package simd import "core:intrinsics" add :: intrinsics.simd_add sub :: intrinsics.simd_sub mul :: intrinsics.simd_mul div :: intrinsics.simd_div rem :: intrinsics.simd_rem // Keeps Odin's Behaviour // (x << y) if y <= mask else 0 shl :: intrinsics.simd_shl shr :: intrinsics.simd_shr // Similar to C's Behaviour // x << (y & mask) shl_masked :: intrinsics.simd_shl_masked shr_masked :: intrinsics.simd_shr_masked and :: intrinsics.simd_and or :: intrinsics.simd_or xor :: intrinsics.simd_xor neg :: intrinsics.simd_neg abs :: intrinsics.simd_abs min :: intrinsics.simd_min max :: intrinsics.simd_max eq :: intrinsics.simd_eq ne :: intrinsics.simd_ne lt :: intrinsics.simd_lt le :: intrinsics.simd_le gt :: intrinsics.simd_gt ge :: intrinsics.simd_ge extract :: intrinsics.simd_extract replace :: intrinsics.simd_replace reduce_add_ordered :: intrinsics.simd_reduce_add_ordered reduce_mul_ordered :: intrinsics.simd_reduce_mul_ordered reduce_min :: intrinsics.simd_reduce_min reduce_max :: intrinsics.simd_reduce_max reduce_and :: intrinsics.simd_reduce_and reduce_or :: intrinsics.simd_reduce_or reduce_xor :: intrinsics.simd_reduce_xor splat :: #force_inline proc "contextless" ($T: typeid/#simd[$LANES]$E, value: E) -> T { return T{0.. ^[LANES]E { return (^[LANES]E)(v) } to_array :: #force_inline proc "contextless" (v: #simd[$LANES]$E) -> [LANES]E { return transmute([LANES]E)(v) } from_array :: #force_inline proc "contextless" (v: $A/[$LANES]$E) -> #simd[LANES]E where LANES & (LANES-1) == 0 { return transmute(#simd[LANES]E)v } from_slice :: proc($T: typeid/#simd[$LANES]$E, slice: []E) -> T where LANES & (LANES-1) == 0 { assert(len(slice) >= LANES, "slice length must be a least the number of lanes") array: [LANES]E #no_bounds_check for i in 0..