messing around (intent scripting lang)

This commit is contained in:
ed
2026-06-15 19:34:20 -04:00
parent f9832b07b3
commit 4514487283
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# Sample Ideation
```go
// Intent: Read a massive binary file, process it in a 16-core wavefront,
// and maintain a globally accurate sum without pipeline tearing.
BinSum: tape {
// 1. WAVEFRONT SPAWN: Boot 16 cores into a persistent wave
wave 16 {
// 2. SCALAR MASK: Only Lane 0 touches the LSU to read the file
shared_data: Lsu := NIL
scalar {
shared_data := scan "massive_dataset.bin"
}
// 3. BROADCAST: Lane 0 shuffles the pointer to all ALU registers
shared_data bcast
// 4. EXU SILOING: Cast the shared data to the Execution Unit
// The JIT now knows it can sever the LSU connection for the loop.
local_view: Exu := shared_data
// 5. WAVE SLICE: Hardware lanes self-distribute the workload
// No job queues. No mutexes. Pure math slicing.
local_sum := 0
local_view -> slice -> map {
// Postfix math: local_sum = local_sum + current_element
local_sum := local_sum . +
}
// 6. SOLID PACT: Sync the local sums to a global tally
// Uses a sequential pulse (atomic CAS / xchg) to send an RFO
// across the mesh network, locking the L1 SRAM.
global_tally: Lsu := 0
global_tally local_sum pulse_seq
// 7. LOCKSTEP: Halt the Out-of-Order decoders until all lanes finish
sync
// 8. SCALAR AUDIT: Lane 0 prints the hardware-verified result
scalar {
audit "Wavefront complete. Tally: " global_tally +
}
}
}
BinSum exec <- [route(err: Error) -> audit "Wavefront collapsed: " err + ]
```
Try/Catch (AI assumed I wanted this in the v1.2 report..)? (I personally don't like try/catch patterns...)
```go
// Intent: Read a massive binary file, process it in a 16-core wavefront,
// and maintain a globally accurate sum without pipeline tearing.
try {
tape {
// 1. WAVEFRONT SPAWN: Boot 16 cores into a persistent wave
wave 16 {
// 2. SCALAR MASK: Only Lane 0 touches the LSU to read the file
shared_data: Lsu := NIL
scalar {
shared_data := scan "massive_dataset.bin"
}
// 3. BROADCAST: Lane 0 shuffles the pointer to all ALU registers
shared_data bcast
// 4. EXU SILOING: Cast the shared data to the Execution Unit
// The JIT now knows it can sever the LSU connection for the loop.
local_view: Exu := shared_data
// 5. WAVE SLICE: Hardware lanes self-distribute the workload
// No job queues. No mutexes. Pure math slicing.
local_sum := 0
local_view -> slice -> map {
// Postfix math: local_sum = local_sum + current_element
local_sum := local_sum . +
}
// 6. SOLID PACT: Sync the local sums to a global tally
// Uses a sequential pulse (atomic CAS / xchg) to send an RFO
// across the mesh network, locking the L1 SRAM.
global_tally: Lsu := 0
global_tally local_sum pulse_seq
// 7. LOCKSTEP: Halt the Out-of-Order decoders until all lanes finish
sync
// 8. SCALAR AUDIT: Lane 0 prints the hardware-verified result
scalar {
audit "Wavefront complete. Tally: " global_tally +
}
}
}
} recover err {
audit "Wavefront collapsed: " err +
}
```
```go
// Intent: Generate an illustrated Markdown transcript using a Sub-Agent to identify
// key visual frames, extracting them in parallel, and ensuring perfect chronological order.
vid_url := "https://youtube.com/watch?v=dQw4w9WgXcQ"
out_file := "illustrated_transcript.md"
try {
tape {
// 1. WAVEFRONT SPAWN: Boot 8 cores for parallel extraction
wave 8 {
// Declare Live/Volatile memory for cross-lane communication
transcript_data: Lsu := NIL
key_timestamps: Lsu := NIL
md_blocks: Lsu := NIL
// 2. SCALAR MASK: Lane 0 handles the sequential API calls
scalar {
// Read transcript (returns array of {start_sec, text})
transcript_data := scan vid_url "/transcript" +
// Invoke sub-agent via MCP. Infix function call.
// Returns an array of integers (crucial seconds).
prompt_str := "Analyze this transcript. Return a JSON array of the 5 most visually important timestamps in seconds."
key_timestamps := transcript_data -> ask_agent(prompt_str)
// Pre-allocate the Markdown block array to prevent Out-of-Order scrambling
md_blocks := Array(transcript_data.length)
}
// 3. BROADCAST: Lane 0 pulses the pointers to all other lanes
transcript_data bcast
key_timestamps bcast
md_blocks bcast
// 4. EXU SILOING: Pull pointers into the Execution Unit (Registers)
// The JIT severs the LSU connection for fast local iteration.
local_transcript: Exu := transcript_data
local_keys: Exu := key_timestamps
// 5. WAVE SLICE: Lanes self-distribute the transcript array
local_transcript -> slice -> map {
// Context variables
idx := .index
block := .value
// Default block text
final_str := block.text "\n\n" +
// Postfix math/logic: Check if block.start_sec is in local_keys
is_key := local_keys block.start_sec contains
if is_key {
// Frame extraction via shell exec
img_name := "frame_" block.start_sec + ".jpg" +
exec_cmd := "yt-dlp --extract-frame " block.start_sec + " " + vid_url + " -o " + img_name +
exec exec_cmd
// Postfix string concatenation for the Markdown image embed
img_md := "![" block.start_sec + "s](" + img_name + ")\n\n" +
final_str := img_md final_str +
}
// 6. SOLID PACT (Latch): Safely write the string to the pre-allocated slot
// tact_rel_ (Release) drains the Store Buffer, ensuring the string data
// is fully written to memory before the pointer is latched into the array.
md_blocks[idx] final_str latch_rel
}
// 7. LOCKSTEP: Halt all instruction decoders until all frames are extracted
sync
// 8. SCALAR FOLD & AUDIT: Lane 0 re-awakens to assemble and save the file
scalar {
// Fold the perfectly ordered array into a single string
final_markdown := md_blocks -> fold "" { acc .value + }
sandbox {
// Formalized write to the disk/Model
write out_file final_markdown
audit "Generated illustrated transcript for: " vid_url +
}
}
}
}
} recover err {
audit "Pipeline execution collapsed: " err +
}
```