ref: 14ce7d4eedd90cc6f6bcdb630f3ebbb843288067
dir: /sim.c/
#include "gbuffer.h"
#include "mark.h"
#include "sim.h"
#if 0
ORCA_FORCE_STATIC_INLINE void stupid_memcpy(char* restrict dest,
char* restrict src, size_t sz) {
for (size_t i = 0; i < sz; ++i) {
dest[i] = src[i];
}
}
#define ORCA_MEMCPY(_dest, _src, _sz) memcpy(_dest, _src, _sz)
#endif
//////// Utilities
static Glyph const indexed_glyphs[] = {
'0', '1', '2', '3', '4', '5', '6', '7', '8', '9', 'a', 'b', 'c', 'd',
'e', 'f', 'g', 'h', 'i', 'j', 'k', 'l', 'm', 'n', 'o', 'p', 'q', 'r',
's', 't', 'u', 'v', 'w', 'x', 'y', 'z', '.', '*', ':', ';', '#',
};
enum { Glyphs_array_num = sizeof indexed_glyphs };
static inline Glyph glyph_lowered(Glyph c) {
return (c >= 'A' && c <= 'Z') ? (char)(c - ('a' - 'A')) : c;
}
// Always returns 0 through (sizeof indexed_glyphs) - 1, and works on
// capitalized glyphs as well. The index of the lower-cased glyph is returned
// if the glyph is capitalized.
static inline Usz semantic_index_of_glyph(Glyph c) {
Glyph c0 = glyph_lowered(c);
if (c0 == '.')
return 0;
for (Usz i = 0; i < Glyphs_array_num; ++i) {
if (indexed_glyphs[i] == c0)
return i;
}
return 0;
}
static inline Glyph glyphs_add(Glyph a, Glyph b) {
Usz ia = semantic_index_of_glyph(a);
Usz ib = semantic_index_of_glyph(b);
return indexed_glyphs[(ia + ib) % Glyphs_array_num];
}
static inline Glyph glyphs_mod(Glyph a, Glyph b) {
Usz ia = semantic_index_of_glyph(a);
Usz ib = semantic_index_of_glyph(b);
return indexed_glyphs[ib == 0 ? 0 : (ia % ib)];
}
// todo check if these inlines are actually being inlinded -- might be bad,
// should probably mark them not inlined
static inline bool oper_has_neighboring_bang(Gbuffer gbuf, Usz h, Usz w, Usz y,
Usz x) {
return gbuffer_peek_relative(gbuf, h, w, y, x, 0, 1) == '*' ||
gbuffer_peek_relative(gbuf, h, w, y, x, 0, -1) == '*' ||
gbuffer_peek_relative(gbuf, h, w, y, x, 1, 0) == '*' ||
gbuffer_peek_relative(gbuf, h, w, y, x, -1, 0) == '*';
}
static inline void oper_move_relative_or_explode(Gbuffer gbuf, Mbuffer mbuf,
Usz height, Usz width,
Glyph moved, Usz y, Usz x,
Isz delta_y, Isz delta_x) {
Isz y0 = (Isz)y + delta_y;
Isz x0 = (Isz)x + delta_x;
if (y0 >= (Isz)height || x0 >= (Isz)width || y0 < 0 || x0 < 0) {
gbuf[y * width + x] = '*';
return;
}
Glyph* at_dest = gbuf + (Usz)y0 * width + (Usz)x0;
if (*at_dest != '.') {
gbuf[y * width + x] = '*';
mbuffer_poke_flags_or(mbuf, height, width, y, x, Mark_flag_sleep);
return;
}
*at_dest = moved;
mbuffer_poke_flags_or(mbuf, height, width, (Usz)y0, (Usz)x0, Mark_flag_sleep);
gbuf[y * width + x] = '.';
}
typedef struct {
Bank* bank;
Usz size;
} Oper_bank_write_params;
typedef struct {
Bank* bank;
Usz size;
Bank_cursor cursor;
} Oper_bank_read_params;
// static may cause warning if programmer doesn't use bank storage
void oper_bank_store(Oper_bank_write_params* bank_params, Usz width, Usz y,
Usz x, I32* restrict vals, Usz num_vals) {
assert(num_vals > 0);
Usz index = y * width + x;
assert(index < ORCA_BANK_INDEX_MAX);
bank_params->size =
bank_append(bank_params->bank, bank_params->size, index, vals, num_vals);
}
Usz oper_bank_load(Oper_bank_read_params* bank_params, Usz width, Usz y, Usz x,
I32* restrict out_vals, Usz out_count) {
Usz index = y * width + x;
assert(index < ORCA_BANK_INDEX_MAX);
return bank_read(bank_params->bank->data, bank_params->size,
&bank_params->cursor, index, out_vals, out_count);
}
ORCA_FORCE_STATIC_INLINE
Usz usz_clamp(Usz val, Usz min, Usz max) {
if (val < min)
return min;
if (val > max)
return max;
return val;
}
#if defined(__GNUC__) || defined(__clang__)
#define ORCA_ASSERT_IS_ARRAY(_array) \
(sizeof(char[1 - 2 * __builtin_types_compatible_p( \
__typeof(_array), __typeof(&(_array)[0]))]) - \
1)
#define ORCA_ARRAY_COUNTOF(_array) \
(sizeof(_array) / sizeof((_array)[0]) + ORCA_ASSERT_IS_ARRAY(_array))
#else
// pray
#define ORCA_ARRAY_COUNTOF(_array) (sizeof(_array) / sizeof(_array[0]))
#endif
#define ORCA_EXPAND_SOLO_OPER_CHARS(_oper_char, _oper_name) \
Orca_oper_char_##_oper_name = _oper_char,
#define ORCA_EXPAND_DUAL_OPER_CHARS(_upper_oper_char, _lower_oper_char, \
_oper_name) \
Orca_oper_upper_char_##_oper_name = _upper_oper_char, \
Orca_oper_lower_char_##_oper_name = _lower_oper_char,
#define ORCA_DEFINE_OPER_CHARS(_solo_defs, _dual_defs) \
enum Orca_oper_chars { \
_solo_defs(ORCA_EXPAND_SOLO_OPER_CHARS) \
_dual_defs(ORCA_EXPAND_DUAL_OPER_CHARS) \
};
#define ORCA_DECLARE_OPERATORS(_solo_defs, _dual_defs) \
ORCA_DEFINE_OPER_CHARS(_solo_defs, _dual_defs)
#define OPER_PHASE_COMMON_ARGS \
Gbuffer const gbuffer, Mbuffer const mbuffer, Usz const height, \
Usz const width, Usz const y, Usz const x, Usz Tick_number
#define OPER_PHASE_0_COMMON_ARGS \
OPER_PHASE_COMMON_ARGS, Oper_bank_write_params *const bank_params, \
U8 const cell_flags
#define OPER_PHASE_1_COMMON_ARGS \
OPER_PHASE_COMMON_ARGS, Oper_bank_read_params* const bank_params
#define OPER_IGNORE_COMMON_ARGS() \
(void)gbuffer; \
(void)mbuffer; \
(void)height; \
(void)width; \
(void)y; \
(void)x; \
(void)Tick_number; \
(void)bank_params;
#define OPER_PHASE_SPEC static inline
#define BEGIN_SOLO_PHASE_0(_oper_name) \
OPER_PHASE_SPEC void oper_phase0_##_oper_name(OPER_PHASE_0_COMMON_ARGS) { \
OPER_IGNORE_COMMON_ARGS() \
(void)cell_flags; \
enum { This_oper_char = Orca_oper_char_##_oper_name };
#define BEGIN_SOLO_PHASE_1(_oper_name) \
OPER_PHASE_SPEC void oper_phase1_##_oper_name(OPER_PHASE_1_COMMON_ARGS) { \
OPER_IGNORE_COMMON_ARGS() \
enum { This_oper_char = Orca_oper_char_##_oper_name };
#define BEGIN_DUAL_PHASE_0(_oper_name) \
OPER_PHASE_SPEC void oper_phase0_##_oper_name(OPER_PHASE_0_COMMON_ARGS, \
Glyph const This_oper_char) { \
OPER_IGNORE_COMMON_ARGS() \
(void)cell_flags; \
bool const Dual_is_uppercase = \
Orca_oper_upper_char_##_oper_name == This_oper_char; \
(void)Dual_is_uppercase;
#define BEGIN_DUAL_PHASE_1(_oper_name) \
OPER_PHASE_SPEC void oper_phase1_##_oper_name(OPER_PHASE_1_COMMON_ARGS, \
Glyph const This_oper_char) { \
OPER_IGNORE_COMMON_ARGS() \
bool const Dual_is_uppercase = \
Orca_oper_upper_char_##_oper_name == This_oper_char; \
(void)Dual_is_uppercase;
#define END_PHASE }
#define INDEX(_glyph) semantic_index_of_glyph(_glyph)
#define GLYPH(_index) indexed_glyphs[_index]
#define PEEK(_delta_y, _delta_x) \
gbuffer_peek_relative(gbuffer, height, width, y, x, _delta_y, _delta_x)
#define POKE(_delta_y, _delta_x, _glyph) \
gbuffer_poke_relative(gbuffer, height, width, y, x, _delta_y, _delta_x, \
_glyph)
#define BECOME(_glyph) gbuffer_poke(gbuffer, height, width, y, x, _glyph)
#define STUN(_delta_y, _delta_x) \
mbuffer_poke_relative_flags_or(mbuffer, height, width, y, x, _delta_y, \
_delta_x, Mark_flag_sleep)
#define LOCK(_delta_y, _delta_x) \
mbuffer_poke_relative_flags_or(mbuffer, height, width, y, x, _delta_y, \
_delta_x, Mark_flag_lock)
#define STORE(_i32_array) \
oper_bank_store(bank_params, width, y, x, _i32_array, \
ORCA_ARRAY_COUNTOF(_i32_array))
#define LOAD(_i32_array) \
oper_bank_load(bank_params, width, y, x, _i32_array, \
ORCA_ARRAY_COUNTOF(_i32_array))
#define IN Mark_flag_input
#define OUT Mark_flag_output
#define NONLOCKING Mark_flag_lock
#define HASTE Mark_flag_haste_input
#define REALIZE_DUAL \
bool const Dual_is_active = \
Dual_is_uppercase | \
oper_has_neighboring_bang(gbuffer, height, width, y, x);
#define PSEUDO_DUAL bool const Dual_is_active = true
#define BEGIN_DUAL_PORTS \
{ \
bool const Oper_ports_enabled = Dual_is_active;
#define DUAL_IS_ACTIVE Dual_is_active
#define IS_AWAKE (!(cell_flags & (Mark_flag_lock | Mark_flag_sleep)))
#define STOP_IF_DUAL_INACTIVE \
if (!Dual_is_active) \
return
#define STOP_IF_NOT_BANGED \
if (!oper_has_neighboring_bang(gbuffer, height, width, y, x)) \
return
#define END_IF }
#define OPER_PORT_IO_MASK \
(Mark_flag_input | Mark_flag_output | Mark_flag_haste_input)
#define OPER_PORT_CELL_ENABLING_MASK (Mark_flag_lock | Mark_flag_sleep)
#define OPER_PORT_FLIP_LOCK_BIT(_flags) ((_flags) ^ Mark_flag_lock)
#define PORT(_delta_y, _delta_x, _flags) \
mbuffer_poke_relative_flags_or( \
mbuffer, height, width, y, x, _delta_y, _delta_x, \
((_flags)&OPER_PORT_IO_MASK) | \
(Oper_ports_enabled && !(cell_flags & OPER_PORT_CELL_ENABLING_MASK) \
? OPER_PORT_FLIP_LOCK_BIT(_flags) \
: Mark_flag_none))
#define END_PORTS }
#define BEGIN_HASTE if (!(cell_flags & (Mark_flag_lock | Mark_flag_sleep))) {
#define END_HASTE }
#define OPER_MOVE_OR_EXPLODE(_delta_y, _delta_x) \
oper_move_relative_or_explode(gbuffer, mbuffer, height, width, \
This_oper_char, y, x, _delta_y, _delta_x)
#define MOVING_OPERATOR(_oper_name, _delta_y, _delta_x) \
BEGIN_DUAL_PHASE_0(_oper_name) \
BEGIN_HASTE \
REALIZE_DUAL; \
STOP_IF_DUAL_INACTIVE; \
OPER_MOVE_OR_EXPLODE(_delta_y, _delta_x); \
END_HASTE \
END_PHASE \
BEGIN_DUAL_PHASE_1(_oper_name) \
END_PHASE
//////// Operators
#define ORCA_SOLO_OPERATORS(_) \
_('#', comment) \
_('*', bang)
#define ORCA_DUAL_OPERATORS(_) \
_('N', 'n', north) \
_('E', 'e', east) \
_('S', 's', south) \
_('W', 'w', west) \
_('Z', 'z', southeast) \
_('A', 'a', add) \
_('B', 'b', banger) \
_('D', 'd', delay) \
_('F', 'f', if) \
_('G', 'g', generator) \
_('H', 'h', halt) \
_('I', 'i', increment) \
_('J', 'j', jump) \
_('K', 'k', kill) \
_('L', 'l', loop) \
_('M', 'm', modulo) \
_('O', 'o', offset) \
_('P', 'p', push) \
_('Q', 'q', count) \
_('R', 'r', random) \
_('T', 't', track) \
_('U', 'u', uturn) \
_('V', 'v', beam) \
_('X', 'x', teleport)
ORCA_DECLARE_OPERATORS(ORCA_SOLO_OPERATORS, ORCA_DUAL_OPERATORS)
MOVING_OPERATOR(north, -1, 0)
MOVING_OPERATOR(east, 0, 1)
MOVING_OPERATOR(south, 1, 0)
MOVING_OPERATOR(west, 0, -1)
MOVING_OPERATOR(southeast, 1, 1)
#define MOVEMENT_CASES \
'N' : case 'n' : case 'E' : case 'e' : case 'S' : case 's' : case 'W' \
: case 'w' : case 'Z' : case 'z'
BEGIN_SOLO_PHASE_0(bang)
BEGIN_HASTE
BECOME('.');
END_HASTE
END_PHASE
BEGIN_SOLO_PHASE_1(bang)
END_PHASE
BEGIN_SOLO_PHASE_0(comment)
if (!IS_AWAKE)
return;
Glyph* line = gbuffer + y * width;
Usz max_x = x + 255;
if (width < max_x)
max_x = width;
for (Usz x0 = x + 1; x0 < max_x; ++x0) {
Glyph g = line[x0];
mbuffer_poke_flags_or(mbuffer, height, width, y, x0, Mark_flag_lock);
if (g == '#')
break;
}
END_PHASE
BEGIN_SOLO_PHASE_1(comment)
END_PHASE
BEGIN_DUAL_PHASE_0(add)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(0, 1, IN);
PORT(0, 2, IN);
PORT(1, 0, OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(add)
REALIZE_DUAL;
STOP_IF_DUAL_INACTIVE;
POKE(1, 0, glyphs_add(PEEK(0, 1), PEEK(0, 2)));
END_PHASE
BEGIN_DUAL_PHASE_0(banger)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(0, 1, IN | NONLOCKING);
PORT(1, 0, OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(banger)
REALIZE_DUAL;
STOP_IF_DUAL_INACTIVE;
Glyph g = PEEK(0, 1);
Glyph result;
switch (g) {
case '1':
case '*':
case MOVEMENT_CASES:
result = '*';
break;
default:
result = '.';
}
POKE(1, 0, result);
END_PHASE
BEGIN_DUAL_PHASE_0(delay)
PSEUDO_DUAL;
bool out_is_nonlocking = false;
if (DUAL_IS_ACTIVE) {
BEGIN_HASTE
out_is_nonlocking = INDEX(PEEK(0, -2)) == 0;
END_HASTE
}
BEGIN_DUAL_PORTS
PORT(0, -2, IN | HASTE);
PORT(0, -1, IN | HASTE);
PORT(1, 0, OUT | (out_is_nonlocking ? NONLOCKING : 0));
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(delay)
REALIZE_DUAL;
STOP_IF_DUAL_INACTIVE;
Usz tick = INDEX(PEEK(0, -2));
Glyph timer = PEEK(0, -1);
POKE(0, -2, tick == 0 ? timer : GLYPH(tick - 1));
END_PHASE
BEGIN_DUAL_PHASE_0(if)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(0, 1, IN);
PORT(0, 2, IN);
PORT(1, 0, OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(if)
REALIZE_DUAL;
STOP_IF_DUAL_INACTIVE;
Glyph g0 = PEEK(0, 1);
Glyph g1 = PEEK(0, 2);
POKE(1, 0, g0 == g1 ? '1' : '0');
END_PHASE
BEGIN_DUAL_PHASE_0(generator)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(0, 1, IN);
PORT(1, 0, OUT | NONLOCKING);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(generator)
STOP_IF_NOT_BANGED;
POKE(1, 0, PEEK(0, 1));
STUN(0, 1);
END_PHASE
BEGIN_DUAL_PHASE_0(halt)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(1, 0, OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(halt)
END_PHASE
BEGIN_DUAL_PHASE_0(increment)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(0, 1, IN);
PORT(0, 2, IN);
PORT(1, 0, IN | OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(increment)
REALIZE_DUAL;
STOP_IF_DUAL_INACTIVE;
Usz min = INDEX(PEEK(0, 1));
Usz max = INDEX(PEEK(0, 2));
Usz val = INDEX(PEEK(1, 0));
++val;
if (max == 0)
max = 10;
if (val >= max)
val = min;
POKE(1, 0, GLYPH(val));
END_PHASE
BEGIN_DUAL_PHASE_0(jump)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(-1, 0, IN);
PORT(1, 0, OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(jump)
REALIZE_DUAL;
STOP_IF_DUAL_INACTIVE;
POKE(1, 0, PEEK(-1, 0));
END_PHASE
BEGIN_DUAL_PHASE_0(kill)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(1, 0, OUT | HASTE);
END_PORTS
STOP_IF_DUAL_INACTIVE;
BEGIN_HASTE
POKE(1, 0, '.');
END_HASTE
END_PHASE
BEGIN_DUAL_PHASE_1(kill)
END_PHASE
BEGIN_DUAL_PHASE_0(loop)
PSEUDO_DUAL;
BEGIN_DUAL_PORTS
PORT(0, -1, IN | HASTE);
END_PORTS
if (IS_AWAKE) {
Usz len = usz_clamp(INDEX(PEEK(0, -1)), 1, 16);
I32 len_data[1];
len_data[0] = (I32)len;
STORE(len_data);
// todo optimize
for (Usz i = 0; i < len; ++i) {
LOCK(0, (Isz)i + 1);
}
}
END_PHASE
BEGIN_DUAL_PHASE_1(loop)
I32 len_data[1];
// todo should at least stun the 1 column if columns is 1
if (LOAD(len_data) && len_data[0] >= 1 && len_data[0] <= 16) {
Usz len = (Usz)len_data[0];
Glyph buff[15];
Glyph* gs = gbuffer + y * width + x + 1;
Glyph hopped = *gs;
// ORCA_MEMCPY(buff, gs + 1, len - 1);
for (Usz i = 0; i < len - 1; ++i) {
buff[i] = gs[i + 1];
}
buff[len - 1] = hopped;
// ORCA_MEMCPY(gs, buff, len);
for (Usz i = 0; i < len; ++i) {
gs[i] = buff[i];
}
for (Usz i = 0; i < len; ++i) {
STUN(0, (Isz)i + 1);
}
}
END_PHASE
BEGIN_DUAL_PHASE_0(modulo)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(0, 1, IN);
PORT(0, 2, IN);
PORT(1, 0, OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(modulo)
REALIZE_DUAL;
STOP_IF_DUAL_INACTIVE;
POKE(1, 0, glyphs_mod(PEEK(0, 1), PEEK(0, 2)));
END_PHASE
BEGIN_DUAL_PHASE_0(offset)
REALIZE_DUAL;
I32 coords[2];
coords[0] = 0; // y
coords[1] = 1; // x
if (DUAL_IS_ACTIVE) {
coords[0] = (I32)usz_clamp(INDEX(PEEK(0, -1)), 0, 16);
coords[1] = (I32)usz_clamp(INDEX(PEEK(0, -2)) + 1, 1, 16);
STORE(coords);
}
BEGIN_DUAL_PORTS
PORT(0, -1, IN | HASTE);
PORT(0, -2, IN | HASTE);
PORT(coords[0], coords[1], IN);
PORT(1, 0, OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(offset)
REALIZE_DUAL;
STOP_IF_DUAL_INACTIVE;
I32 coords[2];
if (!LOAD(coords)) {
coords[0] = 0;
coords[1] = 1;
}
POKE(1, 0, PEEK(coords[0], coords[1]));
STUN(1, 0);
END_PHASE
BEGIN_DUAL_PHASE_0(push)
REALIZE_DUAL;
I32 write_val_x[1];
write_val_x[0] = 0;
if (DUAL_IS_ACTIVE && IS_AWAKE) {
Usz len = usz_clamp(INDEX(PEEK(0, -1)), 1, 16);
Usz key = INDEX(PEEK(0, -2));
write_val_x[0] = (I32)(key % len);
STORE(write_val_x);
for (Isz i = 0; i < write_val_x[0]; ++i) {
LOCK(1, i);
}
}
BEGIN_DUAL_PORTS
PORT(0, -1, IN | HASTE);
PORT(0, -2, IN | HASTE);
PORT(0, 1, IN);
PORT(1, (Isz)write_val_x, OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(push)
STOP_IF_NOT_BANGED;
I32 write_val_x[1];
if (!LOAD(write_val_x)) {
write_val_x[0] = 0;
}
POKE(1, write_val_x[0], PEEK(0, 1));
END_PHASE
BEGIN_DUAL_PHASE_0(count)
PSEUDO_DUAL;
BEGIN_DUAL_PORTS
PORT(0, -1, IN | HASTE);
PORT(1, 0, OUT);
END_PORTS
if (IS_AWAKE) {
Usz len = usz_clamp(INDEX(PEEK(0, -1)), 0, 16) + 1;
I32 len_data[1];
len_data[0] = (I32)len;
STORE(len_data);
Usz max_x = x + len;
if (max_x > width)
max_x = width;
U8* i = mbuffer + y * width + x + 1;
U8* e = mbuffer + y * width + max_x;
while (i != e) {
*i = (U8)(*i | Mark_flag_lock);
++i;
}
}
END_PHASE
BEGIN_DUAL_PHASE_1(count)
I32 len_data[1];
if (LOAD(len_data) && len_data[0] >= 1 && len_data[0] <= 17) {
Usz len = (Usz)len_data[0];
Usz max_x = x + len;
if (max_x >= width)
max_x = width;
Glyph const* i = gbuffer + y * width + x + 1;
Glyph const* e = gbuffer + y * width + max_x;
Usz count = 0;
while (i != e) {
if (*i != '.')
++count;
++i;
}
Glyph g = GLYPH(count % Glyphs_array_num);
POKE(1, 0, g);
}
END_PHASE
BEGIN_DUAL_PHASE_0(random)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(0, 1, IN);
PORT(0, 2, IN);
PORT(1, 0, OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(random)
REALIZE_DUAL;
STOP_IF_DUAL_INACTIVE;
Usz a = INDEX(PEEK(0, 1));
Usz b = INDEX(PEEK(0, 2));
Usz min, max;
if (a == b) {
POKE(1, 0, GLYPH(a));
return;
} else if (a < b) {
min = a;
max = b;
} else {
min = b;
max = a;
}
Usz val = (y * 5 + x * 3) * Tick_number % (max - min) + min;
POKE(1, 0, GLYPH(val));
END_PHASE
BEGIN_DUAL_PHASE_0(track)
PSEUDO_DUAL;
Isz read_val_x = 1;
if (IS_AWAKE) {
Usz len = usz_clamp(INDEX(PEEK(0, -1)), 1, 16);
Usz key = INDEX(PEEK(0, -2));
read_val_x = (Isz)(key % len + 1);
I32 ival[1];
ival[0] = (I32)read_val_x;
STORE(ival);
for (Isz i = 0; i < read_val_x; ++i) {
LOCK(0, i + 1);
}
}
BEGIN_DUAL_PORTS
PORT(0, -1, IN | HASTE);
PORT(0, -2, IN | HASTE);
PORT(0, (Isz)read_val_x, IN);
PORT(1, 0, OUT);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(track)
I32 ival[1];
if (!LOAD(ival)) {
ival[0] = 1;
}
POKE(1, 0, PEEK(0, ival[0]));
STUN(1, 0);
END_PHASE
#define UTURN_DIRS(_) \
_(-1, 0, 'N') \
_(0, -1, 'W') \
_(0, 1, 'E') \
_(1, 0, 'S')
BEGIN_DUAL_PHASE_0(uturn)
REALIZE_DUAL;
BEGIN_DUAL_PORTS
#define X(_d_y, _d_x, _d_glyph) PORT(_d_y, _d_x, IN | OUT | HASTE | NONLOCKING);
UTURN_DIRS(X)
#undef X
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(uturn)
#define X(_d_y, _d_x, _d_glyph) \
{ \
Glyph g = PEEK(_d_y, _d_x); \
switch (g) { \
case MOVEMENT_CASES: \
POKE(_d_y, _d_x, _d_glyph); \
STUN(_d_y, _d_x); \
} \
}
UTURN_DIRS(X)
#undef X
END_PHASE
#undef UTURN_DIRS
BEGIN_DUAL_PHASE_0(beam)
if (!IS_AWAKE)
return;
Usz max_y = y + 255;
if (height < max_y)
max_y = height;
Glyph* col = gbuffer + x;
Usz y0 = y;
for (;;) {
if (y0 + 1 == max_y)
break;
Glyph g = col[width * (y0 + 1)];
if (g == '.' || g == '*')
break;
++y0;
}
I32 val_y[1];
val_y[0] = (I32)(y - y0);
STORE(val_y);
REALIZE_DUAL;
BEGIN_DUAL_PORTS
PORT(val_y[0], 0, OUT | NONLOCKING);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(beam)
STOP_IF_NOT_BANGED;
I32 val_y[1];
if (!LOAD(val_y))
val_y[0] = 1;
POKE(val_y[0], 0, '.');
END_PHASE
BEGIN_DUAL_PHASE_0(teleport)
REALIZE_DUAL;
I32 coords[2];
coords[0] = 0; // y
coords[1] = 1; // x
if (DUAL_IS_ACTIVE) {
coords[0] = (I32)usz_clamp(INDEX(PEEK(0, -1)), 0, 16);
coords[1] = (I32)usz_clamp(INDEX(PEEK(0, -2)), 1, 16);
STORE(coords);
}
BEGIN_DUAL_PORTS
PORT(0, -1, IN | HASTE);
PORT(0, -2, IN | HASTE);
PORT(1, 0, IN);
PORT(coords[0], coords[1], OUT | NONLOCKING);
END_PORTS
END_PHASE
BEGIN_DUAL_PHASE_1(teleport)
STOP_IF_NOT_BANGED;
I32 coords[2];
if (!LOAD(coords)) {
coords[0] = 0;
coords[1] = 1;
}
POKE(coords[0], coords[1], PEEK(0, 1));
STUN(coords[0], coords[1]);
END_PHASE
//////// Run simulation
#define SIM_EXPAND_SOLO_PHASE_0(_oper_char, _oper_name) \
case _oper_char: \
oper_phase0_##_oper_name(gbuf, mbuf, height, width, iy, ix, tick_number, \
bank_params, cell_flags); \
break;
#define SIM_EXPAND_SOLO_PHASE_1(_oper_char, _oper_name) \
case _oper_char: \
oper_phase1_##_oper_name(gbuf, mbuf, height, width, iy, ix, tick_number, \
bank_params); \
break;
#define SIM_EXPAND_DUAL_PHASE_0(_upper_oper_char, _lower_oper_char, \
_oper_name) \
case _upper_oper_char: \
case _lower_oper_char: \
oper_phase0_##_oper_name(gbuf, mbuf, height, width, iy, ix, tick_number, \
bank_params, cell_flags, glyph_char); \
break;
#define SIM_EXPAND_DUAL_PHASE_1(_upper_oper_char, _lower_oper_char, \
_oper_name) \
case _upper_oper_char: \
case _lower_oper_char: \
oper_phase1_##_oper_name(gbuf, mbuf, height, width, iy, ix, tick_number, \
bank_params, glyph_char); \
break;
static void sim_phase_0(Gbuffer gbuf, Mbuffer mbuf, Usz height, Usz width,
Usz tick_number, Oper_bank_write_params* bank_params) {
for (Usz iy = 0; iy < height; ++iy) {
Glyph* glyph_row = gbuf + iy * width;
for (Usz ix = 0; ix < width; ++ix) {
Glyph glyph_char = glyph_row[ix];
if (glyph_char == '.')
continue;
U8 cell_flags = mbuffer_peek(mbuf, height, width, iy, ix) &
(Mark_flag_lock | Mark_flag_sleep);
switch (glyph_char) {
ORCA_SOLO_OPERATORS(SIM_EXPAND_SOLO_PHASE_0)
ORCA_DUAL_OPERATORS(SIM_EXPAND_DUAL_PHASE_0)
}
}
}
}
static void sim_phase_1(Gbuffer gbuf, Mbuffer mbuf, Usz height, Usz width,
Usz tick_number, Oper_bank_read_params* bank_params) {
for (Usz iy = 0; iy < height; ++iy) {
Glyph* glyph_row = gbuf + iy * width;
for (Usz ix = 0; ix < width; ++ix) {
Glyph glyph_char = glyph_row[ix];
if (glyph_char == '.')
continue;
if (mbuffer_peek(mbuf, height, width, iy, ix) &
(Mark_flag_lock | Mark_flag_sleep))
continue;
switch (glyph_char) {
ORCA_SOLO_OPERATORS(SIM_EXPAND_SOLO_PHASE_1)
ORCA_DUAL_OPERATORS(SIM_EXPAND_DUAL_PHASE_1)
}
}
}
}
void orca_run(Gbuffer gbuf, Mbuffer mbuf, Usz height, Usz width,
Usz tick_number, Bank* bank) {
mbuffer_clear(mbuf, height, width);
Oper_bank_write_params bank_write_params;
bank_write_params.bank = bank;
bank_write_params.size = 0;
sim_phase_0(gbuf, mbuf, height, width, tick_number, &bank_write_params);
Oper_bank_read_params bank_read_params;
bank_read_params.bank = bank;
bank_read_params.size = bank_write_params.size;
bank_cursor_reset(&bank_read_params.cursor);
sim_phase_1(gbuf, mbuf, height, width, tick_number, &bank_read_params);
}