process_atom(atom, src)
end
end
return {
outputs = outputs,
errors = errors,
warnings = warnings,
}
end
return M
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--- passes/offsets.lua — Branch-offset generator.
---
--- Reads the pre-scanned SourceScan payload (produced once upstream by `duffle.scan_source`)
--- for `MipsAtom_(name)` and leftover `MipsCode code_*` declarations, computes the word offset
--- (ELF symbol is the C ident; raw `code_*` is leftover, not the atom rule)
--- from each `atom_offset(F, T)` marker to its target `atom_label(T)` declaration, and emits
--- `gen/offsets.h` with one `#define _atom_offset_F_T = N` per branch.
---
--- Per-directory aggregation: every source in the same directory contributes to the same `gen/offsets.h`.
--- The directory itself is the namespace; the filename does not repeat the module name.
---
--- The offset is `target_word - branch_word - 1` (the standard MIPS branch-immediate encoding: branch_offset = relative_pc_in_words - 1).
-- ════════════════════════════════════════════════════════════════════════════
-- Module-scope requires + package.path setup
-- ════════════════════════════════════════════════════════════════════════════
-- Bootstrap: same as entry scripts. See `ps1_meta.lua` for the rationale.
-- Bootstrap: load `scripts/duffle_paths.lua` (sets package.path + package.cpath).
-- Uses `debug.getinfo` to find this file's own directory, so it works both standalone and when require'd from the orchestrator.
-- Bootstrap: load `duffle_paths.lua` via `debug.getinfo(1, "S").source` (works both standalone + when require'd).
-- duffle_paths.lua sets package.path then returns `require("duffle")` at the bottom, so the dofile value IS the duffle module.
local _bootstrap_dir = debug.getinfo(1, "S").source:match("^@?(.*[/\\])") or "./" ---@type string
local duffle = dofile(_bootstrap_dir .. "../duffle_paths.lua") ---@type DuffleExport
-- ════════════════════════════════════════════════════════════════════════════
-- Constants
-- ════════════════════════════════════════════════════════════════════════════
-- Offset macro/enum naming prefixes (the emitted header uses these).
local OFFSET_MACRO_PREFIX = "_atom_offset_" ---@type string
local OFFSET_ENUM_PREFIX = "atom_offset_" ---@type string
-- Column width for the `#define _atom_offset_F_T = N` alignment.
local OFFSET_MACRO_COL = 44 ---@type integer
-- ════════════════════════════════════════════════════════════════════════════
-- Type declarations
-- ════════════════════════════════════════════════════════════════════════════
-- SourceFile, PassCtx, PassResult: see ps1_meta.lua
--- @class BranchOffset
--- @field tag string -- Marker tag (e.g. "F" in `atom_offset(F, T)`)
--- @field target string -- Target label name (e.g. "T" in `atom_offset(F, T)`)
--- @field branch_word integer -- Branch word position within the atom body
--- @field offset integer -- Computed per consuming instruction (see `compute_offsets`)
--- @field consuming_encoder string|nil -- Instruction consuming the offset (e.g. "branch_le_zero", "jump", "call_addr")
--- @field consuming_arg_pos integer|nil -- 1-based arg position within the consuming instruction's arg list
--- @class AtomData
--- @field name string -- Atom name
--- @field total_words integer -- Total word count of the atom body
--- @field offsets BranchOffset[] -- Per-branch offset list
--- @class OffsetBranch
--- @field tag string
--- @field target string
--- @field branch_word integer
--- @field consuming_encoder string|nil
--- @field consuming_arg_pos integer|nil
--- @field line integer|nil
--- @class MarkerProjectState
--- @field labels table<string, integer> -- bag: label name -> word index
--- @field branches OffsetBranch[]
--- @class OffsetConst
--- @field macro_name string
--- @field enum_name string
--- @field value integer
--- @class OffsetOutput
--- @field offsets_h string
--- @class OffsetsPass
--- @field run fun(ctx: PassCtx): PassResult
--- @class AtomEntry
--- @field paths AtomPaths|nil
-- ════════════════════════════════════════════════════════════════════════════
-- Canonical marker projection
-- ════════════════════════════════════════════════════════════════════════════
-- MARKER_PROJECTORS is the marker-kind data table.
-- The emission-model pass already records marker word positions + consuming-instruction context;
-- this pass only projects those records into the label/branch lookup shape needed by offset computation.
local MARKER_PROJECTORS = { ---@type table<string, fun(state: MarkerProjectState, marker: EmissionMarker): nil>
--- @param state MarkerProjectState
--- @param marker EmissionMarker
--- @return nil
label = function(state, marker)
state.labels[marker.name] = marker.word_index
end,
--- @param state MarkerProjectState
--- @param marker EmissionMarker
--- @return nil
offset = function(state, marker)
state.branches[#state.branches + 1] = {
tag = marker.name,
target = marker.target,
branch_word = marker.word_index,
consuming_encoder = marker.consuming_encoder,
consuming_arg_pos = marker.consuming_arg_pos,
}
end,
}
--- Project canonical marker records into the two lookup tables used by the offset renderer.
--- No source text, body text, or body token is inspected.
--- @param markers EmissionMarker[]
--- @return table<string, integer>
--- @return OffsetBranch[]
local function project_markers(markers)
local state = { labels = {}, branches = {} } ---@type MarkerProjectState
for _, marker in ipairs(markers or {}) do ---@type integer, EmissionMarker
local project = MARKER_PROJECTORS[marker.kind] ---@type (fun(state: MarkerProjectState, marker: EmissionMarker): nil)|nil
if project then project(state, marker) end
end
return state.labels, state.branches
end
-- ════════════════════════════════════════════════════════════════════════════
-- Offset computation + header generation
-- ════════════════════════════════════════════════════════════════════════════
--- Compute branch offsets per consuming instruction.
--- Disposition table:
--- `branch_*` -> relative offset: `target_word - branch_word - 1` (MIPS branch-immediate encoding).
--- `jump` / `call_addr` -> same value as `branch_*` (a relative word offset).
--- The duffle headers' `enc_i` macro truncates the value to the immediate-field width (16 bits for branches, 26 bits for jumps).
--- For tape-atom bodies within a single module, this works for `j`/`jal` because the linker's symbol resolution produces the correct 26-bit absolute target via standard `j` relocations.
--- For cross-module `j`/`jal` (atom body in one module, target in another), the linker emits a `R_MIPS_26` relocation against the lower 26 bits; the upper 4 bits come from the PC of the delay slot following the `j`.
--- The metaprogram doesn't know either at compile time, so the emitted value is the relative word offset that the duffle `enc_i` macro places in the immediate field; the toolchain handles the rest.
--- `jump_reg` / `call_reg` / `jump_link` -> ERROR. Register-form jumps have no offset field; `atom_offset` is invalid.
--- missing `consuming_encoder` -> ERROR. A lone top-level `atom_offset` is not a branch.
--- @param labels table<string, integer>
--- @param branches OffsetBranch[]
--- @param errors Finding[]
--- @return BranchOffset[]
local function compute_offsets(labels, branches, errors)
local results = {} ---@type BranchOffset[]
for _, br in ipairs(branches) do ---@type integer, OffsetBranch
local target = labels[br.target] ---@type integer|nil
if not target then
errors[#errors + 1] = {
line = br.line or 0,
msg = "Branch target '" .. br.target .. "' has no atom_label (at word " .. br.branch_word .. ")",
}
else
local consuming = br.consuming_encoder ---@type string|nil
if consuming == nil or consuming == "" then
errors[#errors + 1] = {
line = br.line or 0,
msg = "atom_offset requires a consuming encoder (branch_*, jump, call_addr); top-level atom_offset is invalid; at word " .. br.branch_word,
}
elseif consuming == "jump_reg" or consuming == "call_reg" or consuming == "jump_link" then
errors[#errors + 1] = {
line = br.line or 0,
msg = "atom_offset cannot be used with " .. consuming
.. " (register-form jumps have no offset field); at word " .. br.branch_word,
}
else
-- Consuming instructions with an offset field (`branch_*`, `jump`, `call_addr`) use the same relative offset value.
-- The MIPS encoding differs per opcode but the duffle `enc_i` macro handles the truncation to the immediate-field width.
results[#results + 1] = {
target = br.target,
tag = br.tag,
branch_word = br.branch_word,
offset = target - br.branch_word - 1,
consuming_encoder = br.consuming_encoder,
consuming_arg_pos = br.consuming_arg_pos,
}
end
end
end
return results
end
--- Right-pad `s` with spaces to width `w`. If `s` is already `w` or wider, no padding is added.
--- @param s string
--- @param w integer
--- @return string
local function pad_right(s, w)
return s .. string.rep(" ", math.max(0, w - #s))
end
--- (internal) Build a constant-table entry `{macro_name, enum_name, value}` from a BranchOffset.
--- @param bo BranchOffset
--- @return OffsetConst
local function make_offset_const(bo)
return {
macro_name = OFFSET_MACRO_PREFIX .. bo.tag .. "_" .. bo.target,
enum_name = OFFSET_ENUM_PREFIX .. bo.tag .. "_" .. bo.target,
value = bo.offset,
}
end
--- (internal) Emit one atom's offset constants + enum into the lines buffer.
--- @param add fun(s: string)
--- @param atom AtomData
--- @return nil
local function emit_atom_offsets(add, atom)
if #atom.offsets == 0 then return end
add("// --- atom: " .. atom.name .. " (" .. atom.total_words .. " words) ---")
add("")
local consts = {} ---@type OffsetConst[]
for _, r in ipairs(atom.offsets) do ---@type integer, BranchOffset
consts[#consts + 1] = make_offset_const(r)
end
for _, c in ipairs(consts) do ---@type integer, OffsetConst
add("#define " .. pad_right(c.macro_name, OFFSET_MACRO_COL) .. " " .. c.value)
end
add("")
add("enum {")
for _, c in ipairs(consts) do ---@type integer, OffsetConst
add(" " .. c.enum_name .. " = " .. c.macro_name .. ",")
end
add("};")
add("")
end
--- Generate the per-directory .offsets.h header.
--- @param dir string
--- @param sources SourceFile[]
--- @param atoms_data AtomData[]
--- @return string
local function generate_header(dir, sources, atoms_data)
local dir_basename = duffle.basename_no_ext(dir) ---@type string
local lines = {} ---@type string[]
--- @param s string
--- @return nil
local function add(s) lines[#lines + 1] = s end
add("// Auto-generated by ps1_meta.lua (passes/offsets.lua) — DO NOT EDIT")
add("// Directory: " .. dir:gsub("/", "\\") .. "\\")
for _, src in ipairs(sources) do ---@type integer, SourceFile
add("// source: " .. src.path:gsub("/", "\\"))
end
add("#pragma once")
add("")
add("#pragma region " .. dir_basename)
add("")
add("")
for _, atom in ipairs(atoms_data) do ---@type integer, AtomData
emit_atom_offsets(add, atom)
end
add("#pragma endregion " .. dir_basename)
add("")
return table.concat(lines, "\n") .. "\n"
end
local M = {} ---@type OffsetsPass
--- (internal) Aggregate atoms from every source in one directory, render the per-directory `offsets.h`.
--- Returns the offsets_h path if a header was written, or nil.
--- @param ctx PassCtx
--- @param dir string
--- @param sources SourceFile[]
--- @param errors Finding[]
--- @return string|nil
local function process_directory(ctx, dir, sources, errors)
local atoms_data = {} ---@type AtomData[]
--- @param atom AtomEntry
--- @return nil
local function append_atom(atom)
local paths = atom and atom.paths ---@type AtomPaths|nil
if not paths then return end
local labels, branches = project_markers(paths.markers) ---@type table<string, integer>, OffsetBranch[]
atoms_data[#atoms_data + 1] = {
name = atom.raw_name or atom.name,
total_words = #(paths.word_events or {}),
offsets = compute_offsets(labels, branches, errors),
}
end
for _, src in ipairs(sources) do ---@type integer, SourceFile
local scan = src.scan or {} ---@type SourceScan
for _, atom in ipairs(scan.atoms or {}) do append_atom(atom) end ---@type integer, AtomEntry
for _, atom in ipairs(scan.raw_atoms or {}) do append_atom(atom) end ---@type integer, AtomEntry
end
if #atoms_data == 0 then return nil end
local out_path = dir .. "/gen/offsets.h" ---@type string
duffle.ensure_dir(duffle.dirname(out_path))
duffle.write_file(out_path, generate_header(dir, sources, atoms_data))
return out_path
end
--- Run the offsets pass.
--- For each canonical source-directory, emits a per-directory `gen/offsets.h`
--- containing constants for every marker recorded in atom.paths across every source in that directory.
--- @param ctx PassCtx
--- @return PassResult
function M.run(ctx)
local outputs = {} ---@type OffsetOutput[]
local errors = {} ---@type Finding[]
local warnings = {} ---@type Finding[]
local corpus = ctx.shared and ctx.shared.corpus ---@type Corpus|nil
if type(corpus) ~= "table" then
error("offsets.run requires ctx.shared.corpus", 0)
end
if type(corpus.source_order) ~= "table" then
error("offsets.run requires ctx.shared.corpus.source_order.", 0)
end
-- Per-directory aggregation: every source in the same directory contributes to one `gen/offsets.h`.
local sources_by_dir = corpus.sources_by_dir or duffle.group_sources_by_dir(corpus.source_order) ---@type table<string, SourceFile[]>
for dir, sources in pairs(sources_by_dir) do ---@type string, SourceFile[]
local out_path = process_directory(ctx, dir, sources, errors) ---@type string|nil
if out_path then
outputs[#outputs + 1] = { offsets_h = out_path }
end
end
return { outputs = outputs, errors = errors, warnings = warnings }
end
return M
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--- word_count_eval.lua — Word-counting logic for the tape-atom metaprogram pipeline.
---
--- Two responsibilities:
--- 1. **Public utility** `M.count_token_words(token, wc)`: Used by `passes/offsets.lua`, `passes/annotation.lua`, and other passes.
--- 2. **Pass entry** `M.run(ctx)`: Loads the authored `word_count.metadata.h` into `ctx.shared.corpus.word_counts` for downstream passes.
--- The generated `.macs.h` files are OUTPUT artifacts and are NOT inputs to this pass;
--- Current component counts are owned by `passes/components.lua` (which populates `corpus.word_counts` and `corpus.components`
--- AFTER computing each current count from the just-built body + `corpus.word_counts`).
---
--- **Canonical contract**:
--- * `ctx.shared.corpus.word_counts` is the count table.
--- * `corpus.word_counts` is the sole count table. Consumers read `corpus.word_counts` directly.
--- * `ctx.shared.components` is NOT created by this pass (projections only).
--- * No `.macs.h` recursive discovery (no `scan_dir`, no scan cache, no `_invalidate_scan_cache`).
---
--- **Conventions**: tabs (1/level), EmmyLua annotations, no regex,
--- Lua 5.3 compatible.
-- ════════════════════════════════════════════════════════════════════════════
-- Module-scope requires + package.path setup
-- ════════════════════════════════════════════════════════════════════════════
-- Bootstrap: load `scripts/duffle_paths.lua` (sets package.path + package.cpath).
-- Uses `debug.getinfo` to find this file's own directory, so it works both standalone and when require'd from the orchestrator.
-- duffle_paths.lua sets package.path then returns `require("duffle")` at the bottom, so the dofile value IS the duffle module.
local _bootstrap_dir = debug.getinfo(1, "S").source:match("^@?(.*[/\\])") or "./" ---@type string
local duffle = dofile(_bootstrap_dir .. "../duffle_paths.lua") ---@type DuffleExport
-- ════════════════════════════════════════════════════════════════════════════
-- Type declarations
-- ════════════════════════════════════════════════════════════════════════════
--- @class WordCounts
--- @field [string] integer -- bag: macro name -> word count
--- @class WordCountEval
--- @field count_token_words fun(token: string, wc: WordCounts): integer
--- @field run fun(ctx: PassCtx): PassResult
-- SourceFile, PassCtx, PassResult: see ps1_meta.lua
-- DuffleExport: see duffle.lua (facade returned by duffle_paths.lua)
-- ════════════════════════════════════════════════════════════════════════════
-- Module exports
-- ════════════════════════════════════════════════════════════════════════════
local M = {} ---@type WordCountEval
-- ┌────────────────────────────────────────────────────────────────────┐
-- │ Shared utility: count_token_words │
-- └────────────────────────────────────────────────────────────────────┘
--- Count words emitted by a single comma-separated token inside an atom body.
--- For most tokens (regular MIPS instructions) this returns 1.
--- For `mac_X(...)` calls, this returns the resolved word count from `wc` (recursively if needed). For `nop2` etc., returns wc[name].
--- For unknown macros, returns 1 and (optionally) warns.
--- @param token string -- a single token from split_top_level_commas
--- @param wc WordCounts -- the shared word-count table
--- @return integer
function M.count_token_words(token, wc)
local s = duffle.trim(token) ---@type string
if s == "" then return 0 end
local name, after = duffle.read_ident(s, 1) ---@type string|nil, integer
if not name then return 1 end
if wc[name] then return wc[name] end
local paren_pos = duffle.skip_ws_and_cmt(s, after) ---@type integer
if s:sub(paren_pos, paren_pos) == "(" then
io.stderr:write(" warning: unknown macro '" .. name .. "', assuming 1 word\n")
end
return 1
end
-- ┌────────────────────────────────────────────────────────────────────┐
-- │ Pass entry: M.run(ctx) — "word-counts" pass │
-- └────────────────────────────────────────────────────────────────────┘
--- Load the authored `word_count.metadata.h` into `ctx.shared.corpus.word_counts`.
--- Generated `.macs.h` files are OUTPUT artifacts and are NOT scanned as inputs.
--- Current component counts are computed and inserted by `passes/components.lua`
--- after the components pass iterates `corpus.source_order` and writes each source-directory's `gen/macs.h` file.
---
--- Contract:
--- * `ctx.shared.corpus` MUST exist (canonical corpus ownership).
--- * `ctx.metadata_path` MUST be a readable file path to the authored `word_count.metadata.h`.
--- * The pass assigns exactly one table to `corpus.word_counts`.
--- Consumers read the corpus-owned table directly.
--- Consumers must read `corpus.word_counts` directly.
--- @param ctx PassCtx
--- @return PassResult
function M.run(ctx)
-- 1. Canonical-corpus ownership gate.
local corpus = ctx.shared and ctx.shared.corpus ---@type Corpus|nil
if type(corpus) ~= "table" then
error("word_count_eval.run requires ctx.shared.corpus (canonical corpus). The fixture must install the corpus before running this pass.", 0)
end
-- 2. metadata_path gate.
if type(ctx.metadata_path) ~= "string" or ctx.metadata_path == "" then
error("word_count_eval.run requires ctx.metadata_path (path to the authored word_count.metadata.h).", 0)
end
-- 3. Load authored metadata. Generated .macs.h files are NOT scanned
-- (the pass computes their counts from the just-built bodies after disk emission; see passes/components.lua).
local wc = duffle.load_word_counts(ctx.metadata_path) ---@type WordCounts
-- 4. Assign the count table. ONE assignment, no copy. The assignment creates no secondary alias.
corpus.word_counts = wc
return { outputs = {}, errors = {}, warnings = {} }
end
return M
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-- autoexec.lua - pcsx_debug_helper plugin entry point.
-- Packaged in scripts/pcsx_debug_helper.zip. Loaded by pcsx-redux via the -archive CLI flag (see scripts/launch_pcsx_debug.ps1).
--
-- Registers two web handlers for external CLI tools:
-- /api/v1/lua/gte - full GTE state (32 data + 32 control regs + PC)
-- /api/v1/lua/gp - GP state summary (screenshot endpoint + VRAM endpoint refs)
--
-- The GTE handler reads COP2 regs via PCSX.getRegisters().CP2D/CP2C.
-- The pcsx-redux gdb stub doesn't expose COP2, so this is the only way for external tools to see GTE state.
--
-- The GP handler is a thin pointer:
-- pcsx-redux's Lua API exposes only PCSX.GPU.takeScreenShot() (no GPUSTAT, no GP0/GP1 command log, no display state). For richer GP state, the existing web endpoints are the practical path:
-- /api/v1/state/still - PNG screenshot
-- /api/v1/gpu/vram/raw - VRAM raw bytes (1MB)
--
-- Companion: scripts/gdb/gdb_tape_atoms.gdb (covers GPRs + atom-aware stepping).
local function register_handlers()
if not PCSX.WebServer then PCSX.WebServer = {} end
if not PCSX.WebServer.Handlers then PCSX.WebServer.Handlers = {} end
-- ── GTE state ──
PCSX.WebServer.Handlers.gte = function(req)
local r = PCSX.getRegisters()
local out = { "pc=0x" .. string.format("%x", r.pc) }
for i = 0, 31 do
out[#out + 1] = string.format("D[%d]=0x%08x C[%d]=0x%08x",
i, r.CP2D.r[i], i, r.CP2C.r[i])
end
return table.concat(out, "\n")
end
-- ── GP state (pointer to existing endpoints) ──
-- pcsx-redux's Lua GPU API exposes only takeScreenShot(); no GPUSTAT / GP0 / GP1 command log / display state.
-- We point to the existing web endpoints that DO expose those (when the emulator is actually rendering. Paused-at-BP frames won't have a fresh frame).
PCSX.WebServer.Handlers.gp = function(req)
local out = {
"gpu_screenshot_png=http://localhost:8080/api/v1/state/still",
"vram_raw=http://localhost:8080/api/v1/gpu/vram/raw (1MB VRAM)",
"gpustat=NOT_AVAILABLE_VIA_LUA",
"gp_command_log=NOT_AVAILABLE_VIA_LUA (use pcsx-redux Debug > GPU Logger)",
"hint_run_emulator_unpaused_for_screenshot",
}
return table.concat(out, "\n")
end
end
local ok, err = pcall(register_handlers)
if ok then print("[pcsx_debug_helper] handlers registered: gte, gp")
else print("[pcsx_debug_helper] registration failed: " .. tostring(err))
end
+847
View File
@@ -0,0 +1,847 @@
--- ps1_meta.lua — Orchestrator entry point for the tape-atom metaprogram.
---
--- Dispatches to pass modules under `scripts/passes/`, resolving dependencies topologically (Kahn's algorithm + cycle detection).
---
--- Architecture:
--- - PASSES table: Declarative dep graph (data, not code).
--- - FLAG_HANDLERS table: Maps CLI flags to handlers.
--- - parse_args → build_ctx (resolves unity/direct includes or exact sources) → topo_sort → dispatch_passes.
--- - The first pass in the dep graph is `scan-source` (see `passes/scan_source.lua`).
--- It calls `duffle.scan_source` once per source to produce the fat `SourceScan` payload, which is attached to each `src.scan`.
--- Every other pass that reads source structure depends on `scan-source` and consumes `src.scan` as a read-only.
---
-- ════════════════════════════════════════════════════════════════════════════
-- Module-scope requires + package.path setup
-- ════════════════════════════════════════════════════════════════════════════
-- Bootstrap: load `duffle_paths.lua` via this script's own path.
-- Use `arg[0]` when this file is the entry script (`arg[0]` ends in "ps1_meta.lua");
-- fall back to `debug.getinfo(1, "S").source` when this file is being dofile()'d or require()'d (in which case `arg[0]` is the *caller's* path).
-- That single statement: (a) sets `package.path` + `package.cpath`, (b) at the bottom returns `require("duffle")`.
-- So the dofile's return value is the duffle module.
local _is_entry_script = arg and arg[0] and arg[0]:match("ps1_meta%.lua$") ~= nil ---@type boolean
local _bootstrap_src ---@type string
if _is_entry_script then
_bootstrap_src = arg[0]
else
-- debug.getinfo(1, "S").source returns "@<path>" for the current chunk;
-- strip the leading "@" so the directory match works in both cases.
_bootstrap_src = debug.getinfo(1, "S").source:sub(2)
end
local duffle = dofile((_bootstrap_src:match("(.*[/\\])") or "./") .. "duffle_paths.lua") ---@type DuffleExport
-- ════════════════════════════════════════════════════════════════════════════
-- Constants
-- ════════════════════════════════════════════════════════════════════════════
-- Exit codes (per the --help text and the post-build summary convention).
local EXIT_OK = 0 ---@type integer
local EXIT_VALIDATION_ERRORS = 1 ---@type integer
local EXIT_INTERNAL_ERROR = 2 ---@type integer
-- Default --out-root value if not provided.
local DEFAULT_OUT_ROOT = "build/gen" ---@type string
-- Sentinel for "all passes" in `PASS_FLAG_TO_NAME`. Distinguishes `--all` from the per-pass flags (which map to individual pass names).
local ALL_PASSES_SENTINEL = "__all__" ---@type string
-- Sentinel key for the pass-flag dispatcher in `FLAG_HANDLERS`.
-- The actual pass names are looked up via `PASS_FLAG_TO_NAME`, not direct dispatch, so this key never matches a real flag.
local PASS_FLAG_DISPATCH_KEY = "__pass__" ---@type string
-- ════════════════════════════════════════════════════════════════════════════
-- Type declarations
-- ════════════════════════════════════════════════════════════════════════════
--- @class PassDescriptor
--- @field module string -- Module name passed to require()
--- @field kind string -- "shared" | "header-output" | "validation" | "diagnostic" | "report"
--- -- Report severity is independent from process exit policy (see PASS_KIND_STOP_ON_ERROR).
--- @field deps string[] -- Names of upstream passes
--- @field groups string[]? -- OPTIONAL build-phase groups this pass is a root of (e.g. { "pre-link" }, { "post-link" }); absent ⇒ dependency-only
--- @class Corpus
--- @field unity_root string|nil
--- @field project_root string
--- @field code_root string
--- @field source_order SourceFile[]
--- @field sources_by_path table<Path, SourceFile>
--- @field sources_by_dir table<string, SourceFile[]>
--- @field atoms_by_name table<AtomName, AtomEntry>
--- @field binds_by_name table<string, BindsEntry>
--- @field atom_infos AtomInfoEntry[]
--- @field register_alias_registry table<string, AliasEntry>
--- @field type_name_registry table<string, TypeNameEntry>
--- @field atom_views table<AtomName, AtomViewEntry>
--- @field atom_ctxs table<AtomName, AtomCtxEntry>
--- @field atom_phases table<string, AtomPhaseGroup>
--- @field word_counts WordCounts
--- @field components table<string, Component>
--- @field atom_bundles table<string, AtomBundle>|nil
--- @field tape_emits TapeEmit[]|nil
--- @field collisions CorpusCollision[]
--- @field resolver SourceResolver
--- @field component_atom_infos AtomInfoEntry[]|nil
--- @field atom_auto_regs table<AtomName, table<string, string>>|nil
--- @field phase_auto_regs table<string, table<string, string>>|nil
--- @field reg_use_schemas table<string, RegUseSchema>|nil
--- @field reg_use_errors RegUseError[]|nil
--- @field static_analysis_results table<string, AtomAnalysis>|nil
--- @field tape_chains table<string, TapeChain>|nil
--- @class PassShared
--- @field corpus Corpus
--- @class PassFlags
--- @field gdb_runtime boolean|nil
--- @field dwarf_injection boolean|nil
--- @field elf_path string|nil
--- @class PassCtx
--- @field metadata_path string -- Path to word_count.metadata.h
--- @field shared PassShared -- Cross-pass shared state
--- @field out_root string -- Output root (e.g. "build/gen")
--- @field project_root string -- PS1 repository root
--- @field flags PassFlags -- CLI flags + per-pass stash
--- @field verbose boolean -- If true, log diagnostic info
--- CheckName: see static_analysis.lua. AtomName: see duffle.lua.
--- @class Finding
--- @field line integer
--- @field msg string
--- @field kind string|nil -- error | warning | info
--- @field atom AtomName|nil
--- @field check CheckName|nil
--- @field source string|nil -- optional; emit/reguse path
--- @field schema_name string|nil -- optional; emit/reguse
--- @class PassScratch
--- @field corpus Corpus|nil
--- @field info_by_atom table<string, AtomInfoEntry>|nil
--- @field binds_index table<string, BindsEntry>|nil
--- @field atom_index table<string, AtomEntry>|nil
--- @field annot_counts table<string, integer>|nil -- bag
--- @field types table<string, RegTypeDefault>|nil
--- @field atom_views table<string, AtomViewEntry>|nil
--- @field seen_defaults table<string, integer>|nil -- bag
--- @field seen_field table<string, integer>|nil -- bag
--- @field _scan SourceScan|nil
--- @field word_counts WordCounts|nil
--- @field register_alias_registry table<string, AliasEntry>|nil
--- @field type_name_registry table<string, TypeNameEntry>|nil
--- @field type_occurrences RegTypeOccurrence[]|nil
--- @field atom_infos_list AtomInfoEntry[]|nil
--- @field binds_list BindsEntry[]|nil
--- @field unknown_seen table<string, integer>|nil -- bag
--- @field atoms AtomEntry[]|nil
--- @field components_by_name table<string, Component>|nil
--- @field atoms_by_name table<string, AtomEntry>|nil
--- @field tape_chains table<string, string[]>|nil
--- @field source_order SourceFile[]|nil
--- @field component_atom_infos AtomInfoEntry[]|nil
--- @field atom_infos_all AtomInfoEntry[]|nil
--- @field gte_cr_alias_groups GteCrAliasGroup[]|nil
--- @field line_for_word_event (fun(ev: WordEvent): integer)|nil
--- @class PassOutputEntry
--- @field kind string
--- @field path string
--- @class PassResult
--- @field outputs PassOutputEntry[]
--- @field errors Finding[] -- Build-stops (per-pass kind policy)
--- @field warnings Finding[] -- Informational
--- @field info Finding[]|nil -- static_analysis only
--- @class ParsedArgs
--- @field requested_set string[] -- Pass names to run (explicit --all expanded)
--- @field sources string[] -- Exact --source values, retained in CLI order
--- @field unity_root string|nil -- --unity-root value; mutually exclusive with sources
--- @field metadata string -- --metadata value
--- @field out_root string -- --out-root value (default "build/gen")
--- @field project_root string -- PS1 repository root (derived from metadata by default)
--- @field verbose boolean -- If true, log diagnostic info
--- @field flags PassFlags|nil -- Per-pass stash; copied onto PassCtx.flags
--- @alias FlagHandler fun(args: ParsedArgs, argv: string[]|nil, arg_idx: integer|nil): integer|nil
--- @class PassModule
--- @field run fun(ctx: PassCtx): PassResult
--- @class Ps1MetaMod
--- @field PASSES table<string, PassDescriptor>
--- @field PASS_KIND_STOP_ON_ERROR table<string, boolean>
--- @field parse_args fun(argv: string[]): ParsedArgs
--- @field build_ctx fun(args: ParsedArgs): PassCtx
-- ════════════════════════════════════════════════════════════════════════════
-- PASSES Table
-- ════════════════════════════════════════════════════════════════════════════
-- Build-phase groups: Each PASSES row may declare membership in one or more named groups via `groups = { ... }`.
-- The CLI flags --pre-link and --post-link request the *roots* of their group; topo_sort then closes transitive dependencies from those roots,
-- and dispatch_passes runs every pass in the resulting closure without phase-filtering.
--
-- A row without a `groups` entry is dependency-only: it runs only when a transitive dep requests it,
-- but it remains directly requestable through its explicit CLI flag (e.g. --atoms-source-map, --scan-source).
local PASSES = { ---@type table<string, PassDescriptor>
["scan-source"] = {
module = "passes.scan_source",
kind = "shared", deps = {},
},
["word-counts"] = {
module = "passes.word_count_eval",
kind = "shared", deps = {},
},
components = {
module = "passes.components",
kind = "header-output",
deps = {"scan-source", "word-counts"},
},
auto_reg = {
module = "passes.auto_reg",
kind = "header-output",
deps = {"components"},
groups = { "pre-link" },
},
["emission-model"] = {
module = "passes.emission_model",
kind = "validation",
deps = {"components"},
},
annotation = {
module = "passes.annotation",
kind = "validation",
deps = {"scan-source", "word-counts"},
},
offsets = {
module = "passes.offsets",
kind = "header-output",
deps = {"scan-source", "word-counts", "components", "emission-model"},
groups = { "pre-link" },
},
["static-analysis"] = {
module = "passes.static_analysis",
-- "diagnostic" — every `error`/`warning` finding is written to the report file.
-- Report severity is independent from process exit policy.
kind = "diagnostic",
deps = {"scan-source", "word-counts", "components", "emission-model"},
},
["atoms-source-map"] = {
module = "passes.atoms_source_map",
kind = "header-output",
deps = {"word-counts", "components", "emission-model"},
},
["dwarf-injection"] = {
module = "passes.dwarf_injection",
kind = "shared",
deps = {"scan-source", "atoms-source-map"},
groups = { "post-link" },
},
report = {
module = "passes.report",
kind = "report",
deps = {"annotation", "static-analysis", "atoms-source-map"}, -- +atoms-source-map (consolidated-report-files refactor, 2026-07-26)
groups = { "pre-link" },
},
}
-- ────────────────────────────────────────────────────────────────────────────
-- Phase-root selection: Derive the sorted set of roots belonging to a named build-phase group, then append them to `args.requested_set`.
-- topo_sort closes the transitive deps from there; dispatch_passes runs every resolved pass without phase-filtering.
-- ────────────────────────────────────────────────────────────────────────────
--- @param group_name string -- Build-phase group ("pre-link" | "post-link")
--- @return string[] -- Sorted root pass names belonging to that group
local function roots_for_group(group_name)
local names = {} ---@type string[]
for name, pass in pairs(PASSES) do ---@type string, PassDescriptor
if pass.groups then
for _, g in ipairs(pass.groups) do ---@type integer, string
if g == group_name then
names[#names + 1] = name
break
end
end
end
end
table.sort(names)
return names
end
--- Append every root belonging to `group_name` to `args.requested_set`.
--- Errors loudly if no PASSES row declares the group, so a typo'd or future-removed group name
--- cannot silently fall through to pre-link (or any other default) and dispatch nothing.
--- @param args ParsedArgs
--- @param group_name string
--- @return nil
local function request_roots_for_group(args, group_name)
local roots = roots_for_group(group_name) ---@type string[]
if #roots == 0 then
error(string.format("ps1_meta: build-phase group %q has zero roots in PASSES; check PASSES rows for a `groups = { %q }` field"
, group_name, group_name))
end
for _, name in ipairs(roots) do ---@type integer, string
args.requested_set[#args.requested_set + 1] = name
end
end
-- Pass-kind taxonomy: findings always print. No pass kind stops the build.
-- Report severity is independent from process exit policy.
-- Adding a new pass kind requires listing it here explicitly; an unknown kind must not silently fall back to "true".
local PASS_KIND_STOP_ON_ERROR = { ---@type table<string, boolean> -- bag: pass kind -> stop-on-error
["shared"] = false,
["header-output"] = false,
["validation"] = false,
["diagnostic"] = false,
["report"] = false,
}
-- Closed set of CLI flags -> pass names.
-- Per-pass flags (e.g. --word-counts); phase flags (--pre-link, --post-link, --all) are within FLAG_HANDLERS because they own side effects or invoke group-derivation logic.
-- dwarf-injection is *also* a per-pass opt-in flag, but its selection + opt-in state are both owned by the explicit FLAG_HANDLERS entry below
-- (it sets args.flags.dwarf_injection and appends "dwarf-injection" to requested_set), so it is intentionally absent from this table.
local PASS_FLAG_TO_NAME = { ---@type table<string, string> -- bag: CLI flag -> pass name or ALL_PASSES_SENTINEL
["--word-counts"] = "word-counts",
["--components"] = "components",
["--validate"] = "annotation",
["--offsets"] = "offsets",
["--static-analysis"] = "static-analysis",
["--atoms-source-map"] = "atoms-source-map",
["--report"] = "report",
["--scan-source"] = "scan-source",
["--all"] = ALL_PASSES_SENTINEL,
}
--- Append every pass name to args.requested_set.
--- Names are derived from PASSES (no parallel name list); used by --all and by any caller that wants the full closure.
--- @param args ParsedArgs
--- @return nil
local function request_all_passes(args)
local names = {} ---@type string[]
for name in pairs(PASSES) do names[#names + 1] = name end ---@type string
table.sort(names)
for _, n in ipairs(names) do ---@type integer, string
args.requested_set[#args.requested_set + 1] = n
end
end
-- Per-flag handlers. Each handler takes (args, argv, arg_idx) and returns the new arg_idx (so multi-arg flags like --source FILE advance it).
-- Returning nil + os.exit() handles termination flags (--help).
local FLAG_HANDLERS = {} ---@type table<string, FlagHandler>
-- ════════════════════════════════════════════════════════════════════════════
-- CLI parsing
-- ════════════════════════════════════════════════════════════════════════════
--- Print the CLI usage to stdout and exit 0.
--- @return nil
local function print_help()
io.write([[
ps1_meta.lua - Tape-atom metaprogram orchestrator
USAGE:
ps1_meta.lua [PASS_FLAGS] [COMMON_FLAGS]
PASS_FLAGS:
Pick a phase or one-or-more individual passes:
--pre-link [phase; default] Run the pre-link group + transitive deps.
The root set is data-driven from each PASSES row's groups` field; no parallel name list is maintained.
--post-link [phase] Run the post-link group + transitive deps.
Requires --elf. Sets --gdb-runtime and --dwarf-injection opt-in flags as well.
--all Select every row of the PASSES table. Pass-local opt-in guards remain active, so --dwarf-injection still requires
--elf and --gdb-runtime still requires a runtime emission.
Or pick any subset:
--scan-source Scan sources into the fat SourceScan payload
--word-counts Load metadata.h + scan for existing .macs.h
--components Generate <srcdir>/gen/macs.h (per-directory aggregation)
--validate Run atom annotation DSL validation
--offsets Generate <srcdir>/gen/offsets.h (per-directory aggregation)
--atoms-source-map Generate <basename>.atoms.sourcemap.txt per source
--dwarf-injection [opt-in] Select the post-link dwarf-injection pass + set the opt-in flag. Requires --elf.
--static-analysis Static analysis: GTE pipeline-fill, mac_yield, ABI handoff, cycle budget
--report Render per-project summary
COMMON_FLAGS:
--unity-root FILE Unity source root: load root + direct quoted authored includes only. Mutually exclusive with --source.
--source FILE Exact source file to process (repeatable, never expands includes). Mutually exclusive with --unity-root.
--metadata PATH Path to metadata.h (required)
--out-root DIR Output root for reports (default: build/gen)
--project-root DIR PS1 repository root (default: derived from <repo>/code/duffle/word_count.metadata.h)
--gdb-runtime Also emit <out_root>/gdb_tape_atoms_runtime.gdb (post-link, requires --elf)
--elf PATH Path to linked .elf (for --gdb-runtime / --dwarf-injection)
--verbose Print per-pass debug output
--help Show this help and exit
EXIT CODES:
0 Ran. Findings print on stderr and in the report; they do not fail the process.
2 Metaprogram internal error
EXAMPLES:
ps1_meta.lua --pre-link --metadata code/duffle/word_count.metadata.h --unity-root code/gte_hello/hello_gte.c
ps1_meta.lua --post-link --metadata code/duffle/word_count.metadata.h --unity-root code/gte_hello/hello_gte.c --elf build/hello_gte.elf
ps1_meta.lua --all --metadata metadata.h --source code/foo.c --source code/bar.c
]])
end
local FLAG_VALUE_NAMES = { ---@type table<string, string> -- bag: flag -> value metavar
["--source"] = "FILE",
["--unity-root"] = "FILE",
["--metadata"] = "PATH",
["--out-root"] = "DIR",
["--project-root"] = "DIR",
["--elf"] = "PATH",
}
--- @param argv string[]
--- @param arg_idx integer
--- @param flag string
--- @return string
--- @return integer
local function require_flag_value(argv, arg_idx, flag)
local value = argv[arg_idx + 1] ---@type string|nil
local next_known = type(value) == "string" ---@type boolean
and (FLAG_HANDLERS[value] ~= nil or PASS_FLAG_TO_NAME[value] ~= nil)
if value == nil or next_known then
io.stderr:write("ps1_meta: " .. flag .. " requires " .. FLAG_VALUE_NAMES[flag] .. "\n")
os.exit(EXIT_INTERNAL_ERROR)
end
return value, arg_idx + 1
end
-- Per-flag handlers. Each takes (args, argv, arg_idx) and returns the new arg_idx (so multi-arg flags like --source FILE advance it).
-- Termination flags like --help call os.exit() instead.
-- Populated AFTER print_help so the --help handler can reference it as an upvalue (Lua resolves locals at closure-call time,
-- but if the closure is defined before the local, it falls back to _G).
--- @param args ParsedArgs
--- @return nil
FLAG_HANDLERS["--help"] = function(args) print_help(); os.exit(0) end
--- @param args ParsedArgs
--- @return nil
FLAG_HANDLERS["--verbose"] = function(args) args.verbose = true end
--- @param args ParsedArgs
--- @param argv string[]
--- @param arg_idx integer
--- @return integer
FLAG_HANDLERS["--source"] = function(args, argv, arg_idx)
local value, value_idx = require_flag_value(argv, arg_idx, "--source") ---@type string, integer
args.sources[#args.sources + 1] = value
return value_idx
end
--- @param args ParsedArgs
--- @param argv string[]
--- @param arg_idx integer
--- @return integer
FLAG_HANDLERS["--unity-root"] = function(args, argv, arg_idx)
local value, value_idx = require_flag_value(argv, arg_idx, "--unity-root") ---@type string, integer
args.unity_root = value
return value_idx
end
--- @param args ParsedArgs
--- @param argv string[]
--- @param arg_idx integer
--- @return integer
FLAG_HANDLERS["--metadata"] = function(args, argv, arg_idx)
local value, value_idx = require_flag_value(argv, arg_idx, "--metadata") ---@type string, integer
args.metadata = value
return value_idx
end
--- @param args ParsedArgs
--- @param argv string[]
--- @param arg_idx integer
--- @return integer
FLAG_HANDLERS["--out-root"] = function(args, argv, arg_idx)
local value, value_idx = require_flag_value(argv, arg_idx, "--out-root") ---@type string, integer
args.out_root = value
return value_idx
end
--- @param args ParsedArgs
--- @param argv string[]
--- @param arg_idx integer
--- @return integer
FLAG_HANDLERS["--project-root"] = function(args, argv, arg_idx)
local value, value_idx = require_flag_value(argv, arg_idx, "--project-root") ---@type string, integer
args.project_root = value
return value_idx
end
-- Per-pass stash flags. Read by `passes/atoms_source_map.lua` to opt into the post-link gdb-runtime emission.
-- Same shape as the existing per-flag handlers. mutates `args.flags` (which propagates into `ctx.flags`).
--- @param args ParsedArgs
--- @return nil
FLAG_HANDLERS["--gdb-runtime"] = function(args)
args.flags = args.flags or {}
args.flags.gdb_runtime = true
end
--- @param args ParsedArgs
--- @param argv string[]
--- @param arg_idx integer
--- @return integer
FLAG_HANDLERS["--elf"] = function(args, argv, arg_idx)
local value, value_idx = require_flag_value(argv, arg_idx, "--elf") ---@type string, integer
args.flags = args.flags or {}
args.flags.elf_path = value
return value_idx
end
-- Enable DWARF injection (default OFF). Opts in to the post-link pass and sets the flag in one shot.
-- The explicit handler below owns both selection and opt-in state, so --dwarf-injection is intentionally absent from PASS_FLAG_TO_NAME.
--- @param args ParsedArgs
--- @return nil
FLAG_HANDLERS["--dwarf-injection"] = function(args)
args.flags = args.flags or {}
args.flags.dwarf_injection = true
args.requested_set[#args.requested_set + 1] = "dwarf-injection"
end
-- Build-phase flags: --pre-link and --post-link request the roots of their declared groups (see roots_for_group).
-- topo_sort closes transitive deps from those roots; dispatch_passes runs every pass in the resolved closure without phase-filtering.
--- @param args ParsedArgs
--- @return nil
FLAG_HANDLERS["--pre-link"] = function(args)
request_roots_for_group(args, "pre-link")
end
-- Batch post-link phase: gdb-runtime + dwarf-injection in one luajit cold start.
-- Sets the same opt-in flags as --gdb-runtime + --dwarf-injection and selects the post-link build-phase group.
-- elf is required; parse_args enforces it after all flags are parsed.
--- @param args ParsedArgs
--- @return nil
FLAG_HANDLERS["--post-link"] = function(args)
args.flags = args.flags or {}
args.flags.gdb_runtime = true
args.flags.dwarf_injection = true
request_roots_for_group(args, "post-link")
end
-- `--dwarf-injection` also emits atom-local debug data.
-- Pass-flag handler. Reads the closed-set table, expands --all, appends to requested_set.
--- @param args ParsedArgs
--- @param a string
--- @return nil
FLAG_HANDLERS[PASS_FLAG_DISPATCH_KEY] = function(args, a)
local name = PASS_FLAG_TO_NAME[a] ---@type string|nil
if name == ALL_PASSES_SENTINEL then
request_all_passes(args)
return
end
args.requested_set[#args.requested_set + 1] = name
end
--- Parse argv into a structured table. Validates against a closed enum.
--- @param argv string[]
--- @return ParsedArgs
local function parse_args(argv)
local args = { ---@type ParsedArgs
requested_set = {},
sources = {},
unity_root = nil,
metadata = nil,
out_root = DEFAULT_OUT_ROOT,
project_root = nil,
verbose = false,
}
local pos = 1 ---@type integer
while pos <= #argv do
local a = argv[pos] ---@type string
local handler = FLAG_HANDLERS[a] ---@type FlagHandler|nil
if handler then
pos = handler(args, argv, pos) or pos
elseif PASS_FLAG_TO_NAME[a] then
FLAG_HANDLERS[PASS_FLAG_DISPATCH_KEY](args, a)
else
io.stderr:write("ps1_meta: unknown flag '" .. a .. "'\n")
io.stderr:write("Run with --help for usage.\n")
os.exit(EXIT_INTERNAL_ERROR)
end
pos = pos + 1
end
-- Default: --pre-link if no explicit pass flags were given.
-- The first invocation of a build is always pre-link, so this avoids silently also invoking post-link work in builds without an ELF artifact.
if #args.requested_set == 0 then request_roots_for_group(args, "pre-link") end
if not args.metadata then
io.stderr:write("ps1_meta: --metadata PATH is required\n")
os.exit(EXIT_INTERNAL_ERROR)
end
-- `<repo>/code/duffle/word_count.metadata.h` is the canonical metadata location.
-- `project_root` names `<repo>`; the resolver derives `<project_root>/code` separately.
if not args.project_root then
local metadata_dir = duffle.dirname(duffle.normalize_path(args.metadata)) ---@type string
local code_root = duffle.dirname(metadata_dir) ---@type string
args.project_root = duffle.dirname(code_root)
else
args.project_root = duffle.normalize_path(args.project_root)
end
local has_unity = type(args.unity_root) == "string" and args.unity_root ~= "" ---@type boolean
if has_unity and #args.sources > 0 then
io.stderr:write("ps1_meta: --unity-root FILE and --source FILE are mutually exclusive\n")
os.exit(EXIT_INTERNAL_ERROR)
end
if not has_unity and #args.sources == 0 then
io.stderr:write("ps1_meta: either --unity-root FILE or at least one --source FILE is required\n")
os.exit(EXIT_INTERNAL_ERROR)
end
-- Post-link opt-ins (--gdb-runtime, --dwarf-injection) write output that depends on the linked ELF.
-- Without --elf the metaprogram can't satisfy those requests, so refuse loud and early.
-- This covers the explicit --post-link batch, --dwarf-injection by itself, and --gdb-runtime by itself.
local flags = args.flags or {} ---@type PassFlags
local elf_path = flags.elf_path ---@type string|nil
local has_elf = type(elf_path) == "string" and #elf_path > 0 ---@type boolean
local post_links = flags.gdb_runtime or flags.dwarf_injection ---@type boolean
if post_links and not has_elf then
io.stderr:write("ps1_meta: --elf PATH is required for post-link output\n")
os.exit(EXIT_INTERNAL_ERROR)
end
return args
end
-- ════════════════════════════════════════════════════════════════════════════
-- Build ctx from parsed args
-- ════════════════════════════════════════════════════════════════════════════
--- Build the PassCtx from parsed args. Exact mode opens only the repeated `--source` inputs;
--- unity mode delegates direct-include resolution to duffle.resolve_source_corpus`.
--- Scanning remains pass-owned (`src.scan`).
--- @param args ParsedArgs
--- @return PassCtx
local function build_ctx(args)
local normalized_project_root = duffle.normalize_path(args.project_root) ---@type string
local project_root = normalized_project_root ---@type string
local project_root_is_absolute = normalized_project_root:match("^%a:/") ---@type boolean
or normalized_project_root:sub(1, 2) == "//"
or normalized_project_root:sub(1, 1) == "/"
if not project_root_is_absolute then
-- canonical_path_key validates ordinary relative paths and rejects drive-relative paths before the absolute-path rewrite is performed.
duffle.canonical_path_key(normalized_project_root)
project_root = duffle.normalize_path(duffle.to_absolute_path(normalized_project_root))
else
-- Do not route POSIX/UNC/drive-absolute paths through to_absolute_path.
duffle.canonical_path_key(project_root)
end
local resolution ---@type Corpus
if args.unity_root then
local ok_resolve, resolved = pcall(duffle.resolve_source_corpus, { ---@type boolean, Corpus|string
unity_root = args.unity_root,
project_root = project_root,
})
if not ok_resolve then
io.stderr:write("ps1_meta: cannot resolve --unity-root " .. tostring(args.unity_root) .. ": " .. tostring(resolved) .. "\n")
os.exit(EXIT_INTERNAL_ERROR)
end
resolution = resolved
else
local ok_exact, exact = pcall(duffle.resolve_exact_sources, { ---@type boolean, Corpus|string
sources = args.sources,
project_root = project_root,
})
if not ok_exact then
io.stderr:write("ps1_meta: cannot resolve --source: " .. tostring(exact) .. "\n")
os.exit(EXIT_INTERNAL_ERROR)
end
resolution = exact
end
local corpus = { ---@type Corpus
unity_root = resolution.unity_root,
project_root = resolution.project_root,
code_root = resolution.code_root,
source_order = resolution.source_order,
sources_by_path = resolution.sources_by_path,
sources_by_dir = resolution.sources_by_dir,
atoms_by_name = {},
binds_by_name = {},
atom_infos = {},
register_alias_registry = {},
type_name_registry = {},
atom_views = {},
atom_ctxs = {},
atom_phases = {},
word_counts = {},
components = {},
atom_bundles = {},
tape_emits = {},
collisions = {},
resolver = resolution.resolver,
}
local ctx = { ---@type PassCtx
metadata_path = args.metadata,
shared = { corpus = corpus },
out_root = args.out_root,
project_root = corpus.project_root,
flags = args.flags or {},
verbose = args.verbose,
}
-- Source records and directory buckets are owned by the corpus.
-- Consumers read `corpus.source_order` and `corpus.sources_by_dir` directly.
-- The corpus is the sole source of truth for source records and module grouping; `ctx` only holds per-pass execution state.
return ctx
end
-- ════════════════════════════════════════════════════════════════════════════
-- Topological sort (Kahn's algorithm + cycle detection)
-- ════════════════════════════════════════════════════════════════════════════
--- Topologically sort the requested pass set, augmented with all transitive deps.
--- Detects cycles and errors out with details.
--- @param passes table<string, PassDescriptor>
--- @param requested_set string[]
--- @return string[] -- execution order
---
--- Dependency closure, in-degree calculation, queue seeding, and sorting are local blocks.
--- Keeping these blocks local makes the topological sort self-contained.
local function topo_sort(passes, requested_set)
-- Dependency closure: include every pass transitively required by `requested_set`.
local needed = {} ---@type table<string, boolean> -- bag: pass name -> needed
for _, name in ipairs(requested_set) do needed[name] = true end ---@type integer, string
local changed = true ---@type boolean
while changed do
changed = false
for name, _ in pairs(needed) do ---@type string, boolean
local pass = passes[name] ---@type PassDescriptor
if not pass then error("unknown pass '" .. name .. "' requested") end
for _, dep in ipairs(pass.deps) do ---@type integer, string
if not needed[dep] then
needed[dep] = true
changed = true
end
end
end
end
-- In-degree calculation: count each needed pass's needed dependencies.
local in_degree = {} ---@type table<string, integer> -- bag: pass name -> in-degree
for name, _ in pairs(needed) do in_degree[name] = 0 end ---@type string, boolean
for name, _ in pairs(needed) do ---@type string, boolean
for _, dep in ipairs(passes[name].deps) do ---@type integer, string
if needed[dep] then
in_degree[name] = in_degree[name] + 1
end
end
end
-- Ready-queue seeding: add zero-in-degree passes in deterministic order.
local ready = {} ---@type string[]
for name, deg in pairs(in_degree) do ---@type string, integer
if deg == 0 then ready[#ready + 1] = name end
end
table.sort(ready)
-- Ready-queue drain: decrement dependents when each pass is emitted.
-- Newly-zero-degree passes are inserted back into the ready queue (kept sorted).
local order = {} ---@type string[]
while #ready > 0 do
local just_finished = table.remove(ready, 1) ---@type string
order[#order + 1] = just_finished
for name, _ in pairs(needed) do ---@type string, boolean
if name ~= just_finished then
for _, dep in ipairs(passes[name].deps) do ---@type integer, string
if dep == just_finished then
in_degree[name] = in_degree[name] - 1
if in_degree[name] == 0 then
ready[#ready + 1] = name
table.sort(ready)
end
end
end
end
end
end
-- Cycle detection: if `order` doesn't include all needed passes, some are stuck with in_degree > 0
-- (the cycle closed on itself before Kahn could process them).
-- Without this check, a fully-closed cycle (e.g. A -> B -> A) would silently return an empty order list, leaving the orchestrator to dispatch nothing.
local needed_count = 0 ---@type integer
for _ in pairs(needed) do needed_count = needed_count + 1 end ---@type string -- count hash entries; Lua's #t doesn't work
if #order ~= needed_count then
for name, deg in pairs(in_degree) do ---@type string, integer
if deg > 0 then
error("dependency cycle detected involving pass '" .. name .. "'")
end
end
end
return order
end
-- ════════════════════════════════════════════════════════════════════════════
-- Main Orchestrator
-- ════════════════════════════════════════════════════════════════════════════
--- (internal) Write every pass error to stderr.
--- Returns true only when the pass kind still stops the build.
--- @param pass_name string
--- @param pass PassDescriptor
--- @param result PassResult
--- @return boolean
local function report_validation_errors(pass_name, pass, result)
local has_errors = result.errors and #result.errors > 0 ---@type boolean
if not has_errors then return false end
for _, e in ipairs(result.errors) do ---@type integer, Finding
io.stderr:write(string.format("[%s] line %d: %s\n", pass_name, e.line or 0, e.msg or ""))
end
return PASS_KIND_STOP_ON_ERROR[pass.kind] == true
end
--- (internal) Run each pass in `order` in topological sequence.
--- @param ctx PassCtx
--- @param order string[]
--- @return boolean -- true if any validation errors were reported
local function dispatch_passes(ctx, order)
local had_errors = false ---@type boolean
for _, pass_name in ipairs(order) do ---@type integer, string
local pass = PASSES[pass_name] ---@type PassDescriptor
local mod = require(pass.module) ---@type PassModule
local result = mod.run(ctx) ---@type PassResult
if report_validation_errors(pass_name, pass, result) then
had_errors = true
end
end
return had_errors
end
--- Main entry point. Runs the requested passes in dep-topological order.
--- @param argv string[]
--- @return nil
local function main(argv)
local ok, err = pcall(function() ---@type boolean, string|nil
local args = parse_args(argv) ---@type ParsedArgs
local ctx = build_ctx(args) ---@type PassCtx
local requested = args.requested_set ---@type string[]
local closed = topo_sort(PASSES, requested) ---@type string[]
dispatch_passes(ctx, closed)
end)
if not ok then
io.stderr:write("[ps1_meta] internal error: " .. tostring(err) .. "\n")
os.exit(EXIT_INTERNAL_ERROR)
end
os.exit(EXIT_OK)
end
-- Module export for in-process consumers (tests that dofile this script).
-- The conditional `main(...)` call below only fires when this file is invoked as the entry script (arg[0] ends in "ps1_meta.lua");
-- in dofile() mode (test's arg[0] does not match), main() is skipped and the chunk returns `_M` to the caller.
local _M = { ---@type Ps1MetaMod
PASSES = PASSES,
PASS_KIND_STOP_ON_ERROR = PASS_KIND_STOP_ON_ERROR,
parse_args = parse_args,
build_ctx = build_ctx,
}
if arg and arg[0] and arg[0]:match("ps1_meta%.lua$") then
main({...})
end
return _M
+204 -7
View File
@@ -4,27 +4,31 @@ $path_code = join-path $path_root 'code'
$path_scripts = join-path $path_root 'scripts'
$path_toolchain = join-path $path_root 'toolchain'
# Halt on any error (instead of PowerShell's default `Continue`).
$ErrorActionPreference = 'Stop'
$misc = join-path $PSScriptRoot 'helpers/misc.ps1'
. $misc
# TODO(Ed): Review usage of these deps
# I orgiinally cloned them when starting to get to the C runtime usage of the course
# However, based on the heavy reliance of the PSX.Dev extension I might fallback; also
# The gdb server doesn't need the full repo and were only using the src/mips
# which has a standalone repo (nuggets)
# armips may not be used at all but I'm not sure...
$url_armips = 'https://github.com/Kingcom/armips.git'
$url_pcsx_redux = 'https://github.com/grumpycoders/pcsx-redux.git'
$url_psyq_iwyu = 'https://github.com/johnbaumann/psyq_include_what_you_use.git'
$url_lpeg = 'https://github.com/roberto-ieru/LPeg.git'
# $url_mkpsxiso = 'https://github.com/Lameguy64/mkpsxiso.git'
$url_mkpsxiso_win64 = 'https://github.com/Lameguy64/mkpsxiso/releases/download/v2.30/mkpsxiso-2.30-win64.zip'
$path_armips = join-path $path_toolchain 'armips'
$path_pcsx_redux = join-path $path_toolchain 'pcsx-redux'
$path_psyq_iwyu = join-path $path_toolchain 'psyq_iwyu'
$path_lpeg = join-path $path_toolchain 'lpeg'
$path_mkpsxiso = join-path $path_toolchain 'mkpsxiso'
clone-gitrepo $path_armips $url_armips
clone-gitrepo $path_lpeg $url_lpeg
clone-gitrepo $path_pcsx_redux $url_pcsx_redux
clone-gitrepo $path_psyq_iwyu $url_psyq_iwyu
# clone-gitrepo $path_mkpsxiso $url_mkpsxiso
$path_armips_build = join-path $path_armips 'build'
verify-path $path_armips_build
@@ -37,3 +41,196 @@ pop-location
# $path_pcsx_redux_binaries = join-path $path_pcsx_redux_vsprojects 'x64/Release'
# $psyq_obj_parser = join-path $path_pcsx_redux_binaries 'psyq-obj-parser.exe'
# ════════════════════════════════════════════════════════════════════════════
# PCSX-Redux — built via MSBuild (VS2022)
# Requires: Visual Studio 2022 with the C++ desktop workload.
# Output: toolchain\pcsx-redux\vsprojects\x64\Debug\pcsx-redux.exe
# ════════════════════════════════════════════════════════════════════════════
# Locate MSBuild from the VS2022 install (no hardcoded path — uses vswhere).
$vswhere = "${env:ProgramFiles(x86)}\Microsoft Visual Studio\Installer\vswhere.exe"
if (-not (Test-Path $vswhere)) {
write-error "vswhere not found at '$vswhere'. Install Visual Studio 2022 with the C++ desktop workload."
exit 1
}
$msbuild_exe = & $vswhere -latest -products * -requires Microsoft.Component.MSBuild -find "MSBuild\**\Bin\MSBuild.exe" 2>$null | Select-Object -First 1
if (-not $msbuild_exe) {
write-error "MSBuild not found via vswhere. Install Visual Studio 2022 with the C++ desktop workload."
exit 1
}
$path_pcsx_sln = join-path $path_pcsx_redux 'vsprojects\pcsx-redux.sln'
# ════════════════════════════════════════════════════════════════════════════
# NuGet restore — required before MSBuild.
# pcsx-redux's .vcxproj files use the legacy packages.config style with
# hardcoded `<Import Project="..\packages\{id}.{ver}\...">` directives.
# MSBuild's `/t:Restore` won't fetch missing packages here (the local
# packages\ dir is checked but no package-source lookup happens), and
# `dotnet restore` errors on packages.config projects, so we walk every
# packages.config, parse out the <package id version/> entries, and pull
# any missing .nupkg directly from api.nuget.org's flat container.
# ════════════════════════════════════════════════════════════════════════════
$path_pcsx_packages = join-path $path_pcsx_redux 'vsprojects\packages'
$nuget_flat_container = 'https://api.nuget.org/v3-flatcontainer'
# Collect required (id, version) pairs from every packages.config.
$required_packages = @{}
Get-ChildItem -Path (join-path $path_pcsx_redux 'vsprojects') -Filter 'packages.config' -Recurse -ErrorAction SilentlyContinue |
ForEach-Object {
[xml]$xml = Get-Content -LiteralPath $_.FullName -Raw
foreach ($pkg in $xml.packages.package) {
$key = '{0}|{1}' -f $pkg.id, $pkg.version
$required_packages[$key] = @{ id = $pkg.id; version = $pkg.version }
}
}
# Ensure the packages root exists.
if (-not (Test-Path -LiteralPath $path_pcsx_packages)) {
New-Item -ItemType Directory -Path $path_pcsx_packages -Force | Out-Null
}
# Download anything missing.
# Skip the package entirely if its dir already has any contents (the legacy packages.config style means the targets file location varies per package
# — `luajit.native` puts it at build/native/, `glfw` puts it elsewhere — so we can't probe a specific path; just check whether the dir is non-empty).
Add-Type -AssemblyName System.IO.Compression.FileSystem
foreach ($pkg in $required_packages.Values) {
$pkgDir = Join-Path $path_pcsx_packages ('{0}.{1}' -f $pkg.id, $pkg.version)
if ((Test-Path -LiteralPath $pkgDir) -and `
(@(Get-ChildItem -LiteralPath $pkgDir -Recurse -ErrorAction SilentlyContinue).Count -gt 0)) {
continue
}
$url = '{0}/{1}/{2}/{1}.{2}.nupkg' -f $nuget_flat_container, $pkg.id, $pkg.version
$nupkg = Join-Path $pkgDir ('{0}.{1}.nupkg' -f $pkg.id, $pkg.version)
New-Item -ItemType Directory -Path $pkgDir -Force | Out-Null
Write-Host "Fetching NuGet package: $($pkg.id) $($pkg.version)"
try {
Invoke-WebRequest -Uri $url -OutFile $nupkg -UseBasicParsing -ErrorAction Stop
[System.IO.Compression.ZipFile]::ExtractToDirectory($nupkg, $pkgDir)
Remove-Item -LiteralPath $nupkg -Force
} catch {
$msg = $_.Exception.Message
if ($msg -match '404') {
Write-Host " Not on nuget.org (vendored?) — skipping $url"
} else {
Write-Warning "Failed to fetch $url$msg"
}
if (Test-Path -LiteralPath $nupkg) { Remove-Item -LiteralPath $nupkg -Force }
}
}
# ════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════
# isoffi.lua size guard — `core.vcxproj` #includes src/core/isoffi.lua into luaiso.cc via the `-- lualoader, R"EOF(...)EOF"` trick.
# The raw string literal between R"EOF(-- and -- )EOF" must stay under ~16,379 bytes or MSVC (19.44) fails with C2026 (its actual raw-string limit is 16,384, minus 5 bytes for the `-- lualoader, ` prefix).
# If the upstream file grows past that, trim it: remove license header, trailing whitespace, blank separators, inline comments, and shrink 4-space indent to 2-space.
# Idempotent — only writes when the raw string exceeds the limit.
# ════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════════
$path_isoffi = join-path $path_pcsx_redux 'src\core\isoffi.lua'
if (Test-Path -LiteralPath $path_isoffi) {
$content = Get-Content -LiteralPath $path_isoffi -Raw -Encoding utf8
$startMarker = $content.IndexOf('R"EOF(--')
$endMarker = $content.IndexOf('-- )EOF"')
$literalLen = if ($startMarker -ge 0 -and $endMarker -gt $startMarker) { $endMarker - ($startMarker + 8) } else { -1 }
# Effective MSVC raw-string limit for the lualoader prefix is 16379 bytes.
if ($literalLen -gt 16379) {
Write-Host "isoffi.lua raw string is $literalLen bytes (>16379); trimming for MSVC C2026 limit."
$lines = $content -split "`n"
$markerIdx = -1
for ($i = 0; $i -lt $lines.Length; $i++) {
if ($lines[$i] -match '^-- \)EOF"') { $markerIdx = $i; break }
}
$newLines = @()
for ($i = 0; $i -lt $lines.Length; $i++) {
$lineNum = $i + 1
$line = $lines[$i]
# Keep the first line and the EOF-marker line untouched.
if ($i -eq 0 -or $i -eq $markerIdx) { $newLines += $line; continue }
# Drop the GPL license header (lines 2-17).
if ($lineNum -ge 2 -and $lineNum -le 17) { continue }
# Drop blank separator lines.
if ($line -match '^\s*$') { continue }
# Drop trailing whitespace.
$line = $line -replace '\s+$', ''
# Drop inline comments (anything from `--` to end of line).
$line = $line -replace '\s*--.*$', ''
# Shrink 4-space indent to 2-space.
$line = $line -replace '^( )', ' '
if ($line -match '^\s*$') { continue }
$newLines += $line
}
($newLines -join "`n") | Out-File -LiteralPath $path_isoffi -Encoding utf8 -NoNewline
$newLen = ((Get-Content -LiteralPath $path_isoffi -Raw -Encoding utf8) -replace '.*R"EOF\(--', '' -replace '-- \)EOF".*', '').Length
Write-Host "isoffi.lua trimmed: $literalLen -> $newLen bytes of raw string content."
}
}
& $msbuild_exe $path_pcsx_sln /p:Configuration=Release /p:Platform=x64 /p:PlatformToolset=v143 /m /v:minimal
# Locate luajit via scoop. `luajit.exe` is on PATH via scoop's shim;
# we use `scoop prefix` to find the install root for the include dir (needed to compile lpeg against luajit's headers).
# If scoop or luajit is missing, fail fast with an actionable message.
$luajit_prefix = & scoop prefix luajit 2>$null
if (-not $luajit_prefix -or -not (Test-Path (Join-Path $luajit_prefix 'bin/luajit.exe'))) {
write-error "luajit not found via 'scoop prefix luajit'. Install via: scoop install luajit"
exit 1
}
# Discover the luajit include dir by globbing `include/luajit-*`.
# This avoids hardcoding a specific version (e.g. `luajit-2.1`).
$luajit_include_root = Join-Path $luajit_prefix 'include'
$lua_inc_dir = Get-ChildItem -Path $luajit_include_root -Directory -Filter 'luajit-*' -ErrorAction SilentlyContinue |
Select-Object -First 1 -ExpandProperty FullName
if (-not $lua_inc_dir) {
write-error "No 'luajit-*' include dir found under '$luajit_include_root'. The scoop luajit install may be broken."
exit 1
}
# Generate lpeg.dll by compiling the 6 source files directly.
# `gcc` is on PATH (scoop's shim puts it there).
# The source files: lpcap.c lpcode.c lpcset.c lpprint.c lptree.c lpvm.c
# Link against luajit's import library (`libluajit-5.1.a`) for the Lua C API symbols (lua_*, luaL_*).
$luajit_lib_dir = Join-Path $luajit_prefix 'lib'
$lpeg_sources = @('lpcap.c', 'lpcode.c', 'lpcset.c', 'lpprint.c', 'lptree.c', 'lpvm.c')
$lpeg_compile_args = @(
'-O2', '-shared',
"-I$lua_inc_dir",
"-L$luajit_lib_dir",
'-o', 'lpeg.dll'
) + $lpeg_sources + @('-lluajit-5.1')
push-location $path_lpeg
& gcc @lpeg_compile_args
pop-location
# ════════════════════════════════════════════════════════════════════════════
# lfs (LuaFileSystem) — compiled from pcsx-redux's vendored luafilesystem source.
# Source: toolchain/pcsx-redux/third_party/luafilesystem/src/lfs.c
# Output: toolchain/lfs/lfs.dll
# ════════════════════════════════════════════════════════════════════════════
$path_lfs = join-path $path_toolchain 'lfs'
verify-path $path_lfs
$lfs_src = join-path $path_pcsx_redux 'third_party\luafilesystem\src\lfs.c'
$lfs_dll = join-path $path_lfs 'lfs.dll'
$lfs_dll_import = join-path $luajit_lib_dir 'libluajit-5.1.dll.a'
& gcc -O2 -shared "-I$lua_inc_dir" -o $lfs_dll $lfs_src $lfs_dll_import
# ════════════════════════════════════════════════════════════════════════════
# OpenBIOS — built from the PCSX-Redux source tree via make + mipsel-none-elf
# Output: toolchain\pcsx-redux\src\mips\openbios\openbios.bin
# ════════════════════════════════════════════════════════════════════════════
$path_openbios = join-path $path_pcsx_redux 'src\mips\openbios'
# Wipe stale *.dep files across src\mips.
# These cache absolute paths to the GCC headers directory; if the toolchain was upgraded (e.g. v14.2.0 → v16.1.0)
# Make reads the stale paths and aborts with "no rule to make target .../stddef.h".
# `make clean` in openbios only clears its own dir — subdirs like common/crt0/, modplayer/, and shell/ keep their stale .dep files.
# Easier to just delete the lot before each build than to teach every Makefile about deepclean recursion.
Get-ChildItem -Path (join-path $path_pcsx_redux 'src\mips') -Recurse -Filter '*.dep' -ErrorAction SilentlyContinue |
ForEach-Object { Remove-Item -LiteralPath $_.FullName -Force }
push-location $path_openbios
& make clean
& make
pop-location
Submodule toolchain/psyq_iwyu added at 5cbf9f68d1