#include "../core.h" #include "../utils/mut.h" u8 elType2type[] = { [el_i8 ] = t_i8arr, [el_c8 ] = t_c8arr, [el_i16] = t_i16arr,[el_c16] = t_c16arr, [el_i32] = t_i32arr,[el_c32] = t_c32arr, [el_bit] = t_bitarr,[el_f64] = t_f64arr, [el_B] = t_invalid, [el_MAX] = t_invalid }; u8 elTypeWidth[] = { [el_i8 ] = 1, [el_c8 ] = 1, [el_i16] = 2, [el_c16] = 2, [el_i32] = 4, [el_c32] = 4, [el_f64] = 8, [el_B ] = 8, [el_bit] = 0 }; u8 elwBitLogT[] = { [el_i8 ] = 3, [el_c8 ] = 3, [el_i16] = 4, [el_c16] = 4, [el_i32] = 5, [el_c32] = 5, [el_f64] = 6, [el_B ] = 6, [el_bit] = 0 }; u8 elwByteLogT[] = { [el_i8 ] = 0, [el_c8 ] = 0, [el_i16] = 1, [el_c16] = 1, [el_i32] = 2, [el_c32] = 2, [el_f64] = 3, [el_B ] = 3, [el_bit] = 99 }; u8 arrTypeWidthLog[] = { [t_bitarr]=0, // 0 for mut.c hack to allow restoring a bitarr offset from array pointer & arrTypeWidthLog-"corrected" element pointer [t_i8arr ]=0, [t_i8slice ]=0, [t_c8arr ]=0, [t_c8slice ]=0, [t_i16arr]=1, [t_i16slice]=1, [t_c16arr]=1, [t_c16slice]=1, [t_i32arr]=2, [t_i32slice]=2, [t_c32arr]=2, [t_c32slice]=2, [t_f64arr]=3, [t_f64slice]=3 }; u8 arrTypeBitsLog[] = { [t_bitarr]=0, [t_i8arr ]=3, [t_i8slice ]=3, [t_c8arr ]=3, [t_c8slice ]=3, [t_i16arr]=4, [t_i16slice]=4, [t_c16arr]=4, [t_c16slice]=4, [t_i32arr]=5, [t_i32slice]=5, [t_c32arr]=5, [t_c32slice]=5, [t_f64arr]=6, [t_f64slice]=6, [t_harr ]=6, [t_hslice ]=6, [t_fillarr]=6,[t_fillslice]=6 }; #define TU I8 #define TP(W,X) W##i8##X #include "tyarrTemplate.c" #define TU I16 #define TP(W,X) W##i16##X #include "tyarrTemplate.c" #define TU I32 #define TP(W,X) W##i32##X #include "tyarrTemplate.c" #define TU C8 #define TP(W,X) W##c8##X #include "tyarrTemplate.c" #define TU C16 #define TP(W,X) W##c16##X #include "tyarrTemplate.c" #define TU C32 #define TP(W,X) W##c32##X #include "tyarrTemplate.c" #define TU F64 #define TP(W,X) W##f64##X #include "tyarrTemplate.c" NOINLINE B m_caf64(usz sz, f64* a) { f64* rp; B r = m_f64arrv(&rp, sz); memcpy(rp, a, sz*sizeof( f64)); return r; } NOINLINE B m_cai32(usz sz, i32* a) { i32* rp; B r = m_i32arrv(&rp, sz); memcpy(rp, a, sz*sizeof( i32)); return r; } NOINLINE B m_c8vec(char* a, i64 sz) { u8* rp; B r = m_c8arrv (&rp, sz); memcpy(rp, a, sz*sizeof(char)); return r; } NOINLINE B m_c32vec(u32* s, i64 sz) { u32* rp; B r = m_c32arrv(&rp, sz); memcpy(rp, s, sz*sizeof( u32)); return r; } NOINLINE B m_c8vec_0(char* s) { return m_c8vec(s, strlen(s)); } NOINLINE B m_c32vec_0(u32* s) { usz sz=0; while(s[sz]) sz++; return m_c32vec(s, sz); } static Arr* bitarr_slice(B x, usz s, usz ia) { u64* rp; Arr* r = m_bitarrp(&rp, ia); bit_cpy(rp, 0, bitarr_ptr(x), s, ia); ptr_dec(v(x)); return r; } static B bitarr_get(Arr* x, usz n) { assert(PTY(x)==t_bitarr); return bitp_get((u64*)((BitArr*)x)->a, n)? m_f64(1) : m_f64(0); } static bool bitarr_canStore(B x) { return q_bit(x); } static void bitarr_init(void) { TIi(t_bitarr,get) = bitarr_get; TIi(t_bitarr,getU) = bitarr_get; TIi(t_bitarr,slice) = bitarr_slice; TIi(t_bitarr,freeO) = tyarr_freeO; TIi(t_bitarr,freeF) = tyarr_freeF; TIi(t_bitarr,visit) = arr_visit; TIi(t_bitarr,print) = farr_print; TIi(t_bitarr,isArr) = true; TIi(t_bitarr,arrD1) = true; TIi(t_bitarr,elType) = el_bit; TIi(t_bitarr,canStore) = bitarr_canStore; } void tyarr_init(void) { i8arr_init(); i16arr_init(); i32arr_init(); bitarr_init(); c8arr_init(); c16arr_init(); c32arr_init(); f64arr_init(); { u64* tmp; bi_emptyIVec = m_bitarrv(&tmp, 0); gc_add(bi_emptyIVec); } { u8* tmp; bi_emptyCVec = m_c8arrv (&tmp, 0); gc_add(bi_emptyCVec); } Arr* emptySVec = arr_shVec(m_fillarrpEmpty(emptyCVec())); bi_emptySVec = taga(emptySVec); gc_add(bi_emptySVec); }