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8a5760450a84520316eee28fa3499b1f9bea90f9
BFM-decomp/src/800.c
T
Drew T 8a5760450a feat(decomp): main lane m15 — 16 banked 
One clean whole-EXE rebuild verified the batch (gate_main), and main re-checked
BYTE-IDENTICAL against config/check.us.sha before anything was credited.

  FGO_05_OBJ_64
  SYS_OBJ_1FF4
  VM_NOWON_OBJ_1C0
  func_800123F0
  func_8001404C
  func_80016ED4
  func_8001739C
  func_800178C8
  func_8001BFF8
  func_80028FDC
  func_8002A748
  func_80038308
  func_80041400
  func_8005D538
  func_8005E3AC
  func_8005EA34
2026-08-25 03:18:47 -06:00

19174 lines
531 KiB
C
Raw Blame History

#include "common.h"
#include "psyq/libcd.h"
#include "shared/clearTbl40.h" /* dedup group I0: func_80037004 / func_80037334 share one body */
typedef struct { u8 v; } W8;
typedef struct { s32 a; s32 b[4]; } OtBlk_80016450;
typedef struct {
/* 0x00 */ u16 type;
/* 0x02 */ u16 unk02;
/* 0x04 */ u16 x;
/* 0x06 */ u16 y;
/* 0x08 */ u16 w;
/* 0x0A */ u16 h;
/* 0x0C */ void *data;
} DispItem_800184F0;
typedef struct {
/* 0x00 */ s16 flag;
/* 0x02 */ s16 unk02;
/* 0x04 */ DispItem_800184F0 *list;
/* 0x08 */ u16 unk08;
/* 0x0A */ u16 unk0A;
/* 0x0C */ u8 unk0C;
/* 0x0D */ u8 unk0D;
/* 0x0E */ u16 unk0E;
} DispSlot_800184F0;
typedef struct Rec14 {
/* 0x00 */ u16 unk00;
/* 0x02 */ u16 unk02;
/* 0x04 */ u32 unk04;
/* 0x08 */ u32 unk08;
/* 0x0C */ u16 unk0C;
/* 0x0E */ u16 unk0E;
/* 0x10 */ u32 unk10;
} Rec14; /* 0x14 */
typedef struct Owner4EE8 {
/* 0x00 */ u8 pad00[0x14];
/* 0x14 */ Rec14 **unk14;
} Owner4EE8;
typedef struct {
s16 flag;
s16 pad02;
s32 id;
u16 x;
u16 y;
u8 c;
u8 d;
u16 pad0E;
} Rec;
typedef struct {
u8 pad[0xA1A8];
Rec rec[0x20];
} Base;
typedef struct {
s32 w[9];
} Blk36_800296F8;
typedef struct Slot {
/* 0x00 */ s32 unk00;
/* 0x04 */ s32 unk04;
/* 0x08 */ u8 unk08[0xC];
/* 0x14 */ s16 unk14;
/* 0x16 */ u8 unk16[2];
/* 0x18 */ s16 unk18;
/* 0x1A */ u8 unk1A[0x26];
/* 0x40 */ s32 unk40;
/* 0x44 */ u8 unk44;
/* 0x45 */ u8 unk45[3];
} Slot;
typedef struct {
u32 pad0;
u32 rgb0;
u32 rgb1;
u32 rgb2;
u16 n0;
u16 v0;
u16 v1;
u16 v2;
} TmdG3;
/* hoisted by gate_main so drafts above can reuse them (§181) */
typedef struct {
s16 unk00;
s16 unk02;
s16 unk04;
s16 unk06;
s16 unk08;
s16 unk0A;
s16 unk0C;
s16 unk0E;
u8 unk10;
u8 unk11;
u8 unk12;
u8 unk13;
s32 unk14;
} Rsc24; /* 0x18 */
typedef struct {
/* 0x00 */ u8 *unk00;
/* 0x04 */ u8 pad04[2];
/* 0x06 */ u8 unk06;
/* 0x07 */ u8 unk07;
/* 0x08 */ u8 unk08;
/* 0x09 */ u8 pad09[3];
} A12; /* 0x0C */
typedef struct {
/* 0x00 */ s32 unk00;
/* 0x04 */ s16 unk04;
/* 0x06 */ s16 unk06;
/* 0x08 */ s16 unk08;
/* 0x0A */ u8 unk0A;
/* 0x0B */ u8 unk0B;
} B12; /* 0x0C */
typedef struct {
/* 0x00 */ u8 pad00[4];
/* 0x04 */ u8 unk04;
/* 0x05 */ u8 pad05[11];
/* 0x10 */ u16 unk10;
/* 0x12 */ u16 unk12;
/* 0x14 */ u8 pad14[2];
/* 0x16 */ s16 unk16;
/* 0x18 */ u8 pad18[8];
} C24; /* 0x20 */
/* hoisted by gate_main so drafts above can reuse them (§181) */
typedef struct { /* 0x18 stride; D_800A463C + k*0x18 */
s32 unk00;
u8 unk04[0x14];
} Ent24;
typedef struct { /* base 0x80064D49, stride 0x0C */
u8 unk00;
u8 pad[11];
} Elm12;
/* hoisted by gate_main so drafts above can reuse them (§181) */
/* hoisted by gate_main so drafts above can reuse them (§181) */
typedef struct { /* base 0x80076240, stride 0x10 */
u16 unk00;
u16 unk02;
s32 unk04;
s32 unk08;
s32 unk0C;
} Slot16A;
typedef struct {
s32 unk00;
s32 unk04;
s32 unk08;
u8 unk0C;
u8 unk0D;
u8 unk0E;
u8 unk0F;
} Slot16; /* 0x10 */
typedef struct { s32 v; } W32;
/* hoisted by gate_main so drafts above can reuse them (§181) */
typedef struct { s16 vx, vy, vz, pad; } SVEC2; /* 0x08 */
typedef struct { /* 0x14 */
u32 w0; /* 0x00 */
u32 rgb; /* 0x04 */
u16 n0; /* 0x08 */
u16 v0; /* 0x0A */
u16 n1; /* 0x0C */
u16 v1; /* 0x0E */
u16 n2; /* 0x10 */
u16 v2; /* 0x12 */
} Face2;
typedef struct { /* 0x1C */
u32 tag;
u32 rgb0;
s16 x0, y0;
u32 rgb1;
s16 x1, y1;
u32 rgb2;
s16 x2, y2;
} G3P;
typedef struct { /* 0x18 */
u32 w0; /* 0x00 */
u32 rgb; /* 0x04 */
u16 n0; /* 0x08 */
u16 v0; /* 0x0A */
u16 n1; /* 0x0C */
u16 v1; /* 0x0E */
u16 n2; /* 0x10 */
u16 v2; /* 0x12 */
u16 n3; /* 0x14 */
u16 v3; /* 0x16 */
} Face3;
typedef struct { /* 0x24 */
u32 tag; /* 0x00 */
u32 rgb0; /* 0x04 */
s16 x0, y0; /* 0x08 */
u32 rgb1; /* 0x0C */
s16 x1, y1; /* 0x10 */
u32 rgb2; /* 0x14 */
s16 x2, y2; /* 0x18 */
u32 rgb3; /* 0x1C */
s16 x3, y3; /* 0x20 */
} G4P;
typedef struct Ent30D80 {
/* 0x00 */ s32 unk00;
/* 0x04 */ u8 pad04[6];
/* 0x0A */ u16 unk0A;
/* 0x0C */ u8 pad0C[0x34];
/* 0x40 */ void (*unk40)(s32, s32);
/* 0x44 */ s32 unk44;
/* 0x48 */ u8 pad48[6];
/* 0x4E */ u8 unk4E;
/* 0x4F */ u8 pad4F;
/* 0x50 */ u8 unk50;
/* 0x51 */ u8 unk51;
} Ent30D80;
typedef struct Slot54 {
/* 0x00 */ s16 unk00;
/* 0x02 */ s16 unk02;
/* 0x04 */ s16 unk04;
/* 0x06 */ s16 unk06;
/* 0x08 */ u16 unk08;
/* 0x0A */ s8 unk0A;
} Slot54;
/* hoisted by gate_main so drafts above can reuse them (§181) */
typedef struct {
u32 a, b, c, d;
} Blk16;
typedef struct {
u32 a, b, c;
} Blk12;
typedef struct { u16 f0; } H2; /* 0x2 */
typedef struct {
s32 unk00;
u8 unk04;
u8 unk05;
u8 unk06;
u8 unk07;
u8 unk08;
u8 unk09;
u8 unk0A;
u8 unk0B;
s32 unk0C;
} Rsc16; /* 0x10 */
extern s32 func_8004787C(s32 angle);
extern s32 func_80047948(s32 angle);
extern void func_8001282C();
void func_800123F0(s32 param_1, s32 param_2)
{
s32 s0;
s32 s1;
s32 cos_val;
s32 sin_val;
register s32 v1 __asm__("$3");
s16 matrix[16];
s1 = (s32)param_1;
s0 = param_2;
sin_val = func_8004787C(s0);
cos_val = func_80047948(s0);
/* Build Z-rotation matrix on stack */
v1 = -sin_val;
*(s16 *)((s32)matrix + 0x00) = cos_val;
*(s16 *)((s32)matrix + 0x08) = cos_val;
*(s16 *)((s32)matrix + 0x02) = v1;
*(s16 *)((s32)matrix + 0x04) = 0;
*(s16 *)((s32)matrix + 0x06) = sin_val;
*(s16 *)((s32)matrix + 0x0A) = 0;
*(s16 *)((s32)matrix + 0x0C) = 0;
*(s16 *)((s32)matrix + 0x0E) = 0;
*(s16 *)((s32)matrix + 0x10) = 0x1000;
__asm__ __volatile__ (
"lw $12, 0(%0);"
"lw $13, 4(%0);"
"ctc2 $12, $0;"
"ctc2 $13, $1;"
"lw $12, 8(%0);"
"lw $13, 12(%0);"
"lw $14, 16(%0);"
"ctc2 $12, $2;"
"ctc2 $13, $3;"
"ctc2 $14, $4;"
"addiu $2, $sp, 16;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0(%0);"
"sh $13, 6(%0);"
"sh $14, 12(%0);"
"addiu $2, $sp, 18;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"addiu $2, %0, 2;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0($2);"
"sh $13, 6($2);"
"sh $14, 12($2);"
"addiu $2, $sp, 20;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"addiu $2, %0, 4;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0($2);"
"sh $13, 6($2);"
"sh $14, 12($2)"
:
: "r"(s1)
: "$12", "$13", "$14", "$2"
);
func_8001282C(s1);
}
extern s32 func_8004787C(s32 angle);
extern s32 func_80047948(s32 angle);
extern void func_8001282C();
void func_80012558(s32 param_1, s32 param_2)
{
s32 s0;
s32 s1;
s32 cos_val;
s16 sin_val;
s32 v1;
s16 matrix[16];
s1 = (s32)param_1;
s0 = param_2;
sin_val = func_8004787C(s0);
cos_val = func_80047948(s0);
/* Build rotation matrix on stack */
v1 = 0x1000;
*(s16 *)((s32)matrix + 0x04) = sin_val;
*(s16 *)((s32)matrix + 0x00) = cos_val;
*(s16 *)((s32)matrix + 0x02) = 0;
*(s16 *)((s32)matrix + 0x06) = 0;
*(s16 *)((s32)matrix + 0x08) = v1;
*(s16 *)((s32)matrix + 0x0A) = 0;
*(s16 *)((s32)matrix + 0x0C) = -sin_val;
*(s16 *)((s32)matrix + 0x0E) = 0;
*(s16 *)((s32)matrix + 0x10) = cos_val;
__asm__ __volatile__ (
"lw $12, 0(%0);"
"lw $13, 4(%0);"
"ctc2 $12, $0;"
"ctc2 $13, $1;"
"lw $12, 8(%0);"
"lw $13, 12(%0);"
"lw $14, 16(%0);"
"ctc2 $12, $2;"
"ctc2 $13, $3;"
"ctc2 $14, $4;"
"addiu $2, $sp, 16;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0(%0);"
"sh $13, 6(%0);"
"sh $14, 12(%0);"
"addiu $2, $sp, 18;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"addiu $2, %0, 2;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0($2);"
"sh $13, 6($2);"
"sh $14, 12($2);"
"addiu $2, $sp, 20;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"addiu $2, %0, 4;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0($2);"
"sh $13, 6($2);"
"sh $14, 12($2)"
:
: "r"(s1)
: "$12", "$13", "$14", "$2"
);
func_8001282C(s1);
}
extern s32 func_8004787C(s32 angle);
extern s32 func_80047948(s32 angle);
extern void func_8001282C();
void func_800126C4(s32 param_1, s32 param_2)
{
s32 s0;
s32 s1;
s32 cos_val;
s16 sin_val;
s32 v1;
s16 matrix[16];
s1 = (s32)param_1;
s0 = param_2;
sin_val = func_8004787C(s0);
cos_val = func_80047948(s0);
/* Build X-rotation matrix on stack */
v1 = 0x1000;
*(s16 *)((s32)matrix + 0x00) = v1;
*(s16 *)((s32)matrix + 0x02) = 0;
*(s16 *)((s32)matrix + 0x04) = 0;
*(s16 *)((s32)matrix + 0x06) = 0;
*(s16 *)((s32)matrix + 0x08) = cos_val;
*(s16 *)((s32)matrix + 0x0A) = -sin_val;
*(s16 *)((s32)matrix + 0x0C) = 0;
*(s16 *)((s32)matrix + 0x0E) = sin_val;
*(s16 *)((s32)matrix + 0x10) = cos_val;
__asm__ __volatile__ (
"lw $12, 0(%0);"
"lw $13, 4(%0);"
"ctc2 $12, $0;"
"ctc2 $13, $1;"
"lw $12, 8(%0);"
"lw $13, 12(%0);"
"lw $14, 16(%0);"
"ctc2 $12, $2;"
"ctc2 $13, $3;"
"ctc2 $14, $4;"
"addiu $2, $sp, 16;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0(%0);"
"sh $13, 6(%0);"
"sh $14, 12(%0);"
"addiu $2, $sp, 18;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"addiu $2, %0, 2;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0($2);"
"sh $13, 6($2);"
"sh $14, 12($2);"
"addiu $2, $sp, 20;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"addiu $2, %0, 4;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0($2);"
"sh $13, 6($2);"
"sh $14, 12($2)"
:
: "r"(s1)
: "$12", "$13", "$14", "$2"
);
func_8001282C(s1);
}
extern void func_800128B4(void* a0);
extern void func_80013FE0(void* a0, void* a1);
extern void func_80013FBC(void* a0, void* a1);
extern void func_80013F98(void* a0, void* a1);
extern void func_80013ED0(void* a0, void* a1, void* a2, void* a3);
void func_8001282C(void *a0)
{
s16 b10[4];
s16 b18[4];
s16 b20[4];
func_80013FE0(a0, b20);
func_800128B4(b20);
func_80013FBC(a0, b18);
func_800128B4(b18);
func_80013F98(a0, b10);
func_800128B4(b10);
func_80013ED0(a0, b10, b18, b20);
}
extern void func_80014070(void* a0, void* a1);
extern void func_800128EC(void* a0, void* a1);
void func_800128B4(void* a0)
{
s32 local_buffer[3];
func_80014070(a0, local_buffer);
func_800128EC(local_buffer, a0);
}
INCLUDE_ASM("asm/nonmatchings/800", func_800128EC);
extern s32 ratan2(s32 a0, s32 a1);
void func_800129CC(s16 *s0, s16 *s1)
{
if (s0[2] != 0) {
s32 angle = ratan2(-s0[1], s0[2]);
s1[0] = (s16)((angle - 0x400) & 0xFFF);
} else {
s1[0] = 0;
}
s1[1] = 0;
if (s0[0] != 0) {
s32 angle = ratan2(s0[1], s0[0]);
s1[2] = (s16)((angle + 0x400) & 0xFFF);
} else {
s1[2] = 0;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_80012A60);
s32 func_80012AB0(s32 arg0, s32 arg1) {
return (arg0 - arg1) & 0xFFF;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80012ABC);
INCLUDE_ASM("asm/nonmatchings/800", func_80012B04);
INCLUDE_ASM("asm/nonmatchings/800", func_80012B58);
INCLUDE_ASM("asm/nonmatchings/800", func_80012C6C);
INCLUDE_ASM("asm/nonmatchings/800", func_80012CB8);
INCLUDE_ASM("asm/nonmatchings/800", func_80012D0C);
INCLUDE_ASM("asm/nonmatchings/800", func_80012DBC);
INCLUDE_ASM("asm/nonmatchings/800", func_80012E0C);
INCLUDE_ASM("asm/nonmatchings/800", func_80012E6C);
INCLUDE_ASM("asm/nonmatchings/800", func_80012F74);
INCLUDE_ASM("asm/nonmatchings/800", func_80012FC8);
INCLUDE_ASM("asm/nonmatchings/800", func_80013028);
INCLUDE_ASM("asm/nonmatchings/800", func_800130D0);
INCLUDE_ASM("asm/nonmatchings/800", func_8001311C);
INCLUDE_ASM("asm/nonmatchings/800", func_80013154);
extern s32 func_80013228(s32 *a0, s32 *a1);
extern s32 func_80047D3C(s32 a0);
s32 func_80013200(s32 *a0, s32 *a1) {
return func_80047D3C(func_80013228(a0, a1));
}
extern void Square0(s32 *a0, s32 *a1);
s32 func_80013228(s32 *a0, s32 *a1) {
s32 diff[3];
s32 result[3];
diff[0] = a0[0] - a1[0];
diff[1] = a0[1] - a1[1];
diff[2] = a0[2] - a1[2];
Square0(diff, result);
return result[0] + result[1] + result[2];
}
extern s32 func_80047D3C(s32 a0);
typedef struct {
s16 vx, vy, vz, pad;
} SVECTOR_80013294;
s32 func_80013294(SVECTOR_80013294 *a0, SVECTOR_80013294 *a1) {
return func_80047D3C(func_800132BC(a0, a1));
}
extern void Square0(s32 *a0, s32 *a1);
typedef struct {
s16 vx, vy, vz, pad;
} SVECTOR;
s32 func_800132BC(SVECTOR *a0, SVECTOR *a1) {
s32 diff[3];
s32 result[3];
diff[0] = a0->vx - a1->vx;
diff[1] = a0->vy - a1->vy;
diff[2] = a0->vz - a1->vz;
Square0(diff, result);
return result[0] + result[1] + result[2];
}
extern s32 func_80047D3C(s32 a0);
void func_80013328(s32 *a0, s32 *a1) {
s32 result;
result = func_80013350(a0, a1);
func_80047D3C(result);
}
extern void Square0(s32 *a0, s32 *a1);
s32 func_80013350(s32 *a0, s32 *a1) {
s32 diff[3];
s32 result[3];
diff[0] = *(s16 *)((u8 *)a0 + 2) - *(s16 *)((u8 *)a1 + 2);
diff[1] = *(s16 *)((u8 *)a0 + 6) - *(s16 *)((u8 *)a1 + 6);
diff[2] = *(s16 *)((u8 *)a0 + 10) - *(s16 *)((u8 *)a1 + 10);
Square0(diff, result);
return result[0] + result[1] + result[2];
}
extern s32 func_80047D3C(s32 a0);
s32 func_800133BC(void) {
s32 result = func_800133E4();
return func_80047D3C(result);
}
extern void Square0(s32 *a0, s32 *a1);
s32 func_800133E4(s16 *a0, s16 *a1) {
s32 diff[3];
s32 result[3];
diff[0] = a0[0] - a1[1];
diff[1] = a0[1] - a1[3];
diff[2] = a0[2] - a1[5];
Square0(diff, result);
return result[0] + result[1] + result[2];
}
extern s32 func_80013478(void);
extern s32 func_80047D3C(s32 a0);
s32 func_80013450(void) {
s32 result = func_80013478();
return func_80047D3C(result);
}
s32 func_80013478(void) {
register s16 *a0 __asm__("$4");
register s16 *a1 __asm__("$5");
volatile s32 diff[3];
s32 result[3];
diff[0] = a0[1] - a1[0];
diff[1] = a0[3] - a1[1];
diff[2] = a0[5] - a1[2];
__asm__ volatile("lwc2 $9, 0(%0)\n\tlwc2 $10, 4(%0)\n\tlwc2 $11, 8(%0)" : : "r"(diff));
__asm__ volatile("nop\n\tnop\n\tsqr 0");
__asm__ volatile("swc2 $25, 0(%0)\n\tswc2 $26, 4(%0)\n\tswc2 $27, 8(%0)" : : "r"(result) : "memory");
return result[0] + result[1] + result[2];
}
INCLUDE_ASM("asm/nonmatchings/800", func_800134FC);
INCLUDE_ASM("asm/nonmatchings/800", func_80013694);
INCLUDE_ASM("asm/nonmatchings/800", func_8001382C);
INCLUDE_ASM("asm/nonmatchings/800", func_800139C8);
INCLUDE_ASM("asm/nonmatchings/800", func_80013B64);
INCLUDE_ASM("asm/nonmatchings/800", func_80013CFC);
void func_80013E94(u16 *src, u32 *dst) {
*dst = ((((u32)src[0] << 19) >> 22) << 20)
| ((((u32)src[1] << 19) >> 22) << 10)
| (((u32)src[2] << 19) >> 22);
}
INCLUDE_ASM("asm/nonmatchings/800", func_80013ED0);
void func_80013F3C(void *ptr) {
s16 *p = (s16 *)ptr;
p[0] = 0x1000;
p[1] = 0;
p[2] = 0;
p[3] = 0;
p[4] = 0x1000;
p[5] = 0;
p[6] = 0;
p[7] = 0;
p[8] = 0x1000;
}
void func_80013F68(s16 *a0) {
s16 v0;
v0 = -0x1000;
a0[2] = v0;
v0 = 0x1000;
a0[0] = 0;
a0[1] = 0;
a0[3] = 0;
a0[4] = v0;
a0[5] = 0;
a0[6] = v0;
a0[7] = 0;
a0[8] = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80013F98);
INCLUDE_ASM("asm/nonmatchings/800", func_80013FBC);
INCLUDE_ASM("asm/nonmatchings/800", func_80013FE0);
INCLUDE_ASM("asm/nonmatchings/800", func_80014004);
INCLUDE_ASM("asm/nonmatchings/800", func_80014028);
void func_8001404C(s32 *a0, s32 *a1) {
*(u16 *)((s32)a0 + 0x4) = *(u16 *)((s32)a1 + 0x0);
*(u16 *)((s32)a0 + 0xA) = *(u16 *)((s32)a1 + 0x2);
*(u16 *)((s32)a0 + 0x10) = *(u16 *)((s32)a1 + 0x4);
}
void func_80014070(void* a0, void* a1)
{
((s32 *)a1)[0] = ((s16 *)a0)[1 - 1];
((s32 *)a1)[1] = ((s16 *)a0)[2 - 1];
((s32 *)a1)[2] = ((s16 *)a0)[3 - 1];
}
void func_80014094(s32 *arg0, void *arg1) {
*(s16 *)((u8 *)arg1 + 0x0) = arg0[0];
*(s16 *)((u8 *)arg1 + 0x2) = arg0[1];
*(s16 *)((u8 *)arg1 + 0x4) = arg0[2];
}
void func_800140B8(s32 a0, s32 a1, s32 a2)
{
__asm__ __volatile__(
".set\tnoreorder\n"
"lw $12, 0($4)\n"
"lw $13, 4($4)\n"
"ctc2 $12, $0\n"
"ctc2 $13, $1\n"
"lw $12, 8($4)\n"
"lw $13, 12($4)\n"
"lw $14, 16($4)\n"
"ctc2 $12, $2\n"
"ctc2 $13, $3\n"
"ctc2 $14, $4\n"
"lwc2 $0, 0($5)\n"
"lwc2 $1, 4($5)\n"
"nop\n"
"nop\n"
"mvmva 1, 0, 0, 3, 0\n"
"swc2 $25, 0($6)\n"
"swc2 $26, 4($6)\n"
"swc2 $27, 8($6)\n"
".set\treorder\n"
: : : "$12", "$13", "$14", "memory");
*(s32 *)a2 <<= 16;
*(s32 *)(a2 + 4) <<= 16;
*(s32 *)(a2 + 8) <<= 16;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80014128);
INCLUDE_ASM("asm/nonmatchings/800", func_80014148);
typedef struct { u8 b[8]; } Blk8;
extern void ApplyMatrixSV(void *a0, void *a1, void *a2);
void func_80014168(void *a0, void *a1) {
Blk8 local;
local = *(Blk8 *)a1;
ApplyMatrixSV(a0, &local, a1);
}
void func_800141AC(s32 a0, void *a1)
{
struct B16x { u32 a, b, c, d; } local;
local = *(struct B16x *)a1;
func_800484EC(a0, &local, a1);
}
extern void func_80059234(s32);
extern void func_800594CC(s32);
extern void func_80059658(s32);
extern void func_80016714(void *a0, s32 a1);
extern void func_800142C8(void);
extern u8 D_800BA118;
void func_800141F0(void) {
func_80059234(0);
func_800594CC(0);
func_80059658(0);
func_80016714(&D_800BA118, 0x98);
func_800142C8();
}
extern u8 D_800AF630[];
void func_80014238(void) {
func_80014928();
func_80059234(1);
func_80059658(0);
VSync(0);
func_80016714(&D_800AF630, 0xA444);
func_800143AC();
func_80014444();
func_8001C044();
func_80014588();
func_80015310();
func_80028A48();
func_80028C50();
func_800142C8();
func_80059658(1);
}
extern void func_80029044(void);
extern void func_8002906C(void);
extern void func_80029094(void);
extern void func_80029218(void);
extern void func_8001903C(void);
extern void func_80018FC8(void);
extern void func_8001B324(void);
extern void func_80028FDC(s32);
extern void func_80029020(s32);
extern void func_80028DBC(s32);
extern void func_80028E00(s32);
void func_800142C8(void) {
func_80029044();
func_8002906C();
func_80029094();
func_80029218();
func_8001903C();
func_80018FC8();
func_8001B324();
func_80028FDC(0x7);
func_80029020(0x7);
func_80028DBC(0);
func_80028E00(0);
}
extern void func_80029044(void);
extern void func_8002906C(void);
extern void func_80029094(void);
extern void func_80028FDC(s32);
extern void func_80029020(s32);
extern void func_80028DBC(s32);
extern void func_80028E00(s32);
extern void func_80029274(void);
void func_80014338(void) {
func_80029044();
func_8002906C();
func_80029094();
func_80028FDC(0x7);
func_80029020(0x7);
func_80028DBC(0);
func_80028E00(0);
func_80029274();
}
void func_80014390(void) {
extern s16 D_800B9A04[];
extern s32 D_800B9A18;
D_800B9A04[0] = 0;
D_800B9A18 = 2;
}
extern void func_800145EC(s32 a0);
extern int VSync(int mode);
extern u8 D_800AF7C4;
extern u8 D_800AF7C3;
extern u8 D_800AF7C2;
extern u8 D_800A6610[];
extern u8 D_800A6518[];
extern u8 D_800A6520[];
extern u8 D_800A6524[];
void func_800143AC(void)
{
extern OtBlk_80016450 D_800A651C[];
register s32 ptr __asm__("4");
register s32 i __asm__("5");
register s32 idx __asm__("3");
register s32 c __asm__("6");
func_800145EC(1);
VSync(0);
i = 0;
c = 0xC;
ptr = (s32)D_800A6610;
idx = 0;
D_800AF7C4 = 0;
D_800AF7C3 = 0;
D_800AF7C2 = 0;
do {
*(s32*)((u8*)D_800A651C + idx) = ptr;
ptr += 0x4000;
*(s32*)(D_800A6518 + idx) = c;
*(s32*)(D_800A6520 + idx) = 0;
*(s32*)(D_800A6524 + idx) = 0;
idx += 0x14;
i++;
} while (i < 2);
}
extern void func_80047CB4(void);
extern void func_8004923C(s32 a0);
extern void func_80053218(void);
extern void func_800144D4(void);
extern void func_8001455C(void);
extern void func_8002850C(s32 a0, s32 a1, s32 a2);
extern void func_8002823C(void);
extern void func_80052D90(s32 a0, void *a1);
extern void func_800538EC(s32 a0);
extern s32 D_80126950;
extern u8 D_800AF630[0x300];
void func_80014444(void) {
u8 *s0;
func_80047CB4();
D_80126950 = 0x3E8;
func_8004923C(0x3E8);
func_80053218();
func_800144D4();
func_8001455C();
func_8002850C(0x800, 0x800, 0x800);
func_8002823C();
s0 = &D_800AF630[0];
func_80052D90(0, s0 + 0x1A0);
func_80052D90(1, s0 + 0x1F0);
func_800538EC(0);
}
extern void func_80053308(s32);
extern void func_80053F6C();
extern s32 D_80126984;
extern s32 D_80126988;
extern s32 D_8012698C;
extern s32 D_80126990;
extern s32 D_80126994;
extern s32 D_80126998;
extern s32 D_8012699C;
extern s32 D_801269A0;
void func_800144D4(void)
{
extern s32 D_80126950;
D_80126950 = 300;
func_80053308(300);
D_80126984 = 0;
D_80126988 = 0;
D_8012698C = -300;
D_80126990 = 0;
D_80126994 = 0;
D_80126998 = 0;
D_8012699C = 0;
D_801269A0 = 0;
func_80053F6C(&D_80126984);
}
void func_80014554(void) {
}
void func_8001455C(void) {
}
INCLUDE_ASM("asm/nonmatchings/800", func_80014564);
INCLUDE_ASM("asm/nonmatchings/800", func_80014588);
void func_800145EC(s32 mode) {
extern void func_800525DC(s32 w, s32 h, s32 mode2, s32 a3, s32 st);
extern void func_80053178(s32 a0, s32 a1, s32 a2, s32 a3);
extern void func_80059234(s32);
extern void func_80053218(void);
extern void func_80014774(void);
extern void func_800147B8(void);
extern u8 D_80062A3C[];
extern u8 D_80062A3E[];
extern u8 D_80062A40[];
extern u16 D_800AF7BC;
extern u16 D_800AF7BE;
extern u16 D_800AF7C0;
s32 off;
off = (mode & 0xFFFF) * 6;
D_800AF7BC = *(u16 *) (D_80062A3C + off);
D_800AF7BE = *(u16 *) (D_80062A3E + off);
D_800AF7C0 = *(u16 *) (D_80062A40 + off);
func_800525DC(D_800AF7BC, D_800AF7BE, D_800AF7C0 | 4, 0, 0);
if (D_800AF7BE == 0x1E0) {
func_80053178(0, 0, 0, 0);
} else {
func_80053178(0, D_800AF7BE, 0, 0);
}
func_80059234(1);
func_80053218();
func_80014774();
func_800147B8();
}
void func_800146B0(s32 mode) {
extern void GsInitGraph2(s32 w, s32 h, s32 mode, s32 a3, s32 st);
extern void func_80053EEC(s32 a0, s32 a1, s32 a2, s32 a3);
extern void func_80059234(s32);
extern void func_80053218(void);
extern void func_80014774(void);
extern void func_800147B8(void);
extern u8 D_80062A3C[];
extern u8 D_80062A3E[];
extern u8 D_80062A40[];
extern u16 D_800AF7BC;
extern u16 D_800AF7BE;
extern u16 D_800AF7C0;
s32 off;
off = (mode & 0xFFFF) * 6;
D_800AF7BC = *(u16 *) (D_80062A3C + off);
D_800AF7BE = *(u16 *) (D_80062A3E + off);
D_800AF7C0 = *(u16 *) (D_80062A40 + off);
GsInitGraph2(D_800AF7BC, D_800AF7BE, D_800AF7C0 | 4, 0, 0);
if (D_800AF7BE == 0x1E0) {
func_80053EEC(0, 0, 0, 0);
} else {
func_80053EEC(0, D_800AF7BE, 0, 0);
}
func_80059234(1);
func_80053218();
func_80014774();
func_800147B8();
}
extern void func_80059888(void *a0, s32 a1, s32 a2, s32 a3);
void func_80014774(void) {
s16 local[4];
local[0] = 0;
local[1] = 0;
local[2] = 0x280;
local[3] = 0x1E0;
func_80059888((void *)local, 0, 0, 0);
}
extern u8 D_800AF630[];
extern u16 D_800AF7BE;
extern u16 D_800AF7BC;
extern u16 D_800AF672;
extern u16 D_800AF670;
extern u16 D_800AF6CC;
extern u16 D_800AF6D6;
extern u16 D_800AF6D4;
extern u16 D_800AF67A;
extern u16 D_800AF678;
extern u16 D_800AF6CE;
extern u8 D_800AF6DA;
extern u8 D_800AF67E;
extern u8 D_800AF6DC;
extern u8 D_800AF680;
extern void *func_80058A4C(void *env, s32 x, s32 y, s32 w, s32 h);
extern void *SetDefDispEnv(void *env, s32 x, s32 y, s32 w, s32 h);
extern void func_80014960(void);
void func_800147B8(void) {
u8 *base = D_800AF630;
register s32 raw_h __asm__("$3") = D_800AF7BE;
s32 h_offset = raw_h;
u16 halfW;
u16 halfH;
s16 h;
if (h_offset == 0x1E0) {
h_offset = 0;
}
func_80058A4C(base + 0x38, 0, 0xA, D_800AF7BC, D_800AF7BE - 0x14);
SetDefDispEnv(base + 0x14C, 0, 0, D_800AF7BC, D_800AF7BE);
func_80058A4C(base + 0x94, 0, h_offset + 0xA, D_800AF7BC, D_800AF7BE - 0x14);
SetDefDispEnv(base + 0x160, 0, h_offset, D_800AF7BC, D_800AF7BE);
halfW = D_800AF7BC >> 1;
halfH = D_800AF7BE >> 1;
D_800AF672 = halfH;
D_800AF670 = halfW;
D_800AF6CC = halfW;
h = (D_800AF7BE == 0xF0) ? 0x168 : 0xF0;
D_800AF6D6 = 0x100;
D_800AF6D4 = 0x100;
D_800AF67A = 0x100;
D_800AF678 = 0x100;
D_800AF6CE = h;
D_800AF6DA = 0;
D_800AF67E = 0;
D_800AF6DC = 1;
D_800AF680 = 1;
func_80014960();
}
extern void func_8005CF08(void);
extern void InitHeap(void *a0, s32 a1);
extern void func_8005CF18(void);
void func_80014928(void) {
func_8005CF08();
InitHeap((void *)0x801FF800, 0x800);
func_8005CF18();
}
extern void func_80014998(void);
extern u8 D_800AF7C4;
extern u8 D_800AF7C3;
extern u8 D_800AF7C2;
void func_80014960(void) {
D_800AF7C4 = 0;
D_800AF7C3 = 0;
D_800AF7C2 = 0;
func_80014998();
}
extern u8 D_800AF630[];
void func_80014998(void) {
u8 *p;
s32 i;
p = D_800AF630;
for (i = 0; i < 2; i++) {
p[i * 0x5C + 0x51] = p[0x192];
p[i * 0x5C + 0x52] = p[0x193];
p[i * 0x5C + 0x53] = p[0x194];
}
}
extern u8 D_80078DD2;
extern u8 func_80014C28(u32 a0);
extern u8 func_80014CF8(u32 a0, u32 a1);
extern u8 func_80014D30(u32 a0, u32 a1);
s32 func_800149E0(s32 a0) {
u8 b0;
u16 val;
s32 c;
u16 h1;
u16 h2;
u16 m1;
u16 m2;
u16 v1;
b0 = a0 & 0xFF;
val = *(u16*)((u32)&D_80078DD2 + (u32)(b0 * 76));
if (val != 0) {
return val;
}
c = func_80014C28(b0) & 0xFF;
if (c != 'S') {
if (c < 'T') {
return 0;
}
if (c != 's') {
return 0;
}
}
b0 = a0 & 0xFF;
h1 = func_80014D30(b0, 5) & 0xFF;
h2 = func_80014D30(b0, 4) & 0xFF;
m1 = func_80014CF8(b0, 5) & 0xFF;
m2 = func_80014CF8(b0, 4) & 0xFF;
v1 = 0;
if (h1 == 0x80) {
if (m1 != h1) {
if (m1 >= 0x80) {
v1 = 0x4000;
} else {
v1 = 0x1000;
}
}
}
if (h2 != 0x80) {
return v1;
}
if (m2 != h2) {
if (m2 < 0x80) {
v1 |= 0x8000;
} else {
v1 |= 0x2000;
}
}
return v1;
}
extern u8 D_80078DCA;
extern u8 func_80014C28(u32 a0);
extern u8 func_80014CF8(u32 a0, u32 a1);
s32 func_80014B10(s32 a0) {
u8 b0;
u16 val;
s32 c;
u16 m1;
u16 m2;
u16 v1;
b0 = a0 & 0xFF;
val = *(u16 *)((u32)&D_80078DCA + (u32)(b0 * 76));
if (val != 0) {
return val;
}
c = func_80014C28(b0) & 0xFF;
if (c != 'S') {
if (c < 'T') {
return 0;
}
if (c != 's') {
return 0;
}
}
b0 = a0 & 0xFF;
m1 = func_80014CF8(b0, 5) & 0xFF;
m2 = func_80014CF8(b0, 4) & 0xFF;
v1 = 0;
if (m1 != 0x80) {
if (m1 >= 0x80) {
v1 = 0x4000;
} else {
v1 = 0x1000;
}
}
if (m2 == 0x80) {
return v1;
} else if (m2 < 0x80) {
v1 |= 0x8000;
} else {
v1 |= 0x2000;
}
return v1;
}
extern u16 D_80078DDA;
u16 func_80014BFC(u32 a0) {
u32 offset;
a0 &= 0xFF;
offset = a0 * 76;
return *(u16*)((u32)&D_80078DDA + offset);
}
extern u8 D_80078D98;
u8 func_80014C28(u32 a0) {
u32 offset;
a0 &= 0xFF;
offset = a0 * 76;
offset = offset + (u32)&D_80078D98;
return *(u8*)(offset);
}
extern u8 D_80078D98;
/* dual flag-half tester: selects unk32/unk3A of record (a0&0xFF)*76 by (a1&0xFF)==1,
* returns ((sel & a2) == a2); gcc keeps one 'and' per arm, one riding the j delay slot */
s32 func_80014C54(s32 a0, s32 a1, s32 a2) {
u8 *p;
u16 result;
p = (u8 *)((u32)&D_80078D98 + (a0 & 0xFF) * 76);
a1 &= 0xFF;
if (a1 == 1) {
result = *(u16 *)(p + 0x32);
} else {
result = *(u16 *)(p + 0x3A);
}
return (u32)(((u32)result & (u32)a2) ^ (u32)a2) < 1;
}
extern u8 D_80078DCA;
extern u8 D_80078DD2;
u8 func_80014CAC(u32 arg0, u32 arg1)
{
extern u16 D_80078E16;
extern u16 D_80078E1E;
u16 var_v0;
if ((arg0 & 0xFF) == 1) {
var_v0 = *(u16 *)&D_80078DCA | D_80078E16;
} else {
var_v0 = *(u16 *)&D_80078DD2 | D_80078E1E;
}
return (var_v0 & arg1) != 0;
}
extern u8 D_80078D98;
u8 func_80014CF8(u32 a0, u32 a1) {
u32 offset;
a0 &= 0xFF;
offset = a0 * 76;
offset = offset + (u32)&D_80078D98;
a1 &= 0xFF;
offset = offset + a1;
return *(u8*)(offset + 0x32);
}
extern u8 D_80078D98;
u8 func_80014D30(u32 a0, u32 a1) {
u32 v0;
a0 = a0 & 0xFF;
v0 = a0 << 2;
v0 = v0 + a0;
v0 = v0 << 2;
v0 = v0 - a0;
v0 = v0 << 2;
v0 = v0 + (u32)&D_80078D98;
a1 = a1 & 0xFF;
v0 = v0 + a1;
return *(u8*)(v0 + 0x42);
}
extern u8 D_80078DCA;
u16 func_80014D68(u32 a0) {
u32 offset;
a0 &= 0xFF;
offset = a0 * 76;
offset = offset + (u32)&D_80078DCA;
return *(u16*)offset;
}
extern u8 D_80078DD2;
s32 func_80014D94(s32 a0) {
a0 &= 0xFF;
return *(u16*)((u32)&D_80078DD2 + (a0 * 76));
}
extern u8 D_80078D98;
u8 func_80014DC0(u32 a0) {
u32 offset;
a0 &= 0xFF;
offset = a0 * 76;
offset = offset + (u32)&D_80078D98;
return *(u8*)offset;
}
extern u8 D_80078D98;
u8 func_80014DEC(s32 a0, s32 a1) {
register s32 v0 __asm__("$2");
a0 = a0 & 0xFF;
v0 = (a0 << 2) + a0;
v0 = (v0 << 2) - a0;
v0 = v0 << 2;
v0 = v0 + (s32)&D_80078D98;
a1 = a1 & 0xFF;
v0 = v0 + a1;
return *(u8 *)(v0 + 0x32);
}
extern s32 func_80015018(s32 a0);
extern s32 func_80014ED4(s32 a0);
s32 func_80014E24(s32 a0, s32 a1, s32 a2) {
u16 result;
s32 tmp;
/* a0's masked-byte value is genuinely consumed as an argument to BOTH callees below
* (their bodies happen to ignore it, but the caller must still materialize it) --
* the opaque asm keeps gcc-2.7.2 from folding this into a per-branch recompute or
* eliding it outright, which is what a plain "a0 &= 0xFF;" statement does when a0
* is otherwise unused. See matching-cookbook.md L2916 (opaque asm-COPY) for the
* precedent: a real, non-hard-reg opcode asm is used only when no pure-C spelling
* reproduces the target's single, pre-branch materialization. */
__asm__("andi %0, %1, 0xff" : "=r"(tmp) : "r"(a0));
a1 &= 0xFF;
if (a1 == 1) {
result = func_80015018(tmp);
} else {
result = func_80014ED4(tmp);
}
result &= 0xFFFF;
// Check if all bits of a2 are set in result
return (u32)(((u32)result & (u32)a2) ^ (u32)a2) < 1;
}
extern s32 func_80015018(s32 a0);
extern s32 func_80014ED4(s32 a0);
s32 func_80014E80(s32 a0, s32 a1) {
s32 result;
a0 = a0 & 0xFF;
if (a0 == 1) {
result = func_80015018(0);
} else {
result = func_80014ED4(0);
}
result = result & 0xFFFF;
result = result & a1;
return (result != 0) ? 1 : 0;
}
extern u8 D_80078D98;
extern void func_80015118(u16 *a0);
s32 func_80014ED4(s32 a0) {
u8 *p;
u8 *p2;
u16 val;
s32 c;
u16 buf[4];
s32 flags;
p = (u8 *)((u32)&D_80078D98 + (a0 & 0xFF) * 76);
val = *(u16 *)(p + 0x3A);
if (val != 0) {
return val;
}
c = *p;
if (c != 'S') {
if (c < 'T') {
return 0;
}
if (c != 's') {
return 0;
}
}
p2 = (u8 *)((u32)&D_80078D98 + (a0 & 0xFF) * 76);
buf[0] = *(p2 + 0x47);
buf[1] = *(p2 + 0x46);
buf[2] = *(p2 + 0x37);
buf[3] = *(p2 + 0x36);
func_80015118(&buf[0]);
func_80015118(&buf[1]);
func_80015118(&buf[2]);
func_80015118(&buf[3]);
flags = 0;
if (buf[0] == 0x80) {
if (buf[2] != 0x80) {
if (buf[2] >= 0x80) {
flags = 0x4000;
} else {
flags = 0x1000;
}
}
}
if (buf[1] == 0x80) {
if (buf[3] != 0x80) {
flags |= (buf[3] < 0x80) ? 0x8000 : 0x2000;
}
}
return flags & 0xFFFF;
}
extern u8 D_80078D98;
extern void func_80015118(u16 *arg);
s32 func_80015018(s32 a0) {
u8 *p;
u8 *q;
u16 val;
u16 tmp[2];
s32 result;
p = (u8 *)&D_80078D98 + (a0 & 0xFF) * 76;
val = *(u16 *)(p + 0x32);
if (val != 0) {
return val;
}
{
s32 c = *p;
if (c != 0x53) {
if (c < 0x54) {
return 0;
}
if (c != 0x73) {
return 0;
}
}
}
q = (u8 *)&D_80078D98 + (a0 & 0xFF) * 76;
tmp[0] = *(q + 0x37);
tmp[1] = *(q + 0x36);
func_80015118(&tmp[0]);
func_80015118(&tmp[1]);
result = 0;
if (tmp[0] != 0x80) {
if (tmp[0] >= 0x80) {
result = 0x4000;
} else {
result = 0x1000;
}
}
if (tmp[1] != 0x80) {
if (tmp[1] < 0x80) {
result |= 0x8000;
} else {
result |= 0x2000;
}
}
return result & 0xFFFF;
}
void func_80015118(u16 *a0) {
if ((u32)(*a0 - 0x15) < 0xD7) {
*a0 = 0x80;
}
}
void func_8001513C(void) {
}
extern s32 CdQueueBusy(void);
extern void func_8002D4C8(s32 a0, s32 a1);
extern void func_8003500C(void);
extern void func_8002D034(void);
extern int VSync(int mode);
extern s32 func_8001AA78(void);
extern void func_8002F67C(void);
extern void LoaderResetReadState(void);
extern u8 D_800AF630[];
extern s16 D_800B9A04[];
s32 func_80015144(void) {
u8* base = D_800AF630;
if (CdQueueBusy() != 0) {
func_8002D4C8(2, 0);
while (1) {
func_8003500C();
func_8002D034();
VSync(*(s32*)(base + 0xA3E8));
if (CdQueueBusy() == 0) {
break;
}
}
*(s16*)(base + 0xA3D4) = 1;
} else {
if (func_8001AA78() != 0) {
return 0;
}
D_800B9A04[0] = 1;
func_8002D4C8(2, 0);
}
func_8002F67C();
LoaderResetReadState();
return 1;
}
extern u8 D_800B9A64;
extern u8 D_800B9A10;
extern u8 D_800B9A17;
extern u8 D_800B9A15;
extern u8 D_800B9A16;
extern u8 D_800B9A13;
extern u8 D_80078DD2;
extern s32 D_800A5E78;
extern u8 D_800AF630[];
extern void func_801281D8(void);
void func_80015208(void) {
u8 flag0;
s32 v;
register u8 *base __asm__("$5");
flag0 = D_800B9A64;
base = D_800AF630;
if (flag0) {
return;
}
__asm__ __volatile__("" : "=r"(base) : "0"(base));
if (D_800B9A10 != 1) {
return;
}
if (D_800B9A17 != D_800B9A10) {
return;
}
if (D_800B9A15 == D_800B9A17) {
return;
}
if (D_800B9A16 != 0) {
D_800B9A15 = 1;
return;
}
if (D_800B9A13 != 0) {
return;
}
{
s32 mask = 0x800;
__asm__ __volatile__("" : "=r"(mask) : "0"(mask));
if ((*(u16 *)&D_80078DD2 & 0x800) == mask) {
v = 1;
__asm__ __volatile__("" : "=r"(v) : "0"(v));
} else {
v = 0;
}
if (!v) {
if (D_800A5E78 != 0) {
return;
}
}
v = 1;
base[0xA3E5] = v;
func_801281D8();
}
}
extern s16 D_800B93D8[];
void func_800152F4(s32 idx) {
D_800B93D8[((idx << 16) >> 16) * 8] = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80015310);
INCLUDE_ASM("asm/nonmatchings/800", func_8001534C);
void func_800153A4(void *a0, s32 a1, s16 a2, s16 a3, u8 arg4, u8 arg5) {
*(s16 *)(a0 + 0) = 1;
*(s16 *)(a0 + 2) = a2;
*(s16 *)(a0 + 4) = a3;
*(s32 *)(a0 + 8) = a1;
*(u8 *)(a0 + 12) = arg4;
*(u8 *)(a0 + 13) = arg5;
}
INCLUDE_ASM("asm/nonmatchings/800", func_800153CC);
void func_80015424(void *a0, s32 a1, s16 a2, s16 a3, s8 a4, s8 a5) {
*(s16 *)a0 = 2;
*(s16 *)(a0 + 2) = a2;
*(s16 *)(a0 + 4) = a3;
*(s32 *)(a0 + 8) = a1;
*(s8 *)(a0 + 0xC) = a4;
*(s8 *)(a0 + 0xD) = a5;
}
extern s16 D_800B93D8[];
s16 *func_8001544C(void) {
extern DispSlot_800184F0 D_800B97D8[];
s16 *p;
s16 *end;
s16 v;
s32 pad[2];
p = D_800B93D8;
end = (s16 *)D_800B97D8;
if (p >= end) {
return 0;
}
do {
v = *p;
if (v == 0) {
return p;
}
p += 8;
} while (p < end);
return 0;
}
extern u16 D_800B9A02;
extern u8 D_800B9A11;
extern u8 D_800AF630[];
extern u8 *D_800A5E60;
extern s32 GetTPage(s32, s32, s32, s32);
extern void func_80015608(s32, s32);
extern void func_80015760(s32, s32);
void func_80015498(void)
{
extern OtBlk_80016450 D_800A651C[];
u8 *base;
u32 *ot;
u8 *entry;
u8 *end;
u8 *p;
s16 v1;
s32 tp;
register u32 tag0 __asm__("$4");
register u32 maskLo __asm__("$5");
base = D_800AF630;
ot = (u32 *)D_800A651C[D_800B9A02].a;
if (D_800B9A11 != 1) {
entry = base + 0x9DA8;
if (entry < base + 0xA1A8) {
register s16 one __asm__("$20") = 1;
register s16 two __asm__("$19") = 2;
end = base + 0xA1A8;
do {
v1 = *(s16 *)entry;
if (v1 == one) {
goto do_call1;
}
if (v1 < 2) {
goto incr_shared;
}
if (v1 == two) {
goto do_call2;
}
entry += 0x10;
continue;
do_call1:
func_80015608((s32)entry, (s32)ot);
entry += 0x10;
continue;
do_call2:
func_80015760((s32)entry, (s32)ot);
incr_shared:
entry += 0x10;
} while (entry < end);
}
p = D_800A5E60;
p[3] = 1;
tp = GetTPage(0, 0, 0x140, 0x100);
maskLo = 0xFFFFFF;
tag0 = *(u32 *)p;
*(u32 *)(p + 4) = (tp & 0x9FF) | 0xE1000000;
*(u32 *)p = (tag0 & 0xFF000000) | (*ot & maskLo);
p = (u8 *)((u32)p & maskLo);
{
u32 g = (u32)D_800A5E60;
u32 o = *ot;
D_800A5E60 = (u8 *)(g + 8);
*ot = (o & 0xFF000000) | (u32)p;
}
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_80015608);
INCLUDE_ASM("asm/nonmatchings/800", func_80015760);
INCLUDE_ASM("asm/nonmatchings/800", func_80015908);
void func_80015954(s32 a0, s32 a1) {
*(u16 *)(a1 + 0x2) = *(u16 *)(a0 + 0x0);
*(u16 *)(a1 + 0x6) = *(u16 *)(a0 + 0x2);
*(u16 *)(a1 + 0xA) = *(u16 *)(a0 + 0x4);
}
void func_80015978(s32 *a0, s32 *a1) {
*(u16 *)((s32)a1 + 0x0) = *(u16 *)((s32)a0 + 0x2);
*(u16 *)((s32)a1 + 0x2) = *(u16 *)((s32)a0 + 0x6);
*(u16 *)((s32)a1 + 0x4) = *(u16 *)((s32)a0 + 0xA);
}
void func_8001599C(s32 a0, s32 a1) {
*(s32 *)(a1 + 0x0) = *(s32 *)(a0 + 0x0);
*(s32 *)(a1 + 0x4) = *(s32 *)(a0 + 0x4);
*(s32 *)(a1 + 0x8) = *(s32 *)(a0 + 0x8);
}
void func_800159C0(s32 a0, s32 a1) {
*(s32 *)(a1 + 0x0) = *(s32 *)(a0 + 0x0);
*(s32 *)(a1 + 0x4) = *(s32 *)(a0 + 0x4);
*(s32 *)(a1 + 0x8) = *(s32 *)(a0 + 0x8);
}
void func_800159E4(s32 *a0, s32 *a1) {
*(u16 *)((s32)a1 + 0x2) = *(u16 *)((s32)a0 + 0x2);
*(u16 *)((s32)a1 + 0x6) = *(u16 *)((s32)a0 + 0x6);
*(u16 *)((s32)a1 + 0xA) = *(u16 *)((s32)a0 + 0xA);
}
void func_80015A08(s32 *a0, s32 *a1) {
*(u16 *)((s32)a1 + 0x0) = *(u16 *)((s32)a0 + 0x0);
*(u16 *)((s32)a1 + 0x4) = *(u16 *)((s32)a0 + 0x4);
*(u16 *)((s32)a1 + 0x8) = *(u16 *)((s32)a0 + 0x8);
}
void func_80015A2C(short* arg0, int* arg1) {
arg1[0] = arg0[0];
arg1[1] = arg0[1];
arg1[2] = arg0[2];
}
void func_80015A50(s32 *arg0, s16 *arg1) {
arg1[0] = arg0[0];
arg1[1] = arg0[1];
arg1[2] = arg0[2];
}
#ifdef NON_MATCHING
/* uint -> packed BCD (9 digits, ÷ powers of 10). All idioms match under the pinned
* triple (divu+break div-by-zero via --expand-div, multu 0xCCCCCCCD + srl 3 for ÷10);
* residual diff is a loop-setup instruction-scheduling permutation (li counter vs the
* hoisted magic constant) — a decomp-permuter target. See docs/matching-cookbook.md. */
u32 func_80015A74(u32 param_1) {
u32 result;
s32 i;
u32 divisor;
divisor = 1000000000;
result = 0;
for (i = 9; i >= 0; i--) {
result = (result << 4) | (param_1 / divisor);
param_1 = param_1 % divisor;
divisor = divisor / 10;
}
return result;
}
#else
unsigned int func_80015A74(unsigned int param_1) {
unsigned int result;
unsigned int divisor;
int i;
divisor = 1000000000;
result = 0;
for (i = 0; i < 10; i++) {
result = (result << 4) | (param_1 / divisor);
param_1 = param_1 % divisor;
divisor = divisor / 10;
}
return result;
}
#endif
INCLUDE_ASM("asm/nonmatchings/800", func_80015AD0);
INCLUDE_ASM("asm/nonmatchings/800", func_80015B6C);
/* func_80015D4C — allocate an 0x18-byte flat-shaded quad GPU packet, fill its
* tag/color/code bytes and the four (x,y) corners from (a0,a1,a2,a3) =
* (x, y, w, h), then link it into the current double-buffer's OT at depth
* arg7 via the open-coded PSY-Q `addPrim` RMW pair, and (only when arg8 < 4)
* notify func_80016638.
*
* Sibling idiom: src/md_SC07_004/md_SC07_004.c func_801AADA8 (MATCHED) —
* the addPrim pair over D_800A651C[bidx].a in ARRAY_REF form, and the
* func_80016638(&D_800A6518[bidx*20], depth, flag) call form.
*
* SECOND-PASS FIXES (this file was NEAR/40 before; both were required):
*
* 1. BRANCH POLARITY WAS INVERTED. The target is
* sltiu $t2, $s0, 0x4 ; beqz $t2, <skip>
* i.e. the 0x2A code byte is written and func_80016638 is called when
* arg8 < 4, not when arg8 >= 4. The first pass wrote `arg8 >= 4`, which
* emits the same sltiu but `bnez` — a real semantic difference that the
* instruction-shape diff hid inside the 40-instruction register cascade.
*
* 2. tag0 PINNED TO $4 ($a0) — the load-bearing regalloc fix. Residual was
* a *uniform +1 register-slot shift*: target allocates the call-clobbered
* pseudo set {a0,a1,a2,a3,t0,t1,t2,t3}, the draft allocated
* {v1,a0,a1,a2,a3,t0,t1,t2}. Root cause: gcc's sched1 placed the tag
* load (`lw <tag0>, 0(p)`) *after* the last use of the x+w temp, so tag0
* could reuse $v1; the target schedules the tag load 14 insns earlier, so
* the two live ranges overlap and tag0 must take $a0, pushing every later
* pseudo up one slot.
* Statement-order (lever A) is INERT here — sweeping the `tag0 = *(u32*)p`
* statement through all 6 legal source positions between the p[7]
* conditional and the addPrim pair gave 40 mismatched every time; sched1
* normalises the DAG regardless of source position. The register pin is
* what changes the allocation, and pinning tag0 (the value whose slot
* *causes* the cascade) is the right handle — this is exactly the lever
* func_801AADA8's own header documents ("tag0 ... pinned to $4 ($a0) —
* needed to reproduce the target's exact a2/a3/t0/t1 register picks for
* the addPrim RMW pair").
* Pin sweep, for the record: $4 -> MATCH, $5 -> 9, $6 -> 16, $7 -> 16,
* $8 -> 31. Note the first pass pinned temp_v0 instead ($8) and got a
* spurious extra move — pinning the *consumer* of the cascade rather than
* its cause (cookbook §175 lever B: pin the interloper, not the value you
* care about; here the interloper is the tag word aliasing $v1).
*
* vx/vy stay pinned to $18/$17 ($s2/$s1) from the first pass — the target's
* `addu $s2,$s3,$zero` / `addu $s1,$s4,$zero` corner-copy pair.
*
* Symbol audit (§174 law 1c, done after MATCH): every symbol re-checked
* against the target .s relocation lines — jal func_80010A08, jal
* func_80016638, %hi/%lo(D_800B9A02) via lhu (u16, not s16), %hi/%lo
* (D_800A651C) via lw, %lo(D_800A6518) via addiu (address-of). Store sides
* verified: `sw $a0,0($t0)` is the packet tag, `sw $v0,0($a1)` is the OT slot.
* src/800.c declares none of these, so no TU-declaration conflict (law 2/3).
*/
extern void *func_80010A08(s32 a0);
extern u16 D_800B9A02;
extern u8 D_800A6518[];
extern void func_80016638(void *a0, s32 a1, s32 a2);
void func_80015D4C(s32 a0, s32 a1, s32 a2, s32 a3, u8 arg4, u8 arg5, u8 arg6, u16 arg7, u16 arg8)
{
extern OtBlk_80016450 D_800A651C[]; /* block scope: engine_core.h's DEFINE_ macros declare this symbol scalar in their own bodies */
void *temp_v0;
register s16 vx __asm__("$18");
register s16 vy __asm__("$17");
register u32 tag0 __asm__("$4");
s32 depth4;
temp_v0 = func_80010A08(0x18);
*(u8 *)((u8 *)temp_v0 + 3) = 5;
*(u8 *)((u8 *)temp_v0 + 7) = 0x28;
vx = a0;
vy = a1;
if (arg8 < 4) {
*(u8 *)((u8 *)temp_v0 + 7) = 0x2A;
}
*(u8 *)((u8 *)temp_v0 + 4) = arg4;
*(u8 *)((u8 *)temp_v0 + 5) = arg5;
*(u8 *)((u8 *)temp_v0 + 6) = arg6;
*(s16 *)((u8 *)temp_v0 + 8) = vx;
*(s16 *)((u8 *)temp_v0 + 0xA) = vy;
*(s16 *)((u8 *)temp_v0 + 0xC) = a0 + a2;
*(s16 *)((u8 *)temp_v0 + 0xE) = vy;
*(s16 *)((u8 *)temp_v0 + 0x10) = vx;
tag0 = *(u32 *)temp_v0;
*(s16 *)((u8 *)temp_v0 + 0x12) = a1 + a3;
*(s16 *)((u8 *)temp_v0 + 0x14) = a0 + a2;
*(s16 *)((u8 *)temp_v0 + 0x16) = a1 + a3;
depth4 = arg7 * 4;
*(u32 *)temp_v0 = (tag0 & 0xFF000000) |
(*(u32 *)(depth4 + D_800A651C[D_800B9A02].a) & 0xFFFFFF);
*(u32 *)(depth4 + D_800A651C[D_800B9A02].a) =
(*(u32 *)(depth4 + D_800A651C[D_800B9A02].a) & 0xFF000000) |
((u32)temp_v0 & 0xFFFFFF);
if (arg8 < 4) {
func_80016638(&D_800A6518[D_800B9A02 * 20], arg7, arg8);
}
}
/* func_80015F04 — main/800. Build a 4-segment closed LINE_F2 wireframe
* rectangle: fill an 8-halfword stack corner list from (x, y, w, h) =
* (a0, a1, a2, a3), allocate one 0x40-byte GPU block (4 x 0x10 LINE_F2),
* then loop i = 0..3 writing one segment per packet (corner i -> corner i+1,
* code 0x40, or 0x42 = semi-transparent when arg8 < 4) and linking each packet
* into the current OT at depth arg7 with the open-coded PSY-Q addPrim RMW
* pair. The i == 3 iteration reads pts[4] (one past the array — the original
* code's own overrun); the segment is closed afterwards by rewriting the last
* packet's (x1, y1) from pts[0]. Finally, when arg8 < 4, notify
* func_80016638 with the env block.
*
* @class: MATCH — 131/131 byte-exact (relocation-masked), and
* tools/reloc_identity.py AGREE (relocs_checked=6): every jal / %hi / %lo
* names the same symbol the target .s names.
*
* ===================================================================
* THE ENTRY-BLOCK FILLER PROBLEM AND THE THREE LEVERS THAT SOLVE IT
*
* The prologue is emitted as [addiu $sp][$v0=$a0][sw $s0][la $s0] then five
* (save, stack-arg-load, FILLER) triples. The five fillers are exactly
* A = `addiu $a0,$zero,0x40` (the func_80010A08 argument)
* X0 = `addu $t0,$v0,$zero` (x0 = a0)
* Y0 = `addu $v1,$a1,$zero` (y0 = a1)
* X1 = `addu $v0,$v0,$a2` (a0 += a2)
* Y1 = `addu $a1,$a1,$a3` (a1 += a3)
* and the target order is A, X0, Y0, X1, Y1. All five tie at INSN_PRIORITY 1,
* so the order is decided in sched1 by `rank_for_schedule`'s LUID tie-break and
* by `adjust_priority`'s BIRTHING BOOST (sched.c:2507 / birthing_insn_p:2469 —
* a `SET(REG,…)` whose dest is live and has REG_N_SETS == 1 is raised to
* max_priority, dump tell `(7f000001)`). sched1 picks BACKWARD and emits in
* reverse, so a boosted def is picked EARLY and therefore emitted LATE.
*
* Reading the `-dS` ready-list trace, the block resolves like this (AC probe):
* T-19 pick Y1 (Y1 is the anti-dep gate on Y0)
* T-20..T-24 the five boosted stack-arg loads
* T-25 pick X1 (X1 is the anti-dep gate on X0: X1 writes the pseudo X0
* reads, so X0 cannot become ready until X1 is scheduled)
* T-26 pick ? ready = {Y0, X0, A, base}
* T-27 pick ?
* T-28 A, T-29 base
* Emission is the reverse of the pick order, so the TARGET needs Y0 picked at
* T-26 and X0 at T-27. With both copies tying at priority 1 that falls out of
* the LUID order (`x0 = a0;` written before `y0 = a1;`). Any boost on X0
* makes X0 win T-26 and the two swap — which is the entire residual the first
* two passes were stuck on.
*
* LEVER 8 — PIN THE CALL ARGUMENT AND EMIT IT AS ASM. gcc sets a call's
* argument registers immediately before the `jal`, so A always had the
* HIGHEST LUID in the block, was always picked first, and was therefore
* always emitted LAST (filler #5 instead of #1). The call cannot be moved
* earlier — `flush_pending_lists` gives it a REG_DEP_ANTI on all eight `sh`
* stores — so the fix is to give the `li` a LUID at its SOURCE position:
* register s32 sz __asm__("$4");
* __asm__("addiu %0,$zero,0x40" : "=r"(sz));
* A plain `sz = 0x40;` does NOT work (cse copies REG_EQUAL 64 onto the
* call-site no-op `(set $a0 $a0)` and flow dead-store-eliminates the early
* set; `volatile` on the register var costs 25/131). Emitting the
* instruction FROM the asm sticks: one RTL insn, the target's own bytes
* 0x24040040, LUID at the source position, and the call's `$a0 = sz`
* collapses to a deleted no-op move. Worth 2 instructions.
*
* LEVER 9 — KILL Y0's BOOST FOR FREE BY MERGING IT WITH `ob`. y0 and the
* loop's second-addPrim OT base are BOTH $v1 with disjoint live ranges, so
* they are ONE variable. That gives the pseudo a second SET, REG_N_SETS
* becomes 2, and the boost dies at zero instruction cost. (This is why
* there is no `y0` local below — `ob` carries both roles.)
*
* LEVER 10 (THE THIRD PASS'S LEVER, the 2 -> 0) — KILL X0's BOOST WITH A
* RE-TIE THAT CARRIES A "memory" CLOBBER.
* __asm__("" : "=r"(x0) : "0"(x0) : "memory");
* The §30 #3 re-tie gives x0 a second SET and kills its boost, which fixes
* all five fillers — but a BARE re-tie then costs one swap somewhere else
* (`sw $ra,0x38($sp)` and `sh $t0,0x10($sp)` trade places, probes ACq1-ACq6,
* all 2/131). Reason: the bare asm's only ordering constraint is the
* anti-dependence on the one store that reads the OLD x0, so sched2 is free
* to treat it as a SIXTH entry-block filler; with six fillers for five
* (save, load) triples the extra one drags `sh $t0,0x10($sp)` up past the
* `sw $ra` save.
* ADDING "memory" fixes exactly that: the clobber makes the asm a
* memory-ordering barrier, so `sched_analyze` ties it to the whole pending
* store list instead of to one register, it can no longer float into the
* (save, load, filler) interleave, and the five real fillers keep the
* triples to themselves. It is a pure scheduling fence — zero emitted
* bytes, zero registers, no effect on allocation.
* Byte-verified: the "memory" re-tie MATCHes at every placement from before
* `pts[0].x` through before `pts[3].x` (probes Rm0-Rm6); the bare re-tie is
* 2/131 at every one of those placements (Rp1-Rp6). The `volatile` variant
* is 18/131 — do NOT reach for volatile here, the clobber is the lever.
*
* LEVERS 1-7 (inherited; each byte-verified by removal):
* 1. `x0 = a0; ob = a1; a0 += a2; a1 += a3;` — the DESTRUCTIVE update of the
* parameter is what forces the target's two extra copies and lets the sums
* reuse the dying param registers. It is also load-bearing for the
* LENGTH: writing `x1 = a0 + a2` into a fresh local makes that pseudo
* single-set, gcc coalesces it with $a0, both copies are copy-propagated
* away and the entry copy disappears — 129 ins (probe A), 130 even with
* $t0/$v1 pins (probe B). The statement ORDER here is also load-bearing:
* it is the LUID order that decides the T-25/T-26 picks above. All six
* legal interleavings were measured; only this one is right.
* 2. ONE local `cb` carries 3 / 0x40 / 0x42. Three separate literals are
* three single-set pseudos and loop.c HOISTS the invariant `li 3` and
* `li 0x40` out of the loop (2 extra preheader regs, +7 mismatched).
* 3. `i = 0;` HOISTED OUT OF THE `for` HEADER, so `addu $a2,$zero,$zero` is
* the first preheader insn as in the target.
* 4. THE MASK LOCALS ARE ASSIGNED INSIDE THE LOOP so they become loop.c
* movables hoisted AFTER the `addiu $t2,$sp,0x10` array-base movable —
* the target's preheader order (i=0, &pts, m24, mFF). As explicit
* preheader statements they land BEFORE $t2 instead (probes AK/AL).
* 5. `register s32 i4 __asm__("$9")` — with the masks hoisted, m24 and i4
* tie in global-alloc and land swapped; pinning i4 to $t1 lets m24 take
* $t0.
* 6. ADDPRIM ASYMMETRY (inherited from the matched sibling func_80016450):
* the FIRST half inlines the OT-slot address expression fully, the SECOND
* half binds it. Symmetric shapes cost 20+ instructions.
* 7. `register s32 ob __asm__("$3")` for the second half's OT base, so the
* add is the target's self-accumulating `addu $v1,$t1,$v1`.
*
* SYMBOL AUDIT (§174 law 1c — match_one masks jal/HI16/LO16, so every symbol
* was re-checked against this .s's own relocation lines; tools/reloc_identity.py
* then confirmed all 6 relocations AGREE. The .s names exactly five relocated
* symbols: D_800AF630, D_800A6518, D_800A651C, func_80010A08, func_80016638):
* - `lui/addiu %hi/%lo(D_800AF630)` -> $s0 is the ONLY named data base; the
* OT-buffer index is reached as `*(u16 *)(base + 0xA3D2)`
* (`lui $at,0x1; addu $at,$s0,$at; lhu -0x5C2E($at)`; 0x10000-0x5C2E =
* 0xA3D2, i.e. 0x800B9A02). D_800B9A02 IS declared in src/800.c and IS
* used by the siblings, but it does NOT appear in THIS .s — do not
* substitute it here. `lhu` => u16, not s16.
* - `jal func_80010A08` with $a0 = 0x40; `jal func_80016638` with
* $a0 = &D_800A6518[idx*20] (`lui %hi` + `addiu %lo` = address-of),
* $a1 = arg7 ($s5 from 0x5C($sp)), $a2 = arg8 (`andi $s4,0xFFFF`).
* - D_800A651C read with `lw %lo(...)($at)` = the `.a` member at offset 0;
* the index is scaled *20 (`sll 2; addu; sll 2`), which is exactly
* sizeof(OtBlk_80016450_80015F04) = {s32 a; s32 b[4]}.
* - Store sides: `sw $v1,0($a3)` is the packet tag word ($a3 = p),
* `sw $v0,0($v1)` is the OT slot. With $a1 = p + 0xE: `sb -0xB` = len(3),
* `sb -0x7` = code(7), `sb -0xA/-0x9/-0x8` = r0/g0/b0 <- $s3/$s2/$s1 <-
* 0x50/0x54/0x58 in that order; `sh -0x6/-0x4/-0x2/0x0` = x0/y0/x1/y1.
* - Epilogue reloads pts[0] FROM THE STACK (`lhu 0x10($sp)`, `lhu 0x12`),
* so the closing fixup must read `pts[0]`, never the x0/ob registers.
*
* TU CHECK (§174 laws 2/3) — src/800.c holds
* `INCLUDE_ASM("asm/nonmatchings/800", func_80015F04);` at line 1166:
* - There is NO prototype for func_80015F04 in src/800.c or in include/, and
* src/800.c does not include shared/engine_core.h, so the parameter list
* below is unconstrained (no DEF-side wall here).
* - `extern void *func_80010A08(s32 a0);` (src/800.c:1119),
* `extern void func_80016638(void *a0, s32 a1, s32 a2);` (:1122),
* `extern u8 D_800A6518[];` (:1121), `extern u8 D_800AF630[];` (:930) and
* the block-scope `extern OtBlk_80016450_80015F04 D_800A651C[];` (:1126) all
* ALREADY exist at file scope ABOVE line 1166 and the declarations below
* are copied to agree with them exactly. Duplicate compatible externs are
* legal, so they may stay or go when banking.
*
* >>> INTEGRATION NOTE: src/800.c ALREADY defines
* >>> typedef struct { s32 a; s32 b[4]; } OtBlk_80016450_80015F04;
* >>> at FILE scope (src/800.c:1117, i.e. ABOVE this function's slot at 1166).
* >>> DROP the duplicate typedef line below when banking — C89 rejects the
* >>> redefinition. It is present here only so the draft compiles standalone
* >>> under match_one. `Pt_80015F04` and `LineF2_80015F04` do not collide
* >>> with anything in src/800.c.
*/
typedef struct { s32 a; s32 b[4]; } OtBlk_80016450_80015F04; /* DUPLICATE — see note */
typedef struct { u16 x, y; } Pt_80015F04; /* stack corner list */
typedef struct { /* 0x10 LINE_F2 */
u8 addr[3];
u8 len;
u8 r0, g0, b0, code;
s16 x0, y0;
s16 x1, y1;
} LineF2_80015F04;
extern void *func_80010A08(s32);
extern void func_80016638(void *a0, s32 a1, s32 a2);
extern u8 D_800AF630[];
extern u8 D_800A6518[];
void func_80015F04(s32 a0, s32 a1, s32 a2, s32 a3, u8 arg4, u8 arg5, u8 arg6, u16 arg7, u16 arg8)
{
extern OtBlk_80016450_80015F04 D_800A651C[]; /* block scope: engine_core.h's DEFINE_ macros declare this symbol scalar in their own bodies */
Pt_80015F04 pts[4];
LineF2_80015F04 *p;
u8 *base;
u32 *otp;
register s32 ob __asm__("$3"); /* LEVER 9: y0 AND the 2nd addPrim OT */
s32 i; /* base — one $v1 variable, two roles, */
register s32 i4 __asm__("$9"); /* so REG_N_SETS==2 and the boost dies */
s32 x0;
register s32 sz __asm__("$4"); /* LEVER 8: the func_80010A08 argument, */
s32 semi; /* pinned to $a0 so its `li` gets a LUID */
s32 cb; /* at THIS source position, not at the jal */
register u32 m24;
register u32 mFF;
base = D_800AF630;
/* LEVER 8. Emitting the argument load from asm (rather than `sz = 0x40;`)
* is what stops cse folding REG_EQUAL 64 onto the call-site no-op move and
* dead-store-eliminating this insn. Bytes are the target's own
* 0x24040040 `addiu $a0,$zero,0x40`; the call's `$a0 = sz` becomes a
* deleted no-op. Removing this line costs 2 instructions. */
__asm__("addiu %0,$zero,0x40" : "=r"(sz));
/* LUID order below is load-bearing — see the ready-list trace in the
* header. x0 before ob, and each destructive update after its own copy. */
x0 = a0;
ob = a1;
a0 += a2;
a1 += a3;
/* LEVER 10. Second SET of x0 -> REG_N_SETS==2 -> no birthing boost, so
* X0 stops out-ranking Y0 at the T-26 pick. The "memory" clobber is the
* load-bearing half: without it the asm becomes a sixth entry-block filler
* and drags `sh $t0,0x10($sp)` above `sw $ra,0x38($sp)` (2/131). With it
* the asm is a store-ordering fence that cannot enter the
* (save, load, filler) interleave. Emits nothing. */
__asm__("" : "=r"(x0) : "0"(x0) : "memory");
pts[0].x = x0;
pts[0].y = ob;
pts[1].x = a0;
pts[1].y = ob;
pts[2].x = a0;
pts[2].y = a1;
pts[3].x = x0;
pts[3].y = a1;
p = (LineF2_80015F04 *)func_80010A08(sz);
i = 0;
semi = (arg8 < 4);
i4 = arg7 * 4;
for (; i < 4; i++) {
cb = 3;
p->len = cb;
cb = 0x40;
p->code = cb;
if (semi) {
cb = 0x42;
p->code = cb;
}
p->r0 = arg4;
p->g0 = arg5;
p->b0 = arg6;
p->x0 = pts[i].x;
p->y0 = pts[i].y;
p->x1 = pts[i + 1].x;
p->y1 = pts[i + 1].y;
m24 = 0x00FFFFFF;
mFF = 0xFF000000;
*(u32 *)p = (*(u32 *)p & mFF) |
(*(u32 *)(i4 + D_800A651C[*(u16 *)(base + 0xA3D2)].a) & m24);
ob = D_800A651C[*(u16 *)(base + 0xA3D2)].a;
otp = (u32 *)(i4 + ob);
*otp = (*otp & mFF) | ((u32)p & m24);
p++;
}
p[-1].x1 = pts[0].x;
p[-1].y1 = pts[0].y;
if (arg8 < 4) {
func_80016638(&D_800A6518[*(u16 *)(base + 0xA3D2) * 20], arg7, arg8);
}
}
/* Same shapes as the matched sibling func_80016450 (src/800.c) — a fixed
* 0x18-byte POLY_F4 quad allocator + a single addPrim() into D_800A651C's OT
* slot, then func_80016638. This one has no parameters: r0=g0=b0=0 (black),
* code is always 0x2A (no branch), and the addPrim/func_80016638 call use
* D_800A651C/D_800A6518 directly (matching the sibling's "else" arm shape,
* but against D_800A651C instead of D_800AE7BC, and args (0,0) not (0,1)).
* Field writes go through raw pointer arithmetic (not p->member) — a
* struct-member store is MEM_IN_STRUCT_P and gcc-2.7.2's alias code treats
* it as non-conflicting with the *(u32*)p full-word read, letting the
* scheduler hoist that read arbitrarily early; plain casts keep everything
* on the same alias footing so the load stays where source order puts it. */
extern void *func_80010A08(s32 a0);
extern void func_80016638(void *a0, s32 a1, s32 a2);
extern u16 D_800B9A02;
extern u8 D_800A6518[];
void func_80016110(void)
{
extern OtBlk_80016450 D_800A651C[]; /* block scope: engine_core.h's DEFINE_ macros declare this symbol scalar in their own bodies */
void *p;
u32 *ot;
register u32 m24 __asm__("$6");
register u32 pv __asm__("$4");
p = func_80010A08(0x18);
m24 = 0x00FFFFFF;
*(u8 *)((u8 *)p + 3) = 5;
*(u8 *)((u8 *)p + 7) = 0x2A;
*(s16 *)((u8 *)p + 8) = *(s16 *)((u8 *)p + 0x10) = -160;
*(s16 *)((u8 *)p + 0xC) = *(s16 *)((u8 *)p + 0x14) = 160;
*(s16 *)((u8 *)p + 0xA) = *(s16 *)((u8 *)p + 0xE) = -120;
*(u8 *)((u8 *)p + 4) = *(u8 *)((u8 *)p + 5) = *(u8 *)((u8 *)p + 6) = 0;
*(s16 *)((u8 *)p + 0x12) = *(s16 *)((u8 *)p + 0x16) = 120;
pv = *(u32 *)p;
*(u32 *)p = (pv & 0xFF000000) | (*(u32 *)D_800A651C[D_800B9A02].a & m24);
__asm__ __volatile__("" : "=r"(pv)); /* zero-byte 2nd SET: kills the sched1 birthing boost */
ot = (u32 *)D_800A651C[D_800B9A02].a;
*ot = (*ot & 0xFF000000) | ((u32)p & m24);
func_80016638(&D_800A6518[D_800B9A02 * 20], 0, 0);
}
/* Bank-safe form: NO file-scope typedef (src/800.c:92 already defines
* OtBlk_80016450; a second identical typedef is a redefinition there).
* The OT-block externs instead carry an inline structurally-identical
* anonymous struct, which only yields a benign redecl warning in-TU and
* compiles standalone here. File-scope externs below reproduce decls that
* already exist in src/800.c (:553/:652/:653/:1255/:1429/:1432) purely so
* this unit compiles alone; compatible redeclaration is warning-only. */
extern u16 D_800AF7BE;
extern u16 D_800AF7BC;
extern u8 D_800A6518[];
extern u16 D_800B9A02;
extern void *func_80010A08(s32 a0);
extern void func_80016638(void *a0, s32 a1, s32 a2);
void func_80016224(s32 a0, s32 a1)
{
extern struct { s32 a; s32 b[4]; } D_800A651C[];
extern struct { s32 a; s32 b[4]; } D_800AE7BC[];
extern u8 D_800AE7B8[];
void *p;
s16 xl;
s16 xr;
s16 yl;
s16 yr;
s32 idx;
p = func_80010A08(0x18);
*(u8 *)((u8 *)p + 3) = 5;
*(u8 *)((u8 *)p + 7) = 0x2A;
*(u8 *)((u8 *)p + 6) = a0;
*(u8 *)((u8 *)p + 5) = a0;
*(u8 *)((u8 *)p + 4) = a0;
xl = -(s32)D_800AF7BC / 2;
*(s16 *)((u8 *)p + 0x10) = xl;
*(s16 *)((u8 *)p + 0x08) = xl;
__asm__ __volatile__("" ::: "memory");
xr = D_800AF7BC / 2;
*(s16 *)((u8 *)p + 0x14) = xr;
*(s16 *)((u8 *)p + 0x0C) = xr;
yl = -(s32)D_800AF7BE / 2;
*(s16 *)((u8 *)p + 0x0E) = yl;
*(s16 *)((u8 *)p + 0x0A) = yl;
__asm__ __volatile__("" ::: "memory");
yr = D_800AF7BE / 2;
idx = a1 & 0xFFFF;
*(s16 *)((u8 *)p + 0x16) = yr;
*(s16 *)((u8 *)p + 0x12) = yr;
if (idx != 0) {
register u32 m24 __asm__("$7") = 0x00FFFFFF;
register u32 mFF __asm__("$8") = 0xFF000000;
register s32 i4 __asm__("$6") = idx * 4;
register u32 pv __asm__("$4");
pv = *(u32 *)p;
*(u32 *)p = (pv & mFF) | (*(u32 *)(i4 + D_800A651C[D_800B9A02].a) & m24);
i4 += D_800A651C[D_800B9A02].a;
*(u32 *)i4 = (*(u32 *)i4 & mFF) | ((u32)p & m24);
func_80016638(&D_800A6518[D_800B9A02 * 20], idx, 2);
} else {
register u32 m24 = 0x00FFFFFF;
register u32 pv __asm__("$3");
u32 *ot;
pv = *(u32 *)p;
*(u32 *)p = (pv & 0xFF000000) | (*(u32 *)D_800AE7BC[D_800B9A02].a & m24);
__asm__ __volatile__("" : "=r"(pv));
ot = (u32 *)D_800AE7BC[D_800B9A02].a;
*ot = (*ot & 0xFF000000) | ((u32)p & m24);
func_80016638(&D_800AE7B8[D_800B9A02 * 20], 0, 2);
}
}
/* func_80016450 — main/800: allocate a 0x18-byte flat semi-transparent quad
* (POLY_F4, code 0x2A) covering the whole 320x240 screen at brightness a0,
* PSY-Q addPrim() it onto one of two OT tables selected by (u16)a1, then hand
* the owning env block to func_80016638.
*
* @class: (was regalloc-order / sched)
* @stuck: none — MATCH, 122/122 instructions, byte-exact under match_one, and
* all 27 relocations hand-checked one-to-one against asm/nonmatchings/800/
* func_80016450.s (same offsets, same symbols, same order): func_80010A08,
* 6x D_800B9A02, 2x D_800A651C, D_800A6518, 2x D_800AE7BC, D_800AE7B8,
* func_80016638. Destination TU src/800.c already declares
* `extern void func_80016450(s32 a0, s32 a1);` (L680) — adopted verbatim.
* No other file-scope decl of any symbol used here exists in the
* preprocessed TU, so these externs merge silently.
*
* ---------------------------------------------------------------------------
* WHAT THIS FUNCTION ACTUALLY IS
*
* The and-0xFF000000 / and-0x00FFFFFF / or triple is the libgpu P_TAG 24-bit
* `addr` BITFIELD, i.e. the PSY-Q macro pair
* addPrim(ot, p) == setaddr(p, getaddr(ot)), setaddr(ot, p)
* The macro argument `ot` is textually duplicated, which is why D_800B9A02 and
* the OT-base load are each emitted TWICE per branch. Recognising that is what
* fixes the instruction count; the rest is register/schedule steering.
*
* ---------------------------------------------------------------------------
* LEVERS (each byte-verified by removing it and re-scoring)
*
* 1. CHAINED ASSIGNMENT reproduces the reversed store pairs.
* `p->x0 = p->x2 = K` emits sh K,0x10 THEN sh K,0x8 and keeps K in ONE
* constant register across both stores. Same for `p->r0=p->g0=p->b0=a0`.
* (Inherited from the first pass — natural source order gives four separate
* constant registers and the wrong store order.)
*
* 2. `*(u32 *)p`, NOT `p->tag`. A struct-member store does NOT kill a plain
* global's CSE in gcc-2.7.2, so `p->tag` cached D_800B9A02/D_800A651C and
* produced 110 ins instead of 122. A non-MEM_IN_STRUCT_P store kills
* everything and reproduces all six reloads exactly. (First pass.)
*
* 3. ⚠ THE ONE THAT UNSTUCK THE 23-MISMATCH RESIDUAL — DO NOT bind the OT slot
* address to a function-scope local used in BOTH addPrim halves. The first
* pass wrote `ot = <addr>; …*ot…; ot = <addr>; *ot = …;` in each arm. One
* pseudo with two def/use pairs = ONE live range spanning the whole arm, so
* local-alloc gives it a DEDICATED register ($t0) and shifts every other
* temp one slot down. The target instead computes the address into a
* register that DIES on the same insn (`addu $v0,$a2,$v0` in the first half,
* `addu $a2,$a2,$v0` in the second). The fix is the HYBRID shape used by
* the sibling match func_80185944 (src/ov_SC03_119/..._jr_8017FB84.c):
* - first half: the address expression FULLY INLINED (no local at all);
* - second half: its own short-lived binding.
* This alone rebuilt the whole `addu/lw` shape (23 -> the register-name
* residual below). Note the first pass had measured "fully inlining" (45)
* and "splitting it in two" (44) as WORSE — because it applied each to BOTH
* halves. It is the ASYMMETRY that matches.
*
* 4. OPERAND ORDER IS SOURCE ORDER: `i4 + D_800A651C[…].a`, not
* `D_800A651C[…].a + i4`. gcc-2.7.2 emits `addu $v0,$a2,$v0` from the
* former and `addu $v0,$v0,$a2` from the latter. (13 -> ...)
*
* 5. SELF-ACCUMULATE TO REUSE THE DYING REGISTER. The second half's
* `addu $a2,$a2,$v0` writes the OT address back into the SAME register that
* held idx*4. A fresh local can never produce that (gcc will not clobber a
* still-named pinned value), but `i4 += D_800A651C[…].a;` — reusing the
* variable as its own accumulator — does, exactly. 9 -> 6.
*
* 6. THE ELSE ARM'S LAST 6 WERE A SCHEDULE SWAP, NOT ALLOCATION. Target fills
* the `lhu D_800B9A02` load-delay slot with the tag load `lw $v1,0($t1)`
* and the `lw %lo(D_800AE7BC)` slot with `lui $a0,0xff00`; we had them
* exactly swapped, which also flipped D_800B9A02 $a0<->$v1. This is
* gcc-2.7.2 sched.c's BIRTHING BOOST on a single-SET destination (the boost
* sinks the load to just before its consumer, and `potential_hazard` breaks
* the tie in the load's favour, so it is picked first = placed LAST).
* Cure = the func_80185944 recipe, both halves needed:
* (a) PIN the tag value (`register u32 pv __asm__("$3")`), and
* (b) give `pv` a SECOND SET with a zero-byte
* `__asm__ __volatile__("" : "=r"(pv));` — REG_N_SETS != 1 kills the
* boost. A plain C reassignment does NOT work (cse/flow removes it).
* PLACEMENT MATTERS: the dead asm must sit immediately after `pv`'s last
* use INSIDE the arm. Putting it after the func_80016638 call (as the
* sibling does, where the call is in the same block) makes gcc keep $v1
* live across the jal here and costs +3 instructions (125 ins, 53 diff).
* 6 -> 0.
*
* PIN-TRIM LOG (all re-scored; three pins are the verified minimum):
* drop `m24` $a3 pin (then arm) — MATCH (kept as plain `register`)
* drop `mFF` $t0 pin (then arm) — MATCH (kept as plain `register`)
* drop `m24` $a2 pin (else arm) — MATCH (kept as plain `register`)
* all three dropped together — MATCH <= this file
* replace the mask LOCALS with bare literals — 3 mismatched (the locals are
* load-bearing: a literal is re-materialised per use and reschedules)
* drop `i4` $a2 pin — 2 mismatched
* drop `pv` $a0 pin (then arm) — 4 mismatched
* drop `pv` $v1 pin (else arm) — 7 mismatched
* pin `p` to $t1 — 123 ins, 113 mismatched (never pin p)
*/
/* engine_types.h-style OT block: 0x14 stride, the OT base pointer at +0 */
/* 0x18-byte POLY_F4 */
typedef struct {
u8 addr[3];
u8 len;
u8 r0, g0, b0, code;
s16 x0, y0;
s16 x1, y1;
s16 x2, y2;
s16 x3, y3;
} F4_80016450;
extern void *func_80010A08(s32);
extern void func_80016638(void *a0, s32 a1, s32 a2);
extern u16 D_800B9A02;
extern u8 D_800A6518[];
extern OtBlk_80016450 D_800AE7BC[];
extern u8 D_800AE7B8[];
void func_80016450(s32 a0, s32 a1)
{
extern OtBlk_80016450 D_800A651C[]; /* block scope: engine_core.h's DEFINE_ macros declare this symbol scalar inside their own bodies */
F4_80016450 *p;
u32 *ot;
s32 idx;
p = (F4_80016450 *)func_80010A08(0x18);
p->len = 5;
p->code = 0x2A;
p->r0 = p->g0 = p->b0 = a0;
p->x0 = p->x2 = -160;
p->x1 = p->x3 = 160;
p->y0 = p->y1 = -120;
p->y2 = p->y3 = 120;
idx = a1 & 0xFFFF;
if (idx != 0) {
register u32 m24 = 0x00FFFFFF;
register u32 mFF = 0xFF000000;
register s32 i4 __asm__("$6") = idx * 4;
register u32 pv __asm__("$4");
pv = *(u32 *)p;
*(u32 *)p = (pv & mFF) | (*(u32 *)(i4 + D_800A651C[D_800B9A02].a) & m24);
i4 += D_800A651C[D_800B9A02].a;
*(u32 *)i4 = (*(u32 *)i4 & mFF) | ((u32)p & m24);
func_80016638(&D_800A6518[D_800B9A02 * 20], idx, 1);
} else {
register u32 m24 = 0x00FFFFFF;
register u32 pv __asm__("$3");
pv = *(u32 *)p;
*(u32 *)p = (pv & 0xFF000000) | (*(u32 *)D_800AE7BC[D_800B9A02].a & m24);
__asm__ __volatile__("" : "=r"(pv)); /* zero-byte 2nd SET: kills the sched1 birthing boost */
ot = (u32 *)D_800AE7BC[D_800B9A02].a;
*ot = (*ot & 0xFF000000) | ((u32)p & m24);
func_80016638(&D_800AE7B8[D_800B9A02 * 20], 0, 1);
}
}
extern void *func_80010A08(s32 a0);
void func_80016638(void *a0, s32 a1, s32 a2)
{
void *s2 = a0;
s32 s1 = a1;
s32 s0 = a2;
void *v0;
register u32 mask1 __asm__("$5");
register u32 mask2 __asm__("$6");
register u32 pv __asm__("$4");
u32 v1;
register u32 tmp __asm__("$2");
v0 = func_80010A08(8);
mask1 = 0xFFFFFF;
{
u32 one = 1;
s0 = (s0 << 5) & 0x9FF;
*(u8 *)((u8 *)v0 + 3) = (u8)one;
__asm__ __volatile__("" : "=r"(one) : "0"(one));
}
s0 = s0 | 0xE1000000;
s1 = s1 << 2;
mask2 = 0xFF000000;
*(u32 *)((u8 *)v0 + 4) = s0;
/* First addPrim RMW: new primitive's link = OT slot's current low24,
* primitive keeps its own top-byte tag. Mirrors func_80015D4C /
* func_80016450's matched addPrim idiom in this same TU. */
v1 = *(u32 *)((u8 *)s2 + 4);
pv = *(u32 *)v0;
v1 = *(u32 *)(s1 + v1);
pv = pv & mask2;
v1 = v1 & mask1;
pv = pv | v1;
*(u32 *)v0 = pv;
/* Second addPrim RMW: OT slot := (OT slot's own top-byte tag) |
* (new primitive's address, masked to low24) — head-insert the new
* primitive into the OT chain. */
v1 = *(u32 *)((u8 *)s2 + 4);
s1 = s1 + v1;
v1 = *(u32 *)s1;
tmp = (u32)v0 & mask1;
v1 = v1 & mask2;
v1 = v1 | tmp;
*(u32 *)s1 = v1;
}
void func_800166E8(void *a0, s32 a1) {
s32 local_buffer[2];
register s32 v0 __asm__("$2");
register s32 v1 __asm__("$3");
__asm__ volatile(""); // Barrier to force stack allocation first
if (a1 == 0)
goto skip;
v0 = a1 - 1;
v1 = -1;
do {
*(u8 *)a0 = 0;
v0--;
a0 = (void *)((s32)a0 + 1);
} while (v0 != v1);
skip:
return;
}
#ifdef NON_MATCHING
/* bzero(p, n): n<4 byte path; else align-to-4 -> word-fill (sw) -> remainder bytes.
* Logically correct and instruction-identical to the target EXCEPT gcc 2.7.2 emits a
* phantom empty 16-byte stack frame here (target is frameless) — that one frame
* prologue/epilogue is the entire residual. A decomp-permuter candidate (structural
* permutation can flip frame allocation). See docs/matching-cookbook.md §4. */
void func_80016714(s8 *a0, s32 a1) {
s32 v1;
if (a1 < 4) {
a1 = a1 - 1;
if (a1 != -1) {
do {
*a0 = 0;
a1 -= 1;
a0 += 1;
} while (a1 != -1);
}
} else {
v1 = (s32)a0;
if (((s32)a0 & 3) != 0) {
do {
*a0 = 0;
a0 += 1;
v1 += 1;
a1 -= 1;
} while ((v1 & 3) != 0);
}
v1 = (a1 >> 2) - 1;
if (v1 != -1) {
do {
*(s32 *)a0 = 0;
v1 -= 1;
a0 += 4;
} while (v1 != -1);
}
a1 = (a1 & 3) - 1;
if (a1 != -1) {
do {
*a0 = 0;
a1 -= 1;
a0 += 1;
} while (a1 != -1);
}
}
}
#else
void func_80016714(void *ptr, s32 len) {
unsigned char *p = (unsigned char *)ptr;
register s32 v0 __asm__("$2");
s32 v1;
if (len < 4) {
v0 = -1;
len--;
if (len != v0) {
do {
p[0] = 0;
p++;
len--;
} while (len != v0);
}
} else {
// Align pointer to 4-byte boundary
v1 = (s32)p;
while ((v1 & 0x3) != 0) {
p[0] = 0;
p++;
v1++;
len--;
}
// Clear 4-byte words
v1 = len >> 2;
v1--;
v0 = -1;
if (v1 != v0) {
do {
*(unsigned int *)p = 0;
p += 4;
v1--;
} while (v1 != v0);
}
// Clear remaining bytes
len = len & 0x3;
len--;
v0 = -1;
if (len != v0) {
do {
p[0] = 0;
p++;
len--;
} while (len != v0);
}
}
}
#endif
extern void func_80016224(s32 a0, s32 a1);
extern u16 D_800AF7CE;
void func_800167B8(s32 a0) {
a0 = ((u16)a0) < 4U ? 0xFF : 0x00;
D_800AF7CE = 0;
func_80016224(a0, 0);
}
extern u8 D_800AF630[];
extern u8 D_80062BA0[];
extern s32 D_800B9A18;
extern u16 D_800AF7CE;
extern void func_80016224(s32 a0, s32 a1);
s32 func_800167F0(s32 arg0) {
register u32 zr __asm__("$0");
register s32 v1 __asm__("$3");
s32 x = arg0 + zr;
u8 *s0 = D_800AF630;
s32 mask = arg0 & 3;
u32 raw;
u32 a0;
u32 v0;
if (mask == 0) {
v1 = D_80062BA0[D_800B9A18];
} else {
v1 = D_80062BA0[mask];
}
D_800AF7CE = D_800AF7CE + v1;
__asm__ __volatile__("" ::: "memory");
raw = *(u16 *)&s0[0x19E];
a0 = raw + zr;
if (a0 >= 0xFFU) {
a0 = 0xFF;
}
v0 = ((x & 0xFFFFU) < 4U) ? 0xFF - a0 : a0;
func_80016224(v0 & 0xFF, 0);
return *(u16 *)&s0[0x19E] >= 0xFF;
}
extern u16 D_800AF7CE;
void func_800168B4(void) {
D_800AF7CE = 0;
}
extern u8 D_800AF630[];
extern u16 D_800AF7CE;
extern s32 D_800B9A18;
extern u8 D_80062BA0[];
s32 func_800168C4(register s32 arg0) {
register s32 t __asm__("$3");
u8 *base = D_800AF630;
arg0 &= 3;
if (arg0 == 0) {
t = D_80062BA0[D_800B9A18];
} else {
t = D_80062BA0[arg0];
}
D_800AF7CE += t;
__asm__ __volatile__("" : : : "memory");
t = *(u16 *) (base + 0x19E);
if (t >= 0xFFU) {
return *(u16 *) (base + 0x188) != 0;
}
return 0;
}
extern u16 D_800AF7CE;
extern void func_80016450(s32 a0, s32 a1);
void func_80016940(s32 a0) {
s32 param = (((u32)a0 & 0xFFFF) < 4) ? 0xFF : 0x00;
D_800AF7CE = 0;
func_80016450(param, 0);
}
extern u8 D_800AF630[];
extern u8 D_80062BA0[];
extern s32 D_800B9A18;
extern u16 D_800AF7CE;
extern void func_80016450(s32 a0, s32 a1);
s32 func_80016978(s32 arg0) {
register u32 zr __asm__("$0");
register s32 v1 __asm__("$3");
s32 x = arg0 + zr;
u8 *s0 = D_800AF630;
s32 mask = arg0 & 3;
u32 raw;
u32 a0;
u32 v0;
if (mask == 0) {
v1 = D_80062BA0[D_800B9A18];
} else {
v1 = D_80062BA0[mask];
}
D_800AF7CE = D_800AF7CE + v1;
__asm__ __volatile__("" ::: "memory");
raw = *(u16 *)&s0[0x19E];
a0 = raw + zr;
if (a0 >= 0xFFU) {
a0 = 0xFF;
}
v0 = ((x & 0xFFFFU) < 4U) ? 0xFF - a0 : a0;
func_80016450(v0 & 0xFF, 0);
return *(u16 *)&s0[0x19E] >= 0xFF;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80016A3C);
INCLUDE_ASM("asm/nonmatchings/800", func_80016A5C);
typedef struct {
u32 xy; /* 0x0: vx (lo16) | vy (hi16) */
s16 z; /* 0x4 */
s16 pad; /* 0x6 */
} SV_80016A7C; /* 0x8 */
typedef struct {
SV_80016A7C v[2]; /* 0x00 */
u32 rgb0; /* 0x10 */
u32 rgb1; /* 0x14 */
u32 attr; /* 0x18 */
} Src_80016A7C;
typedef struct {
u32 tag; /* 0x00 */
u32 rgb0; /* 0x04 */
u32 xy0; /* 0x08 */
u32 rgb1; /* 0x0C */
u32 xy1; /* 0x10 */
} LineG2_80016A7C; /* 0x14 */
extern void *func_80010A08(s32 size);
extern void SetLineG2(void *p);
extern void func_80017E8C(s32 arg0);
extern s32 RotTransPers3(void *v0, void *v1, void *v2,
s32 *sxy0, s32 *sxy1, s32 *sxy2,
s32 *p, s32 *flag);
extern void func_80018094(void *p, s32 otz, u32 flags);
void func_80016A7C(Src_80016A7C *arg0, s32 arg1)
{
LineG2_80016A7C *p;
s32 opz;
s32 flag;
s32 otz;
p = (LineG2_80016A7C *)func_80010A08(0x14);
p->rgb0 = arg0->rgb0;
p->rgb1 = arg0->rgb1;
SetLineG2(p);
if (arg1 != 0) {
func_80017E8C(arg1);
otz = RotTransPers3(&arg0->v[0], &arg0->v[1], &arg0->v[1],
(s32 *)&p->xy0, (s32 *)&p->xy1, (s32 *)&p->xy1,
&opz, &flag);
} else {
p->xy0 = arg0->v[0].xy;
p->xy1 = arg0->v[1].xy;
__asm__ volatile("");
otz = arg0->v[0].z;
flag = 0;
}
if ((flag & ~0x1000) == 0) {
func_80018094(p, otz, arg0->attr);
}
}
typedef struct {
s16 vx, vy, vz, pad;
} SVECTOR_80016B60;
typedef struct {
SVECTOR_80016B60 v[3]; /* 0x00 */
u32 rgb0; /* 0x18 */
u32 rgb1; /* 0x1C */
u32 rgb2; /* 0x20 */
u32 flags; /* 0x24 */
} Src_80016B60;
typedef struct {
u32 tag; /* 0x00 */
u32 rgb0; /* 0x04 */
u32 xy0; /* 0x08 */
u32 rgb1; /* 0x0C */
u32 xy1; /* 0x10 */
u32 rgb2; /* 0x14 */
u32 xy2; /* 0x18 */
u32 otz; /* 0x1C */
} LineG3_80016B60;
extern void *func_80010A08(s32);
extern void SetLineG3(LineG3_80016B60 *p);
extern void func_80017E8C(s32 arg0);
extern s32 RotTransPers3(void *v0, void *v1, void *v2,
s32 *sxy0, s32 *sxy1, s32 *sxy2,
s32 *p, s32 *flag);
extern void func_80018094(void *p, s32 otz, u32 flags);
void func_80016B60(Src_80016B60 *arg0, s32 arg1)
{
LineG3_80016B60 *p;
s32 flag;
s32 otz_unused;
s32 otz;
p = (LineG3_80016B60 *)func_80010A08(0x20);
p->rgb0 = arg0->rgb0;
p->rgb1 = arg0->rgb1;
p->rgb2 = arg0->rgb2;
SetLineG3(p);
func_80017E8C(arg1);
otz = RotTransPers3(&arg0->v[0], &arg0->v[1], &arg0->v[2],
(s32 *)&p->xy0, (s32 *)&p->xy1, (s32 *)&p->xy2,
&otz_unused, &flag);
if ((flag & ~0x1000) == 0) {
func_80018094(p, otz, arg0->flags);
}
}
/* func_80016C28 — src/800.c (main, -O2).
*
* Builds one LINE_G4 (0x28 bytes) from a "src" descriptor:
* 0x00..0x1F four SVECTORs (v0..v3)
* 0x20..0x2C four rgb+code words
* 0x30 extra word passed through to func_80018094 as "flags"
* Runs the GTE unconditionally (RTPT on v0..v2, RTPS on v3, AVSZ4 -> otz),
* then hands the prim to func_80018094 iff the combined GTE flag word is
* clean of everything except bit 0x1000.
*
* Mirrors the already-matched func_80017930 (same file) almost exactly —
* same 4-SVECTOR layout, same gte_ld/rtp/stsxy/avsz4/stotz macro sequence
* and ordering — just building a LINE_G4 (SetLineG4) instead of a
* POLY_GT4 (SetPolyGT4), and calling SetLineG4 right after the alloc
* (before the rgb copies) instead of after them, and with the GTE call
* unconditional (no "if (arg1 != 0)" guard around func_80017E8C/GTE block).
*/
typedef struct {
s16 vx, vy, vz, pad;
} SV_80016C28;
typedef struct {
SV_80016C28 v[4]; /* 0x00 */
u32 rgb0; /* 0x20 */
u32 rgb1; /* 0x24 */
u32 rgb2; /* 0x28 */
u32 rgb3; /* 0x2C */
u32 flags; /* 0x30 */
} Src_80016C28;
typedef struct {
u32 tag; /* 0x00 */
u32 rgb0; /* 0x04 */
u32 xy0; /* 0x08 */
u32 rgb1; /* 0x0C */
u32 xy1; /* 0x10 */
u32 rgb2; /* 0x14 */
u32 xy2; /* 0x18 */
u32 rgb3; /* 0x1C */
u32 xy3; /* 0x20 */
u32 term; /* 0x24 */
} LineG4_80016C28; /* 0x28 */
extern void *func_80010A08(s32);
extern void SetLineG4(LineG4_80016C28 *p);
extern void func_80017E8C(s32 arg0);
extern void func_80018094(void *p, s32 otz, u32 flags);
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_rtps() __asm__ volatile ("nop;nop;rtps")
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_avsz4() __asm__ volatile ("nop;nop;avsz4")
#define gte_stsxy(r0) __asm__ volatile ( \
"swc2 $14, 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_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
void func_80016C28(Src_80016C28 *arg0, s32 arg1)
{
LineG4_80016C28 *p;
s32 flag;
s32 flag2;
s32 otz;
p = (LineG4_80016C28 *)func_80010A08(0x28);
SetLineG4(p);
p->rgb0 = arg0->rgb0;
p->rgb1 = arg0->rgb1;
p->rgb2 = arg0->rgb2;
p->rgb3 = arg0->rgb3;
func_80017E8C(arg1);
gte_ldv3(&arg0->v[0], &arg0->v[1], &arg0->v[2]);
gte_rtpt();
gte_stflg(&flag);
gte_stsxy3(&p->xy0, &p->xy1, &p->xy2);
gte_ldv0(&arg0->v[3]);
gte_rtps();
gte_stflg(&flag2);
flag |= flag2;
gte_stsxy(&p->xy3);
gte_avsz4();
gte_stotz(&otz);
if ((flag & ~0x1000) == 0) {
func_80018094(p, otz, arg0->flags);
}
}
/* Standalone draft for func_80016D78 (src/800.c, main, mass lane).
* Fresh crack: sibling func_80016F18 in the same TU (already MATCHED) is the
* FT4 / 4-vertex version of this exact shape (alloc via func_80010A08,
* SetPolyFT4/FT3, GetTPage, GetClut, func_80018194). This function is the
* FT3 / 3-vertex sibling: it always takes the GTE-hardware path (a single
* unconditional RotTransPers3 call, no inline-GTE-macro branch) and always
* passes tp=0 to GetTPage (no tpage-select branch either) -- matching the
* target .s exactly (no branch until the final `sltiu`/`beqz` clut compare
* and the trailing `bnez` flag test).
*/
/* 8-byte vertex entry, same shape as the matched sibling's V16F18. */
typedef struct {
/* 0x0 */ u32 xy;
/* 0x4 */ s16 z;
/* 0x6 */ s16 pad;
} V16D78;
typedef union {
u32 w;
u16 h[2];
} UV16D78;
/* input struct: 3 vertices + 3 uv words + rgbc + attr + clut byte */
typedef struct {
/* 0x00 */ V16D78 v[3];
/* 0x18 */ UV16D78 uv[3];
/* 0x24 */ u32 rgbc;
/* 0x28 */ u32 attr;
/* 0x2C */ u8 clut;
} S16D78;
/* output POLY_FT3-shaped packet, 0x20 bytes, same field-by-field shape as
* the matched sibling's FT4_16F18 (minus the 4th vertex). */
typedef struct {
/* 0x00 */ u32 tag;
/* 0x04 */ u32 rgbc;
/* 0x08 */ u32 xy0;
/* 0x0C */ u8 u0;
/* 0x0D */ u8 v0;
/* 0x0E */ u16 clut;
/* 0x10 */ u32 xy1;
/* 0x14 */ u8 u1;
/* 0x15 */ u8 v1;
/* 0x16 */ u16 tpage;
/* 0x18 */ u32 xy2;
/* 0x1C */ u8 u2;
/* 0x1D */ u8 v2;
/* 0x1E */ u16 pad0;
} FT3_16D78;
extern void *func_80010A08(s32);
extern void SetPolyFT3(FT3_16D78 *);
extern void func_80017E8C(s32);
extern s32 RotTransPers3(void *v0, void *v1, void *v2,
s32 *sxy0, s32 *sxy1, s32 *sxy2,
s32 *p, s32 *flag);
extern s32 GetTPage(s32, s32, s32, s32);
extern s32 GetClut(s32, s32);
extern void func_80018194(void *, s32, u32);
void func_80016D78(S16D78 *arg0, s32 arg1)
{
FT3_16D78 *p;
u32 t;
u32 c;
s32 otz_unused;
s32 flag;
s32 otz;
p = (FT3_16D78 *)func_80010A08(0x20);
p->rgbc = arg0->rgbc;
SetPolyFT3(p);
func_80017E8C(arg1);
otz = RotTransPers3(&arg0->v[0], &arg0->v[1], &arg0->v[2],
(s32 *)&p->xy0, (s32 *)&p->xy1, (s32 *)&p->xy2,
&otz_unused, &flag);
t = arg0->uv[0].w;
p->u0 = t;
p->v0 = t >> 16;
t = arg0->uv[1].w;
p->u1 = t;
p->v1 = t >> 16;
t = arg0->uv[2].w;
p->u2 = t;
p->v2 = t >> 16;
p->tpage = GetTPage(0, (arg0->attr >> 28) & 3,
(arg0->uv[0].h[0] >> 2) & 0x3FC0,
arg0->uv[0].h[1] & 0xFF00);
c = arg0->clut;
p->clut = GetClut(c < 0xE0 ? 0x160 : 0x100, c | 0x100);
if ((flag & ~0x1000) == 0) {
func_80018194((void *)p, otz, (u32)arg0->attr);
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_80016EB0);
void func_80016ED4(void *arg0)
{
func_80016F18(arg0, 0, 0);
}
INCLUDE_ASM("asm/nonmatchings/800", func_80016EF8);
/* ---- PsyQ GTE inline macros (same spelling as the matched ov_SC03_* TUs) ---- */
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_rtps() __asm__ volatile ("nop;nop;rtps")
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_avsz4() __asm__ volatile ("nop;nop;avsz4")
#define gte_stsxy(r0) __asm__ volatile ( \
"swc2 $14, 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_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
/* ---- types ---- */
typedef struct {
/* 0x0 */ u32 xy;
/* 0x4 */ s16 z;
/* 0x6 */ s16 pad;
} V16F18; /* 8 bytes */
typedef union {
u32 w;
u16 h[2];
} UV16F18;
typedef struct {
/* 0x00 */ V16F18 v[4];
/* 0x20 */ UV16F18 uv[4];
/* 0x30 */ u32 rgbc;
/* 0x34 */ u32 attr;
/* 0x38 */ u8 clut;
} S16F18;
typedef struct {
/* 0x00 */ u32 tag;
/* 0x04 */ u32 rgbc;
/* 0x08 */ u32 xy0;
/* 0x0C */ u8 u0;
/* 0x0D */ u8 v0;
/* 0x0E */ u16 clut;
/* 0x10 */ u32 xy1;
/* 0x14 */ u8 u1;
/* 0x15 */ u8 v1;
/* 0x16 */ u16 tpage;
/* 0x18 */ u32 xy2;
/* 0x1C */ u8 u2;
/* 0x1D */ u8 v2;
/* 0x1E */ u16 pad0;
/* 0x20 */ u32 xy3;
/* 0x24 */ u8 u3;
/* 0x25 */ u8 v3;
/* 0x26 */ u16 pad1;
} FT4_16F18;
extern void *func_80010A08(s32);
extern void SetPolyFT4(FT4_16F18 *);
extern void func_80017E8C(s32);
extern s32 GetTPage(s32, s32, s32, s32);
extern s32 GetClut(s32, s32);
extern void func_80018194(void *, s32, u32);
void func_80016F18(S16F18 *arg0, s32 arg1, s32 arg2)
{
s32 flag;
s32 flag2;
s32 otz;
FT4_16F18 *p;
u32 t;
u32 c;
p = (FT4_16F18 *)func_80010A08(0x28);
p->rgbc = arg0->rgbc;
SetPolyFT4(p);
if (arg1 != 0) {
func_80017E8C(arg1);
gte_ldv3(&arg0->v[0], &arg0->v[1], &arg0->v[2]);
gte_rtpt();
gte_stflg(&flag);
gte_stsxy3(&p->xy0, &p->xy1, &p->xy2);
gte_ldv0(&arg0->v[3]);
gte_rtps();
gte_stflg(&flag2);
flag |= flag2;
gte_stsxy(&p->xy3);
gte_avsz4();
gte_stotz(&otz);
} else {
p->xy0 = arg0->v[0].xy;
p->xy1 = arg0->v[1].xy;
p->xy2 = arg0->v[2].xy;
p->xy3 = arg0->v[3].xy;
flag = 0;
otz = arg0->v[0].z;
}
t = arg0->uv[0].w;
p->u0 = t;
p->v0 = t >> 16;
t = arg0->uv[1].w;
p->u1 = t;
p->v1 = t >> 16;
t = arg0->uv[2].w;
p->u2 = t;
p->v2 = t >> 16;
t = arg0->uv[3].w;
p->u3 = t;
p->v3 = t >> 16;
if (arg2 != 0) {
p->tpage = GetTPage(2, (arg0->attr >> 28) & 3,
(arg0->uv[0].h[0] >> 2) & 0x3FC0, 0);
} else {
p->tpage = GetTPage(0, (arg0->attr >> 28) & 3,
(arg0->uv[0].h[0] >> 2) & 0x3FC0,
arg0->uv[0].h[1] & 0xFF00);
}
c = arg0->clut;
p->clut = GetClut(c < 0xE0 ? 0x160 : 0x100, c | 0x100);
if ((flag & ~0x1000) == 0) {
func_80018194((void *)p, otz, (u32)arg0->attr);
}
}
/* 8-byte vertex entry: vx/vy packed as one word (xy), then z, then pad.
* Same layout convention as SVec3_800173DC above. */
typedef struct {
u32 xy; /* 0x0: vx (lo16) | vy (hi16) */
s16 z; /* 0x4 */
s16 pad; /* 0x6 */
} SVec_80017168; /* 0x8 */
/* Source descriptor: three vertices + packed rgb/code word + trailing attr
* word forwarded verbatim to func_80018094. */
typedef struct {
SVec_80017168 v[3]; /* 0x00 */
u32 rgbc; /* 0x18 */
u32 attr; /* 0x1C */
} Src_80017168;
/* POLY_F3 (libgpu), 0x14 bytes. */
typedef struct {
u32 tag; /* 0x00 */
u32 rgbc0; /* 0x04 */
u32 xy0; /* 0x08 */
u32 xy1; /* 0x0C */
u32 xy2; /* 0x10 */
} F3_80017168; /* 0x14 */
extern void *func_80010A08(s32 size);
extern void SetPolyF3(F3_80017168 *p);
extern void func_80017E8C(s32 arg0);
extern s32 RotTransPers3(void *v0, void *v1, void *v2,
s32 *sxy0, s32 *sxy1, s32 *sxy2,
s32 *p, s32 *flag);
extern void func_80018094(void *p, s32 otz, u32 flags);
void func_80017168(Src_80017168 *arg0, s32 arg1)
{
F3_80017168 *p;
s32 flag;
s32 otzp;
s32 otz;
p = (F3_80017168 *)func_80010A08(0x14);
p->rgbc0 = arg0->rgbc;
SetPolyF3(p);
if (arg1 != 0) {
func_80017E8C(arg1);
otz = RotTransPers3(&arg0->v[0], &arg0->v[1], &arg0->v[2],
(s32 *)&p->xy0, (s32 *)&p->xy1, (s32 *)&p->xy2,
&otzp, &flag);
} else {
p->xy0 = arg0->v[0].xy;
p->xy1 = arg0->v[1].xy;
p->xy2 = arg0->v[2].xy;
__asm__ volatile("");
otz = arg0->v[0].z;
flag = 0;
}
if ((flag & ~0x1000) == 0) {
func_80018094(p, otz, arg0->attr);
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_80017254);
INCLUDE_ASM("asm/nonmatchings/800", func_80017274);
/* func_80017294 (main, src/800.c) — mass-lane fresh crack.
*
* Builds one POLY_F4 (0x18 bytes) from a "quad descriptor" arg0:
* 0x00..0x1F four SVECTOR-ish V0 entries (v0..v3), each { u32 xy; s16 z; s16 pad; }
* 0x20 rgbc word (r0,g0,b0,code packed)
* 0x24 flags word (passed straight through to func_80018094)
* arg1 != 0 -> func_80017E8C(arg1) then RotTransPers4 projects v0..v3 into the
* poly's xy0..xy3 and returns otz, with a separate `flag` out-param.
* arg1 == 0 -> copy the xy words straight through, otz = arg0->v[0].z, flag = 0.
* Finally, if (flag & ~0x1000) == 0, hand the poly to func_80018094(p, otz, flags).
*
* Structurally identical in shape to func_80017930/func_80016F18 in this same TU
* (both already-matched siblings), and to func_8018F734 (src/ov_SC03_117/...) which
* is the RotTransPers4-based POLY_G4 exemplar this draft's call shape is modeled on.
*/
extern void *func_80010A08(s32);
extern void SetPolyF4(void *);
extern void func_80017E8C(s32); /* src/800.c already declares this as (s32) at L1122/L1244 */
extern s32 RotTransPers4(void *, void *, void *, void *,
s32 *, s32 *, s32 *, s32 *, s32 *, s32 *);
extern void func_80018094(void *, s32, u32);
typedef struct {
u32 xy;
s16 z;
s16 pad;
} V0_80017294; /* 8 bytes */
typedef struct {
V0_80017294 v[4]; /* 0x00 */
u32 rgbc; /* 0x20 */
u32 flags; /* 0x24 */
} Src_80017294;
typedef struct {
u32 tag;
u32 rgbc;
u32 xy0;
u32 xy1;
u32 xy2;
u32 xy3;
} F4_80017294; /* 0x18 bytes, POLY_F4 layout */
void func_80017294(Src_80017294 *arg0, s32 arg1)
{
F4_80017294 *p;
s32 otz;
s32 flag;
s32 opz;
p = (F4_80017294 *)func_80010A08(0x18);
p->rgbc = arg0->rgbc;
SetPolyF4(p);
if (arg1 != 0) {
func_80017E8C(arg1);
otz = RotTransPers4(&arg0->v[0], &arg0->v[1], &arg0->v[2], &arg0->v[3],
(s32 *)&p->xy0, (s32 *)&p->xy1, (s32 *)&p->xy2, (s32 *)&p->xy3,
&opz, &flag);
} else {
p->xy0 = arg0->v[0].xy;
p->xy1 = arg0->v[1].xy;
p->xy2 = arg0->v[2].xy;
p->xy3 = arg0->v[3].xy;
otz = arg0->v[0].z;
/* zero-byte scheduling barrier: without it gcc-2.7.2's sched1 hoists
* `flag = 0` into the load-delay slot after the xy3 load (sched1
* normalises statement order away, cf. func_80015D4C's note in this
* same TU); the barrier keeps the store in its natural last position,
* leaving a genuine nop in that slot as the target has. */
__asm__ __volatile__("" ::: "memory");
flag = 0;
}
if ((flag & ~0x1000) == 0) {
func_80018094(p, otz, arg0->flags);
}
}
void func_8001739C(void *arg0)
{
func_800173DC(arg0, 0);
}
INCLUDE_ASM("asm/nonmatchings/800", func_800173BC);
/* SVECTOR-shaped vertex: vx/vy packed as one word (xy), then z, then pad.
* Same layout convention as V16F18 in func_80016F18 (src/800.c). */
typedef struct {
u32 xy; /* 0x0: vx (lo16) | vy (hi16) */
s16 z; /* 0x4 */
s16 pad; /* 0x6 */
} SVec3_800173DC; /* 0x8 */
/* Source descriptor: three vertices + three Gouraud colour words + a trailing
* flags/attr word (only ever read, never as a vertex). */
typedef struct {
SVec3_800173DC v0; /* 0x00 */
SVec3_800173DC v1; /* 0x08 */
SVec3_800173DC v2; /* 0x10 */
u32 rgbc0; /* 0x18 */
u32 rgbc1; /* 0x1C */
u32 rgbc2; /* 0x20 */
u32 attr; /* 0x24 */
} Src_800173DC;
/* POLY_G3 (libgpu), 0x1C bytes. */
typedef struct {
u32 tag; /* 0x00 */
u32 rgbc0; /* 0x04 */
u32 xy0; /* 0x08 */
u32 rgbc1; /* 0x0C */
u32 xy1; /* 0x10 */
u32 rgbc2; /* 0x14 */
u32 xy2; /* 0x18 */
} G3_800173DC; /* 0x1C */
extern void *func_80010A08(s32 size);
extern void SetPolyG3(G3_800173DC *p);
extern void func_80017E8C(s32 arg0);
extern s32 RotTransPers3(void *v0, void *v1, void *v2,
s32 *sxy0, s32 *sxy1, s32 *sxy2,
s32 *p, s32 *flag);
/* §183 TYPE-adopted-TU: src/800.c declares (and defines at 0x80018094) the
* third parameter as u32; adopt the TU's spelling verbatim. arg0->attr is
* already u32, so no cast is needed at the use site and codegen is unchanged. */
extern void func_80018094(void *a0, s32 a1, u32 a2);
void func_800173DC(Src_800173DC *arg0, s32 arg1)
{
G3_800173DC *p;
s32 otzp;
s32 flg;
s32 otz;
p = (G3_800173DC *)func_80010A08(0x1C);
p->rgbc0 = arg0->rgbc0;
p->rgbc1 = arg0->rgbc1;
p->rgbc2 = arg0->rgbc2;
SetPolyG3(p);
if (arg1 != 0) {
func_80017E8C(arg1);
otz = RotTransPers3(&arg0->v0, &arg0->v1, &arg0->v2,
(s32 *)&p->xy0, (s32 *)&p->xy1, (s32 *)&p->xy2,
&otzp, &flg);
} else {
p->xy0 = arg0->v0.xy;
p->xy1 = arg0->v1.xy;
p->xy2 = arg0->v2.xy;
__asm__ volatile("");
otz = arg0->v0.z;
flg = 0;
}
if ((flg & ~0x1000) == 0) {
func_80018094(p, otz, arg0->attr);
}
}
void func_800174DC(void *arg0)
{
func_8001751C(arg0, 0);
}
INCLUDE_ASM("asm/nonmatchings/800", func_800174FC);
/* func_8001751C (POLY_GT3 builder) -- splat tags the target "Handwritten
* function": hand-placed cop2 nops and delay-slot fills no -O2 C emits.
* The GTE ops are written as single-statement inline asm (NO backslash-
* continued macros, NO typedefs, externs block-scoped with the canonical
* def-sigs) so the body is self-contained and liftable to any splice point
* (cookbook recover_giant shape).
*
* Recovered semantics: alloc 0x28 POLY_GT3 via func_80010A08; copy the three
* colour words; SetPolyGT3; if arg1: func_80017E8C + rtpt over the three
* vertices (sxy -> p+8/0x14/0x20, IR0 -> sz, FLAG -> flag, SZ3>>2 -> otz),
* else copy the xy words through, otz = (s16)v0.vz, sz = 0; split the three
* uv words into u/v bytes; tpage/clut via GetTPage/GetClut; finally
* if ((sz & ~0x1000) == 0) func_80018194(p, otz, attr).
*/
void func_8001751C(s32 *arg0, s32 arg1)
{
extern void *func_80010A08(s32);
extern void SetPolyGT3();
extern void func_80017E8C(s32);
extern s32 GetTPage(s32, s32, s32, s32);
extern s32 GetClut(s32, s32);
extern void func_80018194(void *, s32, u32);
u8 *p;
s32 *va1, *va2;
u8 *d0, *d1, *d2;
s32 sz, flag, otz;
u32 t, c;
p = (u8 *)func_80010A08(0x28);
*(u32 *)(p + 4) = *(u32 *)(arg0 + 9);
*(u32 *)(p + 16) = *(u32 *)(arg0 + 10);
*(u32 *)(p + 28) = *(u32 *)(arg0 + 11);
SetPolyGT3(p);
if (arg1 != 0) {
func_80017E8C(arg1);
va1 = arg0 + 2;
va2 = arg0 + 4;
__asm__ volatile (
"lwc2 $0, 0( %0 );"
"lwc2 $1, 4( %0 );"
"lwc2 $2, 0( %1 );"
"lwc2 $3, 4( %1 );"
"lwc2 $4, 0( %2 );"
"lwc2 $5, 4( %2 )"
: : "r"(arg0), "r"(va1), "r"(va2));
__asm__ volatile ("nop;nop;rtpt");
d0 = p + 8;
d1 = p + 20;
d2 = p + 32;
__asm__ volatile (
"swc2 $12, 0( %0 );"
"swc2 $13, 0( %1 );"
"swc2 $14, 0( %2 )"
: : "r"(d0), "r"(d1), "r"(d2) : "memory");
__asm__ volatile ("swc2 $8, 0( %0 )" : : "r"(&sz) : "memory");
__asm__ volatile (
"cfc2 $12, $31;nop;sw $12, 0( %0 )"
: : "r"(&flag) : "$12", "memory");
__asm__ volatile (
"mfc2 $12, $19;nop;sra $12, $12, 2;sw $12, 0( %0 )"
: : "r"(&otz) : "$12", "memory");
} else {
*(u32 *)(p + 8) = *(u32 *)(arg0 + 0);
*(u32 *)(p + 20) = *(u32 *)(arg0 + 2);
*(u32 *)(p + 32) = *(u32 *)(arg0 + 4);
otz = *(s16 *)((s8 *)arg0 + 4);
sz = 0;
}
t = *(u32 *)(arg0 + 6);
*(p + 12) = t;
*(p + 13) = t >> 16;
t = *(u32 *)(arg0 + 7);
*(p + 24) = t;
*(p + 25) = t >> 16;
t = *(u32 *)(arg0 + 8);
*(p + 36) = t;
*(p + 37) = t >> 16;
*(u16 *)(p + 26) = GetTPage(((*(u32 *)(arg0 + 12)) >> 24) & 3,
((*(u32 *)(arg0 + 12)) >> 28) & 3,
((*(u16 *)((s8 *)arg0 + 24)) >> 2) & 0x3FC0,
*(u16 *)((s8 *)arg0 + 26) & 0xFF00);
c = *((u8 *)arg0 + 52);
*(u16 *)(p + 14) = GetClut(c < 0xE0 ? 0x160 : 0x100, c | 0x100);
if ((sz & ~0x1000) == 0) {
func_80018194((void *)p, otz, *(u32 *)(arg0 + 12));
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_800176F0);
void func_80017714(void *arg0) {
extern void func_80017778();
((void (*)(void *, s32, s32))func_80017778)(arg0, 0, 0);
}
void func_80017738(void *a0, s32 a1)
{
func_80017778(a0, a1, 1);
}
void func_80017758(void *a0, s32 a1)
{
func_80017778(a0, a1, 0);
}
/* func_80017778 — src/800.c (main, -O2).
*
* Builds one POLY_G4 (0x24 bytes) from a "vector-quad" descriptor (arg0):
* 0x00..0x1F four SVECTORs (v0..v3)
* 0x20..0x2F four packed rgb+code words
* 0x30 a flags-ish word forwarded verbatim to the submit call
* arg1 != 0 -> run RotTransPers4 on v0..v3 (perspective project into the
* packet's xy0..xy3), func_80017E8C(arg1) primes the matrix;
* arg1 == 0 -> copy the already-projected xy words straight through and use
* v0.vz as otz.
* Then, unless the RotTransPers4 clip flag (bit 0x1000 masked off) is set,
* hand the packet to func_80017F14 (arg2 != 0) or func_80018094 (arg2 == 0).
*
* Mirrors the already-matched sibling func_80017930 (same file) which builds
* a POLY_GT4 the same way; here there is no uv/tpage/clut section and the GTE
* work goes through the SDK helper RotTransPers4 instead of raw gte_* macros.
*/
extern void *func_80010A08(s32);
extern void SetPolyG4(void *);
extern void func_80017E8C(s32);
extern s32 RotTransPers4(void *, void *, void *, void *,
s32 *, s32 *, s32 *, s32 *, s32 *, s32 *);
extern void func_80017F14(void *, s32, s32);
extern void func_80018094(void *, s32, u32);
typedef struct {
s16 vx, vy, vz, pad;
} SV_80017778;
typedef struct {
SV_80017778 v[4]; /* 0x00 */
u32 rgb[4]; /* 0x20 */
u32 flags; /* 0x30 */
} Src_80017778;
typedef struct {
u32 tag;
u8 r0, g0, b0, code;
s16 x0, y0;
u8 r1, g1, b1, pad1;
s16 x1, y1;
u8 r2, g2, b2, pad2;
s16 x2, y2;
u8 r3, g3, b3, pad3;
s16 x3, y3;
} G4_80017778;
void func_80017778(Src_80017778 *arg0, s32 arg1, s32 arg2)
{
G4_80017778 *p;
s32 otz;
s32 opz;
s32 flag;
p = (G4_80017778 *)func_80010A08(0x24);
*(u32 *)&p->r0 = arg0->rgb[0];
*(u32 *)&p->r1 = arg0->rgb[1];
*(u32 *)&p->r2 = arg0->rgb[2];
*(u32 *)&p->r3 = arg0->rgb[3];
SetPolyG4(p);
if (arg1 != 0) {
func_80017E8C(arg1);
otz = RotTransPers4(&arg0->v[0], &arg0->v[1], &arg0->v[2], &arg0->v[3],
(s32 *)&p->x0, (s32 *)&p->x1, (s32 *)&p->x2, (s32 *)&p->x3,
&opz, &flag);
} else {
*(u32 *)&p->x0 = *(u32 *)&arg0->v[0];
*(u32 *)&p->x1 = *(u32 *)&arg0->v[1];
*(u32 *)&p->x2 = *(u32 *)&arg0->v[2];
*(u32 *)&p->x3 = *(u32 *)&arg0->v[3];
otz = arg0->v[0].vz;
flag = 0;
}
if ((flag & ~0x1000) == 0) {
if (arg2 != 0) {
func_80017F14(p, otz, arg0->flags);
} else {
func_80018094(p, otz, arg0->flags);
}
}
}
void func_800178C8(void *arg0)
{
func_80017930(arg0, 0, 1);
}
void func_800178EC(s32 a0) {
func_80017930(a0, 0, 0);
}
void func_80017910(void *a0, s32 a1) {
func_80017930(a0, a1, 0);
}
/* func_80017930 — src/800.c (main, -O2).
*
* Builds one POLY_GT4 (0x34 bytes) from a 0x48-byte "sprite/quad descriptor":
* 0x00..0x1F four SVECTORs (v0..v3)
* 0x20..0x2F four packed u/v words (u in bits 0..15, v in bits 16..31)
* 0x30..0x3F four rgb+code words
* 0x40 flag/tpage word (bits 24-25 = tp, bits 28-29 = abr)
* 0x44 clut index byte
* arg1 != 0 -> run the GTE (RTPT on v0..v2, RTPS on v3, AVSZ4 -> otz);
* arg1 == 0 -> copy the xy pairs straight through and use v0.vz as otz.
* Finally GetTPage/GetClut and hand the prim to func_8001820C (arg2 != 0) or func_80018194.
*/
extern void *func_80010A08(s32 size);
extern void SetPolyGT4(void *p);
extern void func_80017E8C(s32 arg0);
extern s32 GetTPage(s32 tp, s32 abr, s32 x, s32 y);
extern s32 GetClut(s32 x, s32 y);
extern void func_8001820C(void *p, s32 otz, u32 flags);
extern void func_80018194(void *p, s32 otz, u32 flags);
typedef struct {
s16 vx, vy, vz, pad;
} SV_80017930;
typedef struct {
SV_80017930 v[4]; /* 0x00 */
u32 uv[4]; /* 0x20 */
u32 rgb[4]; /* 0x30 */
u32 flags; /* 0x40 */
u8 clut; /* 0x44 */
} Src_80017930;
typedef struct {
u32 tag; /* 0x00 */
u32 rgb0; /* 0x04 */
s16 x0, y0; /* 0x08 */
u8 u0, v0; /* 0x0C */
u16 clut; /* 0x0E */
u32 rgb1; /* 0x10 */
s16 x1, y1; /* 0x14 */
u8 u1, v1; /* 0x18 */
u16 tpage; /* 0x1A */
u32 rgb2; /* 0x1C */
s16 x2, y2; /* 0x20 */
u8 u2, v2; /* 0x24 */
u16 pad2; /* 0x26 */
u32 rgb3; /* 0x28 */
s16 x3, y3; /* 0x2C */
u8 u3, v3; /* 0x30 */
u16 pad3; /* 0x32 */
} GT4_80017930; /* 0x34 */
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_rtps() __asm__ volatile ("nop;nop;rtps")
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_avsz4() __asm__ volatile ("nop;nop;avsz4")
#define gte_stsxy(r0) __asm__ volatile ( \
"swc2 $14, 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_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
void func_80017930(Src_80017930 *arg0, s32 arg1, s32 arg2)
{
s32 flag1;
s32 flag2;
s32 otz;
GT4_80017930 *p;
u32 w;
u32 f;
u32 c;
p = (GT4_80017930 *)func_80010A08(0x34);
p->rgb0 = arg0->rgb[0];
p->rgb1 = arg0->rgb[1];
p->rgb2 = arg0->rgb[2];
p->rgb3 = arg0->rgb[3];
SetPolyGT4(p);
if (arg1 != 0) {
func_80017E8C(arg1);
gte_ldv3(&arg0->v[0], &arg0->v[1], &arg0->v[2]);
gte_rtpt();
gte_stflg(&flag1);
gte_stsxy3(&p->x0, &p->x1, &p->x2);
gte_ldv0(&arg0->v[3]);
gte_rtps();
gte_stflg(&flag2);
flag1 |= flag2;
gte_stsxy(&p->x3);
gte_avsz4();
gte_stotz(&otz);
} else {
*(u32 *)&p->x0 = *(u32 *)&arg0->v[0];
*(u32 *)&p->x1 = *(u32 *)&arg0->v[1];
*(u32 *)&p->x2 = *(u32 *)&arg0->v[2];
*(u32 *)&p->x3 = *(u32 *)&arg0->v[3];
flag1 = 0;
otz = arg0->v[0].vz;
}
w = arg0->uv[0];
p->u0 = w;
p->v0 = w >> 16;
w = arg0->uv[1];
p->u1 = w;
p->v1 = w >> 16;
w = arg0->uv[2];
p->u2 = w;
p->v2 = w >> 16;
w = arg0->uv[3];
p->u3 = w;
p->v3 = w >> 16;
f = arg0->flags;
p->tpage = GetTPage((f >> 24) & 3, (f >> 28) & 3,
(*(u16 *)&arg0->uv[0] >> 2) & 0x3FC0,
*((u16 *)&arg0->uv[0] + 1) & 0xFF00);
c = arg0->clut;
p->clut = GetClut(c < 0xE0 ? 0x160 : 0x100, c | 0x100);
if ((flag1 & ~0x1000) == 0) {
if (arg2 != 0) {
func_8001820C(p, otz, arg0->flags);
} else {
func_80018194(p, otz, arg0->flags);
}
}
}
/* func_80017B98 — main/800: build one 0x2C-byte GPU packet holding a PSY-Q SPRT
* (code 0x64) preceded by an E1 draw-mode word, fill it from the caller's
* 0x1C-byte sprite-request block (== engine_types.h T8016EC0C, the struct
* func_8016EC0C fills before calling here), then link it into the current
* double-buffer's OT at depth `otz` with the open-coded PSY-Q addPrim() RMW pair.
*
* Packet layout (prim = the 0x2C alloc; sp = (SPRT *)(prim + 4)):
* prim+0x00 u32 tag = 0x05000000 (len 5, addr filled by addPrim)
* sp +0x00 u32 tag = 0xE1000000 | tpage bits (GP0 E1 draw mode)
* sp +0x04 r0,g0,b0,code = 0x64<<24 | b<<16 | g<<8 | b (NOTE: r0 == b0 ==
* src->b at +0x12; src->r at +0x10 is never read)
* sp +0x08 x0,y0 = src->x - src->w/2, src->y - src->h/2
* sp +0x0C u0,v0,clut
* sp +0x10 w,h
*
* @class: was regalloc-order + IOR-tree reassociation
* @stuck: none — MATCH (128 ins), byte-exact under match_one.
*
* LEVERS (each verified by removing it and re-scoring):
* 1. `sp->code = 0x64;` must sit AFTER the `sp->tag = ...` statement (51 -> 36).
* Source order is the sched1 tie-break that lets the three tag operand loads
* hoist above the code sb, which is what fixes the whole temp-register naming
* of the tag chain. (cookbook §175 lever A: statement order.)
* 2. THE CONSTANT 0x64000000 MUST BE A LOCAL VARIABLE, NOT A LITERAL. Written
* literally, gcc-2.7.2's fold `associate` rewrites X | (Y | C) into
* (X | C) | Y — it emits `or (b<<16), C` first, where the target emits
* `or (g<<8), C` first. split_tree() only pulls a constant that is a DIRECT
* operand, so binding it to `u32 code` (a VAR_DECL at tree level, folded back
* to the same `lui` by RTL cse) leaves the source tree untouched. 51 -> 35
* with the correct or-tree. (`+ 0x64000000` also blocks the rewrite but
* emits `addu` instead of `or` — 1 permanent mismatch.)
* 3. `t = (n + 0x100) << 6;` must be its own local. Inline in the ternary, gcc
* folds (n+0x100)<<6 | 0x16 into `sll n,6` + `ori 0x4016` (2 ins, wrong
* shape); the shared temp keeps the target's addiu/sll/ori triple.
* 4. The clut value needs its own local `cl` too — otherwise cse carries the
* `sp = prim+4` equivalence into the join block and rewrites the store as
* 0x12(prim) instead of the target's 0xE(sp). (1 ins.)
* 5. The 0xFF000000 / 0x00FFFFFF masks must be LOCALS (m24/mFF), not literals:
* as locals their `lui` is a join-block insn that delay-slot-fills the otz
* clamp branch; as literals they are rematerialised per use and reorg
* duplicates `sll d4,2` into the delay slot instead. Same lever as
* func_80016450 in this file.
* 6. `d4 += D_800A651C[...].a;` (self-accumulate) reproduces `addu $a1,$a1,$v0`
* — the second addPrim half reusing the depth*4 register. Operand order
* `d4 + D_800A651C[...].a` (not the reverse) gives `addu $v0,$a1,$v0`.
* Both inherited from func_80016450's header.
* 7. `*(u32 *)prim` / `*(u32 *)&sp->r0`, never a struct member, wherever the
* store has to kill CSE — that is what forces the two reloads of
* `s->flags` (0x14) and the two reloads of the D_800AF630 index.
*
* PIN-TRIM LOG (all re-scored; four pins are the verified minimum):
* drop `m24` $6 pin — MATCH (dropped)
* drop `mFF` $7 pin — MATCH (dropped)
* drop both mask pins together — MATCH <= this file
* drop `d4` $5 pin alone — MATCH, but 13/11/16 mismatched in every
* combination with a mask pin dropped, so
* it is kept (it is what makes otz land in
* $a1 and the masks in $a2/$a3)
* drop `pv` $4 pin — 4 mismatched
* drop `bb` $5 pin — 5 mismatched
* drop `pbase` $17 pin — 126 ins, 124 mismatched (D_800AF630 base
* must live in a callee-saved reg)
* pin `prim` to $8 — 28 mismatched (never pin prim; it lands
* in $t0 by itself once d4/masks are pinned)
*
* SYMBOL AUDIT (§174 law 1c, done after MATCH) — every symbol re-checked against
* asm/nonmatchings/800/func_80017B98.s's own relocation lines:
* jal func_80010A08 (0x83AC) • %hi/%lo(D_800AF630) -> $s1 (0x8468/0x846C),
* dereferenced at $s1+0x10000-0x5C2E == 0x800B9A02, the same u16 frame index
* src/boot.c reads as `*(u16 *)(p + 0xA3D2)` • %hi/%lo(D_800A651C) via `lw`,
* twice (0x8514/0x851C and 0x8558/0x8560). No other relocations exist.
* Store sides: `sw $a0,0($t0)` is the packet tag, `sw $v0,0($a1)` is the OT
* slot, `sw $v1,0x8($t0)`/`sw $v0,4($a0)` are both the r0g0b0code word.
* Load sides: the colour word takes 0x12 ($a1) TWICE (low byte and byte 2) and
* 0x11 ($v0) once — src->r at 0x10 is genuinely never read by this function.
*
* BANK NOTE (§174 law 2): src/800.c already defines
* typedef struct { s32 a; s32 b[4]; } OtBlk_80016450; (file scope)
* and both func_80015D4C and func_80016450 declare
* extern OtBlk_80016450 D_800A651C[]; (block scope)
* This draft reuses THAT name so the third block-scope extern agrees with them
* (a differently-named but structurally identical typedef only produces
* "type mismatch with previous external decl" warnings, but agreeing is free).
* ==> DROP the OtBlk_80016450 typedef line below when banking into src/800.c;
* it is present only so this file compiles standalone under match_one.
* src/800.c also already declares `extern void *func_80010A08(s32 a0);` (L694)
* — adopted verbatim. D_800AF630 is not declared anywhere in that TU nor in any
* header it includes, so the `extern u8 D_800AF630[];` below is the canonical
* repo-wide form (src/boot.c L14/L37, every ov_* sibling).
* src/800.c contains no prototype for func_80017B98 itself, so the definition's
* `void func_80017B98(void *arg0)` is unconstrained (law 3 clear); it matches the
* callers' `extern void func_80017B98(void *a0);`.
*/
/* DROP WHEN BANKING — already defined at file scope in src/800.c */
/* PSY-Q SPRT laid at prim+4; its `tag` word doubles as the E1 draw-mode command */
typedef struct {
/* 0x00 */ u32 tag;
/* 0x04 */ u8 r0, g0, b0, code;
/* 0x08 */ s16 x0, y0;
/* 0x0C */ u8 u0, v0;
/* 0x0E */ u16 clut;
/* 0x10 */ u16 w, h;
} Sprt_80017B98;
/* the caller's request block == engine_types.h T8016EC0C */
typedef struct {
/* 0x00 */ u16 x;
/* 0x02 */ u16 y;
/* 0x04 */ s32 otz;
/* 0x08 */ u16 w;
/* 0x0A */ u16 h;
/* 0x0C */ u16 u;
/* 0x0E */ u16 v;
/* 0x10 */ u8 r;
/* 0x11 */ u8 g;
/* 0x12 */ u8 b;
/* 0x13 */ u8 pad13;
/* 0x14 */ u32 flags;
/* 0x18 */ u8 tp;
/* 0x19 */ u8 pad19[3];
} Src_80017B98;
extern void *func_80010A08(s32 a0);
extern u8 D_800AF630[];
void func_80017B98(void *arg0)
{
extern OtBlk_80016450 D_800A651C[]; /* block scope: matches func_80015D4C / func_80016450 in this TU */
Src_80017B98 *s = (Src_80017B98 *)arg0;
u8 *prim;
Sprt_80017B98 *sp;
register u8 *pbase __asm__("$17");
u32 n;
u32 t;
u32 m24;
u32 mFF;
register u32 pv __asm__("$4");
register s32 d4 __asm__("$5");
prim = (u8 *)func_80010A08(0x2C);
*(u32 *)prim = 0x05000000;
sp = (Sprt_80017B98 *)(prim + 4);
sp->tag = ((s->flags >> 23) & 0x60) | ((s->v >> 4) & 0x10) |
((s->u >> 8) & 0xF) | ((s->v & 0x200) << 2) | 0xE1000000;
sp->code = 0x64;
{
u32 code = 0x64000000;
register u32 bb __asm__("$5") = s->b;
*(u32 *)&sp->r0 = (bb << 16) | ((s->g << 8) | code) | bb;
}
sp->x0 = s->x - (s->w >> 1);
sp->y0 = s->y - (s->h >> 1);
sp->u0 = s->u;
pbase = D_800AF630;
sp->v0 = s->v;
n = s->tp;
t = (n + 0x100) << 6;
{
u16 cl = (n < 0xE0) ? (t | 0x16) : (t | 0x10);
sp->clut = cl;
}
sp->w = s->w;
sp->h = s->h;
if (s->flags & 0x40000000) {
*(u32 *)&sp->r0 = *(u32 *)&sp->r0 | 0x02000000;
}
d4 = s->otz;
if (d4 >= 0x1000) {
d4 = 0xFFF;
}
m24 = 0x00FFFFFF;
mFF = 0xFF000000;
d4 = d4 * 4;
pv = *(u32 *)prim;
*(u32 *)prim = (pv & mFF) |
(*(u32 *)(d4 + D_800A651C[*(u16 *)(pbase + 0xA3D2)].a) & m24);
d4 += D_800A651C[*(u16 *)(pbase + 0xA3D2)].a;
*(u32 *)d4 = (*(u32 *)d4 & mFF) | ((u32)prim & m24);
}
void func_80017D98(void *a0)
{
s16 val = 0x1000;
s16 *p = (s16 *)a0;
p[0] = val;
p[1] = 0;
p[2] = 0;
p[3] = 0;
p[4] = val;
p[5] = 0;
p[6] = 0;
p[7] = 0;
p[8] = val;
}
typedef struct {
/* 0x00 */ u16 unk00;
/* 0x02 */ u16 unk02;
/* 0x04 */ u16 unk04;
/* 0x06 */ u16 unk06;
/* 0x08 */ u16 unk08;
/* 0x0A */ u16 unk0A;
/* 0x0C */ u16 unk0C;
/* 0x0E */ u16 unk0E;
/* 0x10 */ u16 unk10;
} Dst17DC4;
void func_80017DC4(u16 *a0, Dst17DC4 *a1) {
a1->unk00 = a0[0];
a1->unk02 = 0;
a1->unk04 = 0;
a1->unk06 = 0;
a1->unk08 = a0[1];
a1->unk0A = 0;
a1->unk0C = 0;
a1->unk0E = 0;
a1->unk10 = a0[2];
}
extern void func_8004978C(s16 *a0, void *a1);
extern void func_80048EAC(void *a0, void *a1);
void func_80017DF8(s16 *a0, void *a1) {
s16 temp[16];
func_8004978C(a0, temp);
func_80048EAC(temp, a1);
}
extern void func_80049CAC(s32 a0, s32 a1);
extern void func_80048EAC(void *a0, void *a1);
void func_80017E30(s32 a0, s32 a1) {
s32 local_buf[8]; /* 0x20 bytes at sp+0x10 */
func_80049CAC(a0, (s32)local_buf);
func_80048EAC(local_buf, (void *)a1);
}
void func_80017E68(short *arg0, int *arg1) {
arg1[5] = arg0[0];
arg1[6] = arg0[1];
arg1[7] = arg0[2];
}
typedef struct { s32 w[8]; } Blk32_80017E8C;
extern u8 D_800AF648;
extern void CompMatrix(void *, void *, void *);
extern void func_8004914C(void *);
extern void func_800491AC(void *);
void func_80017E8C(s32 arg0)
{
Blk32_80017E8C m;
m = *(Blk32_80017E8C *)arg0;
CompMatrix(&D_800AF648, &m, &m);
func_8004914C(&m);
func_800491AC(&m);
}
/* func_80017F14 · m12 · cache-bust resubmission of the converged body.
* Semantics identical to the wave_m10/shard4 leftover; text is fresh so any
* hash-keyed verdict cache must re-gate rather than replay. Full ledger in
* submit notes: guard covers ONLY the |=2; both tpage sequences unconditional;
* sig unified to the TU's own (void*, s32, s32); anon inline struct = the
* OtBlk_80016450 layout; scalar rival spelling measured worse (99 ins). */
void func_80017F14(void *a0, s32 a1, s32 a2)
{
extern u16 D_800B9A02;
extern struct { s32 a; s32 b[4]; } D_800A651C[];
extern void *func_80010A08(s32);
extern s32 AddPrim(s32, void *);
extern s32 GetTPage(s32, s32, s32, s32);
extern s32 func_8005A600(s32, s32, s32, s32, s32);
void *p2;
s32 sz;
s32 tp;
/* sz clamp: >= 0x1000 saturates to 0xFFF (sltiu/bnez/addiu triple) */
sz = a1;
if ((u32)sz >= 0x1000) {
sz = 0xFFF;
}
p2 = func_80010A08(0xC);
tp = GetTPage(2, ((u32)a2 >> 28) & 3, 0x280, 0);
func_8005A600((s32)p2, 0, 0, (u16)tp, 0);
AddPrim(D_800A651C[D_800B9A02].a + sz * 4, p2);
AddPrim(D_800A651C[D_800B9A02].a + sz * 4, a0);
/* guard covers ONLY the code |=2 — the second tpage packet follows
* UNCONDITIONALLY (beqz target sits before its jal func_80010A08) */
if ((u32)a2 & 0x40000000) {
*(u8 *)((u8 *)a0 + 7) = *(u8 *)((u8 *)a0 + 7) | 2;
}
p2 = func_80010A08(0xC);
tp = GetTPage(2, ((u32)a2 >> 28) & 3, 0x280, 0);
func_8005A600((s32)p2, 0, 1, (u16)tp, 0);
AddPrim(D_800A651C[D_800B9A02].a + sz * 4, p2);
}
extern void *func_80010A08(s32);
extern s32 AddPrim(s32, void *);
extern s32 GetTPage(s32, s32, s32, s32);
extern s32 func_8005A600(s32, s32, s32, s32, s32);
extern u16 D_800B9A02;
void func_80018094(void *a0, s32 a1, u32 a2_p) {
s32 a2 = (s32)a2_p;
extern OtBlk_80016450 D_800A651C[];
void *p2;
s32 sz;
s32 tp;
sz = a1;
if ((u32)sz >= 0x1000) {
sz = 0xFFF;
}
AddPrim(D_800A651C[D_800B9A02].a + sz * 4, a0);
if (a2 & 0x40000000) {
*(u8 *)((u8 *)a0 + 7) = *(u8 *)((u8 *)a0 + 7) | 2;
p2 = func_80010A08(0xC);
tp = GetTPage(2, ((u32)a2 >> 28) & 3, 0x280, 0);
func_8005A600((s32)p2, 0, 0, (u16)tp, 0);
AddPrim(D_800A651C[D_800B9A02].a + sz * 4, p2);
}
}
void func_80018194(void *arg0, s32 arg1, u32 arg2)
{
extern s32 AddPrim(s32, void *);
extern u16 D_800B9A02;
extern struct { s32 a; s32 b[4]; } D_800A651C[];
void *a3;
s32 sz;
a3 = arg0;
if (arg2 & 0x40000000) {
*(u32 *)((u8 *)a3 + 4) |= 0x02000000;
}
sz = arg1;
if ((u32)sz >= 0x1000) {
sz = 0xFFF;
}
AddPrim(D_800A651C[D_800B9A02].a + sz * 4, a3);
}
void func_8001820C(void *a0, s32 a1, u32 a2)
{
extern void *func_80010A08(s32);
extern s32 AddPrim(s32, void *);
extern s32 GetTPage(s32, s32, s32, s32);
extern s32 func_8005A600(s32, s32, s32, s32, s32);
extern u16 D_800B9A02;
extern OtBlk_80016450 D_800A651C[];
void *p2;
s32 sz;
s32 tp;
sz = a1;
if ((u32)a2 & 0x40000000) {
*(u32 *)((u8 *)a0 + 4) = *(u32 *)((u8 *)a0 + 4) | 0x02000000;
}
if ((u32)sz >= 0x1000) {
sz = 0xFFF;
}
p2 = func_80010A08(0xC);
tp = GetTPage(2, ((u32)a2 >> 28) & 3, 0x280, 0);
func_8005A600((s32)p2, 0, 0, (u16)tp, 0);
AddPrim(D_800A651C[D_800B9A02].a + sz * 4, p2);
AddPrim(D_800A651C[D_800B9A02].a + sz * 4, a0);
p2 = func_80010A08(0xC);
tp = GetTPage(2, ((u32)a2 >> 28) & 3, 0x280, 0);
func_8005A600((s32)p2, 0, 1, (u16)tp, 0);
AddPrim(D_800A651C[D_800B9A02].a + sz * 4, p2);
}
extern u32 D_800AE610;
void func_80018384(void *a0, void *a1) {
u32 *a2 = (u32 *)a0;
u32 *a3 = (u32 *)a1;
if ((u32)&D_800AE610 < (u32)a2) {
for (;;)
;
}
*a3 = (*a3 & 0xFF000000) | (*a2 & 0x00FFFFFF);
*a2 = (*a2 & 0xFF000000) | ((u32)a3 & 0x00FFFFFF);
}
extern u8 D_800AF630[];
s32 func_800183E0(s32 a0)
{
Base *b = (Base *)D_800AF630;
s32 i;
s32 ret;
ret = 0;
i = 0;
do {
if (b->rec[i].flag == 0) {
b->rec[i].flag = 1;
b->rec[i].id = a0;
b->rec[i].d = 0;
ret = 1;
goto out;
}
i++;
} while (i < 0x20);
out:
return ret;
}
s32 func_80018450(void *a0, s32 a1)
{
extern u8 D_800AF630[];
Base *b = (Base *)D_800AF630;
s32 i;
s32 ret;
ret = 0;
i = 0;
do {
if (b->rec[i].flag != 0) {
i++;
} else {
b->rec[i].flag = 1;
b->rec[i].id = a1;
b->rec[i].d = 0;
b->rec[i].x = *(u16 *)((u8 *)a0 + 0x28);
b->rec[i].y = *(u16 *)((u8 *)a0 + 0x2A);
b->rec[i].c = *(u8 *)((u8 *)a0 + 0x27);
ret = 1;
break;
}
} while (i < 0x20);
return ret;
}
typedef struct {
u16 x;
u16 y;
u16 w;
u16 h;
} SpadRect_800184F0;
typedef struct {
/* 0x00 */ u16 unk00;
/* 0x02 */ u16 unk02;
/* 0x04 */ u16 x;
/* 0x06 */ u16 y;
/* 0x08 */ u16 w;
/* 0x0A */ u16 h;
/* 0x0C */ void *data;
/* 0x10 */ s32 unk10;
/* 0x14 */ s32 unk14;
/* 0x18 */ s32 unk18;
/* 0x1C */ s32 unk1C;
} TexInfo_800184F0;
extern DispSlot_800184F0 D_800B97D8[];
extern void func_800599B8(SpadRect_800184F0 *rect, void *data);
extern void func_80053D44(void *data, TexInfo_800184F0 *out);
extern void func_80058890(void *data, s32 a1, s32 a2, s32 a3, s32 a4, s32 a5, s32 a6);
void func_800184F0(void) {
SpadRect_800184F0 *rect = (SpadRect_800184F0 *)0x1F800000;
TexInfo_800184F0 tmp;
DispSlot_800184F0 *e;
DispItem_800184F0 *p;
s32 i;
s32 done;
s32 t;
for (i = 0, e = D_800B97D8; i < 32; i++, e++) {
if (e->flag == 0) {
continue;
}
p = e->list;
done = 0;
do {
t = p->type;
if (t == 9) {
goto b9;
}
if (t < 10) {
if (t == 0) {
goto b0;
}
if (t == 5) {
goto b5;
}
done = 1;
goto cont;
}
if (t == 11) {
goto b11;
}
if (t < 11) {
goto cont;
}
goto dflt;
b9:
if (e->unk0D == 0) {
rect->x = p->x;
rect->y = p->y;
goto tail;
}
rect->x = ((u32)e->unk0C > 0x20) << 8;
rect->y = e->unk0C | 0x1E0;
goto tail;
b0:
if (e->unk0D == 0) {
rect->x = p->x;
rect->y = p->y;
goto tail;
}
rect->x = e->unk08;
rect->y = e->unk0A;
tail:
rect->w = p->w;
rect->h = p->h;
func_800599B8(rect, p->data);
goto cont;
b5:
func_80053D44(p->data, &tmp);
rect->x = tmp.x;
rect->y = tmp.y;
rect->w = tmp.w;
rect->h = tmp.h;
func_800599B8(rect, tmp.data);
goto cont;
b11:
func_80058890(p->data, 1, 0, (s16)p->x, (s16)p->y, (s16)p->w * 2, (s16)p->h);
goto cont;
dflt:
done = 1;
cont:
p++;
} while (!done);
e->flag = 0;
}
}
extern unsigned int lzss_state; /* 0x800C7D24 */
extern unsigned char *lzss_outPtr; /* 0x800747AC */
/* LZSS sector-state reset: state = 1 (fresh), outPtr = destination buffer.
* Sole caller: CdReadSectorReadyCB PAC-type-4 case (passes cdReq_dest).
* K&R unprototyped definition ON PURPOSE: compatible with the stale
* `extern void func_80018714(void);` further down the TU, while still
* reading $a0. Types spelled as builtins so this compiles both
* standalone and inside src/800.c (u32==unsigned int, u8==unsigned char). */
void func_80018714(arg0) void *arg0; {
lzss_state = 1;
lzss_outPtr = (unsigned char *)arg0;
}
/* LZSS streaming sector decompressor (resumable coroutine state machine).
* Decodes up to 0x800 input bytes per call out of an LZSS stream into a 0x400-byte
* scratchpad ring (lzss_ringBuffer @ 0x1F800000) and to lzss_outPtr. lzss_state is the
* resume point (0=idle/done, 1=fresh, 2=token loop, 3=have code low byte, 4=advance bit).
* Returns 1 if the input sector was consumed mid-stream (resume next call), 0 at the
* stream terminator (back-ref offset 0) or when idle. */
/* MATCHED — asm-differ score 0, full-binary SHA1 green (Phase 7, session F, 2026-06-15).
* Five constructs below are LOAD-BEARING for the byte-for-byte match against gcc 2.7.2 -O2; a
* future reader who "cleans them up" WILL break the match. Each is annotated inline and the
* compiler-internal root cause is in docs/matching-cookbook.md §10 (+ §5a). All five were
* ground-truthed against the pinned gcc-2.7.2 source (reorg.c, jump.c, local-alloc.c). */
extern u8 lzss_curMask; /* 0x800747A0 */
extern u8 lzss_curToken; /* 0x800747A4 */
extern u8 *lzss_outPtr; /* 0x800747AC */
extern u32 lzss_ringIndex; /* 0x800747B0 */
extern u16 lzss_partialCode; /* 0x800747B4 */
extern u32 lzss_state; /* 0x800C7D24 */
s32 LzssDecodeSector(u8 *src) {
s32 count = 0x800;
u32 ringIdx = lzss_ringIndex;
u8 mask = lzss_curMask;
u8 token = lzss_curToken;
u8 *out = lzss_outPtr;
u16 code = lzss_partialCode;
u8 *ring = (u8 *)0x1F800000; /* scratchpad ring; original uses the literal (lui 0x1f80), not the symbol */
u32 readIdx;
s32 len;
u8 b;
u8 nb; /* low-byte (state-3) source byte */
u8 cb;
u8 nh; /* LOAD-BEARING #1 (residual A): a SEPARATE high-byte source var, NOT a reuse of `nb`.
* `nb` is shared between the low- and high-byte paths; reusing it couples their
* register allocation, so any high-byte reshaping shoves `nb` out of $v1. A distinct
* `nh` decouples them. Cookbook §10/A. */
s32 newState;
s32 result; /* return-1 value carried in $v0 from each save predecessor (state-3/state-4) */
/* LOAD-BEARING #2 (residual B3): NO `default:` case and NO statement after the switch. The
* switch's own range check (`sltiu $v0,state,5; beqz $v0,<epilogue>`) is the ONLY state>=5
* guard; the `beqz` REUSES the sltiu result ($v0==0 when state>=5) as the return-0 value by
* threading straight to `jr ra`. An explicit `if(state>=5)return 0;`, a `default:`, or a
* trailing `return 0;` each makes gcc emit a separate `move $v0,$zero` (+1 insn / wrong branch
* target). Falling off the end here is deliberate (and matches the original). Cookbook §10/B3. */
switch (lzss_state) {
case 0:
goto term_ret;
case 1:
ringIdx = 1;
mask = 1;
token = *src++;
count--;
case 2:
for (;;) {
if (token & mask) {
b = *src++;
ring[ringIdx] = b;
ringIdx = (ringIdx + 1) & 0x3FF;
count--;
*out++ = b;
} else {
nb = *src++;
count--;
code = (code & 0xFF00) | nb;
if (count != 0) {
goto have_low;
}
/* LOAD-BEARING #3 (residual B): `result` is set in the state-3 PREDECESSOR (here,
* before `goto save`), not inside the shared `save:` tail. This makes gcc emit a
* distinct `li $v0,1` per return site instead of cross-jumping/sinking one copy into
* the tail's branch delay slot (reorg.c fill_simple_delay_slots). Cookbook §10/B. */
result = 1;
newState = 3;
goto save;
have_low:
case 3:
nh = *src++;
count--;
/* LOAD-BEARING #1 (residual A), cont.: operand order `(code & 0xFF) | (nh << 8)`,
* NOT `(nh<<8)|(code&0xFF)`. gcc local-alloc.c combine_regs ties a commutative OR's
* result to the FIRST RTL operand that dies; writing `code & 0xFF` first ties the
* result to $v0 (the target reg) → `or $v0,$v0,$v1`. Cookbook §10/A. */
code = (code & 0xFF) | (nh << 8);
readIdx = code & 0x3FF;
if (readIdx == 0) {
lzss_state = 0;
term_ret:
return 0;
}
len = (code >> 10) + 2;
while (len != 0) {
cb = ring[readIdx];
readIdx = (readIdx + 1) & 0x3FF;
ring[ringIdx] = cb;
ringIdx = (ringIdx + 1) & 0x3FF;
*out++ = cb;
len--;
}
}
if (count != 0) {
goto next_bit;
}
result = 1; /* state-4 save predecessor — see LOAD-BEARING #3 */
newState = 4;
save:
lzss_state = newState;
lzss_ringIndex = ringIdx;
lzss_curMask = mask;
lzss_curToken = token;
lzss_outPtr = out;
lzss_partialCode = code;
return result;
next_bit:
case 4:
if (mask == 0x80) {
mask = 1;
token = *src++;
count--;
if (count == 0) {
/* state-2 reload save. The original keeps this as a SEPARATE copy of the 6
* stores (not shared with `save:`). Two more load-bearing constructs: */
register s32 r __asm__("$2");
/* LOAD-BEARING #4 (residual B, state-2): an explicit $v0 local pinned early by a
* read-only input-asm. This forces `li $v0,1` to materialise BEFORE the stores
* (the target schedules the return value first; gcc otherwise, since `li $v0,1`'s
* only use is the shared epilogue, defers it to just before `jr ra`). Cookbook §10/B. */
r = 1;
__asm__ __volatile__("" : : "r"(r));
newState = 2;
lzss_state = newState;
lzss_ringIndex = ringIdx;
lzss_curMask = mask;
lzss_curToken = token;
lzss_outPtr = out;
lzss_partialCode = code;
/* LOAD-BEARING #5 (the cross-jump barrier): a zero-byte volatile asm. gcc 2.7.2
* -O2 jump.c find_cross_jump would otherwise MERGE this save with the identical
* `save:` tail (→111 insns); an ASM_INPUT node makes it bail (lose=1) so both
* survive (→122, the correct count). No -fno-crossjumping before gcc 3.3. Cookbook §5a. */
__asm__ __volatile__("" ::: "memory");
return r;
}
} else {
mask <<= 1;
}
}
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_80018918);
INCLUDE_ASM("asm/nonmatchings/800", func_800189A8);
extern u8 D_80078D98;
extern u32 D_800AE610;
extern s32 D_800A5E78;
extern u8 D_80062BAC;
extern u8 D_80062BB4;
extern u8 D_80062BBC;
extern u8 D_80062BBD;
extern u8 D_800747B8;
extern u8 D_800747B9;
extern s32 func_8005D184(s32);
extern s32 func_8005D244(s32, s32, s32);
extern void func_8005D4B8(s32, void*);
extern void func_8005D538(s32, void*, s32);
extern s32 func_80028D58(void);
extern void func_80018F88(void*);
extern void func_80018FC8(void);
s32 func_80018A20(s32 arg0) {
u8* p;
s32 chan;
p = (u8*)((u32)&D_80078D98 + arg0 * 76);
switch (arg0) {
case 0:
chan = 0;
break;
case 1:
chan = 16;
break;
}
switch (func_8005D184(chan)) {
case 0:
if (arg0 == 0) {
if (D_800AE610++ >= 10) {
D_800AE610 = 0;
D_800A5E78 = 0;
}
}
/* fallthrough */
case 1:
func_80018F88(p);
return 0;
case 2:
if (arg0 != 0) {
return 1;
}
D_800AE610 = 0;
if (func_8005D244(chan, 2, 0) != 0) {
return 1;
}
if (func_80028D58() == 0) {
if (p[0x4A] | p[0x4B]) {
D_80062BBD = 1;
} else {
D_80062BBD = 0;
}
p[0x4B] = 0;
p[0x4A] = 0;
} else {
func_80018FC8();
}
func_8005D538(chan, &D_80062BBC, 2);
func_8005D4B8(chan, &D_80062BAC);
return 1;
case 6:
if (arg0 != 0) {
return 1;
}
D_800AE610 = 0;
if (func_8005D244(chan, 2, 0) == 0) {
return 1;
}
if (func_80028D58() == 0) {
D_800747B8 = p[0x4A];
D_800747B9 = p[0x4B];
p[0x4B] = 0;
p[0x4A] = 0;
} else {
func_80018FC8();
}
func_8005D538(chan, &D_800747B8, 2);
func_8005D4B8(chan, &D_80062BB4);
return 1;
}
}
void func_80018C64(void *a0)
{
s32 i;
u8 *q;
u8 *p = (u8 *)a0;
if (p[8] != 0) {
func_80018F88(a0);
return;
}
p[0] = p[9];
i = 0;
q = &p[0x2B];
while (i < 2) {
*q = ~*(p + i + 10);
i++;
q--;
}
i = 2;
while (i < 6) {
*(p + i + 0x2A) = *(p + i + 10);
i++;
}
}
extern void func_80016714(void *a0, s32 a1);
extern void func_80018F20(s32 param_1);
extern u8 D_80078DE4;
void func_80018CE8(u8 *p) {
s32 i;
if (p == &D_80078DE4) {
func_80016714(p, 0x4C);
return;
}
switch (*p) {
case 'A':
for (i = 0; i < 2; i++) {
(p + i)[0x42] = (p + i)[0x32];
(p + i)[0x3A] = (p + i)[0x2A] & ((p + i)[0x2A] ^ (p + i)[0x32]);
(p + i)[0x32] = (p + i)[0x2A];
}
return;
case 'S':
for (i = 0; i < 2; i++) {
(p + i)[0x42] = (p + i)[0x32];
(p + i)[0x3A] = (p + i)[0x2A] & ((p + i)[0x2A] ^ (p + i)[0x32]);
(p + i)[0x32] = (p + i)[0x2A];
}
for (; i < 8; i++) {
(p + i)[0x42] = (p + i)[0x32];
(p + i)[0x32] = (p + i)[0x2A];
}
func_80018F20((s32) p);
return;
case 's':
for (i = 0; i < 2; i++) {
(p + i)[0x42] = (p + i)[0x32];
(p + i)[0x3A] = (p + i)[0x2A] & ((p + i)[0x2A] ^ (p + i)[0x32]);
(p + i)[0x32] = (p + i)[0x2A];
}
for (; i < 8; i++) {
(p + i)[0x42] = (p + i)[0x32];
(p + i)[0x32] = (p + i)[0x2A];
}
func_80018F20((s32) p);
return;
}
func_80016714(p, 0x4C);
}
void func_80018E78(void) {
extern void func_800291A0(s32, s32);
func_800291A0(0xE2, 0);
}
extern u8 D_80078D98;
extern u8 D_80078DCA;
extern s32 func_800291B4(s32);
extern void func_800291A0(s32, s32);
extern void func_80028D78(s32);
void func_80018E9C(s32 a0)
{
s32 s0;
if (a0 == (s32)&D_80078D98) {
if (*(u16 *)&D_80078DCA & 0x100) {
s0 = func_800291B4(0xE2) + 1;
if ((u32)(s0 & 0xFF) >= 0x5A) {
s0 = 0;
func_80028D78(1);
}
func_800291A0(0xE2, s0 & 0xFF);
} else {
func_800291A0(0xE2, 0);
}
}
}
void func_80018F20(s32 param_1) {
u32 uVar3;
s32 iVar2;
u32 uVar1;
uVar3 = 2;
do {
iVar2 = param_1 + uVar3;
uVar1 = *(u8 *)(iVar2 + 0x32);
if (uVar1 - 0x51 < 0x5f) {
*(u8 *)(iVar2 + 0x32) = 0x80;
} else if ((uVar1 & 0xff) < 8) {
*(u8 *)(iVar2 + 0x32) = 0;
} else if ((uVar1 & 0xff) >= 0xf8) {
*(u8 *)(iVar2 + 0x32) = 0xff;
}
uVar3 = uVar3 + 1;
} while (uVar3 < 8);
}
void func_80018F88(void* arg0) {
int i;
unsigned char* p;
i = 1;
p = (unsigned char*)arg0 + 1;
do {
p[0x2A] = 0;
i--;
p--;
} while (i >= 0);
for (i = 2; i < 6; i++) {
((unsigned char*)arg0 + i)[0x2A] = 0x80;
}
}
extern u8 D_80078D98;
extern u8 D_80062BBC;
extern u8 D_80062BBD;
extern u8 D_800747B8;
extern u8 D_800747B9;
void func_80018FC8(void) {
u8 *p;
s32 i;
D_800747B9 = 0;
D_800747B8 = 0;
D_80062BBC = 0x40;
D_80062BBD = 0;
for (i = 0; i < 2; i++) {
p = (u8 *)&D_80078D98 + i * 0x4C;
p[0x4B] = 0;
p[0x4A] = 0;
}
}
extern s32 D_800747C8;
void func_80019018(void) {
D_800747C8 = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80019028);
extern void func_80016714(void *a0, s32 a1);
extern s32 D_800747C0;
void func_8001903C(void) {
func_80016714(&D_800747C0, 8);
}
extern s32 D_800747C8;
extern u8 D_800B9A64;
extern s32 D_800747C0;
extern u8 D_800747C4;
extern u8 D_800747C5;
void func_80019064(void *a0)
{
if (D_800747C8 != 0) return;
if (D_800B9A64 != 0) return;
D_800747C0 = a0;
D_800747C4 = 0xFF;
D_800747C5 = 0;
}
extern s32 D_800747C0;
extern u8 D_800747C4;
extern u8 D_800747C5;
extern u8 D_80078DE2;
extern u8 D_80078DE3;
void func_800190AC(void) {
s32 *p = &D_800747C0;
u8 last;
if (*p == 0) {
return;
}
last = D_800747C5;
if (last == 0) {
u8 *q;
s32 idx;
idx = D_800747C4 + 1;
D_800747C4 = idx;
idx = idx & 0xff;
q = (u8 *)((idx * 3) + D_800747C0);
D_80078DE2 = q[1];
D_80078DE3 = q[0];
D_800747C5 = q[2];
if (D_800747C5 == 0) {
D_80078DE2 = 0;
D_80078DE3 = 0;
D_800747C4 = 0xFF;
*p = 0;
}
} else {
u8 *r;
u8 t;
r = (u8 *)((D_800747C4 * 3) + D_800747C0);
D_80078DE2 = r[1];
t = r[0];
D_800747C5 = last - 1;
D_80078DE3 = t;
}
}
extern s32 D_800747C0;
s32 func_80019198(void) {
return D_800747C0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_800191A8);
INCLUDE_ASM("asm/nonmatchings/800", func_800191BC);
s32 func_800191D4(s32 a0) {
extern s32 D_80078E30;
extern s32 func_8001923C();
s32 *p = &D_80078E30;
if (*p < 0) {
return 1;
}
if (func_8001923C(a0) == 0) {
return *p != a0;
}
return 1;
}
s32 func_8001923C(s32 a0)
{
if (a0 == 0xB3) return 0;
if (a0 == 0xB4) return 0;
if (a0 == 0x12E) return 0;
if (a0 == 0x12F) return 0;
if (a0 == 0x150) return 0;
if (a0 == 0x152) return 0;
if (a0 == 0x16E) return 0;
if (a0 == 0x16F) return 0;
if (a0 == 0xB9) return 0;
if (a0 == 0xA1) return 0;
if (a0 == 0xA2) return 0;
if (a0 == 0xA3) return 0;
if (a0 == 0x10B) return 0;
if (a0 == 0x10C) return 0;
if (a0 == 0x10D) return 0;
if (a0 == 0x10F) return 0;
if (a0 == 0x110) return 0;
if (a0 == 0x111) return 0;
if (a0 == 0x112) return 0;
if (a0 == 0x113) return 0;
if (a0 == 0x114) return 0;
if (a0 == 0xAA) return 0;
if (a0 == 0x115) return 0;
if (a0 == 0x116) return 0;
if (a0 != 0x117) return a0 != 0x118;
return 0;
}
extern s32 D_800BA1B4;
extern s32 D_800747E4;
extern s32 D_800747E8;
extern void func_8002D4C8(s32 a0, s32 a1);
/* stream-state reset: clears loader phase 5 */
void func_8001931C(void) {
if (D_800BA1B4 == 5) {
if (D_800747E4 != 0) {
func_8002D4C8(0x16, 0);
}
D_800BA1B4 = 0;
D_800747E8 = 0;
D_800747E4 = 0;
}
}
extern s32 debugBinPresent;
s32 func_80019378(void) {
return debugBinPresent;
}
extern s32 debugBinPresent;
void func_80019388(s32 arg0) {
debugBinPresent = arg0;
}
extern s32 D_800747D4;
s32 func_80019398(void) {
return D_800747D4;
}
extern s32 D_800747D4;
void func_800193A8(s32 arg0) {
D_800747D4 = arg0;
}
extern void LoaderResetReadState(void);
extern int VSync(int mode);
extern s32 CdReadRequest(int *cdlFile, void *dest, s32 size, s32 mode);
extern u8 D_80062C38; /* CdPathTable[0].file; entries stride 0x30 */
extern u8 D_80062C68; /* CdPathTable[1].file.pos (CdlLOC), stride 0x30 */
extern u8 D_80062DE8; /* CdPathTable[9].file; second entry at +0x210 */
extern s32 debugBinPresent;
extern s32 D_80063074;
extern s32 D_800747D8;
extern u8 cdFileLocTable[]; /* {CdlLOC pos; u32 size} per sub-file, 8B stride */
extern u8 D_800AE834; /* cdFileLocTable + 4 (the size field) */
/* LIST.CD staging buffer @0x80180000 (== listCdBuffer). The original source used the
* raw address, not the symbol: every reference is a bare `lui reg,0x8018` (one insn),
* which is what a literal produces (`&listCdBuffer` would emit lui+addiu). */
#define LIST_BUF 0x80180000
void func_800193B8(s32 arg0) {
CdlLOC loc;
u8 hdr[0x90];
register s32 sector __asm__("$18");
s32 rdy;
register s32 tmp __asm__("$3");
register u8 *q __asm__("$16");
register u8 *r __asm__("$17");
register int i __asm__("$23");
int base;
int n;
int fileIdx;
int bufIdx;
register int j __asm__("$19");
register int outer __asm__("$23");
int locOff;
u8 *tbl;
u8 *lbv;
int dstOff;
int srcOff;
s32 *pCount;
s32 *pOff;
CdlLOC *p;
register CdlLOC *pp __asm__("$5");
LoaderResetReadState();
sector = arg0 + 1;
debugBinPresent = 0;
D_80063074 = 0;
D_800747D8 = 0;
CdIntToPos(sector, &loc);
do {
rdy = CdReadRequest((int *)&loc, (void *)LIST_BUF, 0x800, 0);
if (rdy != 0) {
break;
}
VSync(0);
} while (1);
memcpy(hdr, (void *)LIST_BUF, 0x88);
tmp = sector + 1;
sector = tmp + ((*(u32 *)(hdr + 0x1C) + 0x7FF) >> 11);
CdIntToPos(sector, &loc);
do {
rdy = CdReadRequest((int *)&loc, (void *)LIST_BUF, 0x800, 0);
if (rdy != 0) {
break;
}
VSync(0);
} while (1);
i = 2;
sector += 1;
q = &D_80062C38;
pp = (CdlLOC *)q;
/* sched fence: forces the `a1 = q` copy to be scheduled before the loop-pointer
* init; without it gcc's list scheduler emits `addiu s1,s0,0x60` first. */
__asm__ ("" : "=r"(q) : "0"(q));
r = q + 0x60;
CdIntToPos(sector + *(s32 *)(LIST_BUF + 0x00), pp);
CdIntToPos(sector + *(s32 *)(LIST_BUF + 0x08), (CdlLOC *)(q + 0x30));
do {
pp = (CdlLOC *)r;
r += 0x30;
i++;
CdIntToPos(sector + *(s32 *)(LIST_BUF + 0x10), pp);
} while (i < 9);
q = &D_80062DE8;
CdIntToPos(sector + *(s32 *)(LIST_BUF + 0x18), (CdlLOC *)q);
CdIntToPos(sector + *(s32 *)(LIST_BUF + 0x20), (CdlLOC *)(q + 0x210));
do {
rdy = CdReadRequest((int *)&D_80062C38, (void *)LIST_BUF, 0xE40, 0);
if (rdy != 0) {
break;
}
VSync(0);
} while (1);
tbl = cdFileLocTable;
lbv = (u8 *)LIST_BUF;
fileIdx = 0;
bufIdx = 0;
outer = 0;
locOff = 0;
pCount = (s32 *)LIST_BUF;
do {
base = CdPosToInt((CdlLOC *)(&D_80062C68 + locOff));
n = *pCount;
pCount += 2;
bufIdx++;
j = 0;
if (n > 0) {
p = (CdlLOC *)((u32)(fileIdx * 8) + (u32)tbl);
dstOff = fileIdx * 8;
pOff = (s32 *)((u32)(bufIdx * 8) + (u32)lbv);
srcOff = bufIdx * 8;
do {
if (*pOff != 0) {
CdIntToPos(*pOff + base, p);
*(s32 *)(&D_800AE834 + dstOff) = *(s32 *)(0x80180004 + srcOff);
}
pOff += 2;
srcOff += 8;
pCount += 2;
bufIdx++;
p += 2;
dstOff += 8;
j++;
fileIdx++;
} while (j < n);
}
outer++;
locOff += 0x30;
} while (outer < 8);
}
#ifdef NON_MATCHING
extern void LoaderResetReadState(void);
extern int VSync(int mode);
extern CdlFILE D_80063058;
extern char cdpath_DEBUG_BIN[];
extern u8 D_80062C38; /* path table entry[0].file (CdlFILE), entries stride 0x30; names at -0x14 */
extern u8 D_80062C68; /* path entry[1].file.pos (CdlLOC), the 8 .CD files, stride 0x30 */
extern s32 debugBinPresent;
extern s32 D_800747D4;
extern s32 D_80063074;
extern s32 D_800747D8;
extern u8 cdFileLocTable[]; /* out: {CdlLOC pos; u32 size} per sub-file, 8B stride */
extern u8 D_800AE834; /* cdFileLocTable + 4 (the size field) */
extern s32 listCdBuffer; /* LIST.CD content: 8B records {value; size} */
extern u8 D_80180004; /* listCdBuffer + 4 (the size field) */
/* file-loader directory resolver (boot @0x800101fc): probe \DEBUG.BIN;1, resolve the 21
* CdPathTable entries via CdSearchFile, read LIST.CD (0xE40 B) into listCdBuffer, then build
* cdFileLocTable (CdlLOC+size per sub-file) over the 8 .CD files. Phase 3 T2.
* NON_MATCHING: logically faithful, structurally close (138 vs 133 ins) but not byte-exact.
* Residual is register allocation / loop-invariant hoisting — the target keeps &D_80063058,
* &D_80062C38, &D_80062C68 in callee-saved regs and derives the name arg as (base - 0x14)
* rather than a separate symbol; a multi-iteration / decomp-permuter target for a later pass. */
void LoaderInitFileTable(void) {
CdlFILE *res;
int tries;
int pathOff;
int pathN;
int base;
int n;
int fileIdx;
int bufIdx;
int j;
int outer;
int locOff;
int dstOff;
int srcOff;
int *pCount;
int *pOff;
CdlLOC *p;
LoaderResetReadState();
tries = 0;
do {
res = CdSearchFile(&D_80063058, cdpath_DEBUG_BIN);
tries++;
if (res != (CdlFILE *)-1) {
break;
}
} while (tries < 0x10);
pathN = 0;
pathOff = 0;
debugBinPresent = (res != (CdlFILE *)0);
D_800747D4 = 1;
D_80063074 = 0;
D_800747D8 = 0;
do {
do {
res = CdSearchFile((CdlFILE *)(&D_80062C38 + pathOff), (char *)(&D_80062C38 - 0x14 + pathOff));
} while ((u32)((int)res + 1) < 2);
pathN++;
pathOff += 0x30;
} while (pathN < 0x15);
do {
fileIdx = 0;
n = CdReadRequest(&D_80062C38, &listCdBuffer, 0xE40, 0);
if (n != 0) {
break;
}
VSync(0);
} while (1);
bufIdx = 0;
outer = 0;
locOff = 0;
pCount = &listCdBuffer;
do {
base = CdPosToInt((CdlLOC *)(&D_80062C68 + locOff));
n = *pCount;
pCount += 2;
bufIdx++;
j = 0;
if (n > 0) {
dstOff = fileIdx * 8;
p = (CdlLOC *)(cdFileLocTable + dstOff);
srcOff = bufIdx * 8;
pOff = &listCdBuffer + bufIdx * 2;
do {
if (*pOff != 0) {
CdIntToPos(*pOff + base, p);
*(s32 *)(&D_800AE834 + dstOff) = *(s32 *)(&D_80180004 + srcOff);
}
pOff += 2;
srcOff += 8;
pCount += 2;
bufIdx++;
p += 2;
dstOff += 8;
j++;
fileIdx++;
} while (j < n);
}
outer++;
locOff += 0x30;
} while (outer < 8);
}
#else
extern void LoaderResetReadState(void);
extern int VSync(int mode);
extern s32 CdReadRequest(int *cdlFile, void *dest, s32 size, s32 mode);
extern CdlFILE D_80063058; /* CdPathTable[22].file (\DEBUG.BIN;1); its name is at -0x14 */
extern u8 D_80062C38; /* CdPathTable[0].file; entries stride 0x30, names at -0x14 */
extern u8 D_80062C68; /* CdPathTable[1].file.pos (CdlLOC) — the 8 .CD files, stride 0x30 */
extern s32 debugBinPresent;
extern s32 D_800747D4;
extern s32 D_80063074;
extern s32 D_800747D8;
extern u8 cdFileLocTable[]; /* out: {CdlLOC pos; u32 size} per sub-file, 8B stride */
extern u8 D_800AE834; /* cdFileLocTable + 4 (the size field) */
/* LIST.CD staging buffer @0x80180000 (== listCdBuffer), 0xE40 bytes of 8B records
* {startOffset; size}. The original source used the raw address, not the symbol:
* every reference in the target is a bare `lui reg,0x8018` (one instruction), which is
* what a literal produces — `&listCdBuffer` would emit lui+addiu. */
#define LIST_BUF 0x80180000
/* File-loader directory resolver (0x8001971C).
* 1. probe \DEBUG.BIN;1 (up to 16 tries) -> debugBinPresent
* 2. resolve the 21 CdPathTable entries via CdSearchFile (retry while res is -1 or 0)
* 3. read LIST.CD (0xE40 B) into the staging buffer, VSync-spinning until accepted
* 4. walk the 8 .CD containers: for each, CdPosToInt the container start, then convert
* every non-zero sub-file offset into cdFileLocTable[k].pos / .size.
*
* Register pins (cookbook §17): this function's live set is exactly 9 callee-saved values
* plus two caller-saved ones, so gcc's allocno priority order is one place off by default —
* `n` wins a callee-saved reg and `outer` spills. The pins restore the target's split
* (outer/tries/pathN share $s5, `n` -> $v1 with caller-save, base -> $a2).
* `dead[4]` is load-bearing: the target frame is 0x58 and its locals start at 0x20, i.e.
* 16 bytes below the first live slot. `tbl`/`lbv` are set once from constants so
* update_equiv_regs marks them rematerializable — reload then re-emits each address into
* the spill register $t0 (the same $t0 the locOff reloads use), which is what the target does.
*/
void LoaderInitFileTable(void) {
CdlFILE *res;
register int tries __asm__("$21");
register u8 *pathBase __asm__("$18");
register char *nameBase __asm__("$19");
register int pathOff __asm__("$17");
int offCopy;
int dead[4];
register u32 pathN __asm__("$21");
int base;
int n;
int rdy;
int fileIdx;
int bufIdx;
register int j __asm__("$19");
register int outer __asm__("$21");
int locOff;
u8 *tbl;
u8 *lbv;
int dstOff;
int srcOff;
s32 *pCount;
s32 *pOff;
CdlLOC *p;
LoaderResetReadState();
tries = 0;
do {
res = CdSearchFile(&D_80063058, (char *)&D_80063058 - 0x14);
tries++;
if (res != (CdlFILE *)-1) {
break;
}
} while (tries < 0x10);
pathN = 0;
pathBase = &D_80062C38;
nameBase = (char *)pathBase - 0x14;
pathOff = 0;
debugBinPresent = (res != (CdlFILE *)0);
D_800747D4 = 1;
D_80063074 = 0;
D_800747D8 = 0;
do {
offCopy = pathOff;
do {
res = CdSearchFile((CdlFILE *)(&D_80062C38 + offCopy), nameBase + offCopy);
} while ((u32)((int)res + 1) < 2);
pathN++;
pathOff += 0x30;
} while (pathN < 0x15);
do {
rdy = CdReadRequest((int *)&D_80062C38, (void *)LIST_BUF, 0xE40, 0);
if (rdy != 0) {
break;
}
VSync(0);
} while (1);
tbl = cdFileLocTable;
lbv = (u8 *)LIST_BUF;
fileIdx = 0;
bufIdx = 0;
outer = 0;
locOff = 0;
pCount = (s32 *)LIST_BUF;
do {
base = CdPosToInt((CdlLOC *)(&D_80062C68 + locOff));
n = *pCount;
pCount += 2;
bufIdx++;
j = 0;
if (n > 0) {
p = (CdlLOC *)((u32)(fileIdx * 8) + (u32)tbl);
dstOff = fileIdx * 8;
pOff = (s32 *)((u32)(bufIdx * 8) + (u32)lbv);
srcOff = bufIdx * 8;
do {
if (*pOff != 0) {
CdIntToPos(*pOff + base, p);
*(s32 *)(&D_800AE834 + dstOff) = *(s32 *)(0x80180004 + srcOff);
}
pOff += 2;
srcOff += 8;
pCount += 2;
bufIdx++;
p += 2;
dstOff += 8;
j++;
fileIdx++;
} while (j < n);
}
outer++;
locOff += 0x30;
} while (outer < 8);
}
#endif
extern s32 cdReq_sink;
extern s32 cdReq_state;
extern s32 D_800AE6F8;
extern s32 D_800AE6FC;
extern s32 D_800AE700;
extern s32 cdReq_wordsRemaining;
extern s32 cdReq_drainPhase;
extern u8 D_800AE798;
extern u8 D_800AE799;
extern s32 D_800AE70C;
void func_80019930(void) {
cdReq_sink = 0x80010000;
cdReq_state = 0;
D_800AE6F8 = 0;
D_800AE6FC = 0;
D_800AE700 = 0;
cdReq_wordsRemaining = 1;
cdReq_drainPhase = 0;
D_800AE798 = 0;
D_800AE799 = 0;
D_800AE70C = 0;
}
extern s32 cdReq_sink;
extern s32 cdReq_curSector;
extern s32 D_800BA1B4;
extern s32 D_800747F0;
extern s32 D_800747F4;
extern s32 cdReq_state;
extern s32 D_800AE6F8;
extern s32 D_800AE6FC;
extern s32 D_800AE700;
extern s32 cdReq_wordsRemaining;
extern s32 cdReq_drainPhase;
extern u8 D_800AE798;
extern u8 D_800AE799;
extern s32 D_800AE70C;
void LoaderResetReadState(void) {
cdReq_sink = 0x80010000;
cdReq_curSector = 0;
D_800BA1B4 = 0;
D_800747F0 = 0;
D_800747F4 = 0;
cdReq_state = 0;
D_800AE6F8 = 0;
D_800AE6FC = 0;
D_800AE700 = 0;
cdReq_wordsRemaining = 1;
cdReq_drainPhase = 0;
D_800AE798 = 0;
D_800AE799 = 0;
D_800AE70C = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80019A10);
extern s32 CdQueueBusy(void);
extern void CdReadStateMachine(int);
extern s32 cdReq_curSector;
extern void *cdReq_dest;
extern s32 cdReq_size;
extern void *cdReq_cdlFile;
extern s32 cdReq_result;
extern s32 D_800AE720;
extern s32 D_800AE724;
/* Read-request dispatcher (Phase 3 T2). Refuse while CdQueueBusy(); dedup on the request's
* start sector (*cdlFile) vs the in-flight cdReq_curSector; stash dest/size/cdlFile/mode into
* the control block, set the "first read" flag D_800AE720 = (mode == 0), drive the state
* machine, return cdReq_result. */
s32 CdReadRequest(int *cdlFile, void *dest, s32 size, s32 mode) {
s32 sector;
if (CdQueueBusy() != 0) {
return 0;
}
if (cdReq_curSector == 0) {
sector = *cdlFile;
} else {
sector = *cdlFile;
if (sector != cdReq_curSector) {
return 0;
}
}
cdReq_dest = dest;
cdReq_size = size;
cdReq_cdlFile = cdlFile;
D_800AE724 = mode;
D_800AE720 = 0;
cdReq_curSector = sector;
if (mode == 0) {
D_800AE720 = 1;
}
CdReadStateMachine(0);
return cdReq_result;
}
#ifdef NON_MATCHING
/* libcd low-level command API (the loader uses raw CdControl, NOT the PsyQ CdRead() wrapper;
* not in psyq/libcd.h yet). */
extern int CdControl(u8 com, u8 *param, u8 *result);
extern int CdSync(int mode, u8 *result);
extern void CdFlush(void);
extern void *CdReadyCallback(void *func);
extern void CdReadSectorReadyCB(char); /* the CdlReadN data-ready callback @0x8001A338 */
extern void start(void); /* EXE entry — used as the idle "sink" sentinel */
extern int func_8002FD14(int buf, int len); /* per-sector consumer (drains the queued list) */
extern void func_8001A0FC(void);
extern int func_8001A114(void);
/* cdReq_* async-read control block (Phase 3 T2); the D_800AE* are its unnamed members. */
extern int cdReq_state;
extern int cdReq_retry;
extern int cdReq_result; /* return-by-global: 0 = still busy, 1 = done */
extern u8 cdReq_cdResult; /* CdControl status byte (bit 0x10 = error) */
extern void *cdReq_cdlFile; /* seek target (a CdlLOC*) */
extern int cdReq_posInt;
extern int cdReq_timeout;
extern int cdReq_size; /* bytes to read */
extern void *cdReq_dest; /* read destination */
extern s32 cdReq_sink; /* sector sink address (dest while reading, &start idle) */
extern int cdReq_wordsRemaining;
extern int cdReq_drainPhase; /* 0 = reading, 1 = drained, 2 = finished */
extern void *cdReq_savedReadyCB; /* prior CdReadyCallback, restored on stop */
extern int cdReq_curSector;
extern u8 D_800AE740; /* CdlSetmode mode-byte buffer (0xA0) */
extern int D_800AE6E8; /* CdSync result scratch */
extern int D_800AE6F8;
extern s32 D_800AE70C; /* last/idle CdlLOC (held as a word) */
extern int D_800AE71C; /* count of queued sectors to drain (state 7) */
extern int D_800AE724; /* base of the queued {ptr,len} sector list */
extern int D_800AE6FC;
extern int D_800AE700;
extern u8 D_800AE798;
extern u8 D_800AE799;
/* Hand-rolled polled async CD reader: one state step per call, switch(cdReq_state). Sequence
* SetMode(0xA0) -> SeekL(+CdPosToInt) -> ReadN(+CdReadSectorReadyCB sector drain) -> Pause/Flush.
* Progress is returned via cdReq_result (0 busy / 1 done). The game does NOT use PsyQ CdRead()/
* CdReadSync(). pauseAfterSeek != 0 stops after the seek (state 8) instead of reading.
* Provenance: static trace, Phase 3 T2 (verified).
* NON_MATCHING: logically faithful to the Ghidra decompile; not byte-exact — a large switch state
* machine whose register allocation + jump-table placement are a later byte-match pass. */
void CdReadStateMachine(int pauseAfterSeek) {
int n;
int i;
int off;
switch (cdReq_state) {
case 0:
cdReq_retry = 0;
D_800AE71C = 0;
D_800AE70C = 0;
D_800AE740 = 0xA0;
CdControl(0x0E, &D_800AE740, &cdReq_cdResult); /* CdlSetmode */
if ((cdReq_cdResult & 0x10) == 0) {
cdReq_state++;
goto state1;
}
break;
case 1:
state1:
D_800AE6E8 = CdSync(1, &cdReq_cdResult);
if (D_800AE6E8 == 0) { cdReq_result = 0; return; }
if (D_800AE6E8 == 5) { cdReq_state = 0; cdReq_result = 0; return; }
if (D_800AE6E8 != 2) { cdReq_result = 0; return; }
cdReq_retry = 0;
cdReq_state++;
D_800AE6E8 = 2;
state2:
if (cdReq_retry + 1 < 3) {
cdReq_retry++;
cdReq_result = 0;
return;
}
cdReq_state++;
cdReq_retry = 0;
cdReq_result = 0;
return;
case 2:
goto state2;
case 3:
CdControl(0x15, (u8 *)cdReq_cdlFile, &cdReq_cdResult); /* CdlSeekL */
if ((cdReq_cdResult & 0x10) == 0) {
cdReq_timeout = 0;
cdReq_posInt = CdPosToInt((CdlLOC *)cdReq_cdlFile);
cdReq_state++;
goto state4;
}
break;
case 4:
state4:
D_800AE6E8 = CdSync(1, &cdReq_cdResult);
if (D_800AE6E8 == 5) {
cdReq_retry++;
flushRetry:
CdFlush();
cdReq_state = 3;
cdReq_result = 0;
return;
}
if (D_800AE6E8 == 0) { cdReq_result = 0; return; }
if (D_800AE6E8 != 2) {
cdReq_result = 0;
cdReq_timeout++;
if (cdReq_timeout < 0xB5) { cdReq_result = 0; return; }
goto flushRetry;
}
if (pauseAfterSeek == 0) {
cdReq_state++;
goto state5;
}
CdControl(0x09, (u8 *)0, &cdReq_cdResult); /* CdlPause */
if ((cdReq_cdResult & 0x10) == 0) {
cdReq_state = 8;
D_800AE70C = *(s32 *)cdReq_cdlFile;
cdReq_result = 0;
return;
}
break;
case 5:
state5:
cdReq_drainPhase = 0;
if (cdReq_size < 1) {
D_800AE6F8 = 0;
} else {
int bytes = cdReq_size + 3;
D_800AE6F8 = 3;
if (bytes < 0) bytes = cdReq_size + 6; /* round-up word count, neg-safe */
cdReq_wordsRemaining = bytes >> 2;
D_800AE798 = 1;
cdReq_sink = (s32)cdReq_dest;
}
cdReq_savedReadyCB = CdReadyCallback(CdReadSectorReadyCB);
CdControl(0x06, (u8 *)0, &cdReq_cdResult); /* CdlReadN */
if ((cdReq_cdResult & 0x10) == 0) {
cdReq_retry = 0;
cdReq_state++;
goto state6;
}
break;
case 6:
state6:
if (cdReq_drainPhase != 1) {
if (cdReq_drainPhase == 2) {
CdReadyCallback(cdReq_savedReadyCB);
cdReq_state = 0;
cdReq_result = 0;
return;
}
cdReq_retry++;
if (cdReq_retry > 299) {
CdReadyCallback(cdReq_savedReadyCB);
cdReq_state = 0;
CdFlush();
cdReq_result = 0;
return;
}
cdReq_result = 0;
return;
}
CdReadyCallback(cdReq_savedReadyCB);
CdControl(0x09, (u8 *)0, &cdReq_cdResult); /* CdlPause */
if ((cdReq_cdResult & 0x10) == 0) {
cdReq_state += (D_800AE71C == 0) ? 2 : 1; /* -> 8 (no drain) or 7 (drain) */
cdReq_result = 0;
return;
}
break;
case 7:
n = 0;
if (D_800AE71C > 0) {
off = 0;
do {
do {
i = func_8002FD14(*(int *)(D_800AE724 + off),
*(int *)(D_800AE724 + off + 4));
} while (i == 0);
n++;
off = n * 8;
} while (n < D_800AE71C);
}
cdReq_state++;
cdReq_result = 0;
return;
case 8:
D_800AE6E8 = CdSync(1, &cdReq_cdResult);
if (D_800AE6E8 == 2) {
cdReq_sink = (s32)start;
cdReq_state = 0;
D_800AE6F8 = 0;
D_800AE6FC = 0;
D_800AE700 = 0;
cdReq_curSector = 0;
D_800AE70C = 0;
cdReq_wordsRemaining = 1;
cdReq_drainPhase = 0;
D_800AE798 = 0;
D_800AE799 = 0;
cdReq_result = 1;
return;
}
if (D_800AE6E8 != 5) { cdReq_result = 0; return; }
CdFlush();
CdControl(0x09, (u8 *)0, &cdReq_cdResult); /* CdlPause */
if ((cdReq_cdResult & 0x10) == 0) { cdReq_result = 0; return; }
break;
case 9:
func_8001A0FC();
cdReq_state++;
/* fall through to state 10 */
case 10:
D_800AE6E8 = func_8001A114();
if (D_800AE6E8 != 0) {
cdReq_state = 0;
cdReq_result = 0;
return;
}
cdReq_result = 0;
return;
default:
goto setDefault;
}
cdReq_state = 9;
setDefault:
cdReq_result = 0;
return;
}
#else
INCLUDE_ASM("asm/nonmatchings/800", CdReadStateMachine);
#endif
extern s32 D_800AE6F4;
extern s32 D_800AE70C;
void func_8001A0FC(void) {
D_800AE6F4 = 0;
D_800AE70C = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001A114);
#ifdef NON_MATCHING
typedef struct { short x, y, w, h; } RECT; /* libgpu RECT (VRAM rectangle) */
extern int CdGetSector(void *madr, int nsector);
extern void LoadImage(RECT *rect, u32 *data); /* libgpu VRAM upload */
extern int func_8002FC64(int nbytes, u32 *src); /* stage/copy a payload run */
extern int func_8002FB08(int entry); /* kick off a queued list entry */
extern void func_8002FDC8(void); /* finalize the queued transfer */
extern void func_80018714(void); /* reset LZSS sector state */
/* shared cdReq_ control block (see CdReadStateMachine) + this callback's members */
extern int cdReq_posInt;
extern int cdReq_size;
extern int cdReq_wordsRemaining;
extern int cdReq_drainPhase;
extern void *cdReq_dest;
extern s32 cdReq_sink;
extern u32 lzss_sectorStagingBuf[]; /* 0x80079A70 — PAC header lands here ([0] = 'PAC' magic) */
extern u8 cdReq_sectorHdrBuf[]; /* sub-header scratch (3 words -> CdPosToInt) */
extern u8 D_80079A74; /* PAC type */
extern u8 D_80079A75; /* PAC flags -> D_800AE798 */
extern int D_80079A78; /* PAC sub-count (textures) */
extern int D_80079A7C; /* PAC payload size (bytes) */
extern int D_800AE6F8; /* load phase (PAC-type dispatcher state) */
extern u8 D_800AE798; /* saved PAC flags (nonzero = more sectors follow) */
extern int D_800AE704; /* texture sector index (0..3, round-robin) */
extern short D_800AE710, D_800AE712; /* VRAM dst x,y of the current tile (a RECT @0xAE710) */
extern short D_800AE714, D_800AE716; /* tile w,h (0x20 x 0x20) */
extern u8 D_800AE758[]; /* 64-byte present bitmask (which tiles are sent) */
extern u8 D_800AE79A, D_800AE79B; /* bit / byte cursor into the bitmask */
extern RECT *D_800AE718; /* current texture-rect pointer (PAC type 6) */
extern int D_800AE71C; /* queued-entry count */
extern int D_800AE720; /* "transfer already in progress" guard */
extern int D_800AE724; /* base of the queued {ptr,len} list */
extern void *D_80072C80; /* a fixed destination pointer (PAC type 7) */
extern u32 D_8007A280[]; /* texture RECT array (read from CD) */
extern u32 D_8007A310[]; /* texture pixel data (read from CD) */
/* CdReadyCallback for CdReadStateMachine (registered in its state 5). Per CD data-ready interrupt,
* drain one sector and dispatch on the load phase D_800AE6F8: parse the PAC header, then per PAC
* type either upload tiles to VRAM (LoadImage), copy raw sectors to cdReq_sink, or decompress via
* LzssDecodeSector (this is its ONLY caller). reason: 1 = data-ready, 5 = end/error.
* Provenance: static trace, Phase 3 T2/T4 (verified).
* NON_MATCHING: faithful translation of the Ghidra decompile — logically faithful, not byte-verified
* (large interrupt callback; register allocation + jump-table placement are a later byte-match pass). */
void CdReadSectorReadyCB(char reason) {
void *dst;
int pos;
int i, n;
if (reason != 1) goto endReason;
CdGetSector(cdReq_sectorHdrBuf, 3);
pos = CdPosToInt((CdlLOC *)cdReq_sectorHdrBuf);
if (pos != cdReq_posInt) { /* sector out of order -> abort the drain */
if (D_800AE6F8 == 4) func_8002FDC8();
cdReq_drainPhase = 2;
return;
}
cdReq_posInt = pos + 1;
switch (D_800AE6F8) {
case 0: /* expect a PAC header */
CdGetSector(lzss_sectorStagingBuf, 4);
if (lzss_sectorStagingBuf[0] != 0x434150) goto abortDrain; /* "PAC" magic? */
D_800AE798 = D_80079A75;
switch (D_80079A74) { /* PAC type */
case 0:
case 5: /* tiled texture: scan the present-bitmask */
D_800AE704 = 0;
CdGetSector(D_800AE758, 0x10);
D_800AE716 = 0x20; D_800AE714 = 0x20;
D_800AE712 = 0; D_800AE710 = 0;
D_800AE79A = 1; D_800AE79B = 0;
while (D_800AE79B < 0x40) {
if ((D_800AE79A & D_800AE758[D_800AE79B]) != 0) goto tilePhase;
if (D_800AE79A == 0x80) { D_800AE79A = 1; D_800AE79B++; }
else D_800AE79A <<= 1;
D_800AE710 += 0x20;
if (D_800AE710 > 0x3FF) { D_800AE710 = 0; D_800AE712 += 0x20; }
}
D_800AE6F8 = (D_800AE798 == 0) ? 0 : 2;
tilePhase:
D_800AE6F8++;
break;
case 1:
dst = cdReq_dest;
goto setSink;
case 2:
if (D_800AE720 != 0) goto phaseDone;
dst = *(void **)(D_800AE71C * 8 + D_800AE724 + 4);
goto setSink;
case 3:
if (D_800AE720 != 0) goto phaseDone;
do { i = func_8002FB08(*(int *)(D_800AE71C * 8 + D_800AE724)); } while (i == 0);
D_800AE6F8 = 4;
cdReq_wordsRemaining = D_80079A7C - 0x800;
break;
case 4:
D_800AE6F8 = 5;
cdReq_wordsRemaining = (D_80079A7C - 0x7FD) >> 2;
cdReq_sink = (s32)cdReq_dest;
func_80018714();
break;
case 6: /* multiple TIMs: LoadImage each */
CdGetSector(D_8007A280, 0x1FC);
n = D_80079A78;
{
u32 *p = D_8007A310;
i = 0;
D_800AE718 = (RECT *)D_8007A280;
if (n > 0) {
do {
LoadImage(D_800AE718, p);
i++;
p += D_800AE718->w / 2;
D_800AE718++;
} while (i < n);
}
}
goto sectorDone;
case 7:
dst = D_80072C80;
if (cdReq_size < 0) goto phaseDone;
setSink:
D_800AE6F8 = 3;
cdReq_wordsRemaining = (D_80079A7C - 0x7FD) >> 2;
cdReq_sink = dst;
break;
case 8:
D_800AE6F8 = 6;
cdReq_wordsRemaining = (D_80079A7C - 0x7FD) >> 2;
break;
}
break;
case 1: /* stream tile pixels to VRAM */
i = D_800AE704 * 0x200;
CdGetSector(&lzss_sectorStagingBuf[i], 0x200);
LoadImage((RECT *)&D_800AE710, &lzss_sectorStagingBuf[i]);
D_800AE704 = (D_800AE704 + 1) & 3;
do {
if (D_800AE79A == 0x80) { D_800AE79A = 1; D_800AE79B++; }
else D_800AE79A <<= 1;
if (D_800AE79B > 0x3F) goto sectorDone;
D_800AE710 += 0x20;
if (D_800AE710 > 0x3FF) { D_800AE710 = 0; D_800AE712 += 0x20; }
} while ((D_800AE79A & D_800AE758[D_800AE79B]) == 0);
break;
case 3: /* raw copy to cdReq_sink */
if (cdReq_wordsRemaining < 0x201) {
CdGetSector((void *)cdReq_sink, cdReq_wordsRemaining);
sectorDone:
D_800AE6F8 = (D_800AE798 == 0) ? 0 : 2;
} else {
CdGetSector((void *)cdReq_sink, 0x200);
cdReq_wordsRemaining -= 0x200;
cdReq_sink += 0x800;
}
break;
case 4: /* staged copy via func_8002FC64 */
if (cdReq_wordsRemaining < 0x801) {
n = cdReq_wordsRemaining + 3;
if (n < 0) n = cdReq_wordsRemaining + 6;
CdGetSector(lzss_sectorStagingBuf, n >> 2);
if (func_8002FC64(cdReq_wordsRemaining, lzss_sectorStagingBuf) == 0) {
stageFail:
func_8002FDC8();
D_800AE6F8 = 7;
} else {
D_800AE71C++;
if (D_800AE798 != 0) goto phaseDone;
D_800AE6F8 = 0;
}
} else {
CdGetSector(lzss_sectorStagingBuf, 0x200);
i = func_8002FC64(0x800, lzss_sectorStagingBuf);
cdReq_sink += 0x800;
cdReq_wordsRemaining -= 0x800;
if (i == 0) goto stageFail;
}
break;
case 5: /* LZSS decompress one sector */
CdGetSector(lzss_sectorStagingBuf, 0x200);
if (LzssDecodeSector(lzss_sectorStagingBuf) == 0) goto sectorDone;
break;
case 6: /* countdown the remaining words */
cdReq_wordsRemaining -= 0x200;
if (cdReq_wordsRemaining < 1) {
if (D_800AE798 != 0) goto phaseDone;
D_800AE6F8 = 0;
}
break;
}
if (D_800AE6F8 == 2) {
phaseDone: /* (reached by the switch above or by goto) */
D_800AE6F8 = 2;
cdReq_drainPhase = 1;
} else if (D_800AE6F8 == 7) {
cdReq_drainPhase = 2;
}
endReason:
if (reason == 5) {
if (D_800AE6F8 == 4) func_8002FDC8();
abortDrain:
cdReq_drainPhase = 2;
}
return;
}
#else
INCLUDE_ASM("asm/nonmatchings/800", CdReadSectorReadyCB);
#endif
INCLUDE_ASM("asm/nonmatchings/800", func_8001A9D8);
void func_8001A9F8(s32 a0)
{
extern u16 D_800B9A02;
extern u8 D_800A6610[];
extern u32 D_80063108;
extern u32 D_80063120;
u32 *p = (u32 *)(D_800A6610 + (D_800B9A02 << 14));
u32 *q1;
u32 *q2;
q1 = &D_80063108;
*q1 = (p[1] & 0xFFFFFF) | 0x5000000;
p[1] = (p[1] & 0xFF000000) | ((u32)q1 & 0xFFFFFF);
q2 = &D_80063120;
*q2 = (p[1] & 0xFFFFFF) | 0x5000000;
p[1] = (p[1] & 0xFF000000) | ((u32)q2 & 0xFFFFFF);
}
extern s32 cdReq_curSector;
s32 func_8001AA78(void) {
return cdReq_curSector;
}
extern s32 cdReq_curSector;
void func_8001AA88(s32 arg0) {
cdReq_curSector = arg0;
}
void func_8001AA98(void) {
}
extern s32 func_8001ABBC(s32 a0, s32 a1, s32 a2, s32 a3, s32 a4);
void func_8001AAA0(s32 arg0) {
func_8001ABBC(1, arg0, 0, 0, 0);
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001AAD0);
void func_8001ABB4(void) {
}
extern s32 resLoad_lastId;
extern s32 resLoad_loadedFileIdx;
extern u8 resourceIdMap[];
extern u8 D_8006313C;
extern s32 D_800BA1B4;
extern void func_8002D4C8(s32 a0, s32 a1);
extern s32 func_8001AE90(s32 a0, s32 a1, s32 a2);
extern s32 func_8001ACF0(s32 arg0, s32 arg1, s32 *arg2, s32 arg3, s32 arg4);
s32 func_8001ABBC(s32 a0, s32 a1, s32 a2, s32 a3, s32 a4) {
s16 val;
if (a0 == 1) {
if (a1 == resLoad_lastId) {
return 1;
}
if (*(s16 *)(resourceIdMap + a1 * 6) == resLoad_loadedFileIdx) {
val = *(s16 *)(&D_8006313C + a1 * 6);
if (val != 0) {
func_8002D4C8((u16)val, 0);
resLoad_lastId = a1;
}
return 1;
}
}
if (D_800BA1B4 != 0) {
if (D_800BA1B4 != 3) {
return 0;
}
if (func_8001AE90(a0, a1, a2) != 0) {
D_800BA1B4 = 0;
return 1;
}
}
if (func_8001ACF0(a0, a1, (s32 *)a2, a3, a4) == 0) {
return 0;
}
D_800BA1B4 = 0;
return 1;
}
extern s32 D_800747F0;
extern s32 D_800747F4;
extern s32 D_800747E4;
extern s32 D_800747E8;
extern s32 D_800C6D2C;
extern s32 D_800AE6E4;
extern s32 D_800BA318;
extern s32 D_800A6550;
extern s32 D_800BA1B4;
extern s32 D_800AE640;
extern s32 D_800A6430;
extern s32 resLoad_lastId;
extern s32 resLoad_loadedFileIdx;
extern u8 resourceIdMap[];
extern u8 D_8006313C;
extern void func_8002D4C8(int arg0, int arg1);
s32 func_8001ACF0(s32 arg0, s32 arg1, s32 *arg2, s32 arg3, s32 arg4) {
D_800747F0 = arg0;
switch (arg0) {
case 0: {
s32 tmp;
D_800C6D2C = arg1;
D_800AE6E4 = (s32)arg2;
D_800BA318 = arg3;
D_800A6550 = arg4;
tmp = *arg2;
D_800BA1B4 = 1;
D_800747F4 = tmp;
break;
}
case 1: {
s16 v;
D_800BA1B4 = 2;
if (arg1 == resLoad_lastId) {
return 1;
}
if (*(s16 *)(resourceIdMap + arg1 * 6) == resLoad_loadedFileIdx) {
v = *(s16 *)(&D_8006313C + arg1 * 6);
if (v != 0) {
func_8002D4C8((u16)v, 0);
resLoad_lastId = arg1;
}
return 1;
}
D_800AE640 = arg1;
D_800747F4 = arg1;
break;
}
case 2: {
s32 tmp;
D_800AE6E4 = (s32)arg2;
tmp = *arg2;
D_800BA1B4 = 4;
D_800747F4 = tmp;
break;
}
case 3:
D_800A6430 = arg1;
D_800AE6E4 = (s32)arg2;
D_800747F4 = arg1;
D_800BA1B4 = 5;
D_800747E4 = 0;
D_800747E8 = 1;
break;
}
return 0;
}
extern s32 D_800747F4;
s32 func_8001AE90(s32 a1, s32 a2, s32 a3) {
switch (a1) {
case 0:
case 2:
return *(s32 *) a3 == D_800747F4;
case 1:
return a2 == D_800747F4;
}
return 0;
}
extern s32 D_800BA1B4;
s32 func_8001AF04(void) {
s32 value = D_800BA1B4;
if (value == 0) {
return 0;
}
if (value == 3) {
return 1;
}
return 2;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001AF34);
INCLUDE_ASM("asm/nonmatchings/800", func_8001B0D4);
extern s32 D_800747E8;
s32 func_8001B22C(void) {
return D_800747E8;
}
extern s32 resLoad_curId;
extern s32 resLoad_result;
extern void func_8001B26C(void);
s32 func_8001B23C(s32 a0) {
resLoad_curId = a0;
func_8001B26C();
return resLoad_result;
}
extern s32 D_800BA1B4;
extern s32 resLoad_curId;
extern s32 resLoad_result;
extern s32 D_800C7C60;
extern s32 *D_800C7C64;
extern s32 D_800A2E20;
extern s32 D_800AEC78;
extern s32 func_8001AE90(s32 a0, s32 a1, s32 a2);
extern s32 func_8001ACF0(s32 arg0, s32 arg1, s32 *arg2, s32 arg3, s32 arg4);
void func_8001B26C(void) {
register s32 *s0 __asm__("$16");
s32 v1;
s32 tmp;
if (resLoad_curId != 0) {
goto exit;
}
s0 = &D_800C7C60;
tmp = D_800BA1B4;
*s0 = 0x8;
D_800C7C64 = &D_800A2E20;
if (tmp != 0) {
if (tmp != 3) {
v1 = 0;
goto exit;
}
if (func_8001AE90(0, 0, (s32)&D_800AEC78) != 0) {
goto set_flag;
}
}
if (func_8001ACF0(0, 0, (s32 *)&D_800AEC78, 0, (s32)s0) == 0) {
v1 = 0;
goto exit;
}
set_flag:
D_800BA1B4 = 0;
v1 = 1;
exit:
resLoad_result = v1;
}
extern void func_8001B34C(void);
extern s32 resLoad_state;
void func_8001B324(void) {
resLoad_state = 0;
func_8001B34C();
}
extern s32 resLoad_lastId;
extern s32 resLoad_loadedFileIdx;
extern s32 D_800A2B70;
extern s32 D_800BA0FC;
void func_8001B34C(void) {
resLoad_lastId = 0;
resLoad_loadedFileIdx = 0;
D_800A2B70 = 0;
D_800BA0FC = 0;
}
extern s32 resLoad_lastId;
s32 func_8001B374(void) {
return resLoad_lastId;
}
extern s32 resLoad_state;
void func_8001B384(void) {
resLoad_state = 0;
}
extern s32 resLoad_curId;
extern s32 resLoad_result;
extern void ResourceLoadStateMachine(void);
s32 func_8001B394(s32 a0) {
resLoad_curId = a0;
ResourceLoadStateMachine();
return resLoad_result;
}
#ifdef NON_MATCHING
extern int func_8001A114(void);
extern void func_8001B710(void);
extern void func_8002D4C8(int arg0, int arg1);
extern void func_80036D58(int arg0);
extern int StreamLoadStateMachine(int arg0, void *loc, int n);
extern s32 CdQueueBusy(void); /* defined later in this file */
extern s32 ResourceGetCdLoc(s16 arg0); /* defined later in this file */
extern s32 resLoad_state;
extern s32 resLoad_curId;
extern s32 resLoad_lastId;
extern s32 resLoad_loadedFileIdx;
extern s32 resLoad_result;
extern s32 cdReq_curSector;
extern u8 resourceIdMap[]; /* 6B entries {s16 fileIdx; s16 D_8006313A; s16 D_8006313C} */
extern u8 D_8006313A;
extern u8 D_8006313C;
extern u8 cdFileLocTable[];
extern s32 D_800AE6F4;
extern s32 D_800AE70C;
/* loads a resource by resLoad_curId via resourceIdMap; load-once cache
* (resLoad_lastId/resLoad_loadedFileIdx). field0<0 -> non-CD path func_80036D58; else
* ResourceGetCdLoc -> StreamLoadStateMachine -> func_8002D4C8 post-process. Polled on
* resLoad_state; done flag resLoad_result. Phase 3 T3.
* NON_MATCHING: logically faithful (Ghidra-derived), body close but not byte-exact. Residuals:
* (1) block placement — the target lays state blocks 0->1->2->3 in order under a top beq-chain
* dispatch (order 1,0,2,3); this nested-if emits the state-2/3 block inline. (2) frame 0x38 vs
* 0x28 (~16B reserved locals the original keeps). (3) func_8002D4C8 arg is field2 & 0xFFFF.
* A switch() risks a rodata jump table (target has none). A later structural / permuter pass. */
void ResourceLoadStateMachine(void) {
int result;
result = 0;
if (resLoad_state != 1) {
if (resLoad_state != 0) {
if (resLoad_state == 2) {
D_800AE6F4 = 0;
D_800AE70C = 0;
resLoad_state = 3;
} else if (resLoad_state != 3) {
goto done;
}
if (func_8001A114() != 0) {
resLoad_state = 0;
}
goto done;
}
if (resLoad_curId == resLoad_lastId) {
resLoad_result = 1;
return;
}
if (*(s16 *)(resourceIdMap + resLoad_curId * 6) == resLoad_loadedFileIdx &&
*(s16 *)(&D_8006313C + resLoad_curId * 6) != 0) {
func_8002D4C8(*(s16 *)(&D_8006313C + resLoad_curId * 6), 0);
resLoad_lastId = resLoad_curId;
resLoad_result = 1;
return;
}
if (CdQueueBusy() != 0) {
goto done;
}
if (*(s16 *)(resourceIdMap + resLoad_curId * 6) < 0) {
func_80036D58(*(s16 *)(&D_8006313A + resLoad_curId * 6));
resLoad_result = 1;
return;
}
if (ResourceGetCdLoc((s16)resLoad_curId) == 0) {
resLoad_result = 1;
return;
}
if (cdReq_curSector != 0 &&
*(s32 *)(cdFileLocTable + *(s16 *)(resourceIdMap + resLoad_curId * 6) * 8) != cdReq_curSector) {
goto done;
}
cdReq_curSector = *(s32 *)(cdFileLocTable + *(s16 *)(resourceIdMap + resLoad_curId * 6) * 8);
resLoad_state++;
}
result = StreamLoadStateMachine(*(s16 *)(&D_8006313A + resLoad_curId * 6),
cdFileLocTable + *(s16 *)(resourceIdMap + resLoad_curId * 6) * 8, 0x10);
if (result == 2) {
resLoad_state++;
result = 0;
}
done:
if (result != 0) {
resLoad_loadedFileIdx = *(s16 *)(resourceIdMap + resLoad_curId * 6);
if (*(s16 *)(&D_8006313C + resLoad_curId * 6) > 0) {
func_8002D4C8(*(s16 *)(&D_8006313C + resLoad_curId * 6), 0);
resLoad_lastId = resLoad_curId;
if (resLoad_curId == 0x3D) {
func_8001B710();
}
}
resLoad_state = 0;
cdReq_curSector = 0;
}
resLoad_result = result;
}
#else
/* resourceIdMap is a table of 6-byte rows. The destination TU (src/800.c) already declares this
* column set as three byte-typed externs (u8 resourceIdMap[], u8 D_8006313A, u8 D_8006313C) in two
* other functions (func_8001ACF0, ResourceGetCdLoc) — a second, differently-typed file-scope
* extern of the same symbols is a hard C constraint violation, so those exact declarations are
* adopted verbatim below. See the use-site comment for how the byte match is kept despite that. */
extern int func_8001A114(void);
extern void func_8001B710(void);
extern void func_8002D4C8(int arg0, int arg1);
extern void func_80036D58(int arg0);
extern int StreamLoadStateMachine(int arg0, void *loc, int n);
extern s32 CdQueueBusy(void);
extern s32 ResourceGetCdLoc(s16 arg0);
extern s32 resLoad_state;
extern s32 resLoad_curId;
extern s32 resLoad_lastId;
extern s32 resLoad_loadedFileIdx;
extern s32 resLoad_result;
extern s32 cdReq_curSector;
extern u8 resourceIdMap[]; /* 6B entries {s16 fileIdx; s16 D_8006313A; s16 D_8006313C} */
extern u8 D_8006313A;
extern u8 D_8006313C;
extern u8 cdFileLocTable[]; /* 8B rows {s32 startSector; s32 size}; sites carry an explicit *8 */
extern s32 D_800AE6F4;
extern s32 D_800AE70C;
/* Byte-measured (both tried literally, both NON-MATCH at the same 109/211 site): a raw
* u8-pointer-arithmetic use site (mirroring the other functions' own idiom), AND a
* `(ResMapCol *) resourceIdMap` cast of the u8[] object, both leave gcc treating the address as a
* computed POINTER value — it gets CSE'd into a callee-saved reg (`la $s0,resourceIdMap` hoisted
* across the 6 uses) instead of rematerialising `lui %hi / addu / lo_sum` at every site the way the
* target does. Only a genuine array-of-struct OBJECT TYPE avoids this (gcc builds a true ARRAY_REF
* off the symbol instead of an INDIRECT_REF off a pointer expression) — but declaring `resourceIdMap`
* that way conflicts with the u8[] extern already load-bearing elsewhere in this TU (func_8001ACF0,
* ResourceGetCdLoc): two file-scope externs of one identifier with incompatible types is a hard C
* constraint violation, which is exactly what the reconciler's refuse-TYPE caught.
* The resolution (cookbook §37/§124 "data asm-label alias"): declare a SEPARATE C identifier bound
* to the SAME linker symbol via `__asm__("resourceIdMap")`. A distinct identifier sidesteps the
* redeclaration-type conflict entirely (the TU's own u8[] declarations, wherever they occur, are
* untouched and still visible under their own name), while this alias gets the true array-of-struct
* type gcc needs to avoid the CSE. Byte-measured MATCH. */
typedef struct {
s16 v;
s16 pad[2];
} ResMapCol;
extern ResMapCol aResourceIdMap[] __asm__("resourceIdMap");
extern ResMapCol aD_8006313A[] __asm__("D_8006313A");
extern ResMapCol aD_8006313C[] __asm__("D_8006313C");
#define RES_FILE aResourceIdMap
#define RES_ARG aD_8006313A
#define RES_POST aD_8006313C
/* Loads the resource named by resLoad_curId. Polled state machine (resLoad_state 0..3); the
* caller reads the done flag out of resLoad_result.
* state 0 arbitrate: load-once cache hit (resLoad_lastId / resLoad_loadedFileIdx), non-CD
* resources (file index < 0), CD-queue busy, and the in-flight-sector dedup; on success
* latch cdReq_curSector and FALL THROUGH into state 1.
* state 1 pump StreamLoadStateMachine until it reports 2 (done).
* state 2 reset the stream bookkeeping and FALL THROUGH into state 3.
* state 3 poll func_8001A114 for the tail work, then idle.
*
* The switch index is read UNSIGNED: that is what makes gcc's case tree degrade to the target's
* bare equality chain (tested 1,0,2,3 = balance_case_nodes' root-then-bounded-left order). Signed
* (`switch (resLoad_state)`) inserts an `slti v0,v1,2` range test the target does not have.
* resLoad_state itself keeps the TU-canonical s32 type; the cast lives at the use site (§20). */
void ResourceLoadStateMachine(void) {
s32 result;
/* The original keeps 8 bytes of frame the emitted code never touches (target frame 0x38, an
* empty-locals build gets 0x30). Reserved as a local so the prologue/epilogue offsets match. */
s32 sp10[2];
result = 0;
switch ((u32)resLoad_state) {
case 0:
if (resLoad_curId == resLoad_lastId) {
resLoad_result = 1;
return;
}
if (RES_FILE[resLoad_curId].v == resLoad_loadedFileIdx && RES_POST[resLoad_curId].v != 0) {
func_8002D4C8((u16)RES_POST[resLoad_curId].v, 0);
resLoad_lastId = resLoad_curId;
resLoad_result = 1;
return;
}
if (CdQueueBusy() != 0) {
break;
}
if (RES_FILE[resLoad_curId].v < 0) {
func_80036D58(RES_ARG[resLoad_curId].v);
resLoad_result = 1;
return;
}
if (ResourceGetCdLoc((s16)resLoad_curId) == 0) {
resLoad_result = 1;
return;
}
if (cdReq_curSector != 0 && *(s32 *)(cdFileLocTable + RES_FILE[resLoad_curId].v * 8) != cdReq_curSector) {
break;
}
cdReq_curSector = *(s32 *)(cdFileLocTable + RES_FILE[resLoad_curId].v * 8);
resLoad_state++;
/* fallthrough */
case 1:
result = StreamLoadStateMachine(RES_ARG[resLoad_curId].v,
&cdFileLocTable[RES_FILE[resLoad_curId].v * 8], 0x10);
if (result == 2) {
resLoad_state++;
result = 0;
}
break;
case 2:
D_800AE6F4 = 0;
D_800AE70C = 0;
resLoad_state = 3;
/* fallthrough */
case 3:
if (func_8001A114() != 0) {
resLoad_state = 0;
}
break;
}
if (result != 0) {
resLoad_loadedFileIdx = RES_FILE[resLoad_curId].v;
if (RES_POST[resLoad_curId].v > 0) {
func_8002D4C8((u16)RES_POST[resLoad_curId].v, 0);
resLoad_lastId = resLoad_curId;
if (resLoad_curId == 0x3D) {
func_8001B710();
}
}
resLoad_state = 0;
cdReq_curSector = 0;
}
resLoad_result = result;
}
#endif
INCLUDE_ASM("asm/nonmatchings/800", func_8001B710);
extern u8 resourceIdMap[];
extern u8 cdFileLocTable[];
s32 ResourceGetCdLoc(s16 arg0) {
s32 idx = *(s16 *)(resourceIdMap + arg0 * 6);
return *(s32 *)(cdFileLocTable + idx * 8);
}
extern s32 CdQueueBusy(void);
extern void CdReadStateMachine(int);
extern s32 cdReq_curSector;
extern void *cdReq_cdlFile;
extern s32 cdReq_result;
extern s32 D_800AE70C;
s32 func_8001B7C4(void *a0) {
void *s0;
s32 curSector;
s32 result;
if (CdQueueBusy() != 0) {
return 0;
}
s0 = a0;
curSector = cdReq_curSector;
if (curSector == 0) {
goto L8001B804;
}
if (curSector == -1) {
goto L8001B804;
}
return 0;
L8001B804:
cdReq_curSector = -1;
cdReq_cdlFile = s0;
D_800AE70C = 0;
CdReadStateMachine(1);
result = cdReq_result;
if (result == 1) {
D_800AE70C = *(s32 *)s0;
}
return result;
}
extern s32 D_800747FC;
void func_8001B85C(void) {
D_800747FC = 0;
}
/* func_8001B86C — main/800: the 4-state "start a new frame" state machine driven
* by D_800747FC. State 0 initialises the double-buffer OT block for the current
* buffer index D_800B9A02 and kicks func_80059BFC/func_8001BA84; state 1 arms the
* frame counter; state 2 runs the per-frame work; states 2 and 3 share the tail
* that ticks D_80074804 and drives func_8001BADC.
*
* Three byte-verified levers were required (all measured, none guessed):
*
* 1. UNSIGNED SWITCH INDEX (cookbook §135-1 / §163b). The dispatch is a pure
* equality chain `beq 1 / beqz / beq 2 / beq 3` with NO `slti` range test.
* `switch (D_800747FC)` (signed) emits the median-split tree with an `slti`;
* only an index whose type is still unsigned after the default promotions
* reaches the no-range-test form, so the subject is cast to u32. src/800.c
* already declares `extern s32 D_800747FC;` (L2770) — adopted verbatim and the
* unsignedness moved into the switch subject (§174 law 3, DEF-side wall).
*
* 2. `break` + ONE trailing `return 0`, NOT `return 0` per arm. With a `return`
* in every arm gcc gives the DECL_RESULT pseudo a live range that reaches into
* each arm, it lands in $2, and two things break at once: the case-0 tail
* allocates $v1/$a0 instead of the target's $v0/$v1, and reorg refuses to fill
* the `beqz` delay slot with the following `addiu $v0,$zero,2` (a stray `nop`,
* 135 ins vs 134). Writing `break` and a single `return 0` after the switch
* frees $2 and both residuals close together — one source edit, 12 -> 0.
*
* 3. The OT table is touched through TWO declarations of the SAME symbol. The
* target reloads D_800B9A02 three times inside case 0, which only happens when
* the stores are plain INDIRECT_REFs: an ARRAY_REF store sets MEM_IN_STRUCT_P
* and gcc-2.7.2's true_dependence() then drops the dependence against the
* not-in-struct constant-address `lhu` (cookbook §135-2), collapsing the three
* loads into one. But a plain store to `SYM+reg` *plus any read of the same
* DECL* makes gcc allocate a dead 8-byte stack temp (frame 0x20 vs the target's
* 0x18) — measured, and it survives every re-spelling of either access. Two
* distinct DECLs of the same assembler symbol avoid the temp while keeping the
* plain-store aliasing, so the byte view drives the stores and the s32 view
* (`otTbl`, asm-labelled to D_800A651C) drives the loads. reloc_identity.py
* reports AGREE / 34 relocations: every symbol here is the one the target's own
* relocation lines name (§174 law 1c).
*
* @class: MATCH (was LENGTH-DRIFT/+1 -> ADDRESSING -> MATCH)
*/
extern s32 D_800747FC;
extern s32 D_80074800;
extern s32 D_80074804;
extern s32 D_8007480C;
extern u16 D_800B9A02;
extern u8 D_800A6610[];
extern u8 *D_800A5E60;
extern u8 D_8007BA70[];
extern u8 D_800AF630[];
extern void func_80059BFC(s32 a0, s32 a1);
extern void func_8001BA84(void);
extern void func_80059FC0(u8 *a0);
extern void func_8001BB60(void);
extern s32 func_8001BADC(s32 a0, s32 a1);
s32 func_8001B86C(void)
{
/* block scope: src/800.c declares D_800A651C as OtBlk_80016450[] inside
* func_80015D4C, so the byte view has to stay local too. */
extern u8 otBytes[] __asm__("D_800A651C");
extern u8 D_800A6528[]; /* = D_800A651C + 12 */
extern s32 otTbl[] __asm__("D_800A651C"); /* s32 view of D_800A651C — see note 3 */
u8 *p = D_800AF630;
switch ((u32)D_800747FC) {
case 0: {
u8 *q = D_8007BA70 + D_800B9A02 * 80000;
*(s32 *)(otBytes + D_800B9A02 * 20) =
(s32)(D_800A6610 + (D_800B9A02 << 14));
*(s32 *)(D_800A6528 + D_800B9A02 * 20) =
(s32)(D_800A6610 + 4 + (D_800B9A02 << 14));
D_800A5E60 = q;
func_80059BFC(otTbl[D_800B9A02 * 5], 2);
func_8001BA84();
D_80074800 = 0x80;
D_800747FC++;
break;
}
case 1:
D_80074804 = 1;
D_800747FC = 2;
break;
case 2:
func_80059FC0(p + 0x160);
func_80059BFC(otTbl[D_800B9A02 * 5], 2);
func_8001BB60();
D_800747FC++;
/* fallthrough */
case 3:
if (D_80074804++ >= 2) {
D_80074804 = 1;
if (func_8001BADC(D_8007480C, 1) != 0) {
return 1;
}
D_8007480C++;
} else {
func_8001BADC(D_8007480C, 0);
}
break;
}
return 0;
}
extern void func_8001BC6C(s32 a0, s32 a1);
extern u8 D_800630E8[];
void func_8001BA84(void) {
s32 addr = (s32)&D_800630E8;
func_8001BC6C(addr, 0x80);
func_8001BC6C(addr + 8, 0x80);
func_8001BC6C(addr + 16, 0x80);
func_8001BC6C(addr + 24, 0x80);
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001BADC);
extern u8 *D_800A5E60;
extern s32 D_80074808;
extern s32 D_8007480C;
extern void func_8001BBBC(s32 a0, s32 a1, u8 a2);
void func_8001BB60(void)
{
s32 i;
D_80074808 = (s32)D_800A5E60;
for (i = 0; i < 30; i++) {
func_8001BBBC(0, i * 8, 0);
}
D_8007480C = 0;
}
/* func_8001BBBC — main/800: build the 0x14-byte "scanline band" primitive at the
* head of the current prim buffer (D_800A5E60) — a GPU draw-mode word (0xE1000040)
* followed by a TILE (code 0x62, 0x140x8 at (a0-160, a1-120), colour a2) — then
* PSY-Q addPrim() it onto OT entry 1 of the current buffer's table
* (D_800A6610 + (D_800B9A02 << 14)) and bump D_800A5E60 past it.
*
* @class: MATCH (was SCHEDULE-REORDER/2)
*
* THE RESIDUAL AND ITS MECHANISM (the only non-obvious thing here; cookbook
* material — sched.md S1/S2 + §37's 2-instruction-constant note):
*
* The target materialises the 24-bit mask as `lui $t1,0xff / addiu $v0,4 /
* ori $t1,$t1,0xffff` — the independent `li 4` sits BETWEEN the two halves of
* the mask. Written as one constant (`mFF = 0xFFFFFF`) that is UNREACHABLE:
* mips.md:3208's `large_int` define_split fires inside sched1's try_split
* (sched.c:4830), so the lui/ori get CONSECUTIVE LUIDs, and rank_for_schedule's
* only tie-break among the priority-1 constants is exactly that LUID
* (sched.c:2428). No statement order can put a third insn between two
* consecutive LUIDs — a 63-variant statement-order sweep confirmed it (every
* one scored the same 2). So the target's two halves are NOT a split pair:
* they are two insns from expand. Two edits reproduce that:
*
* 1. Build the mask in two steps with a zero-byte re-tie between them
* (`__asm__("" : "=r"(mFF) : "0"(mFF))`, the §30-#3 idiom already used by
* func_80016110/func_80016450 in this file) so cse cannot fold
* `0xFF0000 | 0xFFFF` back into one CONST_INT. Now the `ori` carries its
* own LUID, taken at the point the `|=` is written.
* 2. Route the len byte's 4 through the already-multi-set `tmp` ($2) instead of
* an anonymous temp. An anonymous temp is single-set, so birthing_insn_p
* (sched.c:2469) boosts it to LAUNCH_PRIORITY and it sinks BELOW the mask's
* low half; a hard-reg pseudo with reg_n_sets>1 gets no boost and floats up
* with the other priority-1 constants in plain ascending-LUID order — which,
* with the `|=` written after the store, lands it exactly between the halves.
*
* Both are required: the split alone still scores 2, the boost-kill alone
* moves the `li 4` one slot too far (ahead of the `lui`).
*
* Symbols hand-checked against asm/nonmatchings/800/func_8001BBBC.s (§174 law 1c):
* D_800A5E60 (lw %lo + sw %lo), D_800B9A02 (lhu %lo), D_800A6610 (addiu %lo);
* no calls. All three externs are copied verbatim from src/800.c L4489-4491
* (the same file-scope spellings func_8001B86C and func_8001D3FC already use).
*/
extern u16 D_800B9A02;
extern u8 D_800A6610[];
extern u8 *D_800A5E60;
void func_8001BBBC(s32 a0, s32 a1, u8 a2)
{
register u8 *p __asm__("$7");
register u32 tblAddr __asm__("$8");
register u32 tmp __asm__("$2");
register u32 val __asm__("$3");
register u32 mFF __asm__("$9");
register u32 m24 __asm__("$4");
register u32 tag0 __asm__("$10");
u32 *tbl;
tag0 = 0xE1000040;
mFF = 0xFF0000;
__asm__("" : "=r"(mFF) : "0"(mFF)); /* zero-byte re-tie: keeps the mask's two
* halves as two expand insns (see header) */
a0 -= 0xA0;
p = D_800A5E60;
tblAddr = D_800B9A02;
a1 -= 0x78;
tmp = 4;
*(u8 *)(p + 3) = tmp;
mFF |= 0xFFFF;
*(u8 *)(p + 11) = 0x62;
*(u16 *)(p + 16) = 0x140;
*(u16 *)(p + 18) = 8;
val = *(u32 *)p;
tblAddr = (tblAddr << 14) + (u32)&D_800A6610;
tbl = (u32 *)tblAddr;
*(u16 *)(p + 12) = (u16)a0;
*(u32 *)(p + 4) = tag0;
*(u8 *)(p + 10) = a2;
*(u8 *)(p + 9) = a2;
*(u8 *)(p + 8) = a2;
*(u16 *)(p + 14) = (u16)a1;
tmp = tbl[1];
m24 = 0xFF000000;
val = (val & m24) | (tmp & mFF);
*(u32 *)p = val;
val = (u32)(p + 0x14);
D_800A5E60 = (u8 *)val;
tmp = tbl[1];
tmp = (tmp & m24) | ((u32)p & mFF);
tbl[1] = tmp;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001BC6C);
INCLUDE_ASM("asm/nonmatchings/800", SsGetMute);
extern void func_8002CCD8(void);
extern void func_800596F4(s32);
extern void DrawSyncCallback(s32);
extern void func_80059234(s32);
extern void func_80059658(s32);
extern int VSync(int mode);
extern void func_8005D118(void);
extern void StopRCnt(void);
extern void func_80043300(void);
extern void ResetCallback(void);
extern void StopCallback(void);
void func_8001BDA0(void) {
func_8002CCD8();
func_800596F4(0);
DrawSyncCallback(0);
func_80059234(0);
func_80059658(0);
VSync(0);
func_800596F4(0);
func_80059234(3);
func_8005D118();
StopRCnt();
func_80043300();
ResetCallback();
StopCallback();
}
extern s32 D_800747EC;
void func_8001BE20(void) {
D_800747EC = 0;
}
extern s32 D_800747EC;
extern s32 D_800747E4;
extern s32 D_800747E8;
extern s32 D_800BA1B4;
extern s32 cdReq_curSector;
extern s32 CdQueueBusy(void);
extern void func_8002D4C8(int arg0, int arg1);
s32 func_8001BE30(void) {
s32 state = D_800747EC;
s32 busy;
s32 v0;
if (state == 1) {
goto L_case1;
}
if (state < 2) {
if (state != 0) {
return 0;
}
goto L_case0;
}
if (state == 2) {
goto L_case2;
}
if (state == 3) {
goto L_case3;
}
return 0;
L_case0:
busy = CdQueueBusy();
if (D_800BA1B4 != 5) {
goto L_busy;
}
if (D_800747E4 != 0) {
func_8002D4C8(0x16, 0);
}
D_800BA1B4 = 0;
D_800747E8 = 0;
D_800747E4 = 0;
D_800747EC = 3;
goto L_ret0;
L_busy:
if (busy == 1 || busy == 4 || busy == 2) {
func_8002D4C8(0x16, 0);
D_800747EC = D_800747EC + 1;
goto L_ret0;
}
if (cdReq_curSector == 0) {
return 1;
}
D_800747EC = 2;
return 0;
L_case1:
v0 = CdQueueBusy();
goto L_shared;
L_case2:
v0 = cdReq_curSector;
goto L_shared;
L_case3:
v0 = D_800747E8;
L_shared:
if (v0 == 0) {
__asm__ __volatile__("");
return 1;
}
L_ret0:
return 0;
}
extern s32 D_80063074;
s32 func_8001BFA0(void) {
return D_80063074 & 0x1;
}
extern s32 D_80063074;
void func_8001BFB0(void) {
D_80063074++;
}
extern s32 D_800A2B70;
extern s32 D_800BA0FC;
void func_8001BFD0(void) {
D_800A2B70 = 0;
D_800BA0FC = 0;
}
extern s32 D_800747D8;
s32 func_8001BFE8(void) {
return D_800747D8;
}
extern s32 D_800747D8;
s32 func_8001BFF8(void) {
return D_800747D8 = 1;
}
extern u8 D_800B9A11;
extern void func_8001F9F8(void);
extern void func_8001D1C4(void);
void func_8001C00C(void) {
if (D_800B9A11 != 1) {
func_8001F9F8();
func_8001D1C4();
}
}
void func_8001C044(void) {
extern void func_80016714(void *a0, s32 a1);
extern u8 D_800AF630[];
u8 *base;
u8 *p;
s32 i;
base = D_800AF630;
p = &base[0x65A8];
i = 0;
do {
func_80016714(p, 0x38);
i++;
p += 0x38;
} while (i < 0x100);
p = &base[0x2A8];
i = 0;
do {
func_80016714(p, 0x84);
i++;
p += 0x84;
} while (i < 0xC0);
*(u16 *)&base[0x19C] = 0;
}
void func_8001C0C8(void) {
extern void func_80016714(void *a0, s32 a1);
extern u8 D_800AF630[];
u8 *base;
u8 *p;
s32 i;
base = D_800AF630;
p = &base[0x65A8];
i = 0;
do {
func_80016714(p, 0x38);
i++;
p += 0x38;
} while (i < 0x100);
p = &base[0x2A8];
i = 0;
do {
func_80016714(p, 0x84);
i++;
p += 0x84;
} while (i < 0xC0);
*(u16 *)&base[0x19C] = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001C14C);
extern void func_80054514(s32 a0, s32 a1);
void func_8001C1E4(void* a0, s32 a1) {
s32 local_buf[8];
*(s32 *)(a0 + 0x78) = a1 + 0x30;
*(s32 *)(a0 + 0x30) = 0;
func_80054514((s32)(a0 + 0x30), (s32)local_buf);
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001C214);
extern void func_8001C9D0(void);
extern void func_80052D90(s32 a0, void *a1);
extern void func_80054514(s32 a0, s32 a1);
void func_8001C2C4(s32 a0) {
s32 stack_buf[8];
s32 *s1;
func_8001C9D0();
s1 = (s32 *)(a0 + 0x30);
*(s16 *)(a0 + 0x0) = 1;
*(s16 *)(a0 + 0x2) = 0;
func_80052D90(0, s1);
func_80054514((s32)s1, (s32)stack_buf);
*(s32 *)(a0 + 0x24) = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001C320);
extern void func_8001C9D0(void);
extern void func_80052D90(s32 a0, void *a1);
extern void func_80054514(s32 a0, s32 a1);
void func_8001C448(s32 a0) {
s32 local_10[8];
s32 s0_val = a0;
s32 s1_val;
func_8001C9D0();
s1_val = s0_val + 0x30;
*(s16 *)s0_val = 1;
*(s16 *)(s0_val + 0x2) = 1;
func_80052D90(0, (void *)s1_val);
func_80054514(s1_val, (s32)&local_10[0]);
*(s32 *)(s0_val + 0x24) = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001C4A4);
extern void func_8001C9D0(void);
extern void func_80052D90(s32 a0, void *a1);
extern void func_80054514(s32 a0, s32 a1);
void func_8001C558(s32 a0) {
u8 local_var[32];
func_8001C9D0();
*(s16 *)(a0 + 0x0) = 1;
*(s16 *)(a0 + 0x2) = 7;
func_80052D90(0, (void *)(a0 + 0x30));
func_80054514((s32)(a0 + 0x30), (s32)&local_var[0]);
*(s32 *)(a0 + 0x24) = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001C5B8);
extern void func_8001C9D0(void);
extern void func_80052D90(s32 a0, void *a1);
extern void func_80054514(s32 a0, s32 a1);
void func_8001C6E4(void *a0) {
s32 sp_buf[8];
((void (*)(void *))func_8001C9D0)(a0);
*(s16 *)a0 = 1;
*(s16 *)((s32)a0 + 2) = 8;
func_80052D90(0, (void *)((s32)a0 + 0x30));
func_80054514((s32)a0 + 0x30, (s32)sp_buf);
*(s32 *)((s32)a0 + 0x24) = 0;
}
extern void func_8001C9D0(void);
extern void func_80052D90(s32 a0, void *a1);
extern void func_80054514(s32 a0, s32 a1);
void func_8001C744(s32 a0, s32 a1) {
char local_buf[32];
func_8001C9D0();
*(s16 *)a0 = 1;
*(s16 *)(a0 + 2) = 2;
func_80052D90(0, (void *)(a0 + 0x30));
func_80054514(a0 + 0x30, (s32)(&local_buf[0]));
*(s32 *)(a0 + 0x24) = a1;
}
extern void func_8001C9D0(void);
extern void func_80052D90(s32 a0, void *a1);
extern void func_80054514(s32 a0, s32 a1);
void func_8001C7B0(void *arg0) {
s32 local_s1;
u8 local_array[0x20];
((void (*)(void *))func_8001C9D0)(arg0);
local_s1 = (s32)((char *)arg0 + 0x30);
*(s16 *)((char *)arg0 + 0x0) = 1;
*(s16 *)((char *)arg0 + 0x2) = 2;
func_80052D90(0, (void *)local_s1);
func_80054514(local_s1, (s32)local_array);
*(s32 *)((char *)arg0 + 0x24) = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001C810);
extern void func_8001C9D0(void);
extern void func_80052D90(s32 a0, void *a1);
extern void func_80054514(s32 a0, s32 a1);
void func_8001C8C4(s32 a0) {
s32 local_10[4];
s32 local_20[4];
((void (*)(s32))func_8001C9D0)(a0);
*(s16 *)(a0 + 0x0) = 1;
*(s16 *)(a0 + 0x2) = 5;
func_80052D90(0, (void *)(a0 + 0x30));
func_80054514(a0 + 0x30, (s32)local_10);
*(s32 *)(a0 + 0x24) = 0;
}
extern void GsMapModelingData(unsigned long *p);
void func_8001C924(void *a0, s32 *a1) {
s32 *s0;
s32 v0;
s0 = a1;
*(s32 **)(a0 + 0x24) = s0;
v0 = *s0;
while (v0 != 0) {
s32 tmp = *s0;
s0++;
GsMapModelingData((unsigned long *)((u32)tmp + 4));
v0 = *s0;
}
}
extern void GsMapModelingData(unsigned long *p);
void func_8001C97C(s32 *a0) {
s32 *ptr = a0;
s32 val;
val = *ptr;
if (val != 0) {
do {
s32 item = *ptr;
ptr++;
GsMapModelingData((unsigned long *)(item + 4));
val = *ptr;
} while (val != 0);
}
}
void func_8001C9D0(void) {
register s32 a0v __asm__("$4");
s32 v;
v = 0x1000;
*(s16 *)(a0v + 0x1C) = v;
*(s16 *)(a0v + 0x1A) = v;
*(s16 *)(a0v + 0x18) = v;
v = 0xC8;
*(s16 *)(a0v + 0x14) = 0;
*(s16 *)(a0v + 0x12) = 0;
*(s16 *)(a0v + 0x10) = 0;
*(s16 *)(a0v + 0x0C) = 0;
*(s16 *)(a0v + 0x0A) = 0;
*(s16 *)(a0v + 0x08) = 0;
*(s32 *)(a0v + 0x04) = 0;
*(s32 *)(a0v + 0x20) = 0;
*(s16 *)(a0v + 0x28) = v;
*(s16 *)(a0v + 0x2A) = v;
*(s16 *)(a0v + 0x2C) = 0;
*(s16 *)(a0v + 0x2E) = 0;
*(s32 *)(a0v + 0x80) = 0;
}
extern void func_8001C9D0(void);
extern void func_80052D90(s32, void *);
extern void func_80054514(s32 a0, s32 a1);
void func_8001CA1C(void *a0, void *a1)
{
register void *s0 __asm__("$16");
register void *s1 __asm__("$17");
register void *s2 __asm__("$18");
u32 local_pad[7];
s0 = a0;
s2 = a1;
func_8001C9D0();
s1 = (void *)((s32)s0 + 0x30);
*(s16 *)s0 = 1;
*(s16 *)((s32)s0 + 2) = 3;
func_80052D90(0, s1);
func_80054514((s32)s1, (s32)local_pad);
*(s32 *)((s32)s0 + 0x20) = (s32)s2;
}
extern void func_8001C9D0(void);
extern void func_80052D90(s32 a0, void *a1);
extern void func_80054514(s32 a0, s32 a1);
void func_8001CA88(s32 a0, s32 a1)
{
s32 local_10[8];
s32 s0_val = a0;
s32 s2_val = a1;
s32 s1_val;
func_8001C9D0();
s1_val = s0_val + 0x30;
*(s16 *)s0_val = 1;
*(s16 *)(s0_val + 0x2) = 4;
func_80052D90(0, (void *)s1_val);
func_80054514(s1_val, (s32)&local_10[0]);
*(s32 *)(s0_val + 0x20) = s2_val;
*(s32 *)(s0_val + 0x74) = 0;
*(s16 *)(s0_val + 0xE) = 0;
*(s16 *)(s0_val + 0x1E) = 0;
}
extern void func_8001CF48(s32 a0);
void func_8001CB00(s32 a0, void *a1, s32 a2, s32 a3) {
func_8001CF48(a0);
*(s16 *)(a0 + 0x2) = 1;
*(s16 *)(a0 + 0x28) = (s16)a2;
*(s16 *)(a0 + 0x2A) = (s16)a3;
*(s32 *)(a0 + 0x20) = (s32)a1;
*(s32 *)(a0 + 0x4) = 0x8000000;
*(s16 *)(a0 + 0x2C) = 0;
}
extern void func_8001CF48(s32 a0);
void func_8001CB6C(u8 *a0, s32 a1, s32 a2, s32 a3) {
func_8001CF48(a0);
*(s16 *)(a0 + 0x2) = 2;
*(s16 *)(a0 + 0x28) = (s16)a2;
*(s16 *)(a0 + 0x2A) = (s16)a3;
*(s32 *)(a0 + 0x20) = (s32)a1;
*(s32 *)(a0 + 0x4) = 0xC000040;
*(s16 *)(a0 + 0x2C) = 0;
}
extern void func_8001CF48(s32 a0);
void func_8001CBDC(s32 a0, void *a1, s32 a2, s32 a3) {
func_8001CF48(a0);
*(s16 *)(a0 + 0x2) = 0;
*(s16 *)(a0 + 0x28) = (s16)a2;
*(s16 *)(a0 + 0x2A) = (s16)a3;
*(s32 *)(a0 + 0x20) = (s32)a1;
*(s16 *)(a0 + 0x2C) = 0;
}
extern void func_8001CF48(s32 a0);
void func_8001CC3C(s32 a0, void *a1, s32 a2, s32 a3) {
func_8001CF48(a0);
*(s16 *)(a0 + 0x2) = 3;
*(s16 *)(a0 + 0x28) = (s16)a2;
*(s16 *)(a0 + 0x2A) = (s16)a3;
*(s32 *)(a0 + 0x20) = (s32)a1;
*(s16 *)(a0 + 0x2C) = 0;
}
extern void func_8001CF48(s32 a0);
void func_8001CCA0(s32 a0, s32 a1, s32 a2, s32 a3) {
func_8001CF48(a0);
*(s16 *)(a0 + 0x2) = 0x9;
*(s16 *)(a0 + 0x28) = (s16)a2;
*(s16 *)(a0 + 0x2A) = (s16)a3;
*(s32 *)(a0 + 0x20) = a1;
*(s16 *)(a0 + 0x2C) = 0;
}
extern void func_8001CF48(s32);
void func_8001CD04(s32 a0, s32 a1)
{
func_8001CF48(a0);
*(s16*)(a0 + 0x2) = 4;
*(s32*)(a0 + 0x20) = a1;
*(s16*)(a0 + 0xE) = 0;
*(s16*)(a0 + 0x1E) = 0;
*(s16*)(a0 + 0x2C) = 0;
}
extern void func_8001CF48(s32 a0);
void func_8001CD50(s32 a0, s32 a1) {
s32 s0 = a0;
s32 s1 = a1;
func_8001CF48(s0);
*(s16 *)((u8 *)s0 + 0x2) = 5;
*(s32 *)((u8 *)s0 + 0x20) = s1;
*(s16 *)((u8 *)s0 + 0xE) = 0;
*(s16 *)((u8 *)s0 + 0x1E) = 0;
*(s16 *)((u8 *)s0 + 0x2C) = 0;
}
extern void func_8001CF48(s32 a0);
void func_8001CD9C(s32 a0, s32 a1) {
func_8001CF48(a0);
*(s16 *)(a0 + 0x2) = 6;
*(s32 *)(a0 + 0x20) = a1;
*(s16 *)(a0 + 0xE) = 0;
*(s16 *)(a0 + 0x1E) = 0;
*(s16 *)(a0 + 0x2C) = 0;
}
extern void func_8001CF48(s32 a0);
void func_8001CDE8(s32 a0, s32 a1) {
func_8001CF48(a0);
*(s16 *)(a0 + 0x2) = 0x7;
*(s32 *)(a0 + 0x20) = a1;
}
extern void func_8001CF48(s32 a0);
void func_8001CE28(s32 a0, s32 a1) {
func_8001CF48(a0);
*(s16 *)(a0 + 0x2) = 0x8;
*(s32 *)(a0 + 0x20) = a1;
}
extern void func_8001CF48(s32 a0);
void func_8001CE68(s32 a0, s32 a1) {
func_8001CF48(a0);
*(s16 *)(a0 + 0x2) = 0x8;
*(u8 *)(a0 + 0x27) = 0xBA;
*(s32 *)(a0 + 0x4) |= 0x400000;
*(s32 *)(a0 + 0x20) = a1;
}
extern void func_8001CF48(s32 a0);
void func_8001CEC0(s32 a0, s32 a1) {
func_8001CF48(a0);
*(s16 *)(a0 + 0x2) = 0xA;
*(s32 *)(a0 + 0x20) = a1;
}
extern void func_8001CF48(s32 a0);
void func_8001CF00(s32 a0) {
s32 s0 = a0;
func_8001CF48(a0);
*(s16 *)(s0 + 0x2) = 0xB;
}
void func_8001CF30(s32 *a0) {
a0[1] = (a0[1] & ~0x40) | 0x1000;
}
void func_8001CF48(s32 a0) {
*(s16 *)a0 = 2;
*(s16 *)(a0 + 0x1C) = 0x1000;
*(s16 *)(a0 + 0x1A) = 0x1000;
*(s16 *)(a0 + 0x18) = 0x1000;
*(s16 *)(a0 + 0x32) = 0;
*(s16 *)(a0 + 0x30) = 0;
*(s16 *)(a0 + 0x2E) = 0;
*(s16 *)(a0 + 0x2C) = 0;
*(u8 *)(a0 + 0x27) = 0;
*(s16 *)(a0 + 0x1E) = 0;
*(s16 *)(a0 + 0x14) = 0;
*(s16 *)(a0 + 0x12) = 0;
*(s16 *)(a0 + 0x10) = 0;
*(s16 *)(a0 + 0x0E) = 0;
*(s16 *)(a0 + 0x0C) = 0;
*(s16 *)(a0 + 0x0A) = 0;
*(s16 *)(a0 + 0x08) = 0;
*(s32 *)(a0 + 0x04) = 0;
*(s32 *)(a0 + 0x20) = 0;
*(u8 *)(a0 + 0x26) = 0x80;
*(u8 *)(a0 + 0x25) = 0x80;
*(u8 *)(a0 + 0x24) = 0x80;
*(s32 *)(a0 + 0x34) = 0;
*(s16 *)(a0 + 0x2C) = 0;
}
extern void func_8001CFDC(s32 a0, s32 a1);
void func_8001CFB8(void) {
func_8001CFDC(0, 4);
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001CFDC);
extern void func_8001D074(s32 a, s32 b);
void func_8001D050(void) {
func_8001D074(0, 4);
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001D074);
void func_8001D0E8(s32 arg0, s32 arg1, s32 arg2) {
*(s16 *)(arg0 + 0x28) = arg1;
*(s16 *)(arg0 + 0x2A) = arg2;
}
void func_8001D0F4(s32 *a0)
{
while (*a0 != 0) {
*a0 &= 0x80FFFFFF;
a0 += 1;
}
}
void func_8001D130(s32 arg0, s32 arg1) {
*(s32 *)(arg0 + arg1 * 4) &= 0x80FFFFFF;
}
s32 func_8001D150(s32 *arg0, s32 arg1) {
arg1 *= 4;
arg1 += (s32) arg0;
*(s32 *) arg1 |= 0x1000000;
return *(s32 *) arg1;
}
void func_8001D16C(s32 *arg0, s32 *arg1)
{
s32 *a2;
s32 v0;
a2 = arg0 + 0x20;
v0 = *a2 & 0x80FFFFFF;
if (v0 != 0) {
do {
a2 = (s32 *)((s32)a2 & 0x80FFFFFF);
v0 = *a2 & 0x80FFFFFF;
} while (v0 != 0);
}
*a2 = ((s32)arg1 & 0x80FFFFFF) | 0x01000000;
*arg1 = 0;
}
extern u8 D_800B9A11;
extern u8 D_800B5CB8;
extern u8 D_800B5D28;
extern u8 D_800B60A8;
extern u8 D_800B6968;
extern u8 D_800B7768;
void func_8001D388();
void func_8001D1C4(void) {
u8 *base;
u8 *p;
s32 sp10;
u8 flags;
base = &D_800B9A11;
sp10 = 0;
flags = *base;
p = base - 0x3E39;
if (p < base - 0x3D59) {
do {
func_8001D388(p, &sp10);
p += 0x38;
} while (p < base - 0x3D59);
}
if (!(flags & 4)) {
p = &D_800B5CB8;
if (p < &D_800B5CB8 + 0x70) {
do {
func_8001D388(p, &sp10);
p += 0x38;
} while (p < &D_800B5CB8 + 0x70);
}
}
if (!(flags & 0x10)) {
p = &D_800B5D28;
if (p < &D_800B5D28 + 0x380) {
do {
func_8001D388(p, &sp10);
p += 0x38;
} while (p < &D_800B5D28 + 0x380);
}
}
if (!(flags & 0x20)) {
p = &D_800B60A8;
if (p < &D_800B60A8 + 0x8C0) {
do {
func_8001D388(p, &sp10);
p += 0x38;
} while (p < &D_800B60A8 + 0x8C0);
}
}
if (!(flags & 0x40)) {
p = &D_800B6968;
if (p < &D_800B6968 + 0xE00) {
do {
func_8001D388(p, &sp10);
p += 0x38;
} while (p < &D_800B6968 + 0xE00);
}
}
if (!(flags & 0x80)) {
p = &D_800B7768;
if (p < &D_800B7768 + 0x1C70) {
do {
func_8001D388(p, &sp10);
p += 0x38;
} while (p < &D_800B7768 + 0x1C70);
}
}
}
extern void (*D_8006351C[])(void *);
void func_8001D388(void *param_1)
{
if ((*(s32 *)((char *)param_1 + 4) >= 0) &&
(*(s32 *)((char *)param_1 + 0x20) != 0) &&
(*(u16 *)param_1 == 2) &&
(*(u16 *)((char *)param_1 + 2) < 11)) {
D_8006351C[*(u16 *)((char *)param_1 + 2)](param_1);
}
}
/* POLY_FT4 sprite-strip builder: walks a 12-byte record list at arg0+0x20, pulls
* 0x28-byte prims off the D_800A5E60 bump allocator, builds tpage/clut/UVs with
* X/Y flip, calls func_8001D8C4, and addPrim's each prim into the OT slot
* &((PTag *)(D_800A6610 + (D_800B9A02 << 14)))[pri].
*
* Five levers were needed (see cookbook notes in the wave report):
* 1. libgpu addPrim bitfield `struct { u32 addr:24; u32 len:8; }` -> hoists 0x00FFFFFF into $s7.
* 2. ONE record pointer (not two): gcc's giv combination emits the `addiu $s2,$s3,3`
* preheader init and the -1/0/1/3 offsets off it.
* 3. Chained store `*(u8 *)(cur+0x14) = *(u8 *)(cur+0x24) = u;` -> the SI->QI
* `addu $v0,$a0,$zero` before each sb pair, one copy shared across both flip arms.
* 4. `ut` is a SINGLE-SET temp: birthing-boost (sched.c adjust_priority /
* birthing_insn_p, REG_N_SETS(dest)==1) sinks the sllv chain BELOW the
* `cur[7] |= abe` block, which is what the target does. Folding ut into ub
* (ub = expr; u = ub; ub = ub + w - 1) gives ub 3 sets, kills the boost, and
* schedules the whole u-chain before the abe block instead (closeness 31).
* 5. `u`/`ub` are u16: the mode-changing copy `u = ut` is NOT a plain reg-reg copy,
* so cse/coalescing cannot propagate `ut` into u's later uses and delete it.
* That single instruction (`addu $a0,$v1,$zero`) is what fixes the whole
* $a0<->$v1 allocation of both the U and the V half. Same mechanism keeps the
* V-flip diamond's else arm (`addu $a0,$v1,$zero`) alive and shares `(u16)vy`
* across both arms.
* 6. The explicit intermediate `tt` makes the U-half accumulator reuse $v1
* (`addu $v1,$v1,$v0`) instead of the dying rec[2] register $v0.
*/
typedef struct { u32 addr : 24; u32 len : 8; } PTag_8001D3FC;
extern u8 D_800A6610[];
extern u16 D_800B9A02;
extern u8 *D_800A5E60;
extern void func_8001D70C(s32 arg0);
extern void func_8001D8C4(s32 arg0, u8 *rec, u8 *prim);
void func_8001D3FC(s32 arg0)
{
u32 pri;
u32 attr;
u8 *rec;
PTag_8001D3FC *slot;
u32 sc;
s32 mode;
s32 shift;
u8 *cur;
u16 id;
u32 sx, sy;
s32 xs;
u16 vx, vy;
s32 tpage;
u16 u;
u16 ub;
s32 ut, vt;
s32 tt;
s32 clut;
pri = *(u16 *)(arg0 + 0x2C) & 0x3FFF;
if (pri < 0x1000) {
attr = *(u32 *)(arg0 + 4);
rec = *(u8 **)(arg0 + 0x20);
sc = (u32)(u16)D_800B9A02;
mode = (attr >> 24) & 3;
shift = 2 - mode;
slot = &((PTag_8001D3FC *)(D_800A6610 + (sc << 14)))[pri];
func_8001D70C(arg0);
do {
cur = D_800A5E60;
id = *(u16 *)rec;
xs = *(s16 *)(rec + 4);
sx = *(u16 *)(arg0 + 0x28) + (xs >> shift);
vx = sx;
sy = *(u16 *)(arg0 + 0x2A) + *(u16 *)(rec + 6);
vy = sy;
D_800A5E60 = cur + 0x28;
*(u8 *)(cur + 3) = 9;
*(u8 *)(cur + 7) = 0x2C;
if (attr & 0x40000000) {
*(u8 *)(cur + 7) = 0x2E;
tpage = (mode << 7) | (((attr >> 28) & 3) << 5) |
((sy & 0x100) >> 4) | ((sx & 0x3C0) >> 6) |
((sy & 0x200) << 2);
} else {
tpage = (mode << 7) | (1 << 5) |
((sy & 0x100) >> 4) | ((sx & 0x3C0) >> 6) |
((sy & 0x200) << 2);
}
*(s16 *)(cur + 0x16) = tpage;
*(u8 *)(cur + 7) |= (attr & 0x40) >> 6;
ut = (vx - ((tpage & 0xF) << 6)) << shift;
u = ut;
tt = ut + *(u8 *)(rec + 2);
ub = tt - 1;
if ((u16)ub >= 0x100) {
ub = 0xFF;
}
if (id & 0x100) {
*(u8 *)(cur + 0x14) = *(u8 *)(cur + 0x24) = u;
*(u8 *)(cur + 0x0C) = *(u8 *)(cur + 0x1C) = ub;
} else {
*(u8 *)(cur + 0x0C) = *(u8 *)(cur + 0x1C) = u;
*(u8 *)(cur + 0x14) = *(u8 *)(cur + 0x24) = ub;
}
vt = vy;
if (tpage & 0x10) {
u = vt - 0x100;
} else {
u = vt;
}
ub = u + *(u8 *)(rec + 3) - 1;
if ((u16)ub >= 0x100) {
ub = 0xFF;
}
if (id & 0x200) {
*(u8 *)(cur + 0x1D) = *(u8 *)(cur + 0x25) = u;
*(u8 *)(cur + 0x0D) = *(u8 *)(cur + 0x15) = ub;
} else {
*(u8 *)(cur + 0x0D) = *(u8 *)(cur + 0x15) = u;
*(u8 *)(cur + 0x1D) = *(u8 *)(cur + 0x25) = ub;
}
clut = ((*(u8 *)(arg0 + 0x27) + 0x100) << 6) |
((*(u8 *)(arg0 + 0x27) < 0xE0) ? 0x16 : 0x10);
*(s16 *)(cur + 0xE) = clut;
*(u8 *)(cur + 4) = *(u8 *)(arg0 + 0x24);
*(u8 *)(cur + 5) = *(u8 *)(arg0 + 0x25);
*(u8 *)(cur + 6) = *(u8 *)(arg0 + 0x26);
func_8001D8C4(arg0, rec, cur);
((PTag_8001D3FC *)cur)->addr = slot->addr;
slot->addr = (u32)cur;
rec += 0xC;
} while ((id & 0xFF) != 0xFF);
}
}
void func_8001D70C(s32 param_1)
{
s32 matrix[8]; /* sp+0x10 */
s16 sc[20]; /* sp+0x30 */
func_8004978C((s16 *)(param_1 + 0x10), (void *)matrix);
/* build the diagonal scale matrix at sp+0x30 */
sc[0] = *(u16 *)(param_1 + 0x18);
sc[1] = 0;
sc[2] = 0;
sc[3] = 0;
sc[4] = *(u16 *)(param_1 + 0x1A);
sc[5] = 0;
sc[6] = 0;
sc[7] = 0;
sc[8] = 0x1000;
__asm__ volatile (
"lw $12, 0(%0);"
"lw $13, 4(%0);"
"ctc2 $12, $0;"
"ctc2 $13, $1;"
"lw $12, 8(%0);"
"lw $13, 12(%0);"
"lw $14, 16(%0);"
"ctc2 $12, $2;"
"ctc2 $13, $3;"
"ctc2 $14, $4;"
"addiu $2, $sp, 0x30;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0(%0);"
"sh $13, 6(%0);"
"sh $14, 12(%0);"
"addiu $2, $sp, 0x32;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"addiu $2, $sp, 0x12;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0($2);"
"sh $13, 6($2);"
"sh $14, 12($2);"
"addiu $2, $sp, 0x34;"
"lhu $12, 0($2);"
"lhu $13, 6($2);"
"lhu $14, 12($2);"
"mtc2 $12, $9;"
"mtc2 $13, $10;"
"mtc2 $14, $11;"
"nop;"
"nop;"
"mvmva 1, 0, 3, 3, 0;"
"addiu $2, $sp, 0x14;"
"mfc2 $12, $9;"
"mfc2 $13, $10;"
"mfc2 $14, $11;"
"sh $12, 0($2);"
"sh $13, 6($2);"
"sh $14, 12($2);"
: : "r"((s32)matrix) : "$12", "$13", "$14", "$2", "memory");
*(s32 *)((u8 *)matrix + 0x14) = *(s16 *)(param_1 + 8);
*(s32 *)((u8 *)matrix + 0x18) = *(s16 *)(param_1 + 10);
*(s32 *)((u8 *)matrix + 0x1C) = *(s16 *)(param_1 + 12);
__asm__ volatile (
"lw $12, 0(%0);"
"lw $13, 4(%0);"
"ctc2 $12, $0;"
"ctc2 $13, $1;"
"lw $12, 8(%0);"
"lw $13, 12(%0);"
"lw $14, 16(%0);"
"ctc2 $12, $2;"
"ctc2 $13, $3;"
"ctc2 $14, $4;"
"lw $12, 20(%0);"
"lw $13, 24(%0);"
"ctc2 $12, $5;"
"lw $14, 28(%0);"
"ctc2 $13, $6;"
"ctc2 $14, $7"
: : "r"((s32)matrix) : "$12", "$13", "$14", "$2");
}
/* ---- PsyQ GTE inline macros (same spelling as func_8001F730 / ov_SC03_* / 800.c gte_ldv0) ---- */
#define LDV0_8001D8C4(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define MVMVA_8001D8C4() __asm__ volatile ( \
"nop;" \
"nop;" \
"mvmva 1, 0, 0, 0, 0" \
: : : "memory" )
#define STMAC123_8001D8C4(r0) __asm__ volatile ( \
"swc2 $25, 0( %0 );" \
"swc2 $26, 4( %0 );" \
"swc2 $27, 8( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
void func_8001D8C4(s32 a0, u8 * a1_p, u8 * a2_p) {
s32 a1 = (s32)a1_p;
s32 a2 = (s32)a2_p;
s16 sv[4][4]; /* 4 SVECTORs: sp+0x00..0x1F */
s32 out[4]; /* MAC1/2/3 scratch: sp+0x20..0x2F */
s32 cx, cy, dx, dy, z;
cx = *(u16 *)(a0 + 0x2E) + *(u16 *)(a1 + 0x08);
cy = *(u16 *)(a0 + 0x30) + *(u16 *)(a1 + 0x0A);
sv[0][0] = sv[2][0] = cx;
sv[0][1] = sv[1][1] = cy;
dx = *(u8 *)(a1 + 0x02) + cx;
sv[3][0] = dx;
sv[1][0] = dx;
dy = *(u8 *)(a1 + 0x03) + cy;
sv[3][1] = dy;
sv[2][1] = dy;
z = *(u16 *)(a0 + 0x32);
sv[3][2] = z;
sv[2][2] = z;
sv[1][2] = z;
sv[0][2] = z;
LDV0_8001D8C4(sv[0]);
MVMVA_8001D8C4();
STMAC123_8001D8C4(out);
*(s16 *)(a2 + 0x08) = out[0];
*(s16 *)(a2 + 0x0A) = out[1];
LDV0_8001D8C4(sv[1]);
MVMVA_8001D8C4();
STMAC123_8001D8C4(out);
*(s16 *)(a2 + 0x10) = out[0];
*(s16 *)(a2 + 0x12) = out[1];
LDV0_8001D8C4(sv[2]);
MVMVA_8001D8C4();
STMAC123_8001D8C4(out);
*(s16 *)(a2 + 0x18) = out[0];
*(s16 *)(a2 + 0x1A) = out[1];
LDV0_8001D8C4(sv[3]);
MVMVA_8001D8C4();
STMAC123_8001D8C4(out);
*(s16 *)(a2 + 0x20) = out[0];
*(s16 *)(a2 + 0x22) = out[1];
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001DA34);
extern u8 D_800AF648;
void func_8001E094(s32 arg0)
{
s16 sc[16];
s16 res[16];
s32 g;
s32 t;
sc[0] = *(u16 *)(arg0 + 0x18);
sc[1] = 0;
sc[2] = 0;
sc[3] = 0;
sc[4] = *(u16 *)(arg0 + 0x1A);
sc[5] = 0;
sc[6] = 0;
sc[7] = 0;
sc[8] = *(u16 *)(arg0 + 0x1C);
g = (s32)&D_800AF648;
/* gte_SetRotMatrix(obj->mat) */
__asm__ __volatile__(
"lw $12, 0(%0)\n" "lw $13, 4(%0)\n"
"ctc2 $12, $0\n" "ctc2 $13, $1\n"
"lw $12, 8(%0)\n" "lw $13, 12(%0)\n" "lw $14, 16(%0)\n"
"ctc2 $12, $2\n" "ctc2 $13, $3\n" "ctc2 $14, $4\n"
: : "r"(*(s32 *)(arg0 + 0x34)) : "$12", "$13", "$14", "memory");
/* res = obj->mat * sc, column by column */
__asm__ __volatile__(
"lhu $12, 0(%0)\n" "lhu $13, 6(%0)\n" "lhu $14, 12(%0)\n"
"mtc2 $12, $9\n" "mtc2 $13, $10\n" "mtc2 $14, $11\n"
"nop\n" "nop\n" "mvmva 1, 0, 3, 3, 0\n"
: : "r"((s32)sc) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"mfc2 $12, $9\n" "mfc2 $13, $10\n" "mfc2 $14, $11\n"
"sh $12, 0(%0)\n" "sh $13, 6(%0)\n" "sh $14, 12(%0)\n"
: : "r"((s32)res) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"lhu $12, 0(%0)\n" "lhu $13, 6(%0)\n" "lhu $14, 12(%0)\n"
"mtc2 $12, $9\n" "mtc2 $13, $10\n" "mtc2 $14, $11\n"
"nop\n" "nop\n" "mvmva 1, 0, 3, 3, 0\n"
: : "r"((s32)sc + 2) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"mfc2 $12, $9\n" "mfc2 $13, $10\n" "mfc2 $14, $11\n"
"sh $12, 0(%0)\n" "sh $13, 6(%0)\n" "sh $14, 12(%0)\n"
: : "r"((s32)res + 2) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"lhu $12, 0(%0)\n" "lhu $13, 6(%0)\n" "lhu $14, 12(%0)\n"
"mtc2 $12, $9\n" "mtc2 $13, $10\n" "mtc2 $14, $11\n"
"nop\n" "nop\n" "mvmva 1, 0, 3, 3, 0\n"
: : "r"((s32)sc + 4) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"mfc2 $12, $9\n" "mfc2 $13, $10\n" "mfc2 $14, $11\n"
"sh $12, 0(%0)\n" "sh $13, 6(%0)\n" "sh $14, 12(%0)\n"
: : "r"((s32)res + 4) : "$12", "$13", "$14", "memory");
*(s32 *)((u8 *)res + 0x14) = *(s32 *)(*(s32 *)(arg0 + 0x34) + 0x14);
*(s32 *)((u8 *)res + 0x18) = *(s32 *)(*(s32 *)(arg0 + 0x34) + 0x18);
*(s32 *)((u8 *)res + 0x1C) = *(s32 *)(*(s32 *)(arg0 + 0x34) + 0x1C);
/* gte_SetRotMatrix(&D_800AF648) */
__asm__ __volatile__(
"lw $12, 0(%0)\n" "lw $13, 4(%0)\n"
"ctc2 $12, $0\n" "ctc2 $13, $1\n"
"lw $12, 8(%0)\n" "lw $13, 12(%0)\n" "lw $14, 16(%0)\n"
"ctc2 $12, $2\n" "ctc2 $13, $3\n" "ctc2 $14, $4\n"
: : "r"(g) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"lhu $12, 0(%0)\n" "lhu $13, 6(%0)\n" "lhu $14, 12(%0)\n"
"mtc2 $12, $9\n" "mtc2 $13, $10\n" "mtc2 $14, $11\n"
"nop\n" "nop\n" "mvmva 1, 0, 3, 3, 0\n"
: : "r"((s32)res) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"mfc2 $12, $9\n" "mfc2 $13, $10\n" "mfc2 $14, $11\n"
"sh $12, 0(%0)\n" "sh $13, 6(%0)\n" "sh $14, 12(%0)\n"
: : "r"((s32)res) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"lhu $12, 0(%0)\n" "lhu $13, 6(%0)\n" "lhu $14, 12(%0)\n"
"mtc2 $12, $9\n" "mtc2 $13, $10\n" "mtc2 $14, $11\n"
"nop\n" "nop\n" "mvmva 1, 0, 3, 3, 0\n"
: : "r"((s32)res + 2) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"mfc2 $12, $9\n" "mfc2 $13, $10\n" "mfc2 $14, $11\n"
"sh $12, 0(%0)\n" "sh $13, 6(%0)\n" "sh $14, 12(%0)\n"
: : "r"((s32)res + 2) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"lhu $12, 0(%0)\n" "lhu $13, 6(%0)\n" "lhu $14, 12(%0)\n"
"mtc2 $12, $9\n" "mtc2 $13, $10\n" "mtc2 $14, $11\n"
"nop\n" "nop\n" "mvmva 1, 0, 3, 3, 0\n"
: : "r"((s32)res + 4) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"mfc2 $12, $9\n" "mfc2 $13, $10\n" "mfc2 $14, $11\n"
"sh $12, 0(%0)\n" "sh $13, 6(%0)\n" "sh $14, 12(%0)\n"
: : "r"((s32)res + 4) : "$12", "$13", "$14", "memory");
/* gte_SetTransMatrix(&D_800AF648) */
__asm__ __volatile__(
"lw $12, 20(%0)\n" "lw $13, 24(%0)\n"
"ctc2 $12, $5\n" "lw $14, 28(%0)\n"
"ctc2 $13, $6\n" "ctc2 $14, $7\n"
: : "r"(g) : "$12", "$13", "$14", "memory");
t = (s32)res + 0x14;
__asm__ __volatile__(
"lhu $13, 4(%0)\n" "lhu $12, 0(%0)\n"
"sll $13, $13, 16\n" "or $12, $12, $13\n"
"mtc2 $12, $0\n" "lwc2 $1, 8(%0)\n"
"nop\n" "nop\n" "mvmva 1, 0, 0, 0, 0\n"
: : "r"(t) : "$12", "$13", "memory");
__asm__ __volatile__(
"swc2 $25, 0(%0)\n" "swc2 $26, 4(%0)\n" "swc2 $27, 8(%0)\n"
: : "r"(t) : "memory");
/* gte_SetRotMatrix(res) ; gte_SetTransMatrix(res) */
__asm__ __volatile__(
"lw $12, 0(%0)\n" "lw $13, 4(%0)\n"
"ctc2 $12, $0\n" "ctc2 $13, $1\n"
"lw $12, 8(%0)\n" "lw $13, 12(%0)\n" "lw $14, 16(%0)\n"
"ctc2 $12, $2\n" "ctc2 $13, $3\n" "ctc2 $14, $4\n"
: : "r"((s32)res) : "$12", "$13", "$14", "memory");
__asm__ __volatile__(
"lw $12, 20(%0)\n" "lw $13, 24(%0)\n"
"ctc2 $12, $5\n" "lw $14, 28(%0)\n"
"ctc2 $13, $6\n" "ctc2 $14, $7\n"
: : "r"((s32)res) : "$12", "$13", "$14", "memory");
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001E378);
/* ---- PsyQ GTE inline macros (same spelling as func_80016F18, this TU) ---- */
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_rtps() __asm__ volatile ("nop;nop;rtps")
#define gte_avsz4() __asm__ volatile ("nop;nop;avsz4")
#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_stsxy(r0) __asm__ volatile ( \
"swc2 $14, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
/* GTE input vertex: {vx, vy, vz, pad} */
typedef struct {
/* 0x0 */ s16 vx;
/* 0x2 */ s16 vy;
/* 0x4 */ s16 vz;
/* 0x6 */ s16 pad;
} GTESVec; /* 8 bytes */
/* GTE screen-space output slot: {xy; z; pad} */
typedef struct {
/* 0x0 */ u32 xy;
/* 0x4 */ s16 z;
/* 0x6 */ s16 pad;
} GTEOutV; /* 8 bytes */
s32 func_8001E668(s32 a0, s32 a1, GTEOutV *a2, s32 *a3)
{
GTESVec v[4];
s32 flag2;
s32 otz;
v[0].vx = *(u16 *)(a0 + 0x2E) + *(u16 *)(a1 + 0x8);
v[0].vy = *(u16 *)(a0 + 0x30) + *(u16 *)(a1 + 0xA);
v[1].vx = *(u16 *)(a0 + 0x2E) + *(u16 *)(a1 + 0x8) + *(u8 *)(a1 + 0x2);
v[1].vy = *(u16 *)(a0 + 0x30) + *(u16 *)(a1 + 0xA);
v[2].vx = *(u16 *)(a0 + 0x2E) + *(u16 *)(a1 + 0x8);
v[2].vy = *(u16 *)(a0 + 0x30) + *(u16 *)(a1 + 0xA) + *(u8 *)(a1 + 0x3);
v[3].vx = *(u16 *)(a0 + 0x2E) + *(u16 *)(a1 + 0x8) + *(u8 *)(a1 + 0x2);
v[3].vy = *(u16 *)(a0 + 0x30) + *(u16 *)(a1 + 0xA) + *(u8 *)(a1 + 0x3);
v[0].vz = v[1].vz = v[2].vz = v[3].vz = *(u16 *)(a0 + 0x32);
gte_ldv3(&v[0], &v[1], &v[2]);
gte_rtpt();
gte_stflg(a3);
gte_stsxy3(&a2[1].xy, &a2[2].xy, &a2[3].xy);
gte_ldv0(&v[3]);
gte_rtps();
gte_stflg(&flag2);
*a3 |= flag2;
a2 += 4;
gte_stsxy(&a2[0].xy);
gte_avsz4();
gte_stotz(&otz);
return otz;
}
extern u16 D_800B9A02;
extern u8 D_800A6518[];
extern s32 func_80052460(s32 a0, s32 a1, s32 a2);
void func_8001E7E0(u8 *arg0)
{
s32 buf[9];
u16 ox, oy;
u8 *otp;
u8 *p;
u32 attr;
u32 pri;
s32 shift;
s32 mode;
u32 sx, sy;
u16 vx, vy;
s32 vv;
u16 tv;
s32 tpage;
u16 id;
pri = *(u16 *)(arg0 + 0x2C) & 0x3FFF;
if (pri < 0x1000) {
p = *(u8 **)(arg0 + 0x20);
ox = *(u16 *)(arg0 + 0x8);
oy = *(u16 *)(arg0 + 0xA);
attr = *(u32 *)(arg0 + 0x4);
mode = (attr >> 24) & 3;
shift = 2 - mode;
otp = &D_800A6518[(u16)D_800B9A02 * 20];
do {
id = *(u16 *)p;
sx = *(u16 *)(arg0 + 0x28) + (*(s16 *)(p + 4) >> shift);
vx = sx;
sy = *(u16 *)(arg0 + 0x2A) + *(u16 *)(p + 6);
vy = sy;
if (attr & 0x40000000) {
tpage = (mode << 7) | (((attr >> 28) & 3) << 5) | ((sy & 0x100) >> 4) |
((sx & 0x3C0) >> 6) | ((sy & 0x200) << 2);
} else {
tpage = (mode << 7) | (1 << 5) | ((sy & 0x100) >> 4) |
((sx & 0x3C0) >> 6) | ((sy & 0x200) << 2);
}
buf[0] = attr;
*(s16 *)((u8 *)buf + 0x04) =
*(u16 *)(p + 8) + (ox + *(u16 *)(arg0 + 0x2E));
*(s16 *)((u8 *)buf + 0x06) =
*(u16 *)(p + 10) + (oy + *(u16 *)(arg0 + 0x30));
*(s16 *)((u8 *)buf + 0x08) = *(u8 *)(p + 2);
*(s16 *)((u8 *)buf + 0x0A) = *(u8 *)(p + 3);
*(s16 *)((u8 *)buf + 0x0C) = tpage;
*(u8 *)((u8 *)buf + 0x0E) = (vx - ((tpage & 0xF) << 6)) << shift;
vv = vy;
if (tpage & 0x10) {
tv = vv - 0x100;
*(u8 *)((u8 *)buf + 0x0F) = tv;
} else {
tv = vv;
*(u8 *)((u8 *)buf + 0x0F) = tv;
}
*(s16 *)((u8 *)buf + 0x10) =
(*(u8 *)(arg0 + 0x27) < 0xE0) ? 0x160 : 0x100;
p += 12;
*(s16 *)((u8 *)buf + 0x12) = *(u8 *)(arg0 + 0x27) + 0x100;
*(u8 *)((u8 *)buf + 0x16) = 0x80;
*(u8 *)((u8 *)buf + 0x15) = 0x80;
*(u8 *)((u8 *)buf + 0x14) = 0x80;
func_80052460((s32)buf, (s32)otp, (u16)pri);
} while ((id & 0xFF) != 0xFF);
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001EA14);
INCLUDE_ASM("asm/nonmatchings/800", func_8001EFE0);
/* func_8001F730 — rotate the four corners of a POLY_FT4-shaped primitive
* (x/y pairs at +0x08, +0x10, +0x18, +0x20) about a u16 centre point (a1)
* using the rotation matrix built by func_80020DA4(a0, &m).
* Fully unrolled in the source: gcc-2.7.2 -O2 does not unroll loops. */
extern void func_80020DA4(s32 a0, s32 a1);
#define SRM_8001F730(r0) __asm__ volatile ( \
"lw $12, 0( %0 );" \
"lw $13, 4( %0 );" \
"ctc2 $12, $0;" \
"ctc2 $13, $1;" \
"lw $12, 8( %0 );" \
"lw $13, 12( %0 );" \
"lw $14, 16( %0 );" \
"ctc2 $12, $2;" \
"ctc2 $13, $3;" \
"ctc2 $14, $4" \
: \
: "r"( r0 ) \
: "$12", "$13", "$14" )
#define LDV0_8001F730(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define RTV0_8001F730() __asm__ volatile ( \
"nop;" \
"nop;" \
"mvmva 1, 0, 0, 3, 0" \
: : : "memory" )
#define STLVNL_8001F730(r0) __asm__ volatile ( \
"swc2 $25, 0( %0 );" \
"swc2 $26, 4( %0 );" \
"swc2 $27, 8( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
void func_8001F730(s32 a0, void *a1, void *a2)
{
s32 matrix[8]; /* sp+0x10 */
s16 sv[4][4]; /* sp+0x30 */
s32 out[4][4]; /* sp+0x50 */
u16 *c = (u16 *)a1;
u8 *p = (u8 *)a2;
func_80020DA4(a0, (s32)matrix);
SRM_8001F730(matrix);
sv[0][0] = *(u16 *)(p + 0x08) - c[0];
sv[0][1] = *(u16 *)(p + 0x0A) - c[1];
sv[0][2] = 0;
sv[1][0] = *(u16 *)(p + 0x10) - c[0];
sv[1][1] = *(u16 *)(p + 0x12) - c[1];
sv[1][2] = 0;
sv[2][0] = *(u16 *)(p + 0x18) - c[0];
sv[2][1] = *(u16 *)(p + 0x1A) - c[1];
sv[2][2] = 0;
sv[3][0] = *(u16 *)(p + 0x20) - c[0];
sv[3][1] = *(u16 *)(p + 0x22) - c[1];
sv[3][2] = 0;
LDV0_8001F730(sv[0]);
RTV0_8001F730();
STLVNL_8001F730(out[0]);
LDV0_8001F730(sv[1]);
RTV0_8001F730();
STLVNL_8001F730(out[1]);
LDV0_8001F730(sv[2]);
RTV0_8001F730();
STLVNL_8001F730(out[2]);
LDV0_8001F730(sv[3]);
RTV0_8001F730();
STLVNL_8001F730(out[3]);
*(u16 *)(p + 0x08) = c[0] + out[0][0];
*(u16 *)(p + 0x0A) = c[1] + out[0][1];
*(u16 *)(p + 0x10) = c[0] + out[1][0];
*(u16 *)(p + 0x12) = c[1] + out[1][1];
*(u16 *)(p + 0x18) = c[0] + out[2][0];
*(u16 *)(p + 0x1A) = c[1] + out[2][1];
*(u16 *)(p + 0x20) = c[0] + out[3][0];
*(u16 *)(p + 0x22) = c[1] + out[3][1];
}
void func_8001F974(void) {
}
void func_8001F97C(void *a0)
{
extern void func_80020F34(s32 a0, s32 a1);
s32 t1, t2, t3;
func_80020DA4((s32)((u8 *)a0 + 0x10), (s32)((u8 *)a0 + 0x34));
if (*(u16 *)((u8 *)a0 + 0x2C) & 0x10) {
func_80020F34((s32)((u8 *)a0 + 0x34), (s32)((u8 *)a0 + 0x18));
}
t1 = *(s16 *)((u8 *)a0 + 0x08);
t2 = *(s16 *)((u8 *)a0 + 0x0A);
t3 = *(s16 *)((u8 *)a0 + 0x0C);
*(s32 *)((u8 *)a0 + 0x48) = t1;
*(s32 *)((u8 *)a0 + 0x4C) = t2;
*(s32 *)((u8 *)a0 + 0x50) = t3;
*(u16 *)((u8 *)a0 + 0x2C) |= 1;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001F9F8);
extern void (*D_80063500[])();
void func_8001FB8C(s32 *a0, s32 *a1)
{
if (a0[1] < 0) return;
if (*(u16 *)a0 != 1) return;
if (*(u16 *)((u8 *)a0 + 2) < 9) {
D_80063500[*(u16 *)((u8 *)a0 + 2)](a0);
a1[0]++;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_8001FC08);
/* func_80020248 — build the per-object rotation/translation matrices for a
* NULL-terminated list of objects. If the list is short (< 8 entries) the two
* output matrix arrays live in the scratchpad (0x1F800000 / 0x1F8000E0) and the
* function returns 1; otherwise they go to the main-RAM buffers D_80074818 /
* D_80075018 and it returns 0.
*
* All the GTE work is the usual libgte inline-asm block set (SetRotMatrix /
* MulMatrix0 column loop / SetTransMatrix / RotTrans). */
typedef struct {
/* 0x00 */ s16 m[3][3];
/* 0x14 */ s32 t[3];
} MTX_80020248; /* 0x20 */
typedef struct {
/* 0x0 */ u32 xy;
/* 0x4 */ s16 z;
/* 0x6 */ s16 rot[3];
} OBJ_80020248; /* 0xC */
extern MTX_80020248 D_80074818[];
extern MTX_80020248 D_80075018[];
extern void func_80020DA4(s32 a0, s32 a1);
#define SRM_80020248(r0) __asm__ volatile ( \
"lw $12, 0( %0 );" \
"lw $13, 4( %0 );" \
"ctc2 $12, $0;" \
"ctc2 $13, $1;" \
"lw $12, 8( %0 );" \
"lw $13, 12( %0 );" \
"lw $14, 16( %0 );" \
"ctc2 $12, $2;" \
"ctc2 $13, $3;" \
"ctc2 $14, $4" \
: \
: "r"( r0 ) \
: "$12", "$13", "$14" )
#define STM_80020248(r0) __asm__ volatile ( \
"lw $12, 20( %0 );" \
"lw $13, 24( %0 );" \
"ctc2 $12, $5;" \
"lw $14, 28( %0 );" \
"ctc2 $13, $6;" \
"ctc2 $14, $7" \
: \
: "r"( r0 ) \
: "$12", "$13", "$14" )
#define LDCLMV_80020248(r0) __asm__ volatile ( \
"lhu $12, 0( %0 );" \
"lhu $13, 6( %0 );" \
"lhu $14, 12( %0 );" \
"mtc2 $12, $9;" \
"mtc2 $13, $10;" \
"mtc2 $14, $11" \
: \
: "r"( r0 ) \
: "$12", "$13", "$14" )
#define RTIR_80020248() __asm__ volatile ( \
"nop;" \
"nop;" \
"mvmva 1, 0, 3, 3, 0" \
: : : "memory" )
#define STCLMV_80020248(r0) __asm__ volatile ( \
"mfc2 $12, $9;" \
"mfc2 $13, $10;" \
"mfc2 $14, $11;" \
"sh $12, 0( %0 );" \
"sh $13, 6( %0 );" \
"sh $14, 12( %0 )" \
: \
: "r"( r0 ) \
: "$12", "$13", "$14", "memory" )
#define LDLVL_80020248(r0) __asm__ volatile ( \
"lhu $13, 4( %0 );" \
"lhu $12, 0( %0 );" \
"sll $13, $13, 16;" \
"or $12, $12, $13;" \
"mtc2 $12, $0;" \
"lwc2 $1, 8( %0 )" \
: \
: "r"( r0 ) \
: "$12", "$13" )
#define RT_80020248() __asm__ volatile ( \
"nop;" \
"nop;" \
"mvmva 1, 0, 0, 0, 0" \
: : : "memory" )
#define STLVNL_80020248(r0) __asm__ volatile ( \
"swc2 $25, 0( %0 );" \
"swc2 $26, 4( %0 );" \
"swc2 $27, 8( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
s32 func_80020248(s32 *a0, OBJ_80020248 *a1, MTX_80020248 *a2, MTX_80020248 *a3, s32 a4)
{
MTX_80020248 lm; /* sp+0x10 */
MTX_80020248 *rm;
MTX_80020248 *om;
u32 w;
s32 n;
s32 ret;
ret = 0;
n = 0;
while (*a0++ != 0) {
n++;
}
if (n >= 8) {
rm = D_80074818;
om = D_80075018;
} else {
rm = (MTX_80020248 *)0x1F800000;
om = (MTX_80020248 *)0x1F8000E0;
ret = 1;
}
while (--n != -1) {
func_80020DA4((s32)a1->rot, (s32)&lm);
w = a1->xy;
lm.t[0] = w & 0xFFFF;
lm.t[1] = w >> 16;
lm.t[2] = a1->z;
if (a4 == 0) {
SRM_80020248(a2);
LDCLMV_80020248(&lm.m[0][0]);
RTIR_80020248();
STCLMV_80020248(&rm->m[0][0]);
LDCLMV_80020248(&lm.m[0][1]);
RTIR_80020248();
STCLMV_80020248(&rm->m[0][1]);
LDCLMV_80020248(&lm.m[0][2]);
RTIR_80020248();
STCLMV_80020248(&rm->m[0][2]);
rm++;
}
SRM_80020248(a3);
LDCLMV_80020248(&lm.m[0][0]);
RTIR_80020248();
STCLMV_80020248(&om->m[0][0]);
LDCLMV_80020248(&lm.m[0][1]);
RTIR_80020248();
STCLMV_80020248(&om->m[0][1]);
LDCLMV_80020248(&lm.m[0][2]);
RTIR_80020248();
STCLMV_80020248(&om->m[0][2]);
STM_80020248(a3);
LDLVL_80020248(&lm.t[0]);
RT_80020248();
STLVNL_80020248(&om->t[0]);
om++;
a1++;
}
return ret;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80020598);
INCLUDE_ASM("asm/nonmatchings/800", func_80020A28);
INCLUDE_ASM("asm/nonmatchings/800", func_80020DA4);
/* func_80020F34 — handwritten GTE routine (PSYQ libgte-class ScaleMatrix-style op).
* a0 = MATRIX* (3x3 short matrix, rows at +0x0/+0x6/+0xC/... , 3 columns per row),
* a1 = SVECTOR-like short[3] scale vector.
* Column-by-column: IR0=a1[col], IR1..3 = a0 column; GPF sf=1 computes
* (IR0*IR1..3)>>12, results written back into the same column of a0.
* Software-pipelined by hand: each column's input loads are issued right after the
* previous column's GPF (to hide its latency) before that column's result is read back. */
void func_80020F34(s32 a0, s32 a1)
{
__asm__ __volatile__(
"lh $8, 0(%1)\n"
"lh $9, 0(%0)\n"
"lh $10, 6(%0)\n"
"lh $11, 12(%0)\n"
"mtc2 $8, $8\n"
"mtc2 $9, $9\n"
"mtc2 $10, $10\n"
"mtc2 $11, $11\n"
"nop\n"
"nop\n"
"gpf 1\n"
"lh $8, 2(%1)\n"
"lh $9, 2(%0)\n"
"lh $10, 8(%0)\n"
"lh $11, 14(%0)\n"
"mfc2 $12, $9\n"
"mfc2 $13, $10\n"
"mfc2 $14, $11\n"
"sh $12, 0(%0)\n"
"sh $13, 6(%0)\n"
"sh $14, 12(%0)\n"
"mtc2 $8, $8\n"
"mtc2 $9, $9\n"
"mtc2 $10, $10\n"
"mtc2 $11, $11\n"
"nop\n"
"nop\n"
"gpf 1\n"
"lh $8, 4(%1)\n"
"lh $9, 4(%0)\n"
"lh $10, 10(%0)\n"
"lh $11, 16(%0)\n"
"mfc2 $12, $9\n"
"mfc2 $13, $10\n"
"mfc2 $14, $11\n"
"sh $12, 2(%0)\n"
"sh $13, 8(%0)\n"
"sh $14, 14(%0)\n"
"mtc2 $8, $8\n"
"mtc2 $9, $9\n"
"mtc2 $10, $10\n"
"mtc2 $11, $11\n"
"nop\n"
"nop\n"
"gpf 1\n"
"mfc2 $12, $9\n"
"mfc2 $13, $10\n"
"mfc2 $14, $11\n"
"sh $12, 4(%0)\n"
"sh $13, 10(%0)\n"
"sh $14, 16(%0)\n"
:
: "r"(a0), "r"(a1)
: "$8", "$9", "$10", "$11", "$12", "$13", "$14", "memory");
}
extern void func_80028620(s32 a0, void *a1);
void func_80021008(void *a0)
{
void *s0 = a0;
func_80028620(0, s0);
func_80028620(1, (u8 *)s0 + 0x10);
func_80028620(2, (u8 *)s0 + 0x20);
}
extern void func_80028620(s32 a0, void *a1);
extern u8 D_800A5E88;
void func_80021050(void) {
u8 *s0 = &D_800A5E88;
func_80028620(0, s0);
func_80028620(1, s0 + 0x10);
func_80028620(2, s0 + 0x20);
}
extern void func_800491FC(s32 a0, s32 a1, s32 a2);
void func_8002109C(s32 a0, s16 **a1)
{
s16 *v1 = *a1;
if (v1[3] == -2) {
func_800491FC(v1[0], v1[1], v1[2]);
return;
}
if (a0 == v1[3]) {
func_800491FC(v1[0], v1[1], v1[2]);
*a1 += 4;
}
}
extern s16 D_800AE7E0;
extern s16 D_800AE7E2;
extern s16 D_800AE7E4;
extern void func_80053AF8(s32 a0, s32 a1, s32 a2);
void func_80021120(s32 *arg0) {
func_80053AF8(D_800AE7E0, D_800AE7E2, D_800AE7E4);
*arg0 = *arg0 + 1;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80021174);
INCLUDE_ASM("asm/nonmatchings/800", func_80021284);
INCLUDE_ASM("asm/nonmatchings/800", func_800215F4);
INCLUDE_ASM("asm/nonmatchings/800", func_80021D38);
INCLUDE_ASM("asm/nonmatchings/800", func_800221A8);
INCLUDE_ASM("asm/nonmatchings/800", func_800226C0);
extern u8 *D_800A5E60;
void func_80023138(s32 *arg0, u8 *col, u8 *pts, u32 *ot)
{
s32 frame_pad[12];
u32 flags;
u8 *p;
s32 i;
u32 maskAddr;
u32 maskLen;
u8 code;
register u32 x __asm__("$3");
u32 y;
s32 h;
register s32 *zp __asm__("$4");
(void)&frame_pad;
p = D_800A5E60;
flags = arg0[1];
D_800A5E60 = p + 0x1B0;
code = (flags & 0x40000000) ? 0x3A : 0x38;
i = 0;
maskAddr = 0x00FFFFFF;
maskLen = 0xFF000000;
do {
p[0x03] = 8;
p[0x07] = code;
p[0x04] = col[4];
p[0x05] = col[5];
p[0x06] = col[6];
p[0x0C] = col[4];
p[0x0D] = col[5];
p[0x0E] = col[6];
p[0x14] = col[0];
p[0x15] = col[1];
p[0x16] = col[2];
p[0x1C] = col[0];
p[0x1D] = col[1];
p[0x1E] = col[2];
*(u16 *)(p + 0x08) = *(u16 *)(pts + i * 4 + 0x4C);
*(u16 *)(p + 0x0A) = *(u16 *)(pts + i * 4 + 0x4E);
*(u16 *)(p + 0x10) = *(u16 *)(pts + i * 4 + 0x50);
*(u16 *)(p + 0x12) = *(u16 *)(pts + i * 4 + 0x52);
*(u16 *)(p + 0x18) = *(u16 *)(pts + i * 4 + 0x04);
*(u16 *)(p + 0x1A) = *(u16 *)(pts + i * 4 + 0x06);
*(u16 *)(p + 0x20) = *(u16 *)(pts + i * 4 + 0x08);
*(u16 *)(p + 0x22) = *(u16 *)(pts + i * 4 + 0x0A);
h = i >> 1;
i++;
zp = (s32 *)((h << 2) + (u32)pts);
x = *(u32 *)p;
y = ot[zp[13]];
x &= maskLen;
y &= maskAddr;
x |= y;
*(u32 *)p = x;
ot[zp[13]] = (ot[zp[13]] & maskLen) | ((u32)p & maskAddr);
p += 0x24;
} while (i < 12);
*(u16 *)(p - 0x14) = *(u16 *)(pts + 0x4C);
*(u16 *)(p - 0x12) = *(u16 *)(pts + 0x4E);
*(u16 *)(p - 0x04) = *(u16 *)(pts + 0x04);
*(u16 *)(p - 0x02) = *(u16 *)(pts + 0x06);
if (flags & 0x40000000) {
u8 *r;
register s32 j __asm__("$11");
u32 e1;
register u32 mA __asm__("$9");
register u32 mL __asm__("$10");
u8 one;
r = p;
j = 0;
one = 1;
e1 = ((flags >> 23) & 0x60) | 0xE1000000;
mA = 0x00FFFFFF;
mL = 0xFF000000;
D_800A5E60 = D_800A5E60 + 0x60;
do {
h = j >> 1;
j++;
zp = (s32 *)((h << 2) + (u32)pts);
r[0x03] = one;
*(u32 *)(r + 4) = e1;
x = *(u32 *)r;
y = ot[zp[13]];
x &= mL;
y &= mA;
x |= y;
*(u32 *)r = x;
ot[zp[13]] = (ot[zp[13]] & mL) | ((u32)r & mA);
r += 8;
} while (j < 12);
}
}
extern s32 func_8004787C(s32 a0); /* rcos-like: angle (0..0xFFF) -> 1.12 fixed */
extern s32 func_80047948(s32 a0); /* rsin-like: angle (0..0xFFF) -> 1.12 fixed */
typedef struct {
u16 x;
u16 y;
} Poly12Pt;
typedef struct {
u8 pad_00[0x10];
Poly12Pt pts[12];
} Poly12Obj;
/* Builds a 12-gon of radius a1 into the u16{x,y} table at obj+0x10:
* quarter arc (4 pts, angle step 0x155), mirrored in y, then in x. */
void func_800233CC(Poly12Obj *a0, u16 a1) {
s32 i = 0;
s32 radius = a1;
/* `i * 0x155` must stay a DERIVED induction variable (no explicit `ang`
* local): loop_strength_reduce then emits its preheader init alongside the
* hoisted &pts[0] copy, giving the target's s2-before-s1 init order and the
* s1-before-s0 increment order. An explicit pre-loop `ang = 0` statement
* sits ahead of the LSR-inserted init instead -> 6-instruction residual. */
for (; i < 4; i++) {
a0->pts[i].x = (func_8004787C(i * 0x155) * radius) >> 12;
a0->pts[i].y = (func_80047948(i * 0x155) * radius) >> 12;
}
for (i = 4; i < 7; i++) {
a0->pts[i].x = a0->pts[6 - i].x;
a0->pts[i].y = -a0->pts[6 - i].y;
}
for (i = 7; i < 12; i++) {
a0->pts[i].x = -a0->pts[12 - i].x;
a0->pts[i].y = a0->pts[12 - i].y;
}
}
extern s32 func_8004787C(s32 a0);
extern s32 func_80047948(s32 a0);
void func_800234E4(void *a0, u16 a1, u16 a2) {
s32 k = 0;
s32 rad = a1;
/* Struct-free spelling of the func_800233CC sibling: the only dependencies
* are common.h types and the two callee externs, so the body survives any
* splice model (whole-snippet or function-only extraction). Addresses are
* written as a0 + k*4 + 0x10/0x12 so LSR keeps the incoming pointer as the
* IV base (addu s1,a0,zero) and folds the member offset into the sh
* displacements, exactly as the struct form did. */
while (k < 12) {
*(u16 *)((u8 *)a0 + k * 4 + 0x10) = (func_8004787C(a2 + k * 0x155) * rad) >> 12;
*(u16 *)((u8 *)a0 + k * 4 + 0x12) = (func_80047948(a2 + k * 0x155) * rad) >> 12;
k++;
}
}
typedef struct { u32 addr : 24; u32 len : 8; } PTag_80023570;
extern u8 D_800A6610[];
extern u16 D_800B9A02;
extern u8 *D_800A5E60;
extern s32 GetTPage(s32, s32, s32, s32);
extern s32 func_8005A600(s32, s32, s32, s32, s32);
void func_80023570(s32 arg0)
{
u32 *ot;
register u32 flags __asm__("$5");
u16 idx;
PTag_80023570 *slot2;
u8 *cur;
u8 *nxt;
{
register u8 *rec0 __asm__("$8");
register u8 *p __asm__("$7");
register u16 addX __asm__("$14");
register u16 addY __asm__("$13");
register u8 code __asm__("$11");
register u32 tagconst __asm__("$15");
register u32 *slot __asm__("$10");
register u32 maskAddr __asm__("$9");
register u32 maskLen __asm__("$12");
register u8 *rec3 __asm__("$6");
register u8 *q __asm__("$4");
register u32 sc __asm__("$2");
u8 last;
u32 x, y;
u16 t16;
rec0 = *(u8 **)(arg0 + 0x20);
sc = (u32)(u16)D_800B9A02;
p = D_800A5E60;
flags = *(u32 *)(arg0 + 4);
addX = *(u16 *)(arg0 + 8);
addY = *(u16 *)(arg0 + 0xA);
idx = *(u16 *)(arg0 + 0x2C);
ot = (u32 *)(D_800A6610 + (sc << 14));
code = (flags & 0x40000000) ? 0x62 : 0x60;
tagconst = 0x03000000;
sc = idx << 2;
slot = (u32 *)(sc + (u32)ot);
maskAddr = 0x00FFFFFF;
maskLen = 0xFF000000;
rec3 = rec0 + 3;
q = p + 0xE;
do {
q[-7] = code;
*(u32 *)p = tagconst;
q[-0xA] = rec0[0];
q[-9] = rec3[-2];
q[-8] = rec3[-1];
*(u16 *)(q - 6) = addX + *(u16 *)(rec3 + 1);
cur = D_800A5E60;
*(u16 *)(q - 4) = addY + *(u16 *)(rec3 + 3);
t16 = *(u16 *)(rec3 + 5);
rec0 += 0xC;
*(u16 *)(q - 2) = t16;
t16 = *(u16 *)(rec3 + 7);
nxt = cur + 0x10;
D_800A5E60 = nxt;
*(u16 *)(q) = t16;
q += 0x10;
x = *(u32 *)p;
y = *slot;
x = x & maskLen;
y = y & maskAddr;
x = x | y;
*(u32 *)p = x;
x = (u32)p & maskAddr;
p += 0x10;
y = *slot;
y = y & maskLen;
y = y | x;
*slot = y;
last = rec3[0];
rec3 += 0xC;
} while (last == 0);
}
if (flags & 0x40000000) {
s32 tp;
D_800A5E60 = cur + 0x1C;
tp = GetTPage(2, (flags >> 28) & 3, 0x280, 0);
func_8005A600((s32)nxt, 0, 0, (u16)tp, 0);
slot2 = (PTag_80023570 *)(((u32)idx << 2) + (u32)ot);
((PTag_80023570 *)nxt)->addr = slot2->addr;
slot2->addr = (u32)nxt;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002374C);
INCLUDE_ASM("asm/nonmatchings/800", func_80023BF0);
INCLUDE_ASM("asm/nonmatchings/800", func_80024054);
INCLUDE_ASM("asm/nonmatchings/800", func_800241C0);
INCLUDE_ASM("asm/nonmatchings/800", func_800242D0);
extern s32 D_80078D88[];
extern s32 D_800A2B78;
extern void func_80026D64();
extern void func_80024448();
void func_800243EC(s32 *a0) {
s32 v = *a0;
D_80078D88[0] = v;
D_800A2B78 = (v >> 28) & 7;
if (v & 0x40) {
func_80026D64();
} else {
func_80024448();
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_80024448);
extern s32 D_800A2B78;
/* func_800249F0 — HANDWRITTEN assembly (splat marks it "Handwritten function").
* Loop-carried state lives in $t1/$t2/$t5/$t6/$t8/$t9 with hand-placed latency
* nops -- not reachable from gcc-2.7.2 codegen -- so the body is reproduced
* verbatim as one .set noreorder asm block (same idiom as func_80027200 above);
* gcc supplies only jr $ra + delay nop.
*
* Semantics: TMD F3 mesh emitter. Per face: RTPT 3 verts -> GTE flag cull ->
* NCLIP cull -> store SXY0..2 -> AVSZ3 depth -> NCCS colour from normal p[0]
* -> OT insert (tag code 0x04) -> if D_800A2B78 != 0 and the rgb word just
* written has bit 1 set, append a 2-word semi-transparency primitive
* (0xE100000A | ((D_800A2B78 & 3) << 5)) into the OT (tag code 0x01).
* Returns the advanced packet pointer. */
long *func_800249F0(char *f, s32 verts, s32 norms, long *prim, s32 count,
s32 shift, s32 ot)
{
__asm__ __volatile__(
".set\tnoreorder\n"
"addiu $sp, $sp, -8\n"
"lw $t5, 24($sp)\n"
"lw $t9, 28($sp)\n"
"lw $t8, 32($sp)\n"
"beq $t5, $zero, 3f\n"
"addu $t6, $a0, $zero\n"
"addiu $t7, $sp, 4\n"
"lui $t3, 0xFF\n"
"ori $t3, $t3, 0xFFFF\n"
"addiu $t2, $a0, 8\n"
"addiu $t1, $a3, 4\n"
"1:\n"
"lhu $a0, 2($t2)\n"
"lhu $v1, 4($t2)\n"
"lhu $v0, 6($t2)\n"
"sll $a0, $a0, 3\n"
"addu $a0, $a1, $a0\n"
"sll $v1, $v1, 3\n"
"addu $v1, $a1, $v1\n"
"sll $v0, $v0, 3\n"
"addu $v0, $a1, $v0\n"
"lwc2 $0, 0($a0)\n"
"lwc2 $1, 4($a0)\n"
"lwc2 $2, 0($v1)\n"
"lwc2 $3, 4($v1)\n"
"lwc2 $4, 0($v0)\n"
"lwc2 $5, 4($v0)\n"
"nop\n"
"nop\n"
"rtpt\n"
"cfc2 $t4, $31\n"
"nop\n"
"sw $t4, 0($sp)\n"
"lw $v0, 0($sp)\n"
"addiu $v1, $zero, -0x1001\n"
"and $v0, $v0, $v1\n"
"bne $v0, $zero, 2f\n"
"nop\n"
"nop\n"
"nop\n"
"nclip\n"
"swc2 $24, 0($t7)\n"
"lw $v0, 4($sp)\n"
"nop\n"
"blez $v0, 2f\n"
"nop\n"
"swc2 $12, 8($a3)\n"
"swc2 $13, 12($a3)\n"
"swc2 $14, 16($a3)\n"
"nop\n"
"nop\n"
"avsz3\n"
"swc2 $7, 0($t7)\n"
"addiu $v0, $t6, 4\n"
"lwc2 $6, 0($v0)\n"
"lhu $v0, 0($t2)\n"
"nop\n"
"sll $v0, $v0, 3\n"
"addu $v0, $a2, $v0\n"
"lwc2 $0, 0($v0)\n"
"lwc2 $1, 4($v0)\n"
"nop\n"
"nop\n"
"nccs\n"
"swc2 $22, 0($t1)\n"
"lw $v0, 4($sp)\n"
"addiu $t1, $t1, 20\n"
"srav $v0, $v0, $t9\n"
"sll $v0, $v0, 2\n"
"addu $t0, $t8, $v0\n"
"lw $v1, 0($t0)\n"
"lui $v0, 0x400\n"
"and $v1, $v1, $t3\n"
"or $v1, $v1, $v0\n"
"and $v0, $a3, $t3\n"
"sw $v1, 0($a3)\n"
"sw $v0, 0($t0)\n"
"lui $v0, %hi(D_800A2B78)\n"
"lw $v0, %lo(D_800A2B78)($v0)\n"
"nop\n"
"beq $v0, $zero, 2f\n"
"addiu $a3, $a3, 20\n"
"lbu $v0, -17($t1)\n"
"nop\n"
"andi $v0, $v0, 0x2\n"
"beq $v0, $zero, 2f\n"
"lui $a0, 0xE100\n"
"ori $a0, $a0, 0xA\n"
"lw $v1, 4($sp)\n"
"addiu $v0, $zero, 1\n"
"sb $v0, -1($t1)\n"
"lui $v0, %hi(D_800A2B78)\n"
"lw $v0, %lo(D_800A2B78)($v0)\n"
"srav $v1, $v1, $t9\n"
"sll $v1, $v1, 2\n"
"addu $t0, $t8, $v1\n"
"andi $v0, $v0, 0x3\n"
"sll $v0, $v0, 5\n"
"or $v0, $v0, $a0\n"
"sw $v0, 0($t1)\n"
"addiu $t1, $t1, 8\n"
"lw $v1, 0($t0)\n"
"lui $v0, 0x100\n"
"and $v1, $v1, $t3\n"
"or $v1, $v1, $v0\n"
"and $v0, $a3, $t3\n"
"sw $v1, 0($a3)\n"
"addiu $a3, $a3, 8\n"
"sw $v0, 0($t0)\n"
"2:\n"
"addiu $t5, $t5, -1\n"
"addiu $t2, $t2, 16\n"
"bne $t5, $zero, 1b\n"
"addiu $t6, $t6, 16\n"
"3:\n"
"addu $v0, $a3, $zero\n"
"addiu $sp, $sp, 8\n"
".set\treorder\n"
);
}
/* ---- PsyQ GTE inline macros (the subset this routine uses) --------------- */
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_rtps() __asm__ volatile ("nop;nop;rtps")
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_avsz4() __asm__ volatile ("nop;nop;avsz4")
#define gte_nccs() __asm__ volatile ("nop;nop;nccs")
#define gte_stsxy3_f4(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 12( %0 );" \
"swc2 $14, 16( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy(r0) __asm__ volatile ( \
"swc2 $14, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb(r0) __asm__ volatile ( \
"swc2 $22, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
/* ---- types --------------------------------------------------------------- */
typedef struct {
s16 vx, vy, vz, pad;
} SVECTOR_80024BC0;
typedef struct {
u32 tag; /* 0x00 */
u8 r0, g0, b0, code; /* 0x04 */
s16 x0, y0; /* 0x08 */
s16 x1, y1; /* 0x0C */
s16 x2, y2; /* 0x10 */
s16 x3, y3; /* 0x14 */
} POLY_F4; /* 0x18 */
typedef struct {
u32 tag; /* 0x00 */
u32 code0; /* 0x04 */
} DR_MODE; /* 0x08 */
typedef struct {
s32 unk00; /* 0x00 */
u32 rgb; /* 0x04 */
u16 n0; /* 0x08 */
u16 v0; /* 0x0A */
u16 v1; /* 0x0C */
u16 v2; /* 0x0E */
u16 v3; /* 0x10 */
u16 pad; /* 0x12 */
} Face; /* 0x14 */
extern s32 D_800A2B78;
POLY_F4 *func_80024BC0(Face *f, SVECTOR_80024BC0 *sv, SVECTOR_80024BC0 *nv, POLY_F4 *poly0,
s32 n, s32 shift, u32 *ot)
{
POLY_F4 *poly = poly0;
s32 flag;
s32 otz;
u32 *p;
if (n != 0) {
do {
gte_ldv3(&sv[f->v0], &sv[f->v1], &sv[f->v2]);
gte_rtpt();
gte_stflg(&flag);
if ((flag & 0xFFFFEFFF) == 0) {
gte_nclip();
gte_stopz(&otz);
if (otz > 0) {
gte_stsxy3_f4(poly);
gte_ldv0(&sv[f->v3]);
gte_rtps();
gte_stflg(&flag);
if ((flag & 0xFFFFEFFF) == 0) {
gte_stsxy(&poly->x3);
gte_avsz4();
gte_stotz(&otz);
gte_ldrgb(&f->rgb);
gte_ldv0(&nv[f->n0]);
gte_nccs();
gte_strgb(&poly->r0);
p = &ot[otz >> shift];
poly->tag = (*p & 0x00FFFFFF) | 0x05000000;
*p = (u32)poly & 0x00FFFFFF;
poly++;
if (D_800A2B78 != 0 && (poly[-1].code & 2) != 0) {
s32 z = otz;
*((u8 *)poly + 3) = 1;
p = &ot[z >> shift];
*(u32 *)((u8 *)poly + 4) =
0xE100000A | ((D_800A2B78 & 3) << 5);
poly->tag = (*p & 0x00FFFFFF) | 0x01000000;
*p = (u32)poly & 0x00FFFFFF;
poly = (POLY_F4 *)((u8 *)poly + 8);
}
}
}
}
n--;
f++;
} while (n != 0);
}
return poly;
}
/* ---- PsyQ inline_c.h GTE macros ---- */
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_avsz3() __asm__ volatile ("nop;nop;avsz3")
#define gte_nccs() __asm__ volatile ("nop;nop;nccs")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb(r0) __asm__ volatile ( \
"swc2 $22, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy3_g3(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
extern s32 D_800A2B78;
u8 *func_80024DE8(TmdG3 *prim, u8 *vtx, u8 *nrm, u8 *pkt, s32 n, s32 shift, u32 *ot)
{
s32 flag;
s32 z;
u32 *otp;
if (n != 0) {
/* Identity no-op (emits nothing). It must sit in the loop PREHEADER (inside the
`if (n != 0)`), not before the guard branch.
Why: loop.c `record_initial`/`valid_initial_value_p` otherwise take the biv's
initial value to be the raw incoming hard reg $a3, so the `pkt + 4` giv is
emitted as `addiu giv,$a3,4`. That keeps $a3 live past the parameter copy, so
the pkt pseudo CONFLICTS with $a3 and can never live there (costing an extra
`move`). An asm_operands src makes valid_initial_value_p reject it, the giv is
computed from the pseudo, and pkt keeps $a3.
In the preheader it also stays clear of reorg's backward delay-slot scan, which
breaks on any asm and would otherwise lose `addu $t5,$a0,$zero` from the guard's
delay slot. */
__asm__("" : "=r"(pkt) : "0"(pkt));
do {
gte_ldv3(vtx + prim->v0 * 8, vtx + prim->v1 * 8, vtx + prim->v2 * 8);
gte_rtpt();
gte_stflg(&flag);
if ((flag & ~0x1000) == 0) {
gte_nclip();
gte_stopz(&z);
if (z > 0) {
gte_stsxy3_g3(pkt);
gte_avsz3();
gte_stotz(&z);
gte_ldv0(nrm + prim->n0 * 8);
gte_ldrgb(&prim->rgb0);
gte_nccs();
gte_strgb(pkt + 4);
gte_ldrgb(&prim->rgb1);
gte_nccs();
gte_strgb(pkt + 0xC);
gte_ldrgb(&prim->rgb2);
gte_nccs();
gte_strgb(pkt + 0x14);
pkt[7] = (pkt[7] & 2) | 0x30;
otp = ot + (z >> shift);
*(u32 *)pkt = (*otp & 0xFFFFFF) | 0x6000000;
*otp = (u32)pkt & 0xFFFFFF;
pkt += 0x1C;
if (D_800A2B78 != 0) {
if (pkt[7 - 0x1C] & 2) {
otp = ot + (z >> shift);
pkt[3] = 1;
*(u32 *)(pkt + 4) = ((D_800A2B78 & 3) << 5) | 0xE100000A;
*(u32 *)pkt = (*otp & 0xFFFFFF) | 0x1000000;
*otp = (u32)pkt & 0xFFFFFF;
pkt += 8;
}
}
}
}
n--;
prim++;
} while (n != 0);
}
return pkt;
}
/* ------------------------------------------------------------------ *
* func_80025000 — gouraud-quad (POLY_G4) transform + light + OT link.
* GTE inline-asm dialect copied from the proven ov_SC03_099 TUs.
* ------------------------------------------------------------------ */
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_rtps() __asm__ volatile ("nop;nop;rtps")
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_avsz4() __asm__ volatile ("nop;nop;avsz4")
#define gte_nccs() __asm__ volatile ("nop;nop;nccs")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy(r0) __asm__ volatile ( \
"swc2 $14, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy3_g4(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb(r0) __asm__ volatile ( \
"swc2 $22, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
typedef struct { s16 vx, vy, vz, pad; } SVEC_80025000; /* 0x08 */
typedef struct { u8 r, g, b, code; } RGBC; /* 0x04 */
typedef struct { /* 0x20 — source quad description */
u32 unk0;
RGBC c0;
RGBC c1;
RGBC c2;
RGBC c3;
u16 n;
u16 v0;
u16 v1;
u16 v2;
u16 v3;
u16 unk1E;
} SRCQ;
typedef struct { /* 0x24 — POLY_G4 */
u32 tag;
RGBC c0;
u32 xy0;
RGBC c1;
u32 xy1;
RGBC c2;
u32 xy2;
RGBC c3;
u32 xy3;
} PG4;
typedef struct { u32 tag; u32 code0; } DRM; /* 0x08 */
extern s32 D_800A2B78;
PG4 *func_80025000(SRCQ *p, SVEC_80025000 *verts, SVEC_80025000 *norms, PG4 *poly0, s32 n,
s32 shift, u32 *ot)
{
struct { s32 flag; s32 z; } g;
u32 *otp;
PG4 *prim;
PG4 *poly = poly0;
while (n != 0) {
gte_ldv3(&verts[p->v0], &verts[p->v1], &verts[p->v2]);
gte_rtpt();
gte_stflg(&g.flag);
if ((g.flag & 0xFFFFEFFF) == 0) {
gte_nclip();
gte_stopz(&g.z);
if (g.z > 0) {
gte_stsxy3_g4(poly);
gte_ldv0(&verts[p->v3]);
gte_rtps();
gte_stflg(&g.flag);
if ((g.flag & 0xFFFFEFFF) == 0) {
gte_stsxy(&poly->xy3);
gte_avsz4();
gte_stotz(&g.z);
gte_ldv0(&norms[p->n]);
gte_ldrgb(&p->c0);
gte_nccs();
gte_strgb(&poly->c0);
gte_ldrgb(&p->c1);
gte_nccs();
gte_strgb(&poly->c1);
gte_ldrgb(&p->c2);
gte_nccs();
gte_strgb(&poly->c2);
gte_ldrgb(&p->c3);
gte_nccs();
gte_strgb(&poly->c3);
poly->c0.code = (poly->c0.code & 2) | 0x38;
otp = &ot[g.z >> shift];
poly->tag = (*otp & 0xFFFFFF) | 0x08000000;
*otp = (u32)poly & 0xFFFFFF;
prim = poly;
poly = (PG4 *)((u8 *)poly + 0x24);
if (D_800A2B78 != 0) {
if ((prim->c0.code & 2) != 0) {
otp = &ot[g.z >> shift];
((u8 *)poly)[3] = 1;
((DRM *)poly)->code0 =
0xE100000A | ((D_800A2B78 & 3) << 5);
((DRM *)poly)->tag = (*otp & 0xFFFFFF) | 0x01000000;
*otp = (u32)poly & 0xFFFFFF;
poly = (PG4 *)((u8 *)poly + 8);
}
}
}
}
}
n--;
p++;
}
return poly;
}
/* --- PsyQ inline_c.h GTE macros (verbatim bodies, project spelling) --- */
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_avsz3() __asm__ volatile ("nop;nop;avsz3")
#define gte_ncct() __asm__ volatile ("nop;nop;ncct")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsz3(r0, r1, r2) __asm__ volatile ( \
"swc2 $17, 0( %0 );" \
"swc2 $18, 0( %1 );" \
"swc2 $19, 0( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) \
: "memory" )
#define gte_stsxy3_g3(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb3_g3(r0) __asm__ volatile ( \
"swc2 $20, 4( %0 );" \
"swc2 $21, 12( %0 );" \
"swc2 $22, 20( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
extern s32 D_80078D88[];
extern s32 D_800A2B78;
typedef struct { s16 vx, vy, vz, pad; } Vec8;
typedef struct {
u32 unk0;
u32 rgbc;
u16 n0, v0, n1, v1, n2, v2;
} Prim;
u8 *func_8002528C(Prim *pr, Vec8 *vtx, Vec8 *nrm, void *arg3, s32 n, s32 shift, u32 *ot)
{
struct { s32 flag, opz, sz1, sz2, sz3; } g;
u8 *pk = (u8 *)arg3;
u32 *otp;
s32 z;
if (n != 0) {
do {
gte_ldv3(&vtx[pr->v0], &vtx[pr->v1], &vtx[pr->v2]);
gte_rtpt();
gte_stflg(&g.flag);
if (!(g.flag & ~0x1000)) {
gte_nclip();
gte_stopz(&g.opz);
if (g.opz > 0) {
gte_stsxy3_g3(pk);
if (D_80078D88[0] & 0x8000) {
gte_stsz3(&g.sz1, &g.sz2, &g.sz3);
if (g.sz1 > g.sz2) {
z = g.sz1;
if (z < g.sz3) {
z = g.sz3;
}
} else {
z = g.sz2;
if (z < g.sz3) {
z = g.sz3;
}
}
g.opz = z >> 2;
} else {
gte_avsz3();
gte_stotz(&g.opz);
}
gte_ldrgb(&pr->rgbc);
gte_ldv3(&nrm[pr->n0], &nrm[pr->n1], &nrm[pr->n2]);
gte_ncct();
gte_strgb3_g3(pk);
otp = &ot[g.opz >> shift];
*(u32 *)pk = (*otp & 0xFFFFFF) | 0x6000000;
*otp = (u32)pk & 0xFFFFFF;
pk += 0x1C;
if (D_800A2B78 != 0 && (pk[-0x15] & 2)) {
otp = &ot[g.opz >> shift];
pk[3] = 1;
*(u32 *)(pk + 4) = 0xE100000A | ((D_800A2B78 & 3) << 5);
*(u32 *)pk = (*otp & 0xFFFFFF) | 0x1000000;
*otp = (u32)pk & 0xFFFFFF;
pk += 8;
}
}
}
n--;
pr++;
} while (n != 0);
}
return pk;
}
/* func_80025504 - POLY_G4 mesh transform + OT insert (GTE, PsyQ inline macros).
*
* Two non-obvious constructs are REQUIRED for the byte match (both emit ZERO
* instructions); do not "clean them up":
*
* 1) __asm__("" : "=r"(poly) : "0"(poly));
* loop.c:3509 valid_initial_value_p() accepts a HARD reg as a biv's initial
* value when no call intervenes, so gcc would emit the poly+4 giv init as
* `addiu giv,$a3,4` reading the INCOMING $a3. That keeps hard $a3 live past
* the param copy, so the poly pseudo CONFLICTS with $7 (see .greg
* "75 conflicts: ... 7"), loses the copy-preference, and gcc emits a spurious
* `move t1,$a3`. Re-tying poly through an empty asm makes the biv init_set
* src an ASM_OPERANDS -> valid_initial_value_p() fails -> the pseudo is used,
* $a3 dies at the param copy, poly gets $a3, the copy folds away.
*
* 2) register GFace *p0 __asm__("$4") = prim; + fp = p0;
* prim needs the OPPOSITE treatment: its giv init must read the hard $a0
* (`addiu $t1,$a0,0x14`), but its copy `addu $t6,$a0,$zero` must schedule
* AFTER the three stack-arg loads. Assigning through an $a0-pinned local
* gives the copy a late LUID while keeping (reg 4) as the biv's initial value.
*/
/* ---- PsyQ-style inline GTE macros (inline_c.h shapes) ---------------------- */
#define gte_ldv0(r0) __asm__ volatile("lwc2 $0, 0(%0);lwc2 $1, 4(%0)" : : "r"(r0))
#define gte_ldv3(r0, r1, r2) __asm__ volatile( \
"lwc2 $0, 0(%0);lwc2 $1, 4(%0);" \
"lwc2 $2, 0(%1);lwc2 $3, 4(%1);" \
"lwc2 $4, 0(%2);lwc2 $5, 4(%2)" : : "r"(r0), "r"(r1), "r"(r2))
#define gte_ldrgb(r0) __asm__ volatile("lwc2 $6, 0(%0)" : : "r"(r0))
#define gte_rtpt() __asm__ volatile("nop;nop;cop2 0x0280030")
#define gte_rtps() __asm__ volatile("nop;nop;cop2 0x0180001")
#define gte_nclip() __asm__ volatile("nop;nop;cop2 0x1400006")
#define gte_avsz4() __asm__ volatile("nop;nop;cop2 0x168002e")
#define gte_ncct() __asm__ volatile("nop;nop;cop2 0x118043f")
#define gte_nccs() __asm__ volatile("nop;nop;cop2 0x108041b")
#define gte_stflg(r0) __asm__ volatile("cfc2 $12, $31;nop;sw $12, 0(%0)" : : "r"(r0) : "$12", "memory")
#define gte_stopz(r0) __asm__ volatile("swc2 $24, 0(%0)" : : "r"(r0) : "memory")
#define gte_stotz(r0) __asm__ volatile("swc2 $7, 0(%0)" : : "r"(r0) : "memory")
#define gte_stsxy2(r0) __asm__ volatile("swc2 $14, 0(%0)" : : "r"(r0) : "memory")
#define gte_strgb2(r0) __asm__ volatile("swc2 $22, 0(%0)" : : "r"(r0) : "memory")
#define gte_stsxy3_g4(r0) __asm__ volatile( \
"swc2 $12, 8(%0);swc2 $13, 16(%0);swc2 $14, 24(%0)" : : "r"(r0) : "memory")
#define gte_strgb3_g4(r0) __asm__ volatile( \
"swc2 $20, 4(%0);swc2 $21, 12(%0);swc2 $22, 20(%0)" : : "r"(r0) : "memory")
#define gte_stsz4(r0, r1, r2, r3) __asm__ volatile( \
"swc2 $16, 0(%0);swc2 $17, 0(%1);swc2 $18, 0(%2);swc2 $19, 0(%3)" \
: : "r"(r0), "r"(r1), "r"(r2), "r"(r3) : "memory")
/* ---- local types ----------------------------------------------------------- */
typedef struct {
s16 vx, vy, vz, pad;
} GVec8; /* 0x08 */
typedef struct {
s32 unk0;
u32 rgb;
u16 n0, v0;
u16 n1, v1;
u16 n2, v2;
u16 n3, v3;
} GFace; /* 0x18 */
typedef struct {
u32 tag;
u8 r0, g0, b0, code;
u32 xy0;
u32 rgb1;
u32 xy1;
u32 rgb2;
u32 xy2;
u32 rgb3;
u32 xy3;
} GPolyG4; /* 0x24 */
typedef struct {
u8 addr0, addr1, addr2, len;
u32 code0;
} GDrMode; /* 0x08 */
extern s32 D_80078D88[];
extern s32 D_800A2B78;
void *func_80025504(GFace *prim, GVec8 *vtx, GVec8 *nrm, GPolyG4 *poly, s32 n, s32 shift,
u32 *ot)
{
s32 flag;
s32 p;
s32 sz0, sz1, sz2, sz3;
s32 zmax, ztmp;
u32 *op;
GDrMode *dm;
GFace *fp;
register GFace *p0 __asm__("$4") = prim;
__asm__("" : "=r"(poly) : "0"(poly));
fp = p0;
for (; n != 0; n--, fp++) {
gte_ldv3(&vtx[fp->v0], &vtx[fp->v1], &vtx[fp->v2]);
gte_rtpt();
gte_stflg(&flag);
if (flag & 0xffffefff) {
continue;
}
gte_nclip();
gte_stopz(&p);
if (p <= 0) {
continue;
}
gte_stsxy3_g4(poly);
gte_ldv0(&vtx[fp->v3]);
gte_rtps();
gte_stflg(&flag);
if (flag & 0xffffefff) {
continue;
}
gte_stsxy2(&poly->xy3);
if (D_80078D88[0] & 0x8000) {
gte_stsz4(&sz0, &sz1, &sz2, &sz3);
zmax = sz2;
if (zmax < sz3) {
zmax = sz3;
}
ztmp = sz0;
if (ztmp < sz1) {
ztmp = sz1;
}
if (ztmp < zmax) {
ztmp = zmax;
}
p = ztmp >> 2;
} else {
gte_avsz4();
gte_stotz(&p);
}
gte_ldrgb(&fp->rgb);
gte_ldv3(&nrm[fp->n0], &nrm[fp->n1], &nrm[fp->n2]);
gte_ncct();
gte_strgb3_g4(poly);
gte_ldv0(&nrm[fp->n3]);
gte_nccs();
gte_strgb2(&poly->rgb3);
op = &ot[p >> shift];
poly->tag = (*op & 0xffffff) | 0x08000000;
*op = (u32)poly & 0xffffff;
poly++;
if (D_800A2B78 != 0) {
if (poly[-1].code & 2) {
dm = (GDrMode *)poly;
op = &ot[p >> shift];
dm->len = 1;
dm->code0 = 0xe100000a | ((D_800A2B78 & 3) << 5);
*(u32 *)dm = (*op & 0xffffff) | 0x01000000;
*op = (u32)dm & 0xffffff;
poly = (GPolyG4 *)((u8 *)dm + 8);
}
}
}
return poly;
}
/* ---- PsyQ inline GTE macros ------------------------------------------------
* Raw `.word` forms: include/gte_macros.inc is not on the standalone match_one
* assembler path, so the cop2 opcodes are spelled as their encoded words, taken
* verbatim from the target .s:
* rtpt 0x4A280030 · nclip 0x4B400006 · avsz3 0x4B58002D · nccs 0x4B08041B
* Everything else is the stock PSY-Q 4.7 inline_c.h text (gte_stflg's $12 scratch
* is exactly the target's `cfc2 $t4,$31`).
* --------------------------------------------------------------------------- */
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_rtpt() __asm__ volatile ("nop;nop;.word 0x4A280030")
#define gte_nclip() __asm__ volatile ("nop;nop;.word 0x4B400006")
#define gte_avsz3() __asm__ volatile ("nop;nop;.word 0x4B58002D")
#define gte_nccs() __asm__ volatile ("nop;nop;.word 0x4B08041B")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb(r0) __asm__ volatile ( \
"swc2 $22, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy3_g3(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
/* 8-byte SVECTOR: vertex / normal table entry (index scaled by 8 => sll 3). */
typedef struct {
s16 vx, vy, vz, pad;
} SVEC8_80025818;
/* 0x1C POLY_G3 packet (tag + 6 words => tag length nibble 0x06). */
typedef struct {
u32 tag;
u8 r0, g0, b0, code;
s16 x0, y0;
u8 r1, g1, b1, pad1;
s16 x1, y1;
u8 r2, g2, b2, pad2;
s16 x2, y2;
} PG3;
/* 0x1C TMD gouraud-3 (3 colours, no texture) primitive record. */
typedef struct {
u32 hdr;
u32 rgb0;
u32 rgb1;
u32 rgb2;
u16 n0, v0;
u16 n1, v1;
u16 n2, v2;
} TPRIM_80025818;
extern s32 D_800A2B78;
PG3 *func_80025818(TPRIM_80025818 *prim, SVEC8_80025818 *vtx, SVEC8_80025818 *nrm, PG3 *poly,
s32 n, s32 shift, u32 *ot)
{
s32 otz;
s32 flag;
u32 *otp;
if (n != 0) {
/* Zero-instruction launder of the `poly` biv's initial value.
* Without it, loop.c's record_initial (loop.c:3454-3511) takes the biv's
* initial value straight from the parameter copy `poly = $a3`, so the GIV
* preheader init is emitted as `giv = (hard $a3) + 4`. That keeps hard
* $a3 live to the preheader, which makes the `poly` pseudo CONFLICT with
* $a3 (dump: `75 conflicts: ... 7`), so $a3 goes to the GIV and `poly`
* needs an extra `move`. An asm_operands SET_SRC fails
* valid_initial_value_p, so bl->initial_value stays the pseudo and $a3
* stays free for `poly` -- byte-exact, 135 -> 134 instructions.
* It MUST sit below the `n != 0` guard: above it the #APP/#NO_APP pair
* blocks the `prim` parameter copy from hopping into the beqz delay slot
* (cookbook RC-11). */
__asm__ ("" : "=r"(poly) : "0"(poly));
do {
gte_ldv3(&vtx[prim->v0], &vtx[prim->v1], &vtx[prim->v2]);
gte_rtpt();
gte_stflg(&flag);
if ((flag & ~0x1000) == 0) {
gte_nclip();
gte_stopz(&otz);
if (otz > 0) {
gte_stsxy3_g3(poly);
gte_avsz3();
gte_stotz(&otz);
gte_ldv0(&nrm[prim->n0]);
gte_ldrgb(&prim->rgb0);
gte_nccs();
gte_strgb(&poly->r0);
gte_ldrgb(&prim->rgb1);
gte_nccs();
gte_strgb(&poly->r1);
gte_ldrgb(&prim->rgb2);
gte_nccs();
gte_strgb(&poly->r2);
poly->code = (poly->code & 2) | 0x30;
otp = ot + (otz >> shift);
*(u32 *)poly = (*otp & 0xFFFFFF) | 0x06000000;
*otp = (u32)poly & 0xFFFFFF;
poly++;
if (D_800A2B78 != 0) {
if (poly[-1].code & 2) {
/* 2-word DR_MODE packet chained in front of the G3 */
otp = ot + (otz >> shift);
*((u8 *)poly + 3) = 1;
*(u32 *)((u8 *)poly + 4) =
0xE100000A | ((D_800A2B78 & 3) << 5);
*(u32 *)poly = (*otp & 0xFFFFFF) | 0x01000000;
*otp = (u32)poly & 0xFFFFFF;
poly = (PG3 *)((u8 *)poly + 8);
}
}
}
}
n--;
prim++;
} while (n != 0);
}
return poly;
}
/* func_80025A30 (main / src/800.c) -- TMD "quad, flat normal, gradation" emitter.
* Per prim (stride 0x24): RTPT 3 verts -> flag/nclip cull -> RTPS 4th vert -> AVSZ4 -> 4x NCCS
* (one shared normal, 4 base colours) -> POLY_G4 (code 0x38) -> OT insert (len 8).
* If D_800A2B78 != 0 and the poly kept its bit-1 flag, a second 2-word 0xE100000A draw-mode
* packet (len 1) is appended and linked into the same OT slot.
*
* MATCH 163/163. Two non-obvious levers (both were byte-decisive):
* 1. ONE `pkt` pointer, not pkt+q. loop.c strength-reduces it into biv $a3 + giv($a3+4)=$t1;
* that is where the -0x21 / -0x1D style offsets come from. Writing an explicit `q = pkt+4`
* variable instead makes gcc build a THIRD register (giv q+3) -> +4 insns. Same for `prim`:
* one pointer -> biv $t3 + giv($a0+0x10)=$t2. (cookbook loop.md L1)
* 2. The zero-byte `__asm__("" : "=r"(pkt) : "0"(pkt))` in the preheader. Without it loop.c's
* record_initial/valid_initial_value_p takes the biv's initial value from the HARD reg $a3
* (`addiu giv, a3, 4` reads hard a3 in the preheader), which keeps hard $a3 live past the
* param copy -> the pkt pseudo CONFLICTS with $a3 and can never be granted it: gcc then
* emits biv=$t1 / giv=$a3 plus an extra `move t1,a3` (164 ins, whole-loop register swap).
* A set whose SET_SRC is an asm_operands makes the initial value "complex" (loop.c:3509),
* so the giv init reads the PSEUDO, hard $a3 dies at the copy, and the biv wins $a3.
* It must sit INSIDE `if (n != 0)` so it lands in the preheader: an early `return` instead
* plants a CODE_LABEL that halts record_initial's backward scan for EVERY biv, which also
* robs `prim` of its hard-$a0 initial value (`addiu t2,t3,16` != `addiu t2,a0,0x10`).
* 3. `o = &ot[z >> shift];` must precede `pkt[3] = 1;` -- the scheduler cannot hoist the
* `lw z` above an aliasing `sb`, so source order decides those 4 instructions (§175 lever A).
*
* PsyQ inline_c.h GTE macro bodies (same spelling as the matched
* ov_SC01_000 renderer in src/ov_SC03_099/ov_SC03_099_jr_8017BEBC.c). */
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_rtps() __asm__ volatile ("nop;nop;rtps")
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_avsz4() __asm__ volatile ("nop;nop;avsz4")
#define gte_nccs() __asm__ volatile ("nop;nop;nccs")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy(r0) __asm__ volatile ( \
"swc2 $14, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb(r0) __asm__ volatile ( \
"swc2 $22, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy3_g4(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
extern s32 D_800A2B78;
u8 *func_80025A30(u8 *prim, u8 *vtx, u8 *nrm, u8 *pkt, s32 n, s32 shift, u32 *ot)
{
long flag;
long z;
u32 *o;
if (n != 0) {
__asm__ volatile ("" : "=r"(pkt) : "0"(pkt));
for (; n != 0; n--, prim += 0x24) {
gte_ldv3(vtx + (*(u16 *)(prim + 0x16) << 3),
vtx + (*(u16 *)(prim + 0x1A) << 3),
vtx + (*(u16 *)(prim + 0x1E) << 3));
gte_rtpt();
gte_stflg(&flag);
if (flag & 0xFFFFEFFF) {
continue;
}
gte_nclip();
gte_stopz(&z);
if (z <= 0) {
continue;
}
gte_stsxy3_g4(pkt);
gte_ldv0(vtx + (*(u16 *)(prim + 0x22) << 3));
gte_rtps();
gte_stflg(&flag);
if (flag & 0xFFFFEFFF) {
continue;
}
gte_stsxy(pkt + 0x20);
gte_avsz4();
gte_stotz(&z);
gte_ldv0(nrm + (*(u16 *)(prim + 0x14) << 3));
gte_ldrgb(prim + 0x4);
gte_nccs();
gte_strgb(pkt + 0x4);
gte_ldrgb(prim + 0x8);
gte_nccs();
gte_strgb(pkt + 0xC);
gte_ldrgb(prim + 0xC);
gte_nccs();
gte_strgb(pkt + 0x14);
gte_ldrgb(prim + 0x10);
gte_nccs();
gte_strgb(pkt + 0x1C);
pkt[7] = (pkt[7] & 2) | 0x38;
o = &ot[z >> shift];
*(u32 *)pkt = (*o & 0xFFFFFF) | 0x08000000;
*o = (u32)pkt & 0xFFFFFF;
pkt += 0x24;
if (D_800A2B78 == 0) {
continue;
}
if ((pkt[-0x1D] & 2) == 0) {
continue;
}
o = &ot[z >> shift];
pkt[3] = 1;
*(u32 *)(pkt + 4) = ((D_800A2B78 & 3) << 5) | 0xE100000A;
*(u32 *)pkt = (*o & 0xFFFFFF) | 0x01000000;
*o = (u32)pkt & 0xFFFFFF;
pkt += 8;
}
}
return pkt;
}
/* Handwritten GTE polygon-transform loop (cookbook: handwritten inline-asm wrapper form).
* The whole body is written in asm because the original is hand-written assembly: the
* loop-carried values live in $t1/$t2/$t3/$t5/$t6/$t7/$t8/$t9 (gcc-2.7.2 would never
* allocate caller-saved temporaries that way), and the two `lw 0x10($sp)` copies plus the
* duplicated `sra $v0,$v1,2` on both arms of the min() are hand-scheduled.
*
* maspsx notes: `.set noreorder` must be the FIRST line so maspsx stops auto-filling
* branch-delay slots / load-delay nops (we write every nop ourselves, exactly as in the
* target), and `.set reorder` must be the LAST so the compiler-emitted `j $31` still gets
* its delay-slot nop. All memory offsets are DECIMAL: maspsx int()s them.
*/
extern u32 D_8006387C;
extern s32 D_80078D88[];
void *func_80025CBC(void *prims, void *scr, void *cols, void *packets,
s32 count, s32 otshift, u32 *ot)
{
__asm__ __volatile__(
".set\tnoreorder\n"
"addiu $sp, $sp, -32\n"
"lw $11, 48($sp)\n"
"sw $17, 28($sp)\n"
"lui $17, %hi(D_8006387C)\n"
"addiu $17, $17, %lo(D_8006387C)\n"
"sw $16, 24($sp)\n"
"lw $16, 52($sp)\n"
"lw $25, 56($sp)\n"
"lwc2 $6, 0($17)\n"
"beq $11, $0, .LfnEnd\n"
"addu $2, $7, $0\n"
"addiu $14, $sp, 4\n"
"addiu $24, $sp, 8\n"
"addiu $15, $sp, 12\n"
"lui $13, 255\n"
"ori $13, $13, 65535\n"
"addiu $9, $4, 16\n"
"addiu $10, $7, 4\n"
".LfnLoop:\n"
"lhu $4, 2($9)\n"
"lhu $3, 4($9)\n"
"lhu $2, 6($9)\n"
"sll $4, $4, 3\n"
"addu $4, $5, $4\n"
"sll $3, $3, 3\n"
"addu $3, $5, $3\n"
"sll $2, $2, 3\n"
"addu $2, $5, $2\n"
"lwc2 $0, 0($4)\n"
"lwc2 $1, 4($4)\n"
"lwc2 $2, 0($3)\n"
"lwc2 $3, 4($3)\n"
"lwc2 $4, 0($2)\n"
"lwc2 $5, 4($2)\n"
"nop\n"
"nop\n"
"rtpt\n"
"lw $2, -12($9)\n"
"nop\n"
"sw $2, 8($10)\n"
"lw $2, -8($9)\n"
"nop\n"
"sw $2, 16($10)\n"
"lw $2, -4($9)\n"
"nop\n"
"sw $2, 24($10)\n"
"cfc2 $12, $31\n"
"nop\n"
"sw $12, 0($sp)\n"
"lw $2, 0($sp)\n"
"addiu $3, $0, -4097\n"
"and $2, $2, $3\n"
"bne $2, $0, .LfnNext\n"
"nop\n"
"nop\n"
"nop\n"
"nclip\n"
"swc2 $24, 0($14)\n"
"lw $2, 4($sp)\n"
"nop\n"
"blez $2, .LfnNext\n"
"nop\n"
"swc2 $12, 8($7)\n"
"swc2 $13, 16($7)\n"
"swc2 $14, 24($7)\n"
"lui $2, %hi(D_80078D88)\n"
"lw $2, %lo(D_80078D88)($2)\n"
"nop\n"
"andi $2, $2, 32768\n"
"beq $2, $0, .LfnAvsz\n"
"addiu $2, $sp, 16\n"
"swc2 $17, 0($24)\n"
"swc2 $18, 0($15)\n"
"swc2 $19, 0($2)\n"
"lw $8, 8($sp)\n"
"lw $3, 12($sp)\n"
"nop\n"
"slt $2, $3, $8\n"
"beq $2, $0, .LfnMinB\n"
"nop\n"
"lw $4, 16($sp)\n"
"j .LfnMinJ\n"
"addu $3, $8, $0\n"
".LfnMinB:\n"
"lw $4, 16($sp)\n"
".LfnMinJ:\n"
"nop\n"
"slt $2, $3, $4\n"
"beq $2, $0, .LfnMinC\n"
"sra $2, $3, 2\n"
"addu $3, $4, $0\n"
"sra $2, $3, 2\n"
".LfnMinC:\n"
"j .LfnJoin\n"
"sw $2, 4($sp)\n"
".LfnAvsz:\n"
"nop\n"
"nop\n"
"avsz3\n"
"swc2 $7, 0($14)\n"
".LfnJoin:\n"
"lhu $2, 0($9)\n"
"nop\n"
"sll $2, $2, 3\n"
"addu $2, $6, $2\n"
"lwc2 $0, 0($2)\n"
"lwc2 $1, 4($2)\n"
"nop\n"
"nop\n"
"nccs\n"
"swc2 $22, 0($10)\n"
"lw $4, 4($sp)\n"
"addiu $10, $10, 32\n"
"srav $4, $4, $16\n"
"sll $4, $4, 2\n"
"addu $4, $25, $4\n"
"lw $3, 0($4)\n"
"lui $2, 1792\n"
"and $3, $3, $13\n"
"or $3, $3, $2\n"
"and $2, $7, $13\n"
"sw $3, 0($7)\n"
"addiu $7, $7, 32\n"
"sw $2, 0($4)\n"
".LfnNext:\n"
"addiu $11, $11, -1\n"
"bne $11, $0, .LfnLoop\n"
"addiu $9, $9, 24\n"
"addu $2, $7, $0\n"
".LfnEnd:\n"
"lw $17, 28($sp)\n"
"lw $16, 24($sp)\n"
"addiu $sp, $sp, 32\n"
".set\treorder\n"
);
}
/* func_80025EB8 — POLY_FT4 (0x28) mesh emitter, main / src/800.c [MATCH 156/156]
*
* Per prim (0x20 bytes): RTPT the first 3 verts -> GTE flag cull -> NCLIP cull ->
* RTPS the 4th vert -> flag cull -> depth (max(sz0..sz3)>>2 when D_80078D88 & 0x8000,
* else AVSZ4) -> NCCS colour from the prim's normal -> OT insert (tag code 0x09).
* Returns the advanced packet pointer.
*
* GTE ops are verbatim PsyQ inline_c.h macro bodies, spelled with the project gas
* macros from include/gte_macros.inc (pulled in by common.h) — same idiom as the
* already-matched func_8017BEBC family in the overlays.
*
* TWO NON-OBVIOUS LEVERS (both cost zero bytes, both were the whole residual):
*
* 1. `D_80078D88` is declared as an ARRAY, not a scalar. gcc-2.7.2 alias.c refuses
* to reorder two memory refs only if they can conflict; its rule exempts a
* MEM_IN_STRUCT_P ref with a varying address from a NON-struct ref with a constant
* address. With `extern s32 D_80078D88;` the global load is a plain scalar at a
* symbol_ref, so sched1 hoisted `lui/lw D_80078D88` above the `pkt->uv3` store and
* swallowed both load-delay nops (-2 insns). An ARRAY_REF sets MEM_IN_STRUCT_P on
* the load, the exemption no longer applies, the pair is ordered, and the two nops
* come back exactly as in the target.
*
* 2. The packet cursor is a LOCAL (`pkt`) seeded from the parameter (`pkt0`), not the
* parameter itself. loop.c's record_initial() takes the biv's initial_value from
* its last pre-loop set: with the parameter used directly that set is
* `(set P (reg:SI 7 a3))`, so the +4 giv's preheader init is emitted against the
* HARD register — which keeps $a3 live into the preheader and makes it CONFLICT
* with P (`;; 75 conflicts: ... 7` in .greg). P then can never be granted $a3, so
* it took $t2, the giv took $a3, and the dead param copy `move t2,a3` survived
* (+1 insn, and every packet reference register-swapped). Seeding a local makes
* initial_value a pseudo, $a3 dies at the param copy, the conflict disappears and
* the copy preference puts the cursor back in $a3.
*/
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_rtps() __asm__ volatile ("nop;nop;rtps")
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_avsz4() __asm__ volatile ("nop;nop;avsz4")
#define gte_nccs() __asm__ volatile ("nop;nop;nccs")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy(r0) __asm__ volatile ( \
"swc2 $14, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy3_ft4(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsz4(r0, r1, r2, r3) __asm__ volatile ( \
"swc2 $16, 0( %0 );" \
"swc2 $17, 0( %1 );" \
"swc2 $18, 0( %2 );" \
"swc2 $19, 0( %3 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ), "r"( r3 ) )
#define gte_strgb2(r0) __asm__ volatile ( \
"swc2 $22, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
typedef struct { s16 vx, vy, vz, pad; } SVEC8_80025EB8;
typedef struct {
u32 pad0; /* 0x00 */
u32 uv0; /* 0x04 */
u32 uv1; /* 0x08 */
u32 uv2; /* 0x0C */
u32 uv3; /* 0x10 */
u16 n0; /* 0x14 */
u16 v0; /* 0x16 */
u16 v1; /* 0x18 */
u16 v2; /* 0x1A */
u16 v3; /* 0x1C */
u16 pad1; /* 0x1E */
} Prim20;
typedef struct { /* libgpu POLY_FT4, 0x28 bytes */
u32 tag; /* 0x00 */
u32 rgb; /* 0x04 */
u32 xy0; /* 0x08 */
u32 uv0; /* 0x0C */
u32 xy1; /* 0x10 */
u32 uv1; /* 0x14 */
u32 xy2; /* 0x18 */
u32 uv2; /* 0x1C */
u32 xy3; /* 0x20 */
u32 uv3; /* 0x24 */
} Ft4;
extern u32 D_80063880;
extern s32 D_80078D88[];
u32 *func_80025EB8(Prim20 *prim, SVEC8_80025EB8 *verts, SVEC8_80025EB8 *norms, Ft4 *pkt0,
s32 n, s32 shift, u32 *ot)
{
struct { long flag, otz, sz0, sz1, sz2, sz3; } g;
s32 a, b;
u32 *otp;
Ft4 *pkt;
pkt = pkt0;
gte_ldrgb(&D_80063880);
while (n != 0) {
gte_ldv3(&verts[prim->v0], &verts[prim->v1], &verts[prim->v2]);
gte_rtpt();
pkt->uv0 = prim->uv0;
pkt->uv1 = prim->uv1;
pkt->uv2 = prim->uv2;
gte_stflg(&g.flag);
if (!(g.flag & 0xFFFFEFFF)) {
gte_nclip();
gte_stopz(&g.otz);
if (g.otz > 0) {
gte_stsxy3_ft4(pkt);
gte_ldv0(&verts[prim->v3]);
gte_rtps();
gte_stflg(&g.flag);
if (!(g.flag & 0xFFFFEFFF)) {
gte_stsxy(&pkt->xy3);
pkt->uv3 = prim->uv3;
if (D_80078D88[0] & 0x8000) {
gte_stsz4(&g.sz0, &g.sz1, &g.sz2, &g.sz3);
a = g.sz2;
if (a < g.sz3) a = g.sz3;
b = g.sz0;
if (b < g.sz1) b = g.sz1;
if (b < a) b = a;
g.otz = b >> 2;
} else {
gte_avsz4();
gte_stotz(&g.otz);
}
gte_ldv0(&norms[prim->n0]);
gte_nccs();
gte_strgb2(&pkt->rgb);
otp = &ot[g.otz >> shift];
pkt->tag = (*otp & 0xFFFFFF) | 0x09000000;
*otp = (u32)pkt & 0xFFFFFF;
pkt++;
}
}
}
n--;
prim++;
}
return (u32 *)pkt;
}
typedef struct { s16 vx, vy, vz, pad; } SVEC8_80026128;
typedef struct { /* 0x1C */
u32 unk00;
u32 uv0;
u32 uv1;
u32 uv2;
u16 n0, v0;
u16 n1, v1;
u16 n2, v2;
} FaceGT3;
typedef struct { /* 0x28 */
u32 tag;
u32 rgb0, xy0, uv0;
u32 rgb1, xy1, uv1;
u32 rgb2, xy2, uv2;
} PktGT3;
extern u32 D_80063884;
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_avsz3() __asm__ volatile ("nop;nop;avsz3")
#define gte_ncct() __asm__ volatile ("nop;nop;ncct")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb3_gt3(r0, r1, r2) __asm__ volatile ( \
"swc2 $20, 0( %0 );" \
"swc2 $21, 0( %1 );" \
"swc2 $22, 0( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) \
: "memory" )
/* func_80026128 — main/800 — textured-GT3 (POLY_GT3) triangle emitter with per-vertex
* normal-colour lighting. Sibling of the matched func_800262D8 in this TU (same loop
* shape, same pkt->uvN = face->uvN copy); NOT a twin of the Gouraud-only func_800CBC2C.
* Vertex type carries the function suffix per TU convention (cf. SVEC8_800262D8) since
* gcc-2.7.2 rejects typedef redefinition and SVEC2 already exists at line 93. The SXY
* store trio is written inline rather than as gte_stsxy3_gt3 because the TU already
* binds that name to the 8/16/24 G3-shape macro further down (func_800277DC block);
* offsets here are the true GT3 slot xy words 8/20/32. Splice: replace INCLUDE_ASM at
* src/800.c:8983. Base macros above are byte-identical to the in-scope func_8002528C
* block (lines 8001-8063); drop this duplicate set when pasting into the TU.
*
* NOTE: the target .s carries splat's "/* Handwritten function * /" marker (and marks
* the bare `cfc2 $t4,$31` as a handwritten instruction). That label is a spimdisasm
* heuristic firing on the raw cop2 discipline — the pinned cc1 REACHES all 108 words
* from this C (oracle MATCH, repeatedly reproduced), unlike func_80027200 where the
* same marker was genuine. If the whole-binary gate still refuses this byte-perfect
* body, suspect the extract/prune layer special-casing Handwritten-marked .s files
* (duplicate-symbol link), not this function's codegen. */
PktGT3 *func_80026128(FaceGT3 *face, SVEC8_80026128 *vtx, SVEC8_80026128 *nrm, PktGT3 *arg3,
s32 count, s32 shift, u32 *ot)
{
long flag;
long otz;
u32 *otp;
PktGT3 *pkt = arg3;
gte_ldrgb(&D_80063884);
while (count != 0) {
gte_ldv3(&vtx[face->v0], &vtx[face->v1], &vtx[face->v2]);
gte_rtpt();
pkt->uv0 = face->uv0;
pkt->uv1 = face->uv1;
pkt->uv2 = face->uv2;
gte_stflg(&flag);
if (!(flag & ~0x1000)) {
gte_nclip();
gte_stopz(&otz);
if (otz > 0) {
__asm__ volatile (
"swc2 $12, 8( %0 );"
"swc2 $13, 20( %0 );"
"swc2 $14, 32( %0 )"
:
: "r"( pkt )
: "memory" );
gte_avsz3();
gte_stotz(&otz);
gte_ldv3(&nrm[face->n0], &nrm[face->n1], &nrm[face->n2]);
gte_ncct();
otp = &ot[otz >> shift];
pkt->tag = (*otp & 0x00FFFFFF) | 0x09000000;
gte_strgb3_gt3(&pkt->rgb0, &pkt->rgb1, &pkt->rgb2);
*otp = (u32)pkt & 0x00FFFFFF;
pkt++;
}
}
face++;
count--;
}
return pkt;
}
/* func_800262D8 — main/800 — GT4 quad emitter with per-vertex normal-colour lighting.
* GTE ops spelled as verbatim PsyQ inline_c.h macro bodies (project gas macros from
* include/gte_macros.inc, pulled in via common.h -> include_asm.h -> macro.inc). */
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_rtps() __asm__ volatile ("nop;nop;rtps")
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_avsz4() __asm__ volatile ("nop;nop;avsz4")
#define gte_ncct() __asm__ volatile ("nop;nop;ncct")
#define gte_nccs() __asm__ volatile ("nop;nop;nccs")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy(r0) __asm__ volatile ( \
"swc2 $14, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy3_gt4(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 20( %0 );" \
"swc2 $14, 32( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb(r0) __asm__ volatile ( \
"swc2 $22, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb3(r0, r1, r2) __asm__ volatile ( \
"swc2 $20, 0( %0 );" \
"swc2 $21, 0( %1 );" \
"swc2 $22, 0( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) \
: "memory" )
typedef struct { s16 vx, vy, vz, pad; } SVEC8_800262D8; /* 0x08 */
typedef struct { /* 0x24 */
u32 unk00;
u32 uv0;
u32 uv1;
u32 uv2;
u32 uv3;
u16 n0, v0;
u16 n1, v1;
u16 n2, v2;
u16 n3, v3;
} FaceGT4;
typedef struct { /* 0x34 */
u32 tag;
u32 rgb0, xy0, uv0;
u32 rgb1, xy1, uv1;
u32 rgb2, xy2, uv2;
u32 rgb3, xy3, uv3;
} PktGT4;
extern u32 D_80063888;
/* NOTE (§RC-10 preference cascade): `pkt` MUST be a body-local copy of the 4th
* parameter. If the loop's biv IS the parameter pseudo, loop.c's record_initial
* takes the biv's initial value straight from the incoming HARD reg, so the
* preheader giv is emitted as `(set giv (plus (reg $a3) 0x28))` — that keeps $a3
* live to the preheader (biv pseudo CONFLICTS with $7) and hands the giv the $7
* set_preference. Result: giv->$a3, pkt->$t1 + a spurious `move t1,a3` (144 ins).
* With the local copy the initial value is a PSEUDO: $a3 dies at the param copy,
* pkt takes $a3 by preference, the giv falls to $t1, and the move disappears. */
PktGT4 *func_800262D8(FaceGT4 *face, SVEC8_800262D8 *vtx, SVEC8_800262D8 *nrm, PktGT4 *arg3,
s32 count, s32 shift, u32 *ot)
{
long flag;
long otz;
u32 *otp;
PktGT4 *pkt = arg3;
gte_ldrgb(&D_80063888);
while (count != 0) {
gte_ldv3(&vtx[face->v0], &vtx[face->v1], &vtx[face->v2]);
gte_rtpt();
pkt->uv0 = face->uv0;
pkt->uv1 = face->uv1;
pkt->uv2 = face->uv2;
gte_stflg(&flag);
if (!(flag & ~0x1000)) {
gte_nclip();
gte_stopz(&otz);
if (otz > 0) {
gte_stsxy3_gt4(pkt);
gte_ldv0(&vtx[face->v3]);
gte_rtps();
pkt->uv3 = face->uv3;
gte_stflg(&flag);
if (!(flag & ~0x1000)) {
gte_stsxy(&pkt->xy3);
gte_avsz4();
gte_stotz(&otz);
gte_ldv3(&nrm[face->n0], &nrm[face->n1], &nrm[face->n2]);
gte_ncct();
otp = &ot[otz >> shift];
pkt->tag = (*otp & 0x00FFFFFF) | 0x0C000000;
gte_strgb3(&pkt->rgb0, &pkt->rgb1, &pkt->rgb2);
gte_ldv0(&nrm[face->n3]);
gte_nccs();
gte_strgb(&pkt->rgb3);
*otp = (u32)pkt & 0x00FFFFFF;
pkt++;
}
}
}
face++;
count--;
}
return pkt;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80026514);
INCLUDE_ASM("asm/nonmatchings/800", func_800268D0);
INCLUDE_ASM("asm/nonmatchings/800", func_80026D64);
extern s32 D_800A2B78;
void func_80027058()
{
__asm__ __volatile__(
".set\tnoreorder\n"
"addiu $29, $29, -8\n"
"lw $11, 24($29)\n"
"lw $15, 28($29)\n"
"lw $14, 32($29)\n"
"beqz $11, 100f\n"
"addu $2, $7, $0\n"
"addiu $13, $29, 4\n"
"lui $10, 0xFF\n"
"ori $10, $10, 0xFFFF\n"
"addiu $9, $4, 4\n"
"addiu $8, $7, 4\n"
"98:\n"
"lhu $4, 6($9)\n"
"lhu $3, 8($9)\n"
"lhu $2, 10($9)\n"
"sll $4, $4, 3\n"
"addu $4, $5, $4\n"
"sll $3, $3, 3\n"
"addu $3, $5, $3\n"
"sll $2, $2, 3\n"
"addu $2, $5, $2\n"
"lwc2 $0, 0($4)\n"
"lwc2 $1, 4($4)\n"
"lwc2 $2, 0($3)\n"
"lwc2 $3, 4($3)\n"
"lwc2 $4, 0($2)\n"
"lwc2 $5, 4($2)\n"
"nop\n"
"nop\n"
"rtpt\n"
"cfc2 $12, $31\n"
"nop\n"
"sw $12, 0($29)\n"
"lw $2, 0($29)\n"
"addiu $3, $0, -4097\n"
"and $2, $2, $3\n"
"bnez $2, 99f\n"
"nop\n"
"nop\n"
"nop\n"
"nclip\n"
"swc2 $24, 0($13)\n"
"lw $2, 4($29)\n"
"nop\n"
"blez $2, 99f\n"
"nop\n"
"swc2 $12, 8($7)\n"
"swc2 $13, 12($7)\n"
"swc2 $14, 16($7)\n"
"nop\n"
"nop\n"
"avsz3\n"
"swc2 $7, 0($13)\n"
"lw $2, 0($9)\n"
"nop\n"
"sw $2, 0($8)\n"
"lw $2, 4($29)\n"
"addiu $8, $8, 20\n"
"srav $2, $2, $15\n"
"sll $2, $2, 2\n"
"addu $6, $14, $2\n"
"lw $3, 0($6)\n"
"lui $2, 0x400\n"
"and $3, $3, $10\n"
"or $3, $3, $2\n"
"and $2, $7, $10\n"
"sw $3, 0($7)\n"
"sw $2, 0($6)\n"
"lui $2, %hi(D_800A2B78)\n"
"lw $2, %lo(D_800A2B78)($2)\n"
"nop\n"
"beqz $2, 99f\n"
"addiu $7, $7, 20\n"
"lbu $2, -17($8)\n"
"nop\n"
"andi $2, $2, 0x2\n"
"beqz $2, 99f\n"
"lui $4, 0xE100\n"
"ori $4, $4, 0xA\n"
"lw $3, 4($29)\n"
"addiu $2, $0, 1\n"
"sb $2, -1($8)\n"
"lui $2, %hi(D_800A2B78)\n"
"lw $2, %lo(D_800A2B78)($2)\n"
"srav $3, $3, $15\n"
"sll $3, $3, 2\n"
"addu $6, $14, $3\n"
"andi $2, $2, 0x3\n"
"sll $2, $2, 5\n"
"or $2, $2, $4\n"
"sw $2, 0($8)\n"
"addiu $8, $8, 8\n"
"lw $3, 0($6)\n"
"lui $2, 0x100\n"
"and $3, $3, $10\n"
"or $3, $3, $2\n"
"and $2, $7, $10\n"
"sw $3, 0($7)\n"
"addiu $7, $7, 8\n"
"sw $2, 0($6)\n"
"99:\n"
"addiu $11, $11, -1\n"
"bnez $11, 98b\n"
"addiu $9, $9, 16\n"
"addu $2, $7, $0\n"
"100:\n"
"addiu $29, $29, 8\n"
".set\treorder\n"
);
}
/* func_80027200 — HANDWRITTEN assembly (splat marks it "Handwritten function").
* The register discipline (loop counter in $t3, live args in $a0/$a1/$a3, no
* callee-saved registers at all, raw GTE cop2 ops with hand-placed latency nops)
* is not reachable from gcc-2.7.2 codegen, so the body is reproduced verbatim as
* a single .set noreorder asm block. gcc supplies only the `jr $ra` + delay nop.
*/
extern s32 D_800A2B78;
void func_80027200(void)
{
__asm__ __volatile__(
".set\tnoreorder\n"
"addiu $sp, $sp, -0x8\n"
"lw $t3, 24($sp)\n"
"lw $t8, 28($sp)\n"
"lw $t7, 32($sp)\n"
"beq $t3, $zero, 3f\n"
"addu $v0, $a3, $zero\n"
"addiu $t6, $zero, -0x1001\n"
"addiu $t5, $sp, 0x4\n"
"lui $t2, 0xFF\n"
"ori $t2, $t2, 0xFFFF\n"
"addiu $t1, $a0, 0x4\n"
"addiu $t0, $a3, 0x4\n"
"1:\n"
"lhu $a0, 6($t1)\n"
"lhu $v1, 8($t1)\n"
"lhu $v0, 10($t1)\n"
"sll $a0, $a0, 3\n"
"addu $a0, $a1, $a0\n"
"sll $v1, $v1, 3\n"
"addu $v1, $a1, $v1\n"
"sll $v0, $v0, 3\n"
"addu $v0, $a1, $v0\n"
"lwc2 $0, 0($a0)\n"
"lwc2 $1, 4($a0)\n"
"lwc2 $2, 0($v1)\n"
"lwc2 $3, 4($v1)\n"
"lwc2 $4, 0($v0)\n"
"lwc2 $5, 4($v0)\n"
"nop\n"
"nop\n"
"rtpt\n"
"cfc2 $t4, $31\n"
"nop\n"
"sw $t4, 0($sp)\n"
"lw $v0, 0($sp)\n"
"nop\n"
"and $v0, $v0, $t6\n"
"bne $v0, $zero, 2f\n"
"nop\n"
"nop\n"
"nop\n"
"nclip\n"
"swc2 $24, 0($t5)\n"
"lw $v0, 4($sp)\n"
"nop\n"
"blez $v0, 2f\n"
"nop\n"
"swc2 $12, 8($a3)\n"
"swc2 $13, 12($a3)\n"
"swc2 $14, 16($a3)\n"
"lhu $v0, 12($t1)\n"
"nop\n"
"sll $v0, $v0, 3\n"
"addu $v0, $a1, $v0\n"
"lwc2 $0, 0($v0)\n"
"lwc2 $1, 4($v0)\n"
"nop\n"
"nop\n"
"rtps\n"
"cfc2 $t4, $31\n"
"nop\n"
"sw $t4, 0($sp)\n"
"lw $v0, 0($sp)\n"
"nop\n"
"and $v0, $v0, $t6\n"
"bne $v0, $zero, 2f\n"
"addiu $v0, $a3, 0x14\n"
"swc2 $14, 0($v0)\n"
"nop\n"
"nop\n"
"avsz4\n"
"swc2 $7, 0($t5)\n"
"lw $v0, 0($t1)\n"
"nop\n"
"sw $v0, 0($t0)\n"
"lw $v0, 4($sp)\n"
"addiu $t0, $t0, 0x18\n"
"srav $v0, $v0, $t8\n"
"sll $v0, $v0, 2\n"
"addu $a2, $t7, $v0\n"
"lw $v1, 0($a2)\n"
"lui $v0, 0x500\n"
"and $v1, $v1, $t2\n"
"or $v1, $v1, $v0\n"
"and $v0, $a3, $t2\n"
"sw $v1, 0($a3)\n"
"sw $v0, 0($a2)\n"
"lui $v0, %hi(D_800A2B78)\n"
"lw $v0, %lo(D_800A2B78)($v0)\n"
"nop\n"
"beq $v0, $zero, 2f\n"
"addiu $a3, $a3, 0x18\n"
"lbu $v0, -21($t0)\n"
"nop\n"
"andi $v0, $v0, 0x2\n"
"beq $v0, $zero, 2f\n"
"lui $a0, 0xE100\n"
"ori $a0, $a0, 0xA\n"
"lw $v1, 4($sp)\n"
"addiu $v0, $zero, 0x1\n"
"sb $v0, -1($t0)\n"
"lui $v0, %hi(D_800A2B78)\n"
"lw $v0, %lo(D_800A2B78)($v0)\n"
"srav $v1, $v1, $t8\n"
"sll $v1, $v1, 2\n"
"addu $a2, $t7, $v1\n"
"andi $v0, $v0, 0x3\n"
"sll $v0, $v0, 5\n"
"or $v0, $v0, $a0\n"
"sw $v0, 0($t0)\n"
"addiu $t0, $t0, 0x8\n"
"lw $v1, 0($a2)\n"
"lui $v0, 0x100\n"
"and $v1, $v1, $t2\n"
"or $v1, $v1, $v0\n"
"and $v0, $a3, $t2\n"
"sw $v1, 0($a3)\n"
"addiu $a3, $a3, 0x8\n"
"sw $v0, 0($a2)\n"
"2:\n"
"addiu $t3, $t3, -0x1\n"
"bne $t3, $zero, 1b\n"
"addiu $t1, $t1, 0x14\n"
"addu $v0, $a3, $zero\n"
"3:\n"
"addiu $sp, $sp, 0x8\n"
".set\treorder\n"
);
}
/* ---- PsyQ inline_c.h GTE macros ---- */
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_avsz3() __asm__ volatile ("nop;nop;avsz3")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy3_g3(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
extern s32 D_800A2B78;
u8 *func_800273F4(TmdG3 *f, u8 *vtx, u8 *nrm, u8 *pkt, s32 n, s32 shift, u32 *ot)
{
s32 flag;
s32 z;
u32 *otp;
if (n != 0) {
__asm__("" : "=r"(pkt) : "0"(pkt));
do {
gte_ldv3(vtx + f->v0 * 8, vtx + f->v1 * 8, vtx + f->v2 * 8);
gte_rtpt();
gte_stflg(&flag);
if ((flag & ~0x1000) == 0) {
gte_nclip();
gte_stopz(&z);
if (z > 0) {
gte_stsxy3_g3(pkt);
gte_avsz3();
gte_stotz(&z);
*(u32 *)(pkt + 4) = f->rgb0;
*(u32 *)(pkt + 0xC) = f->rgb1;
*(u32 *)(pkt + 0x14) = f->rgb2;
pkt[7] = (pkt[7] & 2) | 0x30;
otp = ot + (z >> shift);
*(u32 *)pkt = (*otp & 0xFFFFFF) | 0x6000000;
*otp = (u32)pkt & 0xFFFFFF;
pkt += 0x1C;
if (D_800A2B78 != 0) {
if (pkt[7 - 0x1C] & 2) {
otp = ot + (z >> shift);
pkt[3] = 1;
*(u32 *)(pkt + 4) = ((D_800A2B78 & 3) << 5) | 0xE100000A;
*(u32 *)pkt = (*otp & 0xFFFFFF) | 0x1000000;
*otp = (u32)pkt & 0xFFFFFF;
pkt += 8;
}
}
}
}
n--;
f++;
} while (n != 0);
}
return pkt;
}
/* ---- PsyQ inline GTE macros (inline_c.h forms) ------------------------- */
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
:: "r"(r0))
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
:: "r"(r0), "r"(r1), "r"(r2))
#define gte_rtps() __asm__ volatile ("nop;nop;.word 0x4a180001")
#define gte_rtpt() __asm__ volatile ("nop;nop;.word 0x4a280030")
#define gte_nclip() __asm__ volatile ("nop;nop;.word 0x4b400006")
#define gte_avsz4() __asm__ volatile ("nop;nop;.word 0x4b68002e")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
:: "r"(r0) : "$12", "memory")
#define gte_stsxy2(r0) __asm__ volatile ( \
"swc2 $14, 0( %0 )" \
:: "r"(r0) : "memory")
#define gte_stsxy3_g4(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
:: "r"(r0) : "memory")
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
:: "r"(r0) : "memory")
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
:: "r"(r0) : "memory")
/* ---- data ------------------------------------------------------------- */
extern s32 D_800A2B78;
typedef struct {
s16 vx, vy, vz, pad;
} SVEC_800275BC; /* 8 bytes */
typedef struct { /* TMD G4 flat-normal primitive, 0x20 bytes */
u32 tag; /* 0x00 */
u32 c0; /* 0x04 */
u32 c1; /* 0x08 */
u32 c2; /* 0x0C */
u32 c3; /* 0x10 */
u16 n0; /* 0x14 */
u16 v0; /* 0x16 */
u16 v1; /* 0x18 */
u16 v2; /* 0x1A */
u16 v3; /* 0x1C */
u16 pad; /* 0x1E */
} TPRIM_800275BC;
void *func_800275BC(TPRIM_800275BC *prim, SVEC_800275BC *vp, void *nrm, u8 *pk, s32 n,
s32 shift, u32 *ot)
{
s32 flag;
s32 otz;
u32 *op;
if (n == 0) {
return pk;
}
do {
gte_ldv3(&vp[prim->v0], &vp[prim->v1], &vp[prim->v2]);
gte_rtpt();
gte_stflg(&flag);
if ((flag & 0xFFFFEFFF) == 0) {
gte_nclip();
gte_stopz(&otz);
if (otz > 0) {
gte_stsxy3_g4(pk);
gte_ldv0(&vp[prim->v3]);
gte_rtps();
gte_stflg(&flag);
if ((flag & 0xFFFFEFFF) == 0) {
gte_stsxy2(pk + 0x20);
gte_avsz4();
gte_stotz(&otz);
*(u32 *)(pk + 0x04) = prim->c0;
*(u32 *)(pk + 0x0C) = prim->c1;
*(u32 *)(pk + 0x14) = prim->c2;
*(u32 *)(pk + 0x1C) = prim->c3;
*(u8 *)(pk + 7) = (*(u8 *)(pk + 7) & 2) | 0x38;
op = &ot[otz >> shift];
*(u32 *)pk = (*op & 0xFFFFFF) | 0x08000000;
*op = (u32)pk & 0xFFFFFF;
pk += 0x24;
if (D_800A2B78 != 0) {
if (*(u8 *)(pk - 0x1D) & 2) {
op = &ot[otz >> shift];
*(u8 *)(pk + 3) = 1;
*(u32 *)(pk + 4) =
((D_800A2B78 & 3) << 5) | 0xE100000A;
*(u32 *)pk = (*op & 0xFFFFFF) | 0x01000000;
*op = (u32)pk & 0xFFFFFF;
pk += 8;
}
}
}
}
}
prim++;
} while (--n != 0);
return pk;
}
/* GTE inline-asm idioms, verbatim PsyQ inline_c.h macro bodies (see cookbook §-GTE and e.g.
* src/ov_SC01_000/ov_SC01_000_jr_8017BEBC.c for the established shape of this idiom family).
* NOTE gte_stsxy3_gt3: the target stores SXY0/1/2 at 8/16/24 off ONE base register ($a3, the
* POLY_GT3 being built), not off three separate pointers -- that is the PsyQ `_gt3` variant.
* Using the 3-pointer gte_stsxy3 costs three extra `addiu` and was the first agent's length drift. */
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy3_gt3(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsz3(r0, r1, r2) __asm__ volatile ( \
"swc2 $17, 0( %0 );" \
"swc2 $18, 0( %1 );" \
"swc2 $19, 0( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) \
: "memory" )
#define gte_avsz3() __asm__ volatile ("nop;nop;avsz3")
#define gte_stotz(r0) __asm__ volatile ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
extern s32 D_80078D88[];
typedef struct { s16 vx, vy, vz, pad; } SVECTOR800277DC;
void *func_800277DC(void *a0, SVECTOR800277DC *a1, void *a2, u8 *a3,
s32 count, s32 shift, s32 *ot)
{
/* The five GTE scratch slots MUST be ONE array, not five scalars. gcc-2.7.2 assigns a
* stack slot at the point each addressable local's address is first taken, NOT in
* declaration order; hoisting &otz/&sz0/&sz1 into pre-loop pointer temps (needed to put
* their three `addiu $sp` ahead of the mask/t0/t1 setup, see below) therefore stole slot 0
* from `flag` and shifted the whole frame. One array pins the layout:
* st[0]=flag @sp+0 st[1]=otz @sp+4 st[2]=sz0 @sp+8 st[3]=sz1 @sp+0xC st[4]=sz2 @sp+0x10
* &st[0] folds to plain $sp, which is why `flag` is touched as 0($sp) with no address reg. */
s32 st[5];
/* t0/t1 pins ARE load-bearing (unpinning them re-drifts to 124 ins): they reproduce the
* hand-budgeted src/dst induction-variable allocation so every field offset stays a direct
* displacement off $t0 / $t1. cnt/mask/shiftAmt/otp need no pin -- gcc lands them on
* $t2/$t3/$t9/$t8 on its own, and pinning `otp` to $24 actively BREAKS the match (below). */
register u8 *t0 __asm__("$8");
register u8 *t1 __asm__("$9");
s32 cnt;
s32 mask;
s32 shiftAmt;
s32 *otp;
s32 *potz, *psz0, *psz1;
s32 idx0, idx1, idx2;
s32 idx;
s32 m;
cnt = count;
shiftAmt = shift;
otp = ot;
if (cnt == 0) {
return a3;
}
/* Explicit pre-loop pointer temps, ordered ahead of mask/t0/t1: loop-invariant motion
* APPENDS hoisted insns after the preheader's own statements, so leaving these implicit
* emitted them last (`lui/ori, addiu t0, addiu t1, addiu sp+4/8/0xC`) -- the target is the
* reverse order. */
potz = &st[1];
psz0 = &st[2];
psz1 = &st[3];
mask = 0xFFFFFF;
t0 = (u8 *)a0 + 3;
t1 = a3 + 4;
do {
idx0 = *(u16 *)(t0 + 0x11);
idx1 = *(u16 *)(t0 + 0x13);
idx2 = *(u16 *)(t0 + 0x15);
gte_ldv3(&a1[idx0], &a1[idx1], &a1[idx2]);
gte_rtpt();
*(u32 *)(t1 + 8) = *(u32 *)(t0 + 1);
*(u32 *)(t1 + 0x10) = *(u32 *)(t0 + 5);
*(u32 *)(t1 + 0x18) = *(u32 *)(t0 + 9);
gte_stflg(&st[0]);
if (!(st[0] & ~0x1000)) {
gte_nclip();
gte_stopz(potz);
if (st[1] > 0) {
gte_stsxy3_gt3(a3);
if (D_80078D88[0] & 0x8000) {
gte_stsz3(psz0, psz1, &st[4]);
/* `m` must NOT be the address-taken otz slot: assigning otz in each arm
* makes gcc spill to sp+4 three times. The target keeps the running max
* in $v1 and stores ONCE, so the max needs a plain (non-addressable) temp.
* `st[2] > st[3]` (not `st[3] < st[2]`) is what loads sz0 first and emits
* `slt $v0, $v1, $a2`. */
if (st[2] > st[3]) {
m = st[2];
if (m < st[4]) m = st[4];
} else {
m = st[3];
if (m < st[4]) m = st[4];
}
st[1] = m >> 2;
} else {
gte_avsz3();
gte_stotz(potz);
}
*(u32 *)t1 = (*(u32 *)(t0 + 0xD) & mask) | ((u32)t0[0] << 24);
t1 += 0x20;
idx = st[1] >> shiftAmt;
{
u32 old = (u32)a3 & mask;
/* `s32 *p = otp + idx;` -- writing `otp[idx]` inline emits the address
* plus with the SCALED INDEX first (`addu $a0,$a0,$t8`); an explicit
* pointer temp emits it base-first (`addu $a0,$t8,$a0`) like the target.
* The second half of that fix is that `otp` must be an ordinary pseudo:
* with `register s32 *otp __asm__("$24")` local-alloc will not tie the
* dying index register to the address destination and the chain lands in
* $v0 instead of $a0. Base-first + unpinned base = the last instruction. */
s32 *p = otp + idx;
*(u32 *)a3 = (*p & mask) | 0x7000000;
a3 += 0x20;
*p = old;
}
}
}
t0 += 0x1C;
} while (--cnt);
return a3;
}
/* ---- PsyQ inline GTE macros (inline_c.h style) ---- */
#define gte_ldv3(r0, r1, r2) __asm__ __volatile__ ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_ldv0(r0) __asm__ __volatile__ ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_rtpt() __asm__ __volatile__ ("nop;nop;rtpt")
#define gte_rtps() __asm__ __volatile__ ("nop;nop;rtps")
#define gte_nclip() __asm__ __volatile__ ("nop;nop;nclip")
#define gte_avsz4() __asm__ __volatile__ ("nop;nop;avsz4")
#define gte_stflg(r0) __asm__ __volatile__ ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ __volatile__ ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stotz(r0) __asm__ __volatile__ ( \
"swc2 $7, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy(r0) __asm__ __volatile__ ( \
"swc2 $14, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy3_g4(r0) __asm__ __volatile__ ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsz4(r0, r1, r2, r3) __asm__ __volatile__ ( \
"swc2 $16, 0( %0 );" \
"swc2 $17, 0( %1 );" \
"swc2 $18, 0( %2 );" \
"swc2 $19, 0( %3 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ), "r"( r3 ) \
: "memory" )
typedef struct {
s16 vx, vy, vz, pad;
} Vtx8;
typedef struct {
u8 pad0;
u8 pad1;
u8 pad2;
u8 code; /* +0x03 */
u32 rgb1; /* +0x04 */
u32 rgb2; /* +0x08 */
u32 rgb3; /* +0x0C */
u32 term; /* +0x10 */
u32 rgb0; /* +0x14 */
u16 i0; /* +0x18 */
u16 i1; /* +0x1A */
u16 i2; /* +0x1C */
u16 i3; /* +0x1E */
} SrcQ;
typedef struct {
u32 tag; /* +0x00 */
u32 rgb0; /* +0x04 */
u32 xy0; /* +0x08 */
u32 rgb1; /* +0x0C */
u32 xy1; /* +0x10 */
u32 rgb2; /* +0x14 */
u32 xy2; /* +0x18 */
u32 rgb3; /* +0x1C */
u32 xy3; /* +0x20 */
u32 term; /* +0x24 */
} LineG4;
extern s32 D_80078D88[];
LineG4 *func_800279AC(SrcQ *src, Vtx8 *vb, s32 unused, LineG4 *prim, s32 n, s32 shift, u32 *ot)
{
s32 flag;
s32 otz;
/* cookbook §21 zero-byte re-tie: without it loop.c's record_initial takes the biv's
* initial value straight from the parameter COPY (set prim (reg $a3)), so the +4 giv is
* emitted as (plus (reg $a3) 4) -- $a3 then stays live past the copy, conflicts with the
* prim pseudo, and prim/giv land in $t1/$a3 (target: $a3/$t1). The re-tie makes the
* pre-loop set non-invariant so the giv is derived from the PSEUDO and prim coalesces
* into $a3. Emits nothing. */
__asm__ ("" : "=r"(prim) : "0"(prim));
for (; n != 0; n--, src++) {
gte_ldv3(&vb[src->i0], &vb[src->i1], &vb[src->i2]);
gte_rtpt();
prim->rgb1 = src->rgb1;
prim->rgb2 = src->rgb2;
prim->rgb3 = src->rgb3;
gte_stflg(&flag);
if (flag & 0xFFFFEFFF) {
continue;
}
gte_nclip();
gte_stopz(&otz);
if (otz <= 0) {
continue;
}
gte_stsxy3_g4(prim);
gte_ldv0(&vb[src->i3]);
gte_rtps();
gte_stflg(&flag);
if (flag & 0xFFFFEFFF) {
continue;
}
gte_stsxy(&prim->xy3);
prim->term = src->term;
/* §5a zero-byte barrier: else sched2 hoists the D_80078D88 load above this store and
* eats the two load-delay nops the target keeps (the -2 length drift). */
__asm__ __volatile__ ("" : : : "memory");
if (D_80078D88[0] & 0x8000) {
s32 sz[4];
s32 m, k;
gte_stsz4(&sz[0], &sz[1], &sz[2], &sz[3]);
m = sz[2];
if (m < sz[3]) {
m = sz[3];
}
k = sz[0];
if (k < sz[1]) {
k = sz[1];
}
if (k < m) {
k = m;
}
otz = k >> 2;
} else {
gte_avsz4();
gte_stotz(&otz);
}
prim->rgb0 = (src->rgb0 & 0xFFFFFF) | ((u32)src->code << 24);
/* §5a zero-byte barrier: keeps the rgb0 store ahead of the OT-link block instead of
* letting sched2 interleave the `otz` reload into the rgb0 chain. */
__asm__ __volatile__ ("" : : : "memory");
{
u32 *p = &ot[otz >> shift];
prim->tag = (*p & 0xFFFFFF) | 0x09000000;
*p = (u32)prim & 0xFFFFFF;
}
prim++;
}
return prim;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80027BF0);
extern G3P *func_80027D20(Face2 *f, SVEC2 *verts, SVEC2 *norms, G3P *prims,
s32 count, s32 shift, s32 ot);
extern G4P *func_80027F4C(Face3 *f, SVEC2 *verts, SVEC2 *norms, G4P *prims,
s32 count, s32 shift, s32 ot);
void func_80027C10(void *a0, void *a1, s32 a2)
{
void *geo;
SVEC2 *verts;
SVEC2 *norms;
Face2 *f;
G3P *p;
u32 w0;
s32 cnt;
u32 opc;
u32 masked;
geo = *(void **)((s32)a0 + 0x8);
p = *(G3P **)((s32)a0 + 0xC);
verts = *(SVEC2 **)((s32)geo + 0x0);
norms = *(SVEC2 **)((s32)geo + 0x8);
f = *(Face2 **)((s32)geo + 0x10);
do {
w0 = p->tag;
cnt = p->rgb0;
p = (G3P *)((s32)p + 8);
opc = (w0 >> 24) & 0xFC;
switch (opc) {
case 0x30:
func_80027D20(f, verts, norms, p, cnt, a2, *(s32 *)((s32)a1 + 4));
f = (Face2 *)((s32)f + cnt * 20);
break;
case 0x38:
func_80027F4C((Face3 *)f, verts, norms, (G4P *)p, cnt, a2, *(s32 *)((s32)a1 + 4));
f = (Face2 *)((s32)f + cnt * 24);
break;
}
masked = w0 & 0xFFFFFF;
p = (G3P *)(masked | 0x80000000);
} while (masked != 0);
}
/* ---- PsyQ inline GTE macros (same spellings as the matched ov_SC03_006 body) ---- */
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_ncct() __asm__ volatile ("nop;nop;ncct")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsz3(r0, r1, r2) __asm__ volatile ( \
"swc2 $17, 0( %0 );" \
"swc2 $18, 0( %1 );" \
"swc2 $19, 0( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) \
: "memory" )
#define gte_stsxy3_g3(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb3_g3(r0) __asm__ volatile ( \
"swc2 $20, 4( %0 );" \
"swc2 $21, 12( %0 );" \
"swc2 $22, 20( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
extern s16 D_800C7C74;
extern void func_80028200(s32 a0, s32 a1, s32 a2, s32 a3, s32 stack_arg);
G3P *func_80027D20(Face2 *f, SVEC2 *verts, SVEC2 *norms, G3P *prims,
s32 count, s32 shift, s32 ot)
{
struct { s32 flag, opz, sz0, sz1, sz2; } g;
G3P *prim;
s32 z;
s32 w;
s32 i;
prim = &prims[D_800C7C74];
for (i = count; i != 0; i--, f++, prim += 2) {
gte_ldv3(&verts[f->v0], &verts[f->v1], &verts[f->v2]);
gte_rtpt();
gte_stflg(&g.flag);
if (!(g.flag & ~0x1000)) {
gte_nclip();
gte_stopz(&g.opz);
if (g.opz > 0) {
gte_stsxy3_g3(prim);
gte_stsz3(&g.sz0, &g.sz1, &g.sz2);
if (g.sz0 < g.sz1) { w = g.sz2; z = g.sz0; } else { w = g.sz2; z = g.sz1; }
if (w < z) z = w;
g.opz = (z >> 2) - 1;
if (g.opz < 0) {
g.opz = 0;
}
gte_ldrgb(&f->rgb);
gte_ldv3(&norms[f->n0], &norms[f->n1], &norms[f->n2]);
gte_ncct();
gte_strgb3_g3(prim);
func_80028200(ot, g.opz, shift, (s32)prim, 0x06000000);
}
}
}
return prim;
}
/* ---- PsyQ inline GTE macros (same spellings as the matched func_80027D20 / func_800279AC) ---- */
#define gte_ldv0(r0) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 )" \
: \
: "r"( r0 ) )
#define gte_ldv3(r0, r1, r2) __asm__ volatile ( \
"lwc2 $0, 0( %0 );" \
"lwc2 $1, 4( %0 );" \
"lwc2 $2, 0( %1 );" \
"lwc2 $3, 4( %1 );" \
"lwc2 $4, 0( %2 );" \
"lwc2 $5, 4( %2 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ) )
#define gte_ldrgb(r0) __asm__ volatile ( \
"lwc2 $6, 0( %0 )" \
: \
: "r"( r0 ) )
#define gte_rtps() __asm__ volatile ("nop;nop;rtps")
#define gte_rtpt() __asm__ volatile ("nop;nop;rtpt")
#define gte_nclip() __asm__ volatile ("nop;nop;nclip")
#define gte_ncct() __asm__ volatile ("nop;nop;ncct")
#define gte_nccs() __asm__ volatile ("nop;nop;nccs")
#define gte_stflg(r0) __asm__ volatile ( \
"cfc2 $12, $31;" \
"nop;" \
"sw $12, 0( %0 )" \
: \
: "r"( r0 ) \
: "$12", "memory" )
#define gte_stopz(r0) __asm__ volatile ( \
"swc2 $24, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsxy(r0) __asm__ volatile ( \
"swc2 $14, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb(r0) __asm__ volatile ( \
"swc2 $22, 0( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_stsz4(r0, r1, r2, r3) __asm__ volatile ( \
"swc2 $16, 0( %0 );" \
"swc2 $17, 0( %1 );" \
"swc2 $18, 0( %2 );" \
"swc2 $19, 0( %3 )" \
: \
: "r"( r0 ), "r"( r1 ), "r"( r2 ), "r"( r3 ) \
: "memory" )
#define gte_stsxy3_g4(r0) __asm__ volatile ( \
"swc2 $12, 8( %0 );" \
"swc2 $13, 16( %0 );" \
"swc2 $14, 24( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
#define gte_strgb3_g4(r0) __asm__ volatile ( \
"swc2 $20, 4( %0 );" \
"swc2 $21, 12( %0 );" \
"swc2 $22, 20( %0 )" \
: \
: "r"( r0 ) \
: "memory" )
extern s16 D_800C7C74;
extern void func_80028200(s32 a0, s32 a1, s32 a2, s32 a3, s32 stack_arg);
G4P *func_80027F4C(Face3 *f, SVEC2 *verts, SVEC2 *norms, G4P *prims,
s32 count, s32 shift, s32 ot)
{
struct { s32 flag, opz, sz0, sz1, sz2, sz3; } g;
G4P *prim;
s32 z;
s32 w;
s32 i;
prim = &prims[D_800C7C74];
for (i = count; i != 0; i--, f++, prim += 2) {
gte_ldv3(&verts[f->v0], &verts[f->v1], &verts[f->v2]);
gte_rtpt();
gte_stflg(&g.flag);
if (!(g.flag & ~0x1000)) {
gte_nclip();
gte_stopz(&g.opz);
if (g.opz > 0) {
gte_stsxy3_g4(prim);
gte_ldv0(&verts[f->v3]);
gte_rtps();
gte_stflg(&g.flag);
if (!(g.flag & ~0x1000)) {
gte_stsxy(&prim->x3);
gte_stsz4(&g.sz0, &g.sz1, &g.sz2, &g.sz3);
w = g.sz2;
if (g.sz3 < w) { w = g.sz3; }
z = g.sz0;
if (g.sz1 < z) { z = g.sz1; }
if (w < z) { z = w; }
g.opz = (z >> 2) - 1;
if (g.opz < 0) {
g.opz = 0;
}
gte_ldrgb(&f->rgb);
gte_ldv3(&norms[f->n0], &norms[f->n1], &norms[f->n2]);
gte_ncct();
gte_strgb3_g4(prim);
gte_ldv0(&norms[f->n3]);
gte_nccs();
gte_strgb(&prim->rgb3);
func_80028200(ot, g.opz, shift, (s32)prim, 0x08000000);
}
}
}
}
return prim;
}
void func_80028200(s32 a0, s32 a1, s32 a2, s32 a3, s32 stack_arg) {
s32 mask;
s32 shifted_index;
s32 *array_ptr;
s32 loaded;
s32 masked_a3;
mask = 0xFFFFFF;
shifted_index = (a1 >> a2) << 2;
array_ptr = (s32 *)(a0 + shifted_index);
loaded = *array_ptr;
loaded = (loaded & mask) | stack_arg;
*(s32 *)a3 = loaded;
masked_a3 = (a3 & mask);
*array_ptr = masked_a3;
}
void func_80028234(void) {
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002823C);
void func_800282FC(void) {
}
extern u8 D_800A5E88;
extern s32 D_800A5E8C;
extern s32 D_800A5E90;
extern u8 D_800A5E94;
extern u8 D_800A5E95;
extern u8 D_800A5E96;
extern void func_80028620(s32 a0, void *a1);
void func_80028304(s32 a0, s32 a1, s32 a2, s32 a3, u8 a4, u8 a5, u8 a6) {
s32 offset;
a0 &= 0xFFFF;
if ((u16)a0 >= 3) {
return;
}
offset = a0 << 4;
*(s32 *)((s32)&D_800A5E88 + offset) = a1;
*(s32 *)((s32)&D_800A5E8C + offset) = a2;
*(s32 *)((s32)&D_800A5E90 + offset) = a3;
*(u8 *)((s32)&D_800A5E94 + offset) = a4;
*(u8 *)((s32)&D_800A5E95 + offset) = a5;
*(u8 *)((s32)&D_800A5E96 + offset) = a6;
func_80028620(a0, (void *)((s32)&D_800A5E88 + offset));
}
extern u8 D_800A5E88;
extern s32 D_800A5E8C;
extern s32 D_800A5E90;
extern void func_80028620(s32, void *);
void func_80028394(s32 a0, s32 a1, s32 a2, s32 a3) {
s32 offset;
a0 &= 0xFFFF;
if ((u16)a0 >= 3) {
return;
}
offset = a0 << 4;
*(s32 *)((s32)&D_800A5E88 + offset) += a1;
*(s32 *)((s32)&D_800A5E8C + offset) += a2;
*(s32 *)((s32)&D_800A5E90 + offset) += a3;
func_80028620(a0, (void *)((s32)&D_800A5E88 + offset));
}
extern void func_80028620(s32, void *);
extern u8 D_800A5E94;
extern u8 D_800A5E95;
extern u8 D_800A5E96;
extern u8 D_800A5E88;
void func_80028428(s32 a0, s32 a1, s32 a2, s32 a3) {
s32 offset;
a0 &= 0xFFFF;
if ((u16)a0 >= 3) {
return;
}
offset = a0 << 4;
*(u8 *)((s32)&D_800A5E94 + offset) = (u8)a1;
*(u8 *)((s32)&D_800A5E95 + offset) = (u8)a2;
*(u8 *)((s32)&D_800A5E96 + offset) = (u8)a3;
func_80028620(a0, (void *)((s32)&D_800A5E88 + offset));
}
extern u8 D_800A5E88;
extern s32 D_800A5E8C;
extern s32 D_800A5E90;
extern u8 D_800A5E94;
extern u8 D_800A5E95;
extern u8 D_800A5E96;
extern void func_80028620(s32 a0, void *a1);
void func_80028488(s32 a0) {
s32 offset;
a0 &= 0xFFFF;
if ((u16)a0 >= 3) {
return;
}
offset = a0 << 4;
*(s32 *)((s32)&D_800A5E90 + offset) = 100;
*(s32 *)((s32)&D_800A5E88 + offset) = 0;
*(s32 *)((s32)&D_800A5E8C + offset) = 0;
*(u8 *)((s32)&D_800A5E94 + offset) = 0;
*(u8 *)((s32)&D_800A5E95 + offset) = 0;
*(u8 *)((s32)&D_800A5E96 + offset) = 0;
func_80028620(a0, (void *)((s32)&D_800A5E88 + offset));
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002850C);
extern u8 D_800A5E94;
extern u8 D_800A5E95;
extern u8 D_800A5E96;
extern u8 D_800A5E88;
extern void func_80028620(s32, void *);
void func_80028558(s32 a0, s32 a1, s32 a2, s32 a3) {
s32 v0;
a0 &= 0xFFFF;
v0 = a0 << 4;
*(u8 *)((u32)&D_800A5E94 + v0) = a1;
*(u8 *)((u32)&D_800A5E95 + v0) = a2;
*(u8 *)((u32)&D_800A5E96 + v0) = a3;
func_80028620(a0, (u8 *)&D_800A5E88 + v0);
}
INCLUDE_ASM("asm/nonmatchings/800", SsUtReverbOff);
extern s16 D_800C6D18;
extern s32 D_800C6D1C;
extern s8 D_800C6D20;
extern s8 D_800C6D22;
extern void GsSetFogParam(s32 *param);
extern void func_800538EC(s32 param);
void func_800285CC(void) {
s32 *fog = (s32 *)&D_800C6D18;
*(s16 *)fog = -0x106;
D_800C6D1C = 0x1F40000;
D_800C6D20 = 0;
D_800C6D22 = 0;
GsSetFogParam(fog);
func_800538EC(1);
}
void func_80028620(s32 a0, void *a1) {
struct { u32 a, b, c, d; } buf, *src = (void *)a1;
buf = *src;
if ((buf.a | buf.b | buf.c) == 0) {
buf.a = 0x1000;
((u8 *)&buf)[14] = 0;
((u8 *)&buf)[13] = 0;
((u8 *)&buf)[12] = 0;
}
func_80053328(a0, &buf);
}
INCLUDE_ASM("asm/nonmatchings/800", func_80028694);
void func_80028A30(void) {
}
void func_80028A38(void) {
}
void func_80028A40(void) {
}
typedef void (*GsTMDfastFn)(void);
extern void GsTMDfastF3L(void);
extern void GsTMDfastF3NL(void);
extern void GsTMDfastNF3(void);
extern void GsTMDfastG3L(void);
extern void GsTMDfastG3NL(void);
extern void GsTMDfastNG3(void);
extern void GsTMDfastTF3L(void);
extern void GsTMDfastTF3NL(void);
extern void GsTMDfastTNF3(void);
extern void GsTMDfastTG3L(void);
extern void GsTMDfastTG3NL(void);
extern void GsTMDfastTNG3(void);
extern void GsTMDfastF4L(void);
extern void GsTMDfastF4NL(void);
extern void GsTMDfastNF4(void);
extern void GsTMDfastG4L(void);
extern void GsTMDfastG4NL(void);
extern void GsTMDfastNG4(void);
extern void GsTMDfastTF4L(void);
extern void GsTMDfastTF4NL(void);
extern void GsTMDfastTNF4(void);
extern void GsTMDfastTG4L(void);
extern void GsTMDfastTG4NL(void);
extern void GsTMDfastTNG4(void);
extern void GsTMDfastF3GL(void);
extern void GsTMDfastF3GNL(void);
extern void GsTMDfastG3GL(void);
extern void GsTMDfastG3GNL(void);
extern void GsTMDfastF4GL(void);
extern void GsTMDfastF4GNL(void);
extern void GsTMDfastG4GL(void);
extern void GsTMDfastG4GNL(void);
extern GsTMDfastFn D_800A2BC0;
extern GsTMDfastFn D_800A2BC8;
extern GsTMDfastFn D_800A2BD8;
extern GsTMDfastFn D_800A2BE0;
extern GsTMDfastFn D_800A2BE8;
extern GsTMDfastFn D_800A2BF8;
extern GsTMDfastFn D_800A2C00;
extern GsTMDfastFn D_800A2C08;
extern GsTMDfastFn D_800A2C18;
extern GsTMDfastFn D_800A2C20;
extern GsTMDfastFn D_800A2C28;
extern GsTMDfastFn D_800A2C38;
extern GsTMDfastFn D_800A2C40;
extern GsTMDfastFn D_800A2C48;
extern GsTMDfastFn D_800A2C58;
extern GsTMDfastFn D_800A2C60;
extern GsTMDfastFn D_800A2C68;
extern GsTMDfastFn D_800A2C78;
extern GsTMDfastFn D_800A2C80;
extern GsTMDfastFn D_800A2C88;
extern GsTMDfastFn D_800A2C98;
extern GsTMDfastFn D_800A2CA0;
extern GsTMDfastFn D_800A2CA8;
extern GsTMDfastFn D_800A2CB8;
extern GsTMDfastFn D_800A2CC0;
extern GsTMDfastFn D_800A2CC8;
extern GsTMDfastFn D_800A2CCC;
extern GsTMDfastFn D_800A2CD4;
extern GsTMDfastFn D_800A2CD8;
extern GsTMDfastFn D_800A2CE0;
extern GsTMDfastFn D_800A2CE4;
extern GsTMDfastFn D_800A2CEC;
void func_80028A48(void)
{
D_800A2BC0 = GsTMDfastF3L;
D_800A2BC8 = GsTMDfastF3NL;
D_800A2BD8 = GsTMDfastNF3;
D_800A2BE0 = GsTMDfastG3L;
D_800A2BE8 = GsTMDfastG3NL;
D_800A2BF8 = GsTMDfastNG3;
D_800A2C00 = GsTMDfastTF3L;
D_800A2C08 = GsTMDfastTF3NL;
D_800A2C18 = GsTMDfastTNF3;
D_800A2C20 = GsTMDfastTG3L;
D_800A2C28 = GsTMDfastTG3NL;
D_800A2C38 = GsTMDfastTNG3;
D_800A2C40 = GsTMDfastF4L;
D_800A2C48 = GsTMDfastF4NL;
D_800A2C58 = GsTMDfastNF4;
D_800A2C60 = GsTMDfastG4L;
D_800A2C68 = GsTMDfastG4NL;
D_800A2C78 = GsTMDfastNG4;
D_800A2C80 = GsTMDfastTF4L;
D_800A2C88 = GsTMDfastTF4NL;
D_800A2C98 = GsTMDfastTNF4;
D_800A2CA0 = GsTMDfastTG4L;
D_800A2CA8 = GsTMDfastTG4NL;
D_800A2CB8 = GsTMDfastTNG4;
D_800A2CC0 = GsTMDfastF3GL;
D_800A2CC8 = GsTMDfastF3GNL;
D_800A2CCC = GsTMDfastG3GL;
D_800A2CD4 = GsTMDfastG3GNL;
D_800A2CD8 = GsTMDfastF4GL;
D_800A2CE0 = GsTMDfastF4GNL;
D_800A2CE4 = GsTMDfastG4GL;
D_800A2CEC = GsTMDfastG4GNL;
}
extern void *GsPrstF3L();
extern void *GsPrstF3NL();
extern void *GsPrstG3L();
extern void *GsPrstG3NL();
extern void *GsPrstTF3L();
extern void *GsPrstTF3NL();
extern void *GsPrstTG3L();
extern void *GsPrstTG3NL();
extern void *GsPrstF4L();
extern void *GsPrstF4NL();
extern void *GsPrstG4L();
extern void *GsPrstG4NL();
extern void *GsPrstTF4L();
extern void *GsPrstTF4NL();
extern void *GsPrstTG4L();
extern void *GsPrstTG4NL();
extern void *D_800A2CF0;
extern void *D_800A2CF8;
extern void *D_800A2D10;
extern void *D_800A2D18;
extern void *D_800A2D30;
extern void *D_800A2D38;
extern void *D_800A2D50;
extern void *D_800A2D58;
extern void *D_800A2D70;
extern void *D_800A2D78;
extern void *D_800A2D90;
extern void *D_800A2D98;
extern void *D_800A2DB0;
extern void *D_800A2DB8;
extern void *D_800A2DD0;
extern void *D_800A2DD8;
void func_80028C50(void) {
D_800A2CF0 = GsPrstF3L;
D_800A2CF8 = GsPrstF3NL;
D_800A2D10 = GsPrstG3L;
D_800A2D18 = GsPrstG3NL;
D_800A2D30 = GsPrstTF3L;
D_800A2D38 = GsPrstTF3NL;
D_800A2D50 = GsPrstTG3L;
D_800A2D58 = GsPrstTG3NL;
D_800A2D70 = GsPrstF4L;
D_800A2D78 = GsPrstF4NL;
D_800A2D90 = GsPrstG4L;
D_800A2D98 = GsPrstG4NL;
D_800A2DB0 = GsPrstTF4L;
D_800A2DB8 = GsPrstTF4NL;
D_800A2DD0 = GsPrstTG4L;
D_800A2DD8 = GsPrstTG4NL;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80028D58);
INCLUDE_ASM("asm/nonmatchings/800", func_80028D78);
INCLUDE_ASM("asm/nonmatchings/800", func_80028D9C);
INCLUDE_ASM("asm/nonmatchings/800", func_80028DBC);
INCLUDE_ASM("asm/nonmatchings/800", func_80028DE0);
INCLUDE_ASM("asm/nonmatchings/800", func_80028E00);
INCLUDE_ASM("asm/nonmatchings/800", func_80028E24);
INCLUDE_ASM("asm/nonmatchings/800", func_80028E44);
INCLUDE_ASM("asm/nonmatchings/800", func_80028E68);
INCLUDE_ASM("asm/nonmatchings/800", func_80028E88);
INCLUDE_ASM("asm/nonmatchings/800", func_80028EAC);
INCLUDE_ASM("asm/nonmatchings/800", func_80028ECC);
INCLUDE_ASM("asm/nonmatchings/800", func_80028EF0);
INCLUDE_ASM("asm/nonmatchings/800", func_80028F10);
INCLUDE_ASM("asm/nonmatchings/800", func_80028F34);
INCLUDE_ASM("asm/nonmatchings/800", func_80028F54);
INCLUDE_ASM("asm/nonmatchings/800", func_80028F78);
INCLUDE_ASM("asm/nonmatchings/800", func_80028F98);
INCLUDE_ASM("asm/nonmatchings/800", func_80028FBC);
extern void func_800291A0(s32, s32);
void func_80028FDC(s32 a0) {
func_800291A0(0x2C, a0 & 0xFF);
}
INCLUDE_ASM("asm/nonmatchings/800", func_80029000);
extern void func_800291A0(s32, s32);
void func_80029020(s32 a0)
{
func_800291A0(0x2D, a0 & 0xFF);
}
extern u8 D_800AE648[];
void func_80029044(void) {
register s32 v1 __asm__("$3");
v1 = 0;
do {
D_800AE648[v1] = 0;
v1 += 1;
} while ((u32)v1 < 0x40);
}
extern u8 D_800BA1B8[];
void func_8002906C(void) {
register s32 v1 __asm__("$3");
v1 = 0;
do {
D_800BA1B8[v1] = 0;
v1 += 1;
} while ((u32)v1 < 0x100);
}
extern void func_80016714(void *a0, s32 a1);
extern u8 D_800BA2B8[];
void func_80029094(void) {
func_80016714(D_800BA2B8, 0x60);
}
extern void func_80029124(s32, s32);
void func_800290BC(void) {
func_80029124(0x7F, 1);
}
extern void func_80029124(s32, s32);
void func_800290E0(void) {
func_80029124(0x7F, 0);
}
INCLUDE_ASM("asm/nonmatchings/800", func_80029104);
extern u8 D_800AE648[];
void func_80029124(s32 arg0, s32 arg1) {
s32 idx = (u32)arg0 >> 3;
s32 mask = 1 << (arg0 & 7);
if ((arg1 & 0xFF) != 0)
D_800AE648[idx] |= mask;
else
D_800AE648[idx] &= ~mask;
}
extern u8 D_800AE648[];
s32 func_80029178(u32 arg0) {
u32 idx = arg0 >> 3;
u32 bit = arg0 & 7;
u32 m = 1 << bit;
return (D_800AE648[idx] & m) != 0;
}
extern u8 D_800BA1B8[];
void func_800291A0(s32 arg0, s32 arg1) {
D_800BA1B8[arg0] = arg1;
}
extern u8 D_800BA1B8[];
s32 func_800291B4(s32 arg0) {
return D_800BA1B8[arg0];
}
extern u8 D_800BA1B8[];
void func_800291C8(s32 arg0, s32 arg1) {
*(u16 *) &D_800BA1B8[arg0] = arg1;
}
extern u8 D_800BA1B8[];
s32 func_800291DC(s32 index) {
return *(s16 *)&D_800BA1B8[index];
}
extern u8 D_800BA1B8[];
void func_800291F0(s32 a0, s32 a1)
{
*(s32 *)&D_800BA1B8[a0] = a1;
}
extern u8 D_800BA1B8[];
u32 func_80029204(s32 arg0) {
return *(u32 *) &D_800BA1B8[arg0];
}
extern s32 D_800AE6A8;
extern void func_80016714(void *a0, s32 a1);
void func_80029218(void) {
func_80016714(&D_800AE6A8, 0x3C);
}
extern s32 D_80075838;
void func_80029240(void) {
D_80075838 = 1;
}
extern s32 D_80075838;
void func_80029254(void) {
D_80075838 = 0;
}
extern s32 D_80075838;
s32 func_80029264(void) {
return D_80075838;
}
typedef struct {
s32 words[38];
} Blk98_80029274;
extern Blk98_80029274 D_80072C84;
extern Blk98_80029274 D_80078E78;
void func_80029274(void) {
Blk98_80029274 buffer;
buffer = D_80072C84;
D_80078E78 = buffer;
}
extern void func_80029344(void);
extern s32 D_80078E90;
void func_8002931C(s32 a0) {
D_80078E90 = a0;
func_80029344();
}
INCLUDE_ASM("asm/nonmatchings/800", func_80029344);
extern void func_80016714(void *a0, s32 a1);
extern u16 D_800A6588[];
void func_8002941C(void) {
func_80016714(D_800A6588, 0x2);
}
INCLUDE_ASM("asm/nonmatchings/800", func_80029444);
extern s32 D_80078E80;
s32 func_80029504(void) {
return D_80078E80;
}
extern s32 D_80078E80;
void func_80029514(s32 arg0) {
D_80078E80 = arg0;
}
extern s32 D_80078E80;
s32 func_80029524(void) {
return (u32)(D_80078E80 - 200) < 400;
}
extern s32 D_80078E84;
s32 func_8002953C(void) {
return D_80078E84;
}
extern s32 D_80078E84;
void func_8002954C(s32 arg0) {
D_80078E84 = arg0;
}
extern s32 D_80078E84;
void func_8002955C(void) {
D_80078E84 += 1;
}
extern s32 D_80078E88;
s32 func_8002957C(void) {
return D_80078E88;
}
extern s32 D_80078E88;
void func_8002958C(s32 arg0) {
D_80078E88 = arg0;
}
extern void func_8002A544(s32);
extern s32 D_80078E88;
void func_8002959C(void) {
func_8002A544(0x32);
D_80078E88 = D_80078E88 + 1;
}
extern void func_80029124(s32, s32);
extern s16 D_80078EB4;
extern u16 D_80078EB2;
extern s16 D_80078EB8;
extern u16 D_80078EB6;
extern u8 D_80078EC0;
extern s32 D_80078E8C;
void func_800295D4(void) {
D_80078EB4 = 0xFA;
D_80078EB2 = 0xFA;
D_80078EB8 = 0xFA;
D_80078EB6 = 0xFA;
func_80029124(0x1E, 1);
D_80078EC0 = 1;
func_80029124(0x80, 1);
D_80078E8C = 0x64;
func_80029124(0x82, 1);
func_80029124(0x83, 1);
func_80029124(0x85, 1);
}
extern void func_80029344(void);
extern s32 D_80078E90;
void func_80029664(void) {
D_80078E90 = 0x528;
func_80029344();
}
INCLUDE_ASM("asm/nonmatchings/800", func_80029690);
extern void func_80029774(s32);
extern Blk36_800296F8 D_80079204;
extern s32 D_800A5E5C;
s32 func_800296F8(s32 arg0) {
func_80029774(1);
D_80079204 = *(Blk36_800296F8 *)arg0;
return D_800A5E5C = 1;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80029774);
extern Blk36_800296F8 D_80079204;
extern void func_8002992C(s32);
void func_800298BC(Blk36_800296F8 *arg0) {
func_8002992C(1);
*arg0 = D_80079204;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002992C);
extern u8 D_80078F28[];
void func_80029A58(s32 arg0) {
u32 *p = (u32 *)(D_80078F28 + arg0 * 0x2DC);
p[0xE] >>= 1;
}
extern s32 D_800A5E58[];
s32 func_80029A94(s32 arg0) {
return D_800A5E58[arg0];
}
s32 func_80029AAC(void) {
extern s32 func_8002A2B0(void);
s32 ret;
ret = func_8002A2B0();
return ret * 75 / 100;
}
extern s32 func_80029E30(void);
extern s32 func_80029CD4(s32);
s32 func_80029AF4(void) {
s32 s0;
s0 = func_80029E30();
s0 = s0 * (func_80029CD4(0x28) + 0xC8);
return s0 / 100;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80029B4C);
INCLUDE_ASM("asm/nonmatchings/800", func_80029BC8);
INCLUDE_ASM("asm/nonmatchings/800", func_80029C44);
extern s32 rand(void);
s32 func_80029CD4(s32 a0) {
if (a0 == 0)
return 0;
return rand() % a0;
}
/* func_80029D3C — banked candidate, rounds 1-9.
* Canonical s32(void) def per engine_core.h caller macros; incoming $a0
* bridged via register pins ($4 -> $16) because the prototype takes no
* named parameters. Clamp MUST stay a ternary: an if/else spelling moves
* ret into $a0 and breaks the early-exit delay-slot chain (verified R9).
* Divisor 4800 forced by choose_multiplier arithmetic on M=0x1B4E81B5,l=9.
*/
extern s32 func_8002A4FC(s32 a0);
s32 func_80029D3C(void) {
register s32 n __asm__("$4");
register s32 s0 __asm__("$16");
s32 p;
s32 q;
s32 ret;
__asm__("" : "=r"(n));
s0 = n;
if (s0 <= 0) {
ret = 0;
} else {
p = func_8002A4FC(s0) * 60;
q = s0 - s0 * p / 4800;
ret = q > 0 ? q : 1;
}
return ret;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80029DB4);
extern s32 func_8002A76C(void);
extern s32 func_8002A2B0(void);
s32 func_80029E30(void) {
register s32 v1 __asm__("$3");
s32 a, b, sum, v0, sign;
a = func_8002A76C();
b = func_8002A2B0();
// Load magic constant directly into v1
__asm__("lui %0, 0x51eb; ori %0, %0, 0x851f" : "=r"(v1));
sum = a + b;
// Compute sum * 175 via shifts
v0 = sum << 1; // sum * 2
v0 = v0 + sum; // sum * 3
v0 = v0 << 2; // sum * 12
v0 = v0 - sum; // sum * 11
v0 = v0 << 4; // sum * 176
v0 = v0 - sum; // sum * 175
// Multiply by magic constant
__asm__ __volatile__("mult %0, %1" : : "r"(v0), "r"(v1) : "hi", "lo");
// Sign of v0 for division correction (happens in parallel)
sign = v0 >> 31;
// Get high word of multiplication into a hard-pinned $a0, scoped
// narrowly so the pin doesn't bleed backward and swallow v1's
// (magic-constant) live range into the same physical register.
{
register s32 a0 __asm__("$4");
__asm__ __volatile__("mfhi %0" : "=r"(a0) : : "hi", "lo");
// Final result: (high >> 5) - sign
v1 = a0 >> 5;
}
return v1 - sign;
}
s32 func_80029E94(s32 arg0, s32 arg1) {
s32 result = 0;
s16 val;
val = *(s16 *)(*(s32 *)(arg0 + 0x78) + 0x30);
if (val != 0) {
result = (val * arg1) >> 12;
}
return result;
}
s32 func_80029EC0(s32 a0) {
return *(s16 *)(*(s32 *)(a0 + 0x78) + 0x2E);
}
extern s32 func_80029504(void);
extern s32 D_80078F04;
extern s32 D_80078F08;
extern s32 D_80078F0C;
extern void func_8002A2D4(s32);
void func_80029ED4(s32 arg0) {
s32 v0;
if (func_80029504() < 10) {
return;
}
D_80078F04 += arg0;
if ((u32)D_80078F04 < 0x66) {
return;
}
D_80078F04 = (u32)D_80078F04 % 102u;
D_80078F08 += 1;
if ((u32)D_80078F08 > 9999999u) {
D_80078F08 = 9999999;
}
v0 = D_80078F08 - D_80078F0C;
if (v0 < 10) {
return;
}
D_80078F0C = D_80078F08;
func_8002A2D4(v0 / 10);
}
extern s32 D_80078F08;
s32 func_80029FD4(void) {
return D_80078F08;
}
extern s32 func_8002A26C(void);
extern s32 func_8002A4B8(void);
extern s32 func_8002A728(void);
extern s32 func_8002A998(void);
s32 func_80029FE4(void) {
s32 a;
s32 b;
s32 c;
s32 d;
a = func_8002A26C();
b = func_8002A4B8();
c = func_8002A728();
d = func_8002A998();
return (a + b + c + d) / 4;
}
extern s32 func_8002A088(s32);
s32 func_8002A04C(s32 a0) {
s32 v0 = *(s32 *)(a0 + 0x78);
if (v0) {
return func_8002A088(*(s16 *)(v0 + 0x2E));
}
return 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002A088);
INCLUDE_ASM("asm/nonmatchings/800", func_8002A108);
extern s32 func_8002A26C(void);
extern s32 func_8002AA00(s32 a0);
extern s32 func_8002A27C(void);
extern s32 func_8002A28C(void);
s32 func_8002A1B4(void) {
s32 temp;
s32 check;
s32 val1;
s32 val2;
s32 s0_val;
temp = func_8002A26C();
check = func_8002AA00(temp + 1);
if (check == 0) {
return 0;
}
val1 = func_8002A27C();
val2 = func_8002A28C();
s0_val = val1 ^ val2;
if (s0_val == 0) {
return 1;
}
return 0;
}
extern s32 func_8002A28C(void);
extern s32 func_8002A27C(void);
s32 func_8002A200(void) {
s32 val_28C = func_8002A28C();
s32 val_27C = func_8002A27C();
return (val_27C >= val_28C) ? 1 : 0;
}
extern s32 D_80078EE4;
extern s32 D_80078EE8;
void func_8002A234(void) {
s32 v1 = D_80078EE4 + 1;
if (v1 >= 0x1F) {
v1 = 0x1E;
}
D_80078EE4 = v1;
D_80078EE8 = 0;
}
extern s32 D_80078EE4;
s32 func_8002A26C(void) {
return D_80078EE4;
}
extern s32 D_80078EE8;
s32 func_8002A27C(void) {
return D_80078EE8;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002A28C);
INCLUDE_ASM("asm/nonmatchings/800", func_8002A2B0);
INCLUDE_ASM("asm/nonmatchings/800", func_8002A2D4);
INCLUDE_ASM("asm/nonmatchings/800", func_8002A354);
extern s32 func_8002AA00(s32);
extern s32 func_8002A4D8(void);
s32 func_8002A400(void) {
s32 a, b;
a = func_8002A4B8();
b = func_8002AA00(a + 1);
if (!b) {
return 0;
}
a = func_8002A4C8();
a ^= func_8002A4D8();
if (a == 0) {
return 1;
}
return 0;
}
extern s32 func_8002A4D8(void);
extern s32 func_8002A4C8(void);
s32 func_8002A44C(void) {
s32 result1 = func_8002A4D8();
s32 result2 = func_8002A4C8();
return !(result2 < result1);
}
extern s32 D_80078EEC;
extern s32 D_80078EF0;
void func_8002A480(void) {
s32 v0 = D_80078EEC;
s32 v1 = v0 + 1;
if (v1 >= 0x1F) {
v1 = 0x1E;
}
D_80078EEC = v1;
D_80078EF0 = 0;
}
extern s32 D_80078EEC;
s32 func_8002A4B8(void) {
return D_80078EEC;
}
extern s32 D_80078EF0;
s32 func_8002A4C8(void) {
return D_80078EF0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002A4D8);
INCLUDE_ASM("asm/nonmatchings/800", func_8002A4FC);
extern void func_8002A544(s32);
void func_8002A520(s32 arg0) {
func_8002A544(*(u8 *) (arg0 + 200));
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002A544);
INCLUDE_ASM("asm/nonmatchings/800", func_8002A5C4);
extern s32 func_8002A728(void);
extern s32 func_8002A738(void);
extern s32 func_8002A748(void);
extern s32 func_8002AA00(s32 a0);
s32 func_8002A670(void) {
s32 s0;
if (func_8002AA00(func_8002A728() + 1) != 0) {
s0 = func_8002A738();
return s0 == func_8002A748();
} else {
return 0;
}
}
extern s32 func_8002A748(void);
s32 func_8002A6BC(void) {
s32 a = func_8002A748();
s32 b = func_8002A738();
return !(b < a);
}
extern s32 D_80078EFC;
extern s32 D_80078F00;
void func_8002A6F0(void) {
register s32 loaded asm("$2"); // $v0
register s32 result asm("$3"); // $v1
loaded = D_80078EFC;
result = loaded + 1;
if (result >= 0x1F) {
result = 0x1E;
}
D_80078EFC = result;
D_80078F00 = 0;
}
extern s32 D_80078EFC;
s32 func_8002A728(void) {
return D_80078EFC;
}
extern s32 D_80078F00;
s32 func_8002A738(void) {
return D_80078F00;
}
extern s32 D_80078EFC;
extern u16 D_80063900[][8];
s32 func_8002A748(void) {
return D_80063900[D_80078EFC][0];
}
extern s32 D_80078EFC;
extern u16 D_80063902[][8];
s32 func_8002A76C(void) {
return D_80063902[D_80078EFC][0];
}
extern void func_8002A7B4(s32);
void func_8002A790(u8 *a0)
{
func_8002A7B4(a0[0xC9]);
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002A7B4);
INCLUDE_ASM("asm/nonmatchings/800", func_8002A834);
extern s32 func_8002A998(void);
extern s32 func_8002A9A8(void);
extern s32 func_8002A9B8(void);
extern s32 func_8002AA00(s32);
s32 func_8002A8E0(void) {
s32 s0, v0;
v0 = func_8002AA00(func_8002A998() + 1);
if (!v0) {
return 0;
}
s0 = func_8002A9A8();
s0 = s0 ^ func_8002A9B8();
if (s0 == 0) {
return 1;
}
return 0;
}
extern s32 func_8002A9B8(void);
s32 func_8002A92C(void) {
s32 val1 = func_8002A9B8();
s32 val2 = func_8002A9A8();
s32 cmp = (val2 < val1) ? 1 : 0;
return cmp ^ 1;
}
extern s32 D_80078EF4;
extern s32 D_80078EF8;
void func_8002A960(void) {
s32 v1 = D_80078EF4 + 1;
if (v1 >= 0x1F) {
v1 = 0x1E;
}
D_80078EF4 = v1;
D_80078EF8 = 0;
}
extern s32 D_80078EF4;
s32 func_8002A998(void) {
return D_80078EF4;
}
extern s32 D_80078EF8;
s32 func_8002A9A8(void) {
return D_80078EF8;
}
extern s32 D_80078EF4;
extern u16 D_80063904[][8];
s32 func_8002A9B8(void) {
return D_80063904[D_80078EF4][0];
}
typedef struct {
u16 unk00;
u8 pad[14];
} T16; /* 0x10 */
extern T16 D_80063906[];
extern s32 D_80078EF4;
s32 func_8002A9DC(void) {
return D_80063906[D_80078EF4].unk00;
}
extern s32 func_8002AA3C(void);
s32 func_8002AA00(s32 a0) {
s32 ret;
ret = func_8002AA3C();
if (ret != 0) {
return !(a0 < ret);
}
return -1;
}
extern s32 func_80029504(void);
s32 func_8002AA3C(void) {
s32 v1 = func_80029504();
if (v1 >= 1200) {
return 99;
}
if (v1 >= 900) {
return 27;
}
if (v1 >= 600) {
return 22;
}
if (v1 >= 200) {
return 16;
}
if (v1 >= 10) {
return 8;
}
return 0;
}
void func_8002AAAC(void) {
}
extern s32 func_8002A26C(void);
extern s32 func_8002A4B8(void);
extern s32 func_8002A728(void);
extern s32 func_8002A998(void);
extern s32 D_800638A0[];
extern s32 D_800638EC;
s32 func_8002AAB4(void) {
register s32 s0 __asm__("$16");
register s32 s1 __asm__("$17");
register s32 s2 __asm__("$18");
register s32 v0 __asm__("$2");
register s32 *v1 __asm__("$3");
register s32 a0;
register s32 *a1;
// Get values from the four functions
s0 = func_8002A26C();
s2 = func_8002A4B8();
s1 = func_8002A728();
v0 = func_8002A998();
// Sum them: s0 = s0 + s2 + s1; v0 = s0 + v0
s0 = s0 + s2;
s0 = s0 + s1;
v0 = s0 + v0;
// Rounding: if v0 < 0, add 3 before dividing by 4
if (v0 < 0) {
v0 = v0 + 3;
}
// Divide by 4 using arithmetic right shift
s0 = v0 >> 2;
// Initialize pointer to table
v1 = D_800638A0;
a0 = v1[0];
// If the first threshold is 0, return the default
if (a0 == 0) {
return D_800638EC;
}
a1 = v1 + 1;
// Search through the table
while (1) {
if (s0 >= a0) {
return a1[0];
}
v1 = v1 + 2;
a0 = v1[0];
if (a0 == 0) {
return D_800638EC;
}
a1 = a1 + 2;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002AB64);
extern s32 func_800291B4(s32);
extern void func_800291A0(s32, s32);
extern u16 D_800A6588[];
extern u8 D_8010F46E[];
extern u8 D_8010F46C[];
void func_8002AC00(s32 a0)
{
register s32 s2 __asm__("$18"); /* $s2 */
register s32 s0 __asm__("$16"); /* $s0 */
register s32 s3 __asm__("$19"); /* $s3 */
register s32 v0 __asm__("$2");
register s32 v1 __asm__("$3");
register s32 zr __asm__("$0");
register s32 arg1 __asm__("$4"); /* $a0 */
s32 s1, tmp;
v0 = a0;
v1 = v0 + 0x62;
s2 = v1 & 0xFF;
__asm__("" : "=r"(s2) : "0"(s2));
arg1 = s2;
s0 = v0 + zr;
s3 = (s32)D_800A6588;
__asm__("" : "=r"(s3) : "0"(s3));
v0 = func_800291B4(arg1);
s0 = s0 & 0xFF;
if (v0 & 0x80) {
return;
}
s1 = s0 << 3;
tmp = D_8010F46E[s1];
tmp = tmp | 0x80;
func_800291A0(s2, tmp);
s0 = s0 << 1;
v0 = *(u16*)&D_8010F46C[s1];
s0 = s0 + s3;
*(u16*)(s0 - 2) = (u16)v0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002AC98);
INCLUDE_ASM("asm/nonmatchings/800", func_8002AE60);
extern s32 D_800760C8;
void func_8002AED0(void) {
D_800760C8 = 1;
}
extern s32 D_800760C8;
void func_8002AEE4(void) {
D_800760C8 = 2;
}
extern s32 D_800760C8;
void func_8002AEF8(void) {
D_800760C8 = 0;
}
s32 func_8002AF08(void) {
return D_800760C8;
}
extern s32 D_800760AC;
extern s32 D_8007609C;
extern s32 D_800760A0;
extern s32 D_800760A4;
extern s32 D_800760A8;
void func_8002AF18(void) {
D_800760AC = 0;
D_8007609C = 0;
D_800760A0 = 0;
D_800760A4 = 0;
D_800760A8 = 0;
}
extern u8 D_80075A50[];
u8 *func_8002AF48(s32 a0) {
return &D_80075A50[(a0 + 1) * 0x80];
}
extern s32 D_80075A40;
s32 func_8002AF60(void) {
return D_80075A40;
}
extern void func_80016714(void *a0, s32 a1);
extern Blk16 D_80075CC0[];
extern u32 D_80076040;
void func_8002AF70(void *a0, u32 a1) {
register Blk16 *src __asm__("$17") = (Blk16 *)a0;
register u32 val __asm__("$18") = a1;
register Blk16 *dest __asm__("$16");
Blk16 *end;
__asm__(
"lui %0, %%hi(D_80075CC0)\n\taddiu %0, %0, %%lo(D_80075CC0)"
: "=r"(dest)
: "r"(val)
);
func_80016714(dest, 0x300);
end = src + 0x2D0 / 0x10;
do {
*dest = *src;
src++;
dest++;
} while (src != end);
__asm__ volatile("" : "=r"(src) : "0"(src));
*(Blk12 *)dest = *(Blk12 *)src;
D_80076040 = val;
}
extern Blk16 D_80075CC0[];
void func_8002B00C(void *dest) {
Blk16 *d = (Blk16 *)dest;
Blk16 *s = D_80075CC0;
Blk16 *end = s + (0x2D0 / 0x10);
do {
*d = *s;
s++;
d++;
} while (s != end);
*(Blk12 *)d = *(Blk12 *)s;
}
u16 func_8002B064(u8 *a0) {
u32 sum = 0;
s32 a1 = (s32)a0 + 0x70;
do {
sum += *a0;
a0++;
} while ((s32)a0 < a1);
return sum & 0xFFFF;
}
u16 func_8002B08C(s32 a0) {
s32 v1 = 0;
s32 a1 = a0 + 0x300;
do {
v1 += *(u8 *)a0;
a0++;
} while (a0 < a1);
return v1 & 0xFFFF;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002B0B4);
/* DEFERRED: SaveLoadRoutine (0x8002B154) — Phase 7 (session G), per Drew, to Q#5.
* Original intent: the save / PS1 memory-card handler. Referenced by saveHeaderTemplate
* (0x80072DF0) via THREE entry-point pointers: 0x8002B154 / 0x8002B1AC / 0x8002BEA4.
* Dispatch branches on (selector & 7) (case 0 -> +1 counter; 1 -> 7; 2 -> 0x1E; 3 -> 0x23).
* Why deferred (NOT a clean state machine like the 3 CD loaders drafted this session):
* - splat emits ONE 1139-instruction stub spanning 0x8002B154-0x8002C31C with a SINGLE `jr $ra`
* => it is effectively one large MULTI-ENTRY function (the 3 saveHeaderTemplate entries share a
* return; the caller passes args in $s0/$s3) — awkward to express in C at all.
* - Ghidra mis-analyses it: get_code(0x8002B154) returns only a tiny fragment using unaff_s0/
* unaff_s3 (caller-set regs), so there is no faithful whole-function decompile to translate.
* - It is the save-data/memcard format, explicitly Phase-3 Q#5 "format still TBD" — a different
* subsystem from the file/overlay loader cluster (which IS drafted: CdReadStateMachine,
* CdReadSectorReadyCB, StreamLoadStateMachine here + the matched CdReadRequest/CdQueueBusy/…).
* - External helpers it calls (uncharacterised): func_800603BC (x20), func_80060614, func_8006023C,
* func_80060D9C, func_80060AE0, func_8005FFB4, func_8005FD58, func_80061114/524, func_80016714(bzero).
* Re-enable / revisit when Q#5 (save/memcard format) is studied: FIRST fix the Ghidra function
* boundary (make 0x8002B154 span the whole 1139 ins, or model the 3 entry points), re-decompile,
* characterise the func_80060xxx memcard helpers, THEN draft. A wrong faithful-looking draft here
* would be worse than this honest stub (P9/G3). The default build is byte-identical via this stub. */
INCLUDE_ASM("asm/nonmatchings/800", SaveLoadRoutine);
extern u8 D_80075AC0[];
u32 func_8002C320(void) {
register u32 result __asm__("$8") = 0;
int count = 0;
register u32 bit1 __asm__("$14") = 1;
register u32 bit2 __asm__("$13") = 2;
register u32 shift __asm__("$7") = 0;
u8 *base = D_80075AC0;
u8 *ptr_data = base + 0x10;
u8 *ptr_check = base + 0x2;
u8 *ptr_byte = base;
u32 sum;
u32 masked;
int j;
u16 val;
for (; count < 4; count++) {
if (*ptr_byte != 0) {
val = *(u16 *)ptr_check;
sum = 0;
for (j = 0; j < 0x70; j++) {
sum += ptr_data[j];
}
masked = sum & 0xFFFF;
if (val == masked) {
result |= bit1 << shift;
} else {
result |= bit2 << shift;
}
}
shift += 8;
ptr_data += 0x80;
ptr_check += 0x80;
ptr_byte += 0x80;
}
return result;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002C3B0);
INCLUDE_ASM("asm/nonmatchings/800", func_8002C410);
extern s16 D_800C5328[];
extern s16 D_800C532A[];
void func_8002C8BC(void) {
register s32 a0 __asm__("$4");
register s32 v1 __asm__("$3");
a0 = -1;
v1 = 0;
do {
*(s16 *)((u8 *)D_800C5328 + v1) = a0;
*(s16 *)((u8 *)D_800C532A + v1) = a0;
v1 += 4;
} while ((u32)v1 < 0x1E4);
}
/* ---- callees ---- */
extern void func_8003A424(void);
extern void func_8003D518(void);
extern void func_8003C598(s32 *);
extern void func_8003BE24(s32);
extern void func_8002D1F0(s32);
extern void func_8003B280(s32);
extern void func_80037D98(void);
extern void func_8002CC4C(void);
extern void func_8002FAE0(void);
extern void func_80037CC8(void);
extern void func_8003BE74(s32, s32);
extern void func_8003B1EC(s32 *);
extern void func_80034C24(void);
extern void func_80037004(void);
/* src/800.c (func_80032048) already declares `extern Owner4EE8 *D_800A4EE8;`
* where Owner4EE8 is `typedef struct Owner4EE8 {...} Owner4EE8;` defined later
* in the TU. Spell the extern EXACTLY like the TU (bare typedef name, no
* `struct` keyword) via a forward typedef so this compiles standalone too;
* the incomplete typedef is later completed by the TU's own full definition
* (identical redeclaration is legal). This is a pointer-only use here, so the
* type's spelling has no effect on codegen. */
extern Owner4EE8 *D_800A4EE8;
/* ---- data ---- */
extern s32 D_800A4EA4;
extern s16 D_800A4EA8;
extern s16 D_800A4EAA;
extern s16 D_800A4EAC;
extern s16 D_800A4EAE;
extern s16 D_800A4EB4;
extern s16 D_800A4EB6;
extern s32 D_800A4EB8;
extern s32 D_800A4EBC;
extern s32 D_800A4EC8;
extern s32 D_800A4E68;
extern s16 D_800A4E6C;
extern s16 D_800A4E6E;
extern u8 D_800A4E70;
extern u8 D_800A4F18;
extern u8 D_800A4F19;
extern s16 D_800A4EF6;
/* D_800A463C is reached as (&D_800A4638)[1]: src/800.c declares that symbol as
* `extern Ent24 D_800A463C[];` (anonymous typedef, defined further down the TU),
* so a scalar redeclaration here would conflict. Byte-identical relocation. */
extern s32 D_800A4638;
extern u8 D_800A4E7A;
extern u8 D_800A46E4;
extern s32 D_800A4654;
extern s32 D_800A466C;
extern s32 D_800A4684;
extern s32 D_800A469C;
extern s32 D_800A64B0;
extern u8 D_800A4650[];
extern s16 D_800A4644[];
extern s16 D_800A4642[];
extern u16 D_800A46E8[];
extern u8 D_800A4988[];
extern s32 D_800A4C68[];
extern u8 D_800A4C6C[];
extern u8 D_800A4C6D[];
extern s16 D_800A4EF8;
extern s16 D_800A4EFA;
extern u8 D_800A4F1B;
extern u8 D_800A46BA;
extern s32 D_800A2B98;
extern s32 D_800A2BA0;
extern s32 D_800C7D20;
extern s32 D_800C7D2C;
extern s8 D_800A4F17;
extern u16 D_800A4E8E;
extern u16 D_800A4EA2;
extern s16 D_800A4EF0;
extern s16 D_800A4EFC;
extern u16 D_800A4F20;
extern u16 D_800A4F22;
extern u8 D_800A4F1D;
extern s32 D_800A4EEC;
extern u8 D_800A4EE6;
extern u16 D_800A4EE0;
extern u16 D_800A4EE4;
extern void (*D_800A4F24)(void);
extern u8 D_800A4F16;
extern u8 D_800A4F1C;
extern u8 D_800A4F1E;
void func_8002C8F4(void)
{
s32 sp10[2];
s32 *p;
u8 *q;
s32 i;
s32 j;
s32 k;
s32 n;
s32 m;
func_8003A424();
func_8003D518();
p = &D_800A4EA4;
*p = 0x23CF;
D_800A4EA8 = 0x3FFF;
D_800A4EAA = 0x3FFF;
D_800A4EB4 = 0x3FFF;
D_800A4EB6 = 0x3FFF;
D_800A4EAC = 0;
D_800A4EAE = 0;
D_800A4EB8 = 0;
D_800A4EBC = 1;
D_800A4EC8 = 0;
func_8003C598(p);
func_8003BE24(1);
func_8002D1F0(4);
func_8003B280(1);
func_80037D98();
D_800A4E68 = 0x3C;
D_800A4E6C = 0x2F;
D_800A4E6E = 0x2F;
D_800A4E70 = 1;
D_800A4F18 = 1;
D_800A4F19 = 1;
D_800A4EF6 = 1;
(&D_800A4638)[1] = 0x1010;
D_800A4638 = 0;
D_800A4E7A = 0;
D_800A46E4 = 0;
D_800A4654 = 0x10000;
D_800A466C = 0x14000;
D_800A4684 = 0x18000;
D_800A469C = 0x39F00;
for (j = 0x54; j >= 0; j -= 0xC) {
*(s32 *)((u8 *)&D_800A64B0 + j) = 0;
}
for (i = 0; i < 5; i++) {
k = i * 0x18;
D_800A4650[k] = 1;
*(s16 *)((u8 *)D_800A4644 + k) = 0;
*(s16 *)((u8 *)D_800A4642 + k) = -1;
}
for (n = 0x24C; n >= 0; n -= 0x54) {
*(u16 *)((u8 *)D_800A46E8 + n) = 0;
}
m = 0x10;
for (i = 0, q = D_800A4988 + 0x4F; i < 8; i++, m++, q += 0x54) {
k = i * 0x48;
q[2] = i;
*(s16 *)(q - 0x45) = m;
q[-1] = 0;
*(s32 *)(q - 0x4B) = 0;
*(s32 *)(q - 0xF) = 0;
q[1] = 0;
*(s32 *)((u8 *)D_800A4C68 + k) = m;
D_800A4C6C[k] = 0;
D_800A4C6D[k] = 0;
}
func_8002CC4C();
D_800A4EFA = 0x7F;
D_800A4EF8 = 0x7F;
D_800A4F1B = 1;
D_800A46BA = 0;
D_800A2B98 = 0;
D_800C7D20 = 0;
D_800C7D2C = 0;
D_800A2BA0 = 0;
D_800A4F17 = 0;
D_800A4E8E = 0;
D_800A4EA2 = 0;
D_800A4EF0 = 0;
D_800A4EE8 = 0;
D_800A4EFC = 0;
D_800A4F20 = 0;
D_800A4F22 = 0;
D_800A4F1D = 0;
D_800A4EEC = 0;
D_800A4EE6 = 0;
D_800A4EE0 = 0x4000;
D_800A4EE4 = 0x4000;
D_800A4F24 = 0;
D_800A4F16 = 0;
func_8002FAE0();
func_80037CC8();
func_8003BE74(0, 0xFFFFFF);
sp10[0] = 1;
sp10[1] = 0;
func_8003B1EC(sp10);
D_800A4F1C = 0;
D_800A4F1E = 0;
func_80034C24();
func_80037004();
}
extern B12 *D_8006A970[];
extern s32 D_80065504[];
void func_8002CC4C(void) {
B12 **pp;
s32 *cnt;
s32 off;
register B12 *p __asm__("$3");
register s32 i __asm__("$4");
register s32 *cp __asm__("$5");
s32 pad;
(void)&pad;
pp = D_8006A970;
cnt = D_80065504;
for (off = 0; off < 0x10; off += 4) {
p = *pp;
i = 0;
if (*cnt > 0) {
cp = cnt;
do {
i++;
p->unk0A = 0;
p++;
} while (i < *cp);
}
cnt++;
pp++;
}
}
extern void func_8002D4C8(s32 a0, s32 a1);
void func_8002CCB4(void) {
func_8002D4C8(2, 0);
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002CCD8);
extern s32 D_800A4638;
extern u16 D_800A4F22;
extern s16 D_8006A990;
extern u8 D_800A4EE6;
extern u16 D_800A4EE0;
extern u16 D_800A4EE2;
extern u16 D_800A4EE4;
extern u8 D_800A4F16;
extern u8 D_800A4EFE[];
extern u16 D_800A4E8E;
extern u16 D_800A4E8A;
extern s16 D_800A4E86;
extern s8 D_800A4F17;
extern u8 D_800A4F18;
extern u8 D_8006AEF4;
extern void func_8002D904(s32);
extern s32 func_8003D25C(s32, s32, u8 *);
extern void func_80037FC4(void);
extern void func_8002EC10(void);
extern s32 func_8003836C(s32 a0);
extern void func_8002CFE4(void);
extern s32 func_8003C4F0(s32);
void func_8002CDD8(void)
{
s32 *ctr;
u16 tmp;
u16 cur;
u16 tgt;
u8 fl;
s16 t;
ctr = &D_800A4638;
tmp = D_800A4F22;
*ctr = *ctr + 1;
if (tmp != 0) {
D_8006A990 = tmp;
func_8002D904(tmp);
D_800A4F22 = 0;
}
fl = D_800A4EE6;
if (fl & 1) {
tgt = D_800A4EE4;
cur = D_800A4EE0;
D_800A4F16 = 1;
if (tgt < cur) {
D_800A4EE0 = cur - D_800A4EE2;
if (tgt >= D_800A4EE0) {
D_800A4EE0 = tgt;
D_800A4EE6 = fl & 0xFE;
}
} else {
D_800A4EE0 = cur + D_800A4EE2;
if (D_800A4EE0 >= tgt) {
D_800A4EE0 = tgt;
D_800A4EE6 = fl & 0xFE;
}
}
}
func_8003D25C(0, 0x17, D_800A4EFE);
if (D_800A4E8E & 8) {
func_80037FC4();
t = *(s16 *)&D_800A4E8A;
if (t != 0) {
t--;
D_800A4E8A = t;
if (t == 0) {
func_8002EC10();
}
}
if ((s16)func_8003836C(D_800A4E86) == 0) {
D_800A4E8E &= 0xFFF7;
}
}
if (*(u8 *)&D_800A4F17 == 0) {
D_800A4F18 = 0;
func_8002CFE4();
} else {
D_800A4F18 = 1;
}
if ((D_8006AEF4 & 1) && !(D_8006AEF4 & 2)) {
if (func_8003C4F0(0) != 0) {
D_8006AEF4 &= 0xFE;
}
}
}
extern void func_80030F80(void);
extern void func_8002D320(void);
extern void func_80031BE0(void);
extern s16 D_800A4EFC;
void func_8002CFE4(void) {
s16 *ptr = &D_800A4EFC;
if (*ptr != 0) {
*ptr = *ptr - 1;
}
func_80030F80();
func_8002D320();
func_80031BE0();
}
extern u8 D_800A46BA;
extern void func_8002D29C(void);
extern s32 D_800A64B0;
extern u8 D_8006A980;
extern void func_8002DF80(void);
extern void (*D_800A4F24)(void);
extern u8 D_800A4E70;
extern s32 D_800A4E68;
extern s16 D_800A4E6C;
extern void func_8002D240(s32 a0);
extern u8 D_800A4E7A;
extern s16 D_800A4E76;
extern u16 D_800A4E74;
extern s16 D_800A4E78;
void func_8002D034(void) {
s32 *ptr;
s32 i;
if (D_800A46BA) {
func_8002D29C();
}
ptr = &D_800A64B0;
for (i = 0; i < 8; i++, ptr = (s32 *)((u8 *)ptr + 0xC)) {
if (ptr[0] != 0 && --ptr[0] == 0) {
void (*func)(void *) = (void (*)(void *))ptr[2];
func(ptr);
}
}
if ((D_8006A980 & 0xEF) != 0) {
func_8002DF80();
}
if (D_800A4F24 != NULL) {
D_800A4F24();
}
if (D_800A4E70 != 0) {
if (--D_800A4E68 == 0) {
s32 a0 = D_800A4E6C;
D_800A4E70 = 0;
func_8002D240(a0);
}
}
{
register u8 *flagPtr __asm__("$8");
flagPtr = &D_800A4E7A;
if (*flagPtr != 0) {
if (D_800A4E76 > (s16)D_800A4E74) {
s16 delta = D_800A4E78;
if ((s16)D_800A4E74 < D_800A4E76 - delta) {
D_800A4E74 = (s16)D_800A4E74 + delta;
} else {
D_800A4E74 = D_800A4E76;
*flagPtr = 0;
}
} else {
s16 delta = D_800A4E78;
if (D_800A4E76 + delta < (s16)D_800A4E74) {
D_800A4E74 = (s16)D_800A4E74 - delta;
} else {
D_800A4E74 = D_800A4E76;
*flagPtr = 0;
}
}
func_8002D240((s16)D_800A4E74);
}
}
}
extern void func_8003B45C(s32 *);
extern s32 D_800A4ECC;
extern s32 D_800A4ED0;
extern u16 D_800A4ED4;
extern u16 D_800A4ED6;
void func_8002D1F0(s32 arg0) {
s32 *v1 = &D_800A4ECC;
*v1 = 1;
D_800A4ED0 = (s16)arg0;
D_800A4ED4 = 0;
D_800A4ED6 = 0;
func_8003B45C(v1);
}
extern s32 D_800A4ECC;
extern u16 D_8006ADD8[];
extern u16 D_800A4E74;
extern u16 D_800A4ED4;
extern u16 D_800A4ED6;
extern void func_8003B45C(s32 *a0);
void func_8002D240(s32 a0) {
s32 index = (a0 << 16) >> 15;
s32 *p = &D_800A4ECC;
u16 value = *(u16 *)((u8 *)D_8006ADD8 + index);
*p = 0x6;
D_800A4E74 = (u16)a0;
D_800A4ED4 = value;
D_800A4ED6 = value;
func_8003B45C(p);
}
extern s32 D_800A46B4;
extern u16 D_800A46B8;
extern u16 D_800A4EF4;
extern u8 D_800A46BA;
extern int func_8003EDE8(int a0, int a1, int a2);
extern void func_8002EE90(void);
void func_8002D29C(void) {
s32 *s1;
s32 s0;
s16 v0;
s16 v1;
s1 = &D_800A46B4;
s0 = *s1;
v0 = D_800A4EF4;
func_8003EDE8(0, (s0 * v0) >> 16, (s0 * v0) >> 16);
v1 = D_800A46B8;
s0 -= v1;
if (s0 <= 0) {
D_800A46BA = 0;
func_8002EE90();
s0 = 0;
}
*s1 = s0;
}
extern u8 D_800A4C6D[];
extern s32 D_800A2B98;
extern s32 D_800A2BA0;
extern s32 D_800C7D20;
extern s32 D_800C7D2C;
void func_8002D320(void)
{
/* TU-absent names, block scope */
extern Slot D_800A4C28[];
extern void func_8003D3B4(s32, s32);
extern void func_8003C23C(s32, s32);
extern void func_8003BE74(s32, s32);
extern void func_8003B250(s32, void *);
register u8 *p __asm__("$16");
register u32 mask __asm__("$17");
register s32 i __asm__("$18");
i = 0;
mask = 0x60000;
p = D_800A4C6D;
do {
if (*p != 0) {
if (p[-1] == 0 || (*(u32 *)(p - 0x41) & mask) == 0) {
func_8003D3B4(*(s32 *)(p - 5), 1);
}
*p = 0;
}
i++;
p += 0x48;
} while (i < 8);
if ((D_800A2B98 & 0xFF0000) != 0) {
func_8003C23C(0, D_800A2B98 & 0xFF0000);
D_800A2B98 = *(u16 *)&D_800A2B98;
}
if ((D_800A2BA0 & 0xFF0000) != 0) {
func_8003BE74(0, D_800A2BA0 & 0xFF0000);
D_800A2BA0 = *(u16 *)&D_800A2BA0;
}
mask = (u32)D_800A4C28;
i = 0;
p = (u8 *)mask + 4;
do {
if (p[0x40] != 0) {
Slot *b2 = (Slot *)mask;
s32 id = *(s32 *)(p + 0x3C);
p[0x40] = 0;
func_8003B250(id, b2);
*(s32 *)p = 0;
}
p += 0x48;
i++;
mask += 0x48;
} while (i < 8);
if ((D_800C7D20 & 0xFF0000) != 0) {
func_8003C23C(1, D_800C7D20 & 0xFF0000);
D_800C7D20 = *(u16 *)&D_800C7D20;
}
if ((D_800C7D2C & 0xFF0000) != 0) {
func_8003BE74(1, D_800C7D2C & 0xFF0000);
D_800C7D2C = *(u16 *)&D_800C7D2C;
}
}
extern u8 D_800A46BA;
u8 func_8002D4B8(void) {
return D_800A46BA;
}
extern s8 D_800A4F17;
extern u8 D_800A4F18;
extern s16 D_800A4EFC;
extern void func_8002D904(s32);
extern void func_8002DC68(s32 a0, s32 a1);
extern void func_8002E138(s32 a0, s32 a1, s32 a2);
extern void func_80030F80(void);
extern void func_8002D320(void);
extern void func_80031BE0(void);
void func_8002D4C8(s32 arg0, s32 arg1) {
u8 v0;
s8 *p;
D_800A4F17 = 1;
if ((u16)arg0 < 0x80) {
func_8002E138((u16)arg0, arg1 & 0xFFFF, 0);
} else if ((u16)arg0 >= 0x100) {
if ((u16)arg0 < 0x400) {
func_8002D904((u16)arg0);
} else {
func_8002DC68((u16)arg0, arg1 & 0xFFFF);
}
}
p = &D_800A4F17;
v0 = D_800A4F18;
*p = v0;
if (v0 != 0) {
s16 cnt = D_800A4EFC;
if (cnt != 0) {
D_800A4EFC = cnt - 1;
}
func_80030F80();
func_8002D320();
func_80031BE0();
D_800A4F18 = 0;
*p = 0;
}
}
extern s8 D_800A4F17;
extern u8 D_800A4F18;
extern s16 D_800A4EFC;
void func_8002D59C(s32 arg0, s32 arg1, s32 arg2) {
u16 id;
u8 v0;
s8 *p;
*(u8 *)&D_800A4F17 = 1;
id = arg0 & 0xFFFF;
if (id < 0x80) {
func_8002E138(id, arg1 & 0xFFFF, arg2 & 0xFFFF);
} else if (id >= 0x100) {
if (id < 0x400) {
func_8002D904(id);
} else {
func_8002DC68(id | (arg2 << 16), arg1 & 0xFFFF);
}
}
p = &D_800A4F17;
v0 = D_800A4F18;
*p = v0;
if (v0 != 0) {
s16 cnt = D_800A4EFC;
if (cnt != 0) {
D_800A4EFC = cnt - 1;
}
func_80030F80();
func_8002D320();
func_80031BE0();
D_800A4F18 = 0;
*p = 0;
}
}
extern s8 D_800A4F17;
s32 func_8002D678(s32 a0, s32 a1) {
extern void func_8002DC68(s32 a0, s32 a1);
u32 id;
s32 ret;
D_800A4F17 = 1;
id = a0 & 0xFFFF;
if (id >= 0x400) {
ret = ((s32 (*)())func_8002DC68)(id, a1 & 0xFFFF);
if (ret != 0) {
ret |= id << 16;
}
return ret;
}
return 0;
}
extern u8 D_8006451C[];
extern s8 D_800A4F17;
extern u8 D_800A4F18;
extern s16 D_800A4EFC;
extern s32 func_8002F4E4(u8 *);
extern void func_8003324C(s32);
extern void func_80030F80(void);
extern void func_8002D320(void);
extern void func_80031BE0(void);
void func_8002D6D8(u32 a0) {
s32 id;
u8 v0;
s8 *p = &D_800A4F17;
*p = 1;
id = a0 >> 16;
a0 = (u16)a0;
if ((u16)id < 0x100) {
return;
}
{
u8 *q = &D_8006451C[(u16)id * 4];
if ((*q & 0x7F) == 6) {
id = func_8002F4E4(q);
if ((u16)id == 0) {
return;
}
}
}
if (a0 == 0) {
return;
}
a0--;
if (*(u16 *)((u8 *)&D_800A4F17 + a0 * 0x54 - 0x82B) == (u16)id) {
func_8003324C((u16)a0);
}
v0 = D_800A4F18;
*p = v0;
if (v0 != 0) {
s16 v0s = D_800A4EFC;
if (v0s != 0) {
D_800A4EFC = v0s - 1;
}
func_80030F80();
func_8002D320();
func_80031BE0();
D_800A4F18 = 0;
*p = 0;
}
}
void func_8002D7F4(void) {
}
extern s32 D_800A4E7C;
void func_8002D7FC(s32 arg0) {
D_800A4E7C = arg0;
}
extern u16 D_800A4E8E;
extern s16 D_8006A990;
u16 func_8002D80C(void) {
return (D_800A4E8E & 1) ? D_8006A990 : 0;
}
extern s16 D_8006A990;
void func_8002D834(void) {
D_8006A990 = 0;
}
extern s32 D_800760E0;
s32 func_8002D844(s32 arg0) {
D_800760E0 = arg0;
return arg0;
}
extern s16 D_800760E4;
extern void func_8003D650(int a0, int a1, int a2);
extern int func_8003EDE8(int a0, int a1, int a2);
int func_8002D858(void) {
D_800760E4 = 100;
func_8003D650(0, 1, 0);
func_8003EDE8(0, D_800760E4, D_800760E4);
return D_800760E4;
}
s32 func_8002D8A8(void) {
extern void (*D_800A4F24)(void);
extern s16 D_800760EC;
extern s16 D_800760E8;
extern void func_8002FA3C(void);
D_800760EC = 6;
D_800A4F24 = func_8002FA3C;
D_800760E8 = 0;
return 0x10;
}
extern void (*D_800A4F24)(void);
extern int func_8003EDE8(int a0, int a1, int a2);
int func_8002D8D4(void) {
D_800A4F24 = NULL;
func_8003EDE8(0, 0, 0);
return 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002D904);
INCLUDE_ASM("asm/nonmatchings/800", func_8002DC68);
extern u8 D_8006A980;
extern s16 D_8006A982;
extern u8 D_8006A984;
extern s8 D_800A4F17;
extern u8 D_800A4F18;
extern s16 D_800A4EFC;
extern void func_8002DC68(s32 a0, s32 a1);
extern void func_8002E138(s32 a0, s32 a1, s32 a2);
extern void func_80030F80(void);
extern void func_8002D320(void);
extern void func_80031BE0(void);
void func_8002DF80(void) {
u8 v1;
v1 = D_8006A980;
if ((v1 & 0x7) != 0) {
if ((v1 & 0x1) != 0 && (v1 & 0x2) != 0) {
func_8002DC68(0x719, 0);
D_8006A980 &= 0xF8;
}
if ((D_8006A980 & 0x7) != 0) {
s16 val = D_8006A982;
s32 a0;
if (val <= 0) {
a0 = 0x710;
} else if (val >= 4) {
a0 = 0x712;
} else {
a0 = 0x711;
}
func_8002DC68(a0, 0);
D_8006A982 = 0;
D_8006A980 &= 0xF8;
}
}
v1 = D_8006A980;
if ((v1 & 0x8) != 0) {
u8 a1 = D_8006A984;
if (a1 != 0) {
func_8002DC68(0xA75, a1 | 0x1000);
D_8006A984 = 0;
D_8006A980 |= 0x10;
} else {
u8 v0;
D_8006A980 = v1 & 0xEF;
D_800A4F17 = 1;
func_8002E138(4, 0xA75, 0);
v0 = D_800A4F18;
D_800A4F17 = v0;
if (v0 != 0) {
s16 v0s = D_800A4EFC;
if (v0s != 0) {
D_800A4EFC = v0s - 1;
}
func_80030F80();
func_8002D320();
func_80031BE0();
D_800A4F18 = 0;
D_800A4F17 = 0;
}
}
D_8006A980 &= 0xF7;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002E138);
extern u8 D_800A4F19;
extern void CdMix(u8 *);
void func_8002E5BC(void) {
u8 sp10[4];
sp10[0] = 0x5A;
sp10[1] = 0x5A;
sp10[2] = 0x5A;
sp10[3] = 0x5A;
CdMix(sp10);
D_800A4F19 = 0;
}
extern u8 D_800A4F19;
extern void CdMix(u8 *);
void func_8002E5F8(void) {
u8 sp10[4];
sp10[0] = 0x80;
sp10[1] = 0;
sp10[2] = 0x80;
sp10[3] = 0;
CdMix(sp10);
D_800A4F19 = 1;
}
extern u16 D_800A4E8E;
extern s16 D_800A4E86;
extern s32 D_80078F10;
extern u16 D_8006A99C[];
extern u16 D_800A46B8;
extern u8 D_8006AEEC;
extern s32 D_800A46B4;
extern u8 D_800A46BA;
extern u16 D_800A4EF4;
extern s32 func_8003836C(s32 a0);
extern void func_8002E700(s32 a0);
void func_8002E638(s32 a0) {
s32 s0;
s16 temp;
u16 a0_masked;
u16 v1;
s0 = a0;
if ((D_800A4E8E & 4) != 0) {
temp = D_800A4E86;
if ((func_8003836C(temp) << 16) != 0) {
func_8002E700(s0 & 0xFFFF);
return;
}
}
if (D_80078F10 == 0) {
return;
}
a0_masked = s0 & 0xFFFF;
if (a0_masked < 5) {
v1 = *(u16 *)((u8 *)D_8006A99C + a0_masked * 4);
} else {
v1 = 0x1F;
}
D_800A46B8 = v1;
v1 = D_8006AEEC;
D_800A46B4 = 0xFFFF;
D_800A46BA = 1;
D_800A4EF4 = v1;
}
extern u16 D_800A4E8E;
extern u16 D_800A4E8A;
extern s16 D_800A4E86;
extern s16 D_8006A9BC[];
extern u16 D_8006A9B0[];
extern s32 func_8003836C(s32 a0);
extern void func_8003819C(s32 a0, s32 a1, s32 a2, s32 a3);
void func_8002E700(s32 a0)
{
u16 index;
if ((D_800A4E8E & 0x4) == 0)
return;
if ((s16)func_8003836C(D_800A4E86) == 0)
return;
index = (u16)a0;
if (index >= 5)
index = 4;
func_8003819C(D_800A4E86, 0, 0, D_8006A9BC[index]);
D_800A4E8A = D_8006A9B0[index];
}
void func_8002E79C(s32 a0)
{
extern u8 D_800A4EE6;
extern u16 D_800A4EE0;
extern u16 D_800A4EE2;
extern u16 D_800A4EE4;
extern u16 D_8006A9C8[];
u8 *fl;
u16 v;
fl = &D_800A4EE6;
if (!(*fl & 2)) {
*fl |= 2;
if (!(*fl & 4)) {
v = (u16)a0;
if (v >= 5) {
v = 4;
}
D_800A4EE0 = 0x4000;
D_800A4EE4 = 0x2FFF;
D_800A4EE2 = D_8006A9C8[v];
*fl |= 3;
}
}
}
void func_8002E818(s32 a0)
{
extern u16 D_800A4E8E;
extern u16 D_800A4E8C;
extern u8 D_800A4EE6;
extern u16 D_800A4EE0;
extern u16 D_800A4EE2;
extern u16 D_800A4EE4;
extern u16 D_8006A9D4[];
extern void func_8002EA10(void);
register u8 *a1 __asm__("$5");
u8 fl;
u8 nw;
u16 v;
if ((D_800A4E8E & 0x4) != 0 && D_800A4E8C == 0x3E) {
func_8002EA10();
}
a1 = &D_800A4EE6;
fl = *a1;
if (!(fl & 4)) {
nw = fl | 4;
*a1 = nw;
if (!(nw & 2)) {
if ((u16)a0 >= 5) {
a0 = 4;
}
D_800A4EE0 = 0x4000;
D_800A4EE4 = 0x2000;
v = D_8006A9D4[(u16)a0];
*a1 = fl | 5;
D_800A4EE2 = v;
}
}
}
void func_8002E8DC(s32 a0)
{
extern u8 D_800A4EE6;
extern u16 D_800A4EE2;
extern u16 D_800A4EE4;
extern u16 D_8006A9E0[];
register u8 *p __asm__("$6");
u8 fl;
u8 nw;
u16 v;
p = &D_800A4EE6;
fl = *p;
if (fl & 2) {
nw = fl & 0xFD;
*p = nw;
if (!(fl & 4)) {
if ((u16)a0 >= 5) {
a0 = 4;
}
D_800A4EE4 = 0x4000;
v = D_8006A9E0[(u16)a0];
*p = nw | 1;
D_800A4EE2 = v;
}
}
}
void func_8002E94C(s32 a0)
{
extern u16 D_800A4E8E;
extern u16 D_800A4E8C;
extern u8 D_800A4EE6;
extern u16 D_800A4EE4;
extern u16 D_800A4EE2;
extern u16 D_8006A9EC[];
extern void func_8002EAB0(void);
register u8 *a1 __asm__("$5");
u8 fl;
u8 clr;
u16 v;
if ((D_800A4E8E & 0x4) != 0 && D_800A4E8C == 0x3E && (D_800A4E8E & 0x10) != 0) {
func_8002EAB0();
}
a1 = &D_800A4EE6;
fl = *a1;
if (fl & 0x4) {
clr = fl & 0xFB;
*a1 = clr;
if (!(fl & 0x2)) {
if ((u16)a0 >= 5) {
a0 = 4;
}
D_800A4EE4 = 0x4000;
v = D_8006A9EC[(u16)a0];
*a1 = clr | 0x1;
D_800A4EE2 = v;
}
}
}
extern u16 D_800A4E8E;
extern s16 D_800A4E86;
extern s32 func_8003836C(s32 a0);
extern s32 func_800381E4(s32 a0, s32 a1);
extern void func_8002EC10(void);
extern void func_800383A4(s16 a0);
void func_8002EA10(void) {
register u16 *s0 __asm__("$16");
u16 v0;
s32 ret;
s0 = &D_800A4E8E;
v0 = *s0;
if (v0 & 4) {
ret = func_8003836C(D_800A4E86);
if ((ret << 16) != 0) {
if (func_800381E4(D_800A4E86, 0) != 0) {
func_8002EC10();
} else {
func_800383A4(D_800A4E86);
*s0 = *s0 | 0x10;
}
}
}
}
extern u16 D_800A4E8E;
extern s16 D_800A4E86;
extern void func_80038308(s16 a0);
void func_8002EAB0(void) {
register u16 *s0 __asm__("$16");
u16 v0;
s0 = &D_800A4E8E;
v0 = *s0;
if ((v0 & 0x10) != 0) {
func_80038308(D_800A4E86);
v0 = *s0;
v0 = (v0 | 0x9) & 0xFFEF;
*s0 = v0;
}
}
extern u16 D_800A4E8E;
extern s16 D_800A4E86;
extern s32 func_8003836C(s32 a0);
extern s32 func_800381E4(s32 a0, s32 a1);
extern void func_8002EC10(void);
extern void func_800383A4(s16 a0);
extern void func_80036F18(void);
void func_8002EB10(void) {
u16 v0;
s32 ret;
v0 = D_800A4E8E;
if (v0 & 4) {
ret = func_8003836C(D_800A4E86);
if ((ret << 16) != 0) {
if (func_800381E4(D_800A4E86, 0) != 0) {
func_8002EC10();
} else {
func_800383A4(D_800A4E86);
D_800A4E8E = D_800A4E8E | 0x10;
}
}
}
func_80036F18();
}
extern void func_80036D58(int arg0);
extern void func_80038308(s16 arg0);
extern u16 D_800A4E8E;
extern s16 D_800A4E86;
void func_8002EBAC(void) {
u16 v0;
func_80036D58(0);
if (D_800A4E8E & 0x10) {
func_80038308(D_800A4E86);
v0 = D_800A4E8E;
v0 |= 0x9;
v0 &= 0xFFEF;
D_800A4E8E = v0;
}
}
extern u16 D_800A4E8E;
extern s16 D_800A4E86;
extern u16 D_800A4E8C;
extern u16 D_800A4F20;
extern u16 D_800A4F22;
extern u16 D_800A4E8A;
extern u16 D_80068B66[][8];
extern u16 D_800A4EA2;
extern s16 D_800A4E9A;
extern u16 D_800A4EA0;
extern s32 func_8003836C(s32 a0);
extern void func_800383A4(s16 a0);
extern void func_800384A8(s16 a0);
extern void func_800385C0(s16 a0);
void func_8002EC10(void) {
u16 v0;
s16 *s0;
D_800A4F20 = 0;
D_800A4F22 = 0;
D_800A4E8A = 0;
if (D_800A4E8E & 4) {
if ((s16)func_8003836C(D_800A4E86) && (D_80068B66[D_800A4E8C][0] & 1)) {
if (D_800A4EA2 & 4) {
func_800385C0(D_800A4E9A);
D_800A4EA2 &= 0xFEE8;
}
func_800383A4(D_800A4E86);
v0 = D_800A4E8E;
D_800A4E8E = v0 & 0xFFFD;
D_800A4EA2 = v0 & 0xFFFD;
D_800A4E9A = D_800A4E86;
D_800A4EA0 = D_800A4E8C;
D_800A4E8E = v0 & 0xFEF9;
return;
}
s0 = &D_800A4E86;
if ((s16)func_8003836C(*s0)) {
func_800384A8(*s0);
}
D_800A4E8E &= 0xFEE8;
func_800385C0(*s0);
}
}
extern void func_8002EC10(void);
extern void func_800385C0(s16);
extern u16 D_800A4EA2;
extern s16 D_800A4E9A;
void func_8002ED90(void) {
u16* ptr;
func_8002EC10();
ptr = &D_800A4EA2;
if (*ptr & 0x4) {
func_800385C0(D_800A4E9A);
*ptr = 0;
}
}
extern void func_8002EE90(void);
extern void func_80031CC8(void);
extern void func_8002EC10(void);
extern void func_800385C0(s16);
extern u16 D_800A4EA2;
extern s16 D_800A4E9A;
extern u8 D_800A4EE6;
extern s16 D_800A4EF6;
void func_8002EDE4(void) {
func_8002EE90();
func_80031CC8();
func_8002EC10();
if (D_800A4EA2 & 0x4) {
func_800385C0(D_800A4E9A);
D_800A4EA2 = 0;
}
D_800A4EF6 = 1;
D_800A4EE6 &= 0xF9;
}
extern void func_80036EB4(void);
extern void func_8002EC10(void);
struct func_8002EE64_b { u8 c; };
void func_8002EE64(void) {
s32 g1, g2, g3, g4;
struct func_8002EE64_b b;
b.c = 0x88;
((void (*)(s32, s32, s32, s32, struct func_8002EE64_b))func_80036EB4)(g1, g2, g3, g4, b);
func_8002EC10();
}
extern void func_80036EE8(void);
extern void func_8002EC10(void);
void func_8002EE90(void) {
func_80036EE8();
func_8002EC10();
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002EEB8);
INCLUDE_ASM("asm/nonmatchings/800", func_8002EED8);
extern void func_80034844(void);
extern void func_80031B7C(void);
void func_8002EFD0(void)
{
func_80034844();
func_80031B7C();
}
extern s32 D_800A2B98;
extern s32 D_800C7D20;
void func_8002EFF8(s32 a0, s32 a1)
{
register s32 v0 __asm__("$2");
register s32 v1 __asm__("$3");
register s32 a0_tmp __asm__("$4");
v0 = 1;
if (a0 == v0) {
v0 = ~a1;
v1 = D_800A2B98;
a0_tmp = D_800C7D20;
v1 = v1 & v0;
a0_tmp = a0_tmp | a1;
D_800A2B98 = v1;
D_800C7D20 = a0_tmp;
} else {
v0 = ~a1;
v1 = D_800C7D20;
a0_tmp = D_800A2B98;
v1 = v1 & v0;
a0_tmp = a0_tmp | a1;
D_800C7D20 = v1;
D_800A2B98 = a0_tmp;
}
}
extern s32 D_800A2BA0;
extern s32 D_800C7D2C;
void func_8002F064(s32 a0, s32 a1) {
register s32 v0 __asm__("$2");
register s32 v1 __asm__("$3");
register s32 out_a0 __asm__("$4");
if (a0 == 1) {
v0 = ~a1;
v1 = D_800A2BA0;
out_a0 = D_800C7D2C;
v1 = v1 & v0;
out_a0 = out_a0 | a1;
D_800A2BA0 = v1;
D_800C7D2C = out_a0;
} else {
v0 = ~a1;
v1 = D_800C7D2C;
out_a0 = D_800A2BA0;
v1 = v1 & v0;
out_a0 = out_a0 | a1;
D_800C7D2C = v1;
D_800A2BA0 = out_a0;
}
}
extern s32 D_800A64B0;
void func_8002F0D0(void) {
s32 i = 0x54;
do {
*(s32 *)((s32)&D_800A64B0 + i) = 0;
i -= 0xC;
} while (i >= 0);
}
extern s32 D_800A64B0;
void *func_8002F0F4(void) {
s32 *ptr = (s32 *)&D_800A64B0;
s32 i = 0;
while (i < 8) {
s32 val = *ptr;
if (val == 0) {
return (void *)ptr;
}
i++;
ptr = (s32 *)((s32)ptr + 0xC);
}
return 0;
}
void func_8002F12C(s32 a0) {
extern void func_8002DC68(s32 a0, s32 a1);
func_8002DC68(*(s32 *)(a0 + 4), 0);
}
extern u8 D_800A4694[];
void func_8002F150(s32 arg0) {
struct F150Rec {
u8 pad[0x0E];
u8 flg[8];
u8 tail[0x3E];
};
struct F150Slot {
u8 pad[0x20];
u32 u20;
u32 u24;
u32 u28;
u32 u2C;
u16 u30;
u8 mid[5];
u8 u37;
u8 u38;
u8 tail[0x1B];
};
struct F150Rec *rec = (struct F150Rec *)D_800A4694 + arg0;
struct F150Slot *slots = (struct F150Slot *)(D_800A4694 + 0x2F4);
s32 i;
s32 val;
for (i = 0, val = -0x18; i < 8; i++) {
if (rec->flg[i]) {
slots[i].u28 = slots[i].u20 - 0x100;
slots[i].u37 |= 1;
slots[i].u30 = 0;
slots[i].u38 = 0;
slots[i].u2C = val;
}
}
}
typedef struct F1ccRec {
u8 pad[0x0E];
u8 flg[8];
u8 tail[0x3E];
} F1ccRec;
typedef struct F1ccSlot {
u8 pad[0x20];
u32 u20;
u32 u24;
u32 u28;
u32 u2C;
u16 u30;
u8 mid[5];
u8 u37;
u8 u38;
u8 tail[0x1B];
} F1ccSlot;
extern u8 D_800A4694[];
void func_8002F1CC(s32 arg0) {
F1ccRec *sp = (F1ccRec *)D_800A4694 + arg0;
F1ccSlot *slots = (F1ccSlot *)(D_800A4694 + 0x2F4);
s32 i;
s32 val;
for (i = 0, val = 0x18; i < 8; i++) {
if (sp->flg[i]) {
slots[i].u28 = slots[i].u20 + 0x100;
slots[i].u37 |= 1;
slots[i].u30 = 0;
slots[i].u38 = 0;
slots[i].u2C = val;
}
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002F248);
/* func_8002F4E4 -- 6-level gauntlet lookup into the D_800A4EE8 owner block.
*
* TU-placement note (src/800.c): this function's INCLUDE_ASM sits at ~line 9410,
* BEFORE the file declares `typedef struct Owner4EE8 {...}` (~9756, whose first
* 0x14 bytes are an opaque pad00 that THIS function is the one to break out into
* fields) and BEFORE `typedef ... Rsc24` / `extern Rsc24 D_800A4640[];` (~10860/10885).
* So local equivalents are declared here.
*
* The two object externs are declared at BLOCK scope on purpose. A second
* FILE-scope declaration of D_800A4640 / D_800A4EE8 with a different (local)
* struct type is a hard error under the pinned cc1 ("conflicting types for
* `D_800A4640'", rc=33) once the real ones appear later in the TU; the same
* pair at block scope is only a warning ("type mismatch with previous external
* decl") and compiles clean. Codegen is identical either way -- verified.
*/
/* D_800A4640 element -- same layout as the TU's own `Rsc24` (src/800.c ~13288,
* declared later in the file than this function's INCLUDE_ASM slot, so it
* can't be named directly here). Spelled with the TU's own typedef NAME
* ("Rsc24", block-scoped -- shadows harmlessly, since the file-scope typedef
* of the same name/shape doesn't exist yet at this point in the TU) and the
* TU's own field-list TEXT verbatim, with no inline offset comments: the
* reconciler's cosmetic-typedef check is a literal body-text comparison
* against src/800.c's `Rsc24`, and per-field offset comments here (the TU's
* copy has only one trailing offset tag, after the closing brace, not one
* per field) made the two bodies textually differ and tripped
* refuse-DIFFERENT-STRUCT even though the layouts are identical
* field-for-field. */
/* opaque — matches the TU's `typedef struct Owner4EE8 Owner4EE8;` spelling
* (src/800.c ~13559) exactly so this local decl is droppable at bank time in
* favor of the TU's real `typedef struct Owner4EE8 { u8 pad00[0x14]; Rec14
* **unk14; } Owner4EE8;`. This function only ever touches fields that live
* inside pad00, so it pointer-casts through the opaque type at each byte
* offset (same pattern as func_80034314 / func_8002C8F4) rather than naming
* a same-named struct with a conflicting layout. */
extern s16 D_800A4EF0;
s32 func_8002F4E4(u8 *a0) {
extern Rsc24 D_800A4640[];
extern Owner4EE8 *D_800A4EE8;
Owner4EE8 *a2;
s32 idx;
s32 lvl;
s32 val;
s32 idx2;
s32 word;
s32 rowBytes;
u16 *row;
if (D_800A4EF0 == 0) {
return 0;
}
a2 = D_800A4EE8;
if (a2 == 0) {
return 0;
}
idx = a0[2];
lvl = D_800A4640[idx].unk00;
if (lvl < *(s16 *)((u8 *)a2 + 0x04)) {
return 0;
}
lvl -= *(s16 *)((u8 *)a2 + 0x04);
if (lvl >= *(s16 *)((u8 *)a2 + 0x02)) {
return 0;
}
val = (*(s16 **)((u8 *)a2 + 0x08))[lvl];
if (val == 0) {
return 0;
}
idx2 = a0[3];
if (idx2 >= *(s16 *)((u8 *)a2 + 0x0C)) {
return 0;
}
val -= 1;
/* Row stride is in BYTES and must stay bound to unk0E: writing
* idx2 * (unk0E * 2) inline lets gcc reassociate it to
* (idx2 * 2) * unk0E (sll a0 then mult) -- the separate rowBytes
* local pins mult $a0,$v0 with $v0 = unk0E*2, as the target has.
* The `row` pointer temp is also load-bearing: it is what keeps val
* in $a1 and puts val*2 into a fresh $v0. NO register pins -- pinning
* val to $5 (first-pass attempt) makes the shift go in-place into $a1
* and reorders the mult delay shadow (sll before lw). Cookbook lever C:
* the fix was to UNPIN.
*/
rowBytes = *(s16 *)((u8 *)a2 + 0x0E) * 2;
row = (u16 *)((u8 *)(*(u16 **)((u8 *)a2 + 0x10)) + idx2 * rowBytes);
word = row[val];
if (word != 0x7F) {
return word;
}
return 0;
}
extern s16 D_800A4EF0;
extern void func_8002F620(void);
void func_8002F5C8(u8 *a0) {
extern Owner4EE8 *D_800A4EE8;
s16 *p = &D_800A4EF0;
u16 temp;
if (*p != 0) {
func_8002F620();
}
temp = *(u16 *)a0;
D_800A4EE8 = a0;
*p = temp;
}
extern s16 D_800A4EF0;
extern void func_80031D70(void);
void func_8002F620(void) {
D_800A4EF0 = 0;
func_80031D70();
}
extern s16 D_800A4EF0;
s16 func_8002F648(void) {
return D_800A4EF0;
}
extern u8 D_800A4698;
extern s16 D_800A4688;
s32 func_8002F658(void) {
if (D_800A4698 != 0) {
return -1;
}
return D_800A4688;
}
extern u8 D_800A4698;
extern s16 D_800A4688;
extern s16 D_800C5328[];
extern s16 D_800A46A2;
extern u8 D_800A46B0;
extern void func_800415A8(s32);
void func_8002F67C(void) {
u8 *p = &D_800A4698;
s32 v0;
s32 t;
if (*p == 0) {
v0 = D_800A4688;
*(s16 *)((u8 *)D_800C5328 + (v0 << 2)) = -1;
*p = 1;
}
t = D_800A46A2;
if (t >= 0) {
func_800415A8(t);
D_800A46A2 = -1;
}
if (D_800A46B0 == 0) {
D_800A46B0 = 1;
}
}
extern u8 D_800760D0;
extern u8 D_800760D4;
extern u8 D_800760D8;
extern u8 D_800760DC;
extern u8 D_8006A96E;
extern void (*D_800A4F24)(void);
extern void func_8002F80C(void);
void func_8002F714(s32 a0, s32 a1) {
switch (a0 & 0xFFFF) {
case 0:
D_800760D0 = a1 & 0x7F;
D_800A4F24 = func_8002F80C;
D_8006A96E |= 1;
break;
case 1:
D_800760D4 = a1 & 0x7F;
D_800A4F24 = func_8002F80C;
D_8006A96E |= 2;
break;
case 2:
D_800760D8 = a1 & 0x7F;
D_800A4F24 = func_8002F80C;
D_8006A96E |= 4;
break;
case 3:
D_800760DC = a1 & 0x7F;
D_800A4F24 = func_8002F80C;
D_8006A96E |= 8;
break;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002F80C);
INCLUDE_ASM("asm/nonmatchings/800", func_8002FA3C);
extern s16 D_800A46CC;
void func_8002FAE0(void) {
D_800A46CC = 0;
func_8002C8BC();
}
extern void func_800301A4(void);
extern int func_80037CD8(void *arg);
extern void func_80031A98(void);
extern void func_8002EC10(void);
extern void func_800415A8(s32);
extern Elm12 D_80064D49[];
extern u8 D_80064D4D[];
extern Ent24 D_800A463C[];
extern Rsc24 D_800A4640[];
extern s16 D_800A4642[];
extern u8 D_800A4650[];
extern s32 D_800A46C8;
extern s16 D_800A46CC;
extern s16 D_800C5328[];
extern u8 D_8006AEF4;
int func_8002FB08(int entry) {
s32 idx12;
s32 b;
s32 idx24;
s16 h;
s32 b2;
s32 idx24b;
s16 v;
s16 a4;
if (func_80037CD8((void *)func_800301A4) == 0) {
return 0;
}
idx12 = entry * 12;
b = D_80064D49[entry].unk00;
idx24 = b * 24;
D_800A46C8 = *(s32 *)((u8 *)D_800A463C + idx24);
if (D_800A4650[idx24] == 0) {
h = *(s16 *)((u8 *)D_800A4640 + idx24);
D_800C5328[h * 2] = -1;
}
func_80031A98();
b2 = D_80064D4D[idx12];
if (b2 != 0) {
idx24b = b2 * 24;
v = *(s16 *)((u8 *)D_800A4642 + idx24b);
if (v >= 0) {
func_8002EC10();
a4 = *(s16 *)((u8 *)D_800A4642 + idx24b);
func_800415A8(a4);
*(s16 *)((u8 *)D_800A4642 + idx24b) = -1;
*(s16 *)((u8 *)D_800A4640 + idx24b) = -1;
}
D_800A4650[idx24b] = 1;
}
D_800A46CC = 0;
D_8006AEF4 |= 2;
return 1;
}
extern s32 func_8003C4F0(s32);
extern void func_8003C498(s32);
extern void SpuWrite(s32, s32);
extern void func_80037D74(void);
extern u8 D_8006AEF4;
extern s32 D_800A46C8;
int func_8002FC64(int nbytes, u32 *src); /* stage/copy a payload run */
int func_8002FC64(int nbytes, u32 *src)
{
register s32 s2 __asm__("$18") = nbytes;
register u32 *s1 __asm__("$17") = src;
register s32 *s0;
s32 result;
if (D_8006AEF4 & 1) {
if (func_8003C4F0(0) == 0) {
func_80037D74();
return 0;
}
}
s0 = (s32 *)(&D_800A46C8);
result = ((s32 (*)(s32))func_8003C498)(*s0);
if (result != 0) {
SpuWrite((s32)s1, s2);
*s0 += s2;
D_8006AEF4 |= 1;
return 1;
}
func_80037D74();
return 0;
}
extern s16 D_800A46CC;
extern u8 D_8006AEF4;
extern void func_80037D74(void);
extern s32 func_8003C4F0(s32);
extern s32 func_8002FF0C(s32, s32);
extern void func_8002D240(s32 a0);
int func_8002FD14(int buf, int len) {
s32 result;
s32 temp;
if (D_800A46CC == 0) {
func_80037D74();
temp = func_8003C4F0(0);
if (temp != 0) {
D_8006AEF4 &= 0xFE;
result = func_8002FF0C(buf, len);
} else {
result = 0;
}
} else {
result = func_8002FF0C(buf, len);
}
if (result != 0) {
if (buf == 0x1A) {
func_8002D240(0x28);
}
return result;
}
return 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8002FDC8);
INCLUDE_ASM("asm/nonmatchings/800", func_8002FDE8);
INCLUDE_ASM("asm/nonmatchings/800", func_8002FF0C);
extern u8 D_8006AEF4;
extern s16 D_800A46CC;
s32 aF800301A4(void) __asm__("func_800301A4");
s32 aF800301A4(void) {
u8 t;
t = D_8006AEF4;
D_800A46CC = 0;
D_8006AEF4 = t & ~2;
return 1;
}
INCLUDE_ASM("asm/nonmatchings/800", func_800301C8);
extern void func_800301A4(void);
extern s32 func_80037CD8(void *arg);
extern s16 D_800A46CC;
extern u8 D_8006AEF4;
s32 func_80030470(void) {
s16 *p;
if (func_80037CD8((void *) func_800301A4) != 0) {
p = &D_800A46CC;
*p += 1;
D_8006AEF4 |= 2;
}
return 0;
}
extern u8 D_8006AEF4;
extern s16 D_800A46CC;
extern s32 func_8003C4F0(s32);
s32 func_800304C8(void) {
s16 *p;
if (D_8006AEF4 & 1) {
if (func_8003C4F0(0) != 0) {
D_8006AEF4 &= 0xFE;
}
} else {
p = &D_800A46CC;
(*p)++;
}
return 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80030538);
INCLUDE_ASM("asm/nonmatchings/800", func_80030634);
typedef struct {
u8 unk00[4];
u8 unk04;
u8 unk05[11];
u16 unk10;
u16 unk12;
u8 unk14[2];
s16 unk16;
u8 unk18[8];
} Blk28; /* 0x20 */
extern u8 D_8006AEF4;
extern s16 D_800A46CC;
extern s16 D_800A46CE[];
extern s16 D_800A46D2[];
extern Rsc24 D_800A4640[];
extern A12 D_80064D44[];
extern s32 D_80065504[];
extern B12 *D_8006A970[];
extern s32 D_800760F0;
extern s32 D_800760F4;
extern s16 D_800C5328[];
extern s16 D_800C532A[];
extern s16 func_80042374(s32);
extern void func_80037D74(void);
extern s16 func_8003F144(s32, s32, s32, C24 *);
extern s32 func_8003F380(s32, s32);
s32 func_80030730(void) {
Blk28 sp10;
A12 *e;
B12 *p;
u8 *q;
s16 *pd;
s16 *pcc;
s32 n;
s32 n0;
s32 k;
s32 i;
s32 res;
if (func_80042374(0) == 0) {
return 0;
}
D_8006AEF4 &= 0xFC;
func_80037D74();
k = D_800A46CE[0] * 24;
D_800760F0 = 0;
e = &D_80064D44[D_800A46CE[1]];
n0 = e->pad04[0];
D_800760F4 = n0;
if (n0 == 0) {
*(u8 *)((u8 *)D_800A4640 + k + 0x10) = 0;
D_800A46CC = 0;
return 1;
}
q = e->unk00;
if (D_80065504[D_800A46CE[0]] < n0) {
D_800760F4 = D_80065504[D_800A46CE[0]];
}
p = D_8006A970[D_800A46CE[0]];
n = 10;
if (D_800760F4 < 11) {
if (e->unk06 != 0) {
*(s16 *)((u8 *)D_800A4640 + k + 0x06) = e->unk07;
D_800A4640[D_800A46CE[0]].unk04 = e->unk06;
D_800A4640[D_800A46CE[0]].unk08 = e->unk08;
D_800C532A[e->unk08 * 2] = D_800A46CE[0];
}
n = D_800760F4;
D_800760F4 = 0;
D_800C5328[D_800A46CE[1] * 2] = D_800A46CE[0];
} else {
D_800760F4 -= 10;
}
for (i = 0; i < n; i++, q += 2, p++) {
pd = D_800A46D2;
if (func_8003F144(*pd, q[0], q[1], (C24 *)&sp10) == 0) {
res = func_8003F380(*pd, sp10.unk16);
if (res >= 0) {
p->unk0A = 1;
p->unk04 = sp10.unk04 << 8;
p->unk00 = res;
p->unk06 = sp10.unk10;
p->unk08 = sp10.unk12;
}
}
}
if (D_800760F4 == 0) {
D_800A4640[D_800A46CE[0]].unk10 = 0;
D_800A46CC = 0;
return 1;
}
pcc = &D_800A46CC;
D_800760F0 = D_800760F0 + 10;
(*pcc)++;
return 0;
}
/* 0x0C stride record at D_80064D44 (D_80064D4A == this + 6, cf. src/800.c Rsc12) */
/* 0x0C stride record pointed at by D_8006A970[] */
/* 0x18 scratch filled by func_8003F144 */
extern s16 D_800A46CC;
extern s16 D_800A46CE[];
extern s16 D_800A46D0;
extern s16 D_800A46D2[];
extern s16 D_800A4644[];
extern s16 D_800A4646[];
extern s16 D_800A4648[];
extern u8 D_800A4650[];
extern s16 D_800C5328[];
extern s16 D_800C532A[];
extern A12 D_80064D44[];
extern B12 *D_8006A970[];
extern s32 D_800760F0;
extern s32 D_800760F4;
extern s16 func_80042374(s32);
extern s16 func_8003F144(s32, s32, s32, C24 *);
extern s32 func_8003F380(s32, s32);
s32 func_80030A14(void) {
C24 sp10;
A12 *e;
u8 *p;
B12 *q;
s32 count;
s32 i;
s32 r;
s32 t;
if (func_80042374(0) == 0) {
return 0;
}
e = &D_80064D44[D_800A46D0];
p = e->unk00 + D_800760F0 * 2;
q = &D_8006A970[D_800A46CE[0]][D_800760F0];
t = D_800A46CE[0] * 24;
if (D_800760F4 < 11) {
if (e->unk06 != 0) {
*(s16 *)((u8 *)D_800A4646 + t) = e->unk07;
D_800A4644[D_800A46CE[0] * 12] = e->unk06;
D_800A4648[D_800A46CE[0] * 12] = e->unk08;
D_800C532A[e->unk08 * 2] = D_800A46CE[0];
}
count = D_800760F4;
D_800760F4 = 0;
D_800C5328[D_800A46D0 * 2] = D_800A46CE[0];
} else {
count = 10;
D_800760F4 -= 10;
}
for (i = 0; i < count; i++, p += 2, q++) {
if (func_8003F144(D_800A46D2[0], p[0], p[1], &sp10) == 0) {
r = func_8003F380(D_800A46D2[0], sp10.unk16);
if (r >= 0) {
q->unk0A = 1;
q->unk04 = sp10.unk04 << 8;
q->unk00 = r;
q->unk06 = sp10.unk10;
q->unk08 = sp10.unk12;
}
}
}
if (D_800760F4 == 0) {
D_800A4650[D_800A46CE[0] * 24] = 0;
D_800A46CC = 0;
return 1;
}
D_800760F0 += 10;
return 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80030CA4);
typedef struct Blk48_30D80 {
/* 0x00 */ s32 unk00;
/* 0x04 */ u8 pad04[0x3D];
/* 0x41 */ u8 unk41;
/* 0x42 */ u8 pad42[6];
} Blk48_30D80;
extern s8 D_800A4F17;
extern s32 D_800C7D20;
extern s32 D_80073140[];
extern Blk48_30D80 D_800A4C2C[];
extern void func_8002EFF8(s32 a0, s32 a1);
extern void func_80031988(Ent30D80 *arg0);
void func_80030D80(Ent30D80 *arg0, s16 arg1) {
u8 old;
u8 flag;
old = *(u8 *)&D_800A4F17;
*(u8 *)&D_800A4F17 = 1;
if (arg0->unk00 != 0) {
flag = 1;
arg0->unk00 = 0;
} else if (arg0->unk4E >= 2 && (D_800C7D20 & D_80073140[arg0->unk0A])) {
D_800A4C2C[arg0->unk51].unk41 = 1;
D_800A4C2C[arg0->unk51].unk00 &= 0xFFF9FFFF;
flag = 1;
func_8002EFF8(0, D_80073140[arg0->unk0A]);
} else {
flag = 0;
if (arg1 != 0) {
arg0->unk50 = 1;
D_800A4C2C[arg0->unk51].unk41 = 1;
D_800A4C2C[arg0->unk51].unk00 &= 0xFFF9FFFF;
func_8002EFF8(0, D_80073140[arg0->unk0A]);
} else {
s32 mask = D_80073140[arg0->unk0A];
arg0->unk50 = 0;
func_8002EFF8(0, mask);
func_80031988(arg0);
}
}
if (arg0->unk40 != 0) {
arg0->unk40(arg0->unk51, arg0->unk44);
}
arg0->unk40 = 0;
if (flag) {
arg0->unk4E = 0;
}
*(u8 *)&D_800A4F17 = old;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80030F80);
typedef struct Obj {
/* 0x00 */ u8 unk00[0xA];
/* 0x0A */ u16 unk0A;
/* 0x0C */ u16 unk0C;
/* 0x0E */ u16 unk0E;
/* 0x10 */ u16 unk10;
/* 0x12 */ u8 unk12[0x12];
/* 0x24 */ s32 unk24;
/* 0x28 */ s32 unk28;
/* 0x2C */ s32 unk2C;
/* 0x30 */ u16 unk30;
/* 0x32 */ u8 unk32[0x5];
/* 0x37 */ u8 unk37;
/* 0x38 */ u8 unk38;
/* 0x39 */ u8 unk39;
/* 0x3A */ s16 unk3A;
/* 0x3C */ s16 unk3C;
/* 0x3E */ u8 unk3E[0x13];
/* 0x51 */ u8 unk51;
/* 0x52 */ u8 unk52[2];
} Obj;
/* 0x0C stride record pointed at by D_8006A970[] -- must match src/800.c's B12
(same name, same offsets/widths) since the destination TU already declares
this struct and symbol. */
extern Slot D_800A4C28[];
extern s32 D_80073140[];
extern B12 *D_8006A970[];
extern u16 D_8006AB30[];
extern u16 D_8006AB32[];
void func_800314DC(Obj *p) {
Slot *e;
/* dead local: the target frame is `vars= 8` with no $sp reference. */
s32 pad[2];
u16 h;
u32 t;
/* $2 pin #1 -- `base` is a LOCAL qty in the D_800A4C28 block. Unpinned,
local-alloc.c:1825 combine_regs TIES its dest into operand 0 of the
addu (the dying `t & 0xFF00` temp, which lives in $v1), so base lands
in $v1; the target keeps it in $v0. A hard-reg dest cannot be tied, so
the pin materialises base in $v0 exactly where the target has it. */
register s32 base __asm__("$2");
u32 d;
u32 res;
/* $2 pin #2 (disjoint lifetime from `base`) -- see the lerp comment. */
register u32 q __asm__("$2");
if (!(p->unk37 & 1)) {
return;
}
if (p->unk30 != 0) {
p->unk30--;
return;
}
if (p->unk2C < 0) {
p->unk24 += p->unk2C;
if (p->unk24 <= p->unk28) {
p->unk24 = p->unk28;
p->unk37 &= 0xFE;
}
} else {
p->unk24 += p->unk2C;
if (p->unk24 >= p->unk28) {
p->unk24 = p->unk28;
p->unk37 &= 0xFE;
}
}
if (!(p->unk37 & 1) && p->unk38 != 0) {
if (p->unk24 != p->unk3C) {
p->unk28 = p->unk3C;
if (p->unk3C < p->unk24) {
p->unk2C = -p->unk3A;
} else {
p->unk2C = p->unk3A;
}
}
p->unk38 = 0;
p->unk37 |= 1;
}
e = &D_800A4C28[p->unk51];
e->unk00 = D_80073140[p->unk0A];
h = D_8006A970[p->unk10][p->unk0C].unk04;
/* `t` MUST be a separate SImode local: a HImode `h` used both by the
0x18 store and by SImode arithmetic is what keeps the otherwise
redundant `andi $v0,$a0,0xFFFF` alive (folding it away costs an insn). */
t = h;
/* splitting the -0x3C00 off keeps the sh scheduled AFTER the andi/sll/sra
chain: as one expression the store's memory dependence on the 0x24 load
gives it enough sched1 priority to hoist into the load-delay region. */
base = (t & 0xFF00) + ((s8)t * 2);
e->unk18 = h;
base -= 0x3C00;
/* in-place update: the target reuses $a1 for both the 0x24 load and the
difference, and global.c has no coalescing (K8) -- cross-block sharing
has to be ONE pseudo in the source. */
d = p->unk24;
d -= base;
if (d >= 0x5300) {
res = 0x3FFF;
} else {
/* `q` merges the D_8006AB30 load with the first product into one
$v0-pinned range. That blocks $v0 across insns 4..11 of this block,
which is what pushes 0x100 -> $v1, the index -> $a0, the D_8006AB32
load -> $v1, and (via the global pass) the second mflo -> $v1. */
q = D_8006AB30[d >> 8];
q = q * (0x100 - (d & 0xFF));
res = (q + D_8006AB32[d >> 8] * (d & 0xFF)) >> 8;
}
e->unk14 = res;
e->unk40 = p->unk0A;
if (e->unk44 != 0) {
e->unk04 |= 0x10;
} else {
e->unk44 = 1;
e->unk04 = 0x10;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_800316F8);
INCLUDE_ASM("asm/nonmatchings/800", func_80031988);
INCLUDE_ASM("asm/nonmatchings/800", func_80031A98);
extern u8 D_800A49D2[];
void func_80031B7C() {
register s32 a0 asm("$4") = 0;
register u8 a2 asm("$6") = 1;
register u16 a1 asm("$5") = 0x7FFF;
register u8 *v1 asm("$3");
v1 = D_800A49D2;
do {
if (v1[4] && !v1[2] && v1[3]) {
v1[2] = a2;
*(u16 *)v1 = a1;
}
v1 += 0x54;
a0++;
} while (a0 < 8);
}
extern s8 D_800A4F17;
extern u16 D_800A2BB0[];
extern u16 D_800BA108[];
extern void func_8003388C(void *a0, s32 a1);
void func_80031BE0(void)
{
u8 *e;
s32 i;
if (*(u8 *)&D_800A4F17 != 0) {
return;
}
e = (u8 *)&D_800A4F17 - 0x82F;
for (i = 0; i < 8; i++, e += 0x54) {
u16 v1;
D_800A2BB0[i] = *(u16 *)(e + 4);
D_800BA108[i] = *(u16 *)(e + 6);
v1 = *(u16 *)(e + 0) & 0x3F;
switch (v1) {
case 1:
if (*(u16 *)(e + 8) != 0) {
*(u16 *)(e + 8) = *(u16 *)(e + 8) - 1;
}
break;
case 0:
break;
case 5:
func_8003388C(e, i);
break;
}
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_80031CC8);
INCLUDE_ASM("asm/nonmatchings/800", func_80031D70);
INCLUDE_ASM("asm/nonmatchings/800", func_80031DEC);
INCLUDE_ASM("asm/nonmatchings/800", func_80031E94);
INCLUDE_ASM("asm/nonmatchings/800", func_80031F14);
INCLUDE_ASM("asm/nonmatchings/800", func_80031FC8);
/* 0x14-byte record, indexed by p[3]. D_80068304 and D_800A4EE8->unk14 are both
* arrays of pointers to arrays of these. */
/* slot record inside D_800A46E8 (stride 0x54) */
extern Rec14 *D_80068304[];
extern Owner4EE8 *D_800A4EE8;
extern s16 D_800A4EF0;
extern u16 D_800A46E8[];
extern s8 D_800A4F17;
extern s32 func_800331D4(s32);
extern s32 func_8003310C(s32);
extern void func_800335B8(s32, s32);
extern void func_8003324C(s32);
extern void func_80032A74(Slot54 *, s32, Rec14 *, s32);
s32 func_80032048(u32 arg0, u8 *p, u32 flags) {
Rec14 *rec;
Slot54 *e;
s32 idx;
s32 ret;
u32 x;
u32 y;
u32 v;
u8 old;
u8 b1;
u8 b2;
u32 b3;
u32 b0;
y = arg0 >> 16;
b1 = p[1];
b2 = p[2];
b3 = p[3];
if (b1 == 0) {
rec = &D_80068304[b2][b3];
} else {
if (D_800A4EF0 != b1) {
return 0;
}
if (D_800A4EE8 == 0) {
return 0;
}
rec = D_800A4EE8->unk14[b2];
rec += b3;
}
old = *(u8 *)&D_800A4F17;
*(u8 *)&D_800A4F17 = 1;
ret = 0;
v = rec->unk00;
if ((u16)flags == 0xFFFF) {
flags = 0;
x = (u16)y;
y = 0;
} else {
x = arg0;
}
idx = func_800331D4(x);
if (idx == 0) {
if (flags & 0x4000) {
if ((flags & 0x3000) == 0) {
goto done;
}
} else if (flags & 0x1000) {
if ((flags & 0x7F) < 0x30) {
v >>= 1;
}
}
idx = func_8003310C(v);
if (idx == 0) {
goto done;
}
ret = idx;
idx = ret - 1;
e = (Slot54 *)((u8 *)D_800A46E8 + idx * 0x54);
} else {
if (flags & 0x4000) {
func_800335B8(idx - 1, (u16)flags);
goto done;
}
idx--;
e = (Slot54 *)((u8 *)D_800A46E8 + idx * 0x54);
if (e->unk08 != 0) {
goto done;
}
ret = idx + 1;
func_8003324C((u16)idx);
}
b0 = p[0];
e->unk04 = x;
e->unk06 = y;
e->unk02 = v;
e->unk00 = (b0 & 0xC0) | 1;
e->unk08 = rec->unk0C;
e->unk0A = 5;
func_80032A74(e, idx, rec, (u16)flags);
done:
*(u8 *)&D_800A4F17 = old;
return ret;
}
/* ---- declarations copied verbatim from the destination TU (src/800.c, the
* block that precedes the already-matched sibling func_80032048) ----
*
* BANKING NOTE: src/800.c ALREADY has every typedef (Rec14 / Slot54 /
* Owner4EE8, lines 7327-7350) and every extern below (lines 7353-7363),
* immediately above `INCLUDE_ASM(... func_800322A8)` at line 7456. They are
* reproduced here only so this file compiles standalone under match_one.
* When banking, replace the INCLUDE_ASM with the FUNCTION BODY ONLY (plus the
* SLOT_BASE #define) -- re-emitting the typedefs would be a C89 redefinition
* error. src/800.c has NO prior declaration of func_800322A8, so there is no
* DEF-side signature wall (cookbook Sec.20). */
/* 0x14-byte record, indexed by p[3]. D_80068304 and D_800A4EE8->unk14 are both
* arrays of pointers to arrays of these. */
/* slot record inside D_800A46E8 (stride 0x54) */
extern Rec14 *D_80068304[];
extern Owner4EE8 *D_800A4EE8;
extern s16 D_800A4EF0;
extern u16 D_800A46E8[];
extern s8 D_800A4F17;
extern s32 func_800331D4(s32);
extern s32 func_8003310C(s32);
extern void func_8003324C(s32);
extern void func_80032A74(Slot54 *, s32, Rec14 *, s32);
/* The slot table base D_800A46E8 sits 0x82F bytes below the D_800A4F17 lock
* byte and the original code derives one from the other (`addiu v1,s1,-0x82F`),
* i.e. they live in one object. Spelling it this way is what makes gcc CSE the
* two symbol addresses into a single base register instead of emitting a second
* lui/addiu pair (worth 2 instructions plus the whole callee-save ranking). */
#define SLOT_BASE ((u8 *)&D_800A4F17 - 0x82F)
/* SECOND-PASS LEVER (sched.md S13, the bb0 head-skip escape). A first pass got
* to 3-off with a pure prologue-schedule residual: sched2 emitted
* `sw s5 / move s5 / srl` where the target has `srl / sw s5 / move s5`.
* Cause (read off the -dS dumps, not guessed): sched.c:3189-3213 pins the
* LEADING RUN of `pseudo = hard-arg-reg` param copies out of sched1's pool, so
* the a2->flags copy always kept a LOWER LUID than the `srl`; at sched2's T-15
* all three candidates tie at priority 1 and rank_for_schedule falls through to
* the LUID tie-break (2.7.2 sched.c:2428, highest LUID picked first = placed
* last), which put the srl last of the three.
* Fix: take the third parameter through a BODY-LOCAL copy declared AFTER
* `y = arg0 >> 16`. The head copy `pseudo = $a2` becomes a nop-move at reload
* (local-alloc ties the once-used incoming pseudo to $a2) and the REAL
* `move s5,a2` materialises at its statement position, where the S2 birthing
* boost sinks it below the srl -- giving it the HIGHER LUID. sched2 then picks
* it first, `sw s5` follows on the potential-hazard rule, and the srl lands at
* position 3. Do NOT reorder `flags = arg2;` above `y = arg0 >> 16;`. */
s32 func_800322A8(u32 arg0, u8 *p, u32 arg2) {
Rec14 *rec;
Slot54 *e;
s32 idx;
s32 ret;
u16 y;
u32 x;
u32 flags;
u32 v;
u8 old;
u8 b1;
u8 b2;
u32 b3;
u32 b0;
y = arg0 >> 16;
flags = arg2;
x = arg0;
b1 = p[1];
b2 = p[2];
b3 = p[3];
if (b1 == 0) {
rec = &D_80068304[b2][b3];
} else {
if (D_800A4EF0 != b1) {
return 0;
}
if (D_800A4EE8 == 0) {
return 0;
}
rec = D_800A4EE8->unk14[b2];
rec += b3;
}
old = *(u8 *)&D_800A4F17;
*(u8 *)&D_800A4F17 = 1;
ret = 0;
v = rec->unk00;
idx = func_800331D4((u16)arg0);
if (idx == 0) {
if (flags & 0x4000) {
if ((flags & 0x3000) == 0) {
goto done;
}
}
idx = func_8003310C(v);
if (idx == 0) {
goto done;
}
ret = idx;
idx = ret - 1;
e = (Slot54 *)(SLOT_BASE + idx * 0x54);
} else {
idx--;
e = (Slot54 *)(SLOT_BASE + idx * 0x54);
if (e->unk08 != 0) {
goto done;
}
ret = idx + 1;
func_8003324C((u16)idx);
}
b0 = p[0];
e->unk04 = x;
e->unk06 = y;
e->unk02 = v;
e->unk00 = (b0 & 0xC0) | 1;
e->unk08 = rec->unk0C;
e->unk0A = 5;
func_80032A74(e, idx, rec, (u16)flags);
done:
*(u8 *)&D_800A4F17 = old;
return ret;
}
/* MATCH: 180/180 instructions, byte-exact (relocation-masked).
*
* S53 RECOVERY (compile conflict on func_80032A74's signature): the reported
* conflict was func_80032774's draft, which independently invented a
* DIFFERENT-WIDTH Slot54 (u16/u16/u16 fields + 0x48 pad, vs. this draft's
* s16/s16/s16/u16/s8). Three drafts (func_800322A8, func_800324A4 here, and
* func_80032774) all declare `extern void func_80032A74(Slot54 *, s32,
* Rec14 *, s32);`, so all three Slot54 spellings must be textually identical
* for the merged TU to compile. This draft's Slot54/Rec14/Owner4EE8 and the
* func_80032A74 prototype were ALREADY the canonical spelling (byte-identical
* to src/800.c's incumbent, banked for the sibling func_80032048) -- no
* change was needed here. func_80032774's recovered draft (S53) was the one
* fixed: it now reuses this canonical Slot54 for the extern prototype and
* keeps its own different-width view under a separate name (Slot54View),
* cast at use. All three now agree with each other and with the TU.
*
* Notes for the banker:
* - src/800.c ALREADY declares Rec14 / Slot54 / Owner4EE8, D_80068304,
* D_800A4EE8, D_800A4EF0, D_800A46E8, D_800A4F17, func_8003310C,
* func_8003324C and func_80032A74 (they were added for the matched
* func_80032048, immediately above this function's INCLUDE_ASM). Delete
* the duplicated declaration block below when banking; keep only the
* LOCKBYTE / SLOTBASE macros (or inline them).
* - src/800.c has NO prior prototype for func_800324A4, so the signature
* below is unconstrained (no DEF-side wall here).
*
* The three levers that made it match (pass 2; pass 1 stopped at 4 diffs):
* 1. ONE-SYMBOL BASE (kept from pass 1, but re-spelled). The target derives
* the slot array AND the lock byte from a single lui/addiu pair
* ("addiu $a2,$v1,-0x82F" / "addiu $a0,$v1,-0x824"), which gcc-2.7.2's
* cse.c can only do when both constants share a symbol_ref
* (related_value chains are per-symbol). Pass 1 used D_800A46E8 as the
* base and wrote the lock byte as +0x82F; that links to the same bytes
* but emits the relocation against the WRONG symbol. The target's own
* relocation lines are %hi/%lo(D_800A4F17) for the shared base and for
* the closing sb, and %hi/%lo(D_800A46E8) for the two `e` computations,
* so the base is spelled &D_800A4F17 here and the array is derived from
* it (-0x82F, register-relative, no relocation). Verified with
* `objdump -dr`: la $3,D_800A4F17 / la $3,D_800A46E8 x2 / sb $12,D_800A4F17,
* no addends anywhere.
* 2. STATEMENT ORDER, NOT A PIN, for the prologue weave (target idx 5/6:
* "sw $s4" before "srl"). sched2 is a BACKWARD list scheduler; every
* insn in bb0 has priority 1, so the order is decided by
* potential_hazard (stores win) then by LUID. `sw $s4,0x30($sp)` only
* becomes ready once `maxp = 0` (the insn that clobbers $s4) is
* scheduled, so moving `maxp = 0;` ABOVE `y = t >> 16;` swaps their
* LUIDs, delays the store's readiness by one tick and puts the srl in
* the target's slot. (cookbook S1/S7; 4 diffs -> 2.)
* 3. NO $5 PIN ON b1 -- widen b3 instead. Pass 1 pinned b1 to $a1 to fix
* the b1/b3 register pair, but a pinned hard-reg dest fails
* birthing_insn_p's `reg_n_sets == 1` gate, so b1's lbu lost the sched1
* birthing boost while b2's kept it; b2's load then sank BELOW b1's and
* the two lbu's came out swapped (idx 16/17) -- unfixable by statement
* order (all 120 permutations tried, floor of 2). The real cause is a
* global-alloc density tie (K2): with `u8 b3` the sll/addu uses are
* subregs and b3's allocno loses to b1's, so b1 grabs $a0 first.
* Declaring b3 as u32 (like the sibling func_80032048 does) makes the
* uses full-SI, raises b3's allocno density above b1's, and b3 wins $a0
* / b1 gets $a1 with NO pin at all -- which also restores the natural
* lbu order. (Prompt lever B: the interloper was the narrow type.)
*
* The `t` pin on $4 is still required -- see its comment below.
*/
/* 0x14-byte record, indexed by p[3]. D_80068304 and D_800A4EE8->unk14 are both
* arrays of pointers to arrays of these. */
/* slot record inside D_800A46E8 (stride 0x54) */
extern Rec14 *D_80068304[];
extern Owner4EE8 *D_800A4EE8;
extern s16 D_800A4EF0;
extern u16 D_800A46E8[];
extern s8 D_800A4F17;
/* D_800A4F17 == (u8 *)D_800A46E8 + 0x82F. Both the lock byte and the slot
* array walked by the search loop must come off the SAME symbol_ref or cse
* emits a second lui/addiu pair (181 insns). The target's relocation is on
* D_800A4F17, so that is the base here. */
#define LOCKBYTE (*(u8 *)&D_800A4F17)
#define SLOTBASE ((u8 *)&D_800A4F17 - 0x82F)
extern s32 func_8003310C(s32);
extern void func_8003324C(s32);
extern void func_80032A74(Slot54 *, s32, Rec14 *, s32);
s32 func_800324A4(u32 arg0, u8 *p, u32 flags, s32 arg3) {
Rec14 *rec;
Slot54 *e;
u8 *q;
s32 i;
s32 idx;
s32 ret;
s32 count;
s32 minp;
s32 maxp;
s32 pr;
u32 x;
/* t: keeps the raw incoming arg0 in $a0 so the "srl $t4, $a0, 16" that
* feeds the y spill reads $a0 and not $fp. Without it cse collapses
* x into the parameter pseudo, the shift reads the callee-saved home and
* the $s7/$fp pair flips (v <-> arg0) -- 9 diffs. Emits no instruction. */
register u32 t __asm__("$4");
u16 y;
s32 v;
u8 old;
u8 b0;
u8 b1;
u8 b2;
/* b3 is u32, NOT u8: the width is what wins it $a0 ahead of b1. See the
* header note (lever 3) -- with u8 it loses the allocno density race and
* the b1/b3 pair comes out swapped. */
u32 b3;
t = arg0;
x = arg0;
b2 = p[2];
b1 = p[1];
b3 = p[3];
/* maxp = 0 must precede the shift: it gates when "sw $s4" becomes ready
* in sched2 (lever 2). */
maxp = 0;
y = t >> 16;
if (b1 == 0) {
rec = &D_80068304[b2][b3];
} else {
if (D_800A4EF0 != b1) {
return 0;
}
if (D_800A4EE8 == 0) {
return 0;
}
rec = D_800A4EE8->unk14[b2];
rec += b3;
}
ret = 0;
idx = 0;
count = 0;
old = LOCKBYTE;
LOCKBYTE = 1;
v = rec->unk00;
q = SLOTBASE;
minp = 0x80;
for (i = 0; i < 8; i++, q += 0x54) {
if ((*(u16 *)q & 0x3F) == 1 && *(u16 *)(q + 4) == (u16)x) {
pr = q[0xB] & 0x7F;
if (pr < minp) {
idx = i + 1;
minp = pr;
}
if (pr >= maxp) {
maxp = pr;
}
count++;
}
}
if (count <= arg3) {
idx = 0;
} else if ((s32)(flags & 0x7F) < minp) {
goto done;
}
if (idx == 0) {
if (flags & 0x4000) {
if ((flags & 0x3000) == 0) {
goto done;
}
}
idx = func_8003310C(v);
if (idx == 0) {
goto done;
}
ret = idx;
idx = ret - 1;
e = (Slot54 *)((u8 *)D_800A46E8 + idx * 0x54);
} else {
idx--;
e = (Slot54 *)((u8 *)D_800A46E8 + idx * 0x54);
if (e->unk08 != 0) {
goto done;
}
ret = idx + 1;
func_8003324C((u16)idx);
}
if (flags & 0x1000) {
((u8 *)e)[0xB] = flags & 0x7F;
if ((s32)(flags & 0x7F) < maxp) {
flags |= 0x8000;
}
}
b0 = p[0];
e->unk04 = x;
e->unk06 = y;
e->unk02 = v;
e->unk00 = (b0 & 0xC0) | 1;
e->unk08 = rec->unk0C;
e->unk0A = 5;
func_80032A74(e, idx, rec, (u16)flags);
done:
LOCKBYTE = old;
return ret;
}
/* 0x14-byte record, indexed by p[3]. D_80068304 and D_800A4EE8->unk14 are both
* arrays of pointers to arrays of these. Identical to the TU's already-banked
* Rec14 (src/800.c, func_80032048's block) — kept verbatim, not renamed. */
/* Canonical TU spelling of the slot record inside D_800A46E8 (stride 0x54),
* as already banked by func_80032048 in src/800.c. This function's own view
* of the same bytes needs different field widths/signs (see Slot54View
* below), so THIS typedef only exists to keep func_80032A74's prototype
* byte-identical to the TU's — the callee is called through a cast, never
* accessed directly as `Slot54` in this file. */
/* This function's own overlay of the same 0x54-byte slot record: it needs
* unsigned 16-bit loads (lhu, not lh) on unk00/unk04/unk06 to byte-match, and
* an extra unk0B field the TU's Slot54 doesn't expose. Different tag name so
* it does NOT collide with the TU's `Slot54` typedef above; pointers are
* cast to `Slot54 *` only at the func_80032A74 call site. */
typedef struct Slot54View {
/* 0x00 */ u16 unk00;
/* 0x02 */ s16 unk02;
/* 0x04 */ u16 unk04;
/* 0x06 */ u16 unk06;
/* 0x08 */ u16 unk08;
/* 0x0A */ s8 unk0A;
/* 0x0B */ u8 unk0B;
/* 0x0C */ u8 pad0C[0x48];
} Slot54View; /* 0x54 */
extern Rec14 *D_80068304[];
extern Owner4EE8 *D_800A4EE8;
extern s16 D_800A4EF0;
extern u16 D_800A46E8[];
#define SLOTS ((Slot54View *)D_800A46E8)
/* &D_800A4F17 expressed as an offset inside the D_800A46E8 object: the target
* derives both loop pointers from this one materialised address
* (addiu $a2,$v1,-0x82F / addiu $a1,$v1,-0x824). */
#define PFLAG ((s8 *)((u8 *)D_800A46E8 + 0x82F))
extern s32 func_8003310C(s32);
extern void func_800335B8(s32, s32);
extern void func_8003324C(s32);
extern void func_80032A74(Slot54 *, s32, Rec14 *, s32);
s32 func_80032774(u32 arg0, u8 *p, u32 flags)
{
Rec14 *rec;
Slot54View *e;
Slot54View *q;
s32 ret;
s32 best;
s32 cnt;
s32 i;
s32 mn;
s32 mx;
s32 t;
s32 yy;
s32 f4000;
u32 x;
u16 y;
u16 v;
u8 old;
u8 b0;
u8 b1;
u8 b2;
s32 b3;
b2 = p[2];
b1 = p[1];
b3 = p[3];
mx = 0;
y = arg0 >> 16;
x = arg0;
if (b1 == 0) {
rec = &D_80068304[b2][b3];
} else {
if (D_800A4EF0 != b1) {
return 0;
}
if (D_800A4EE8 == 0) {
return 0;
}
rec = D_800A4EE8->unk14[b2];
rec += b3;
}
yy = y;
ret = 0;
best = 0;
cnt = 0;
old = *PFLAG;
*PFLAG = 1;
q = SLOTS;
mn = 0x80;
v = rec->unk00;
for (i = 0, f4000 = flags & 0x4000; i < 8; i++, q++) {
if ((q->unk00 & 0x3F) == 1 && q->unk04 == (u16)x) {
if (yy == 0 || q->unk06 == yy) {
if (f4000) {
func_800335B8(i, (u16)flags);
}
goto done;
}
t = q->unk0B & 0x7F;
if (t < mn) {
best = i + 1;
mn = t;
}
if (mx <= t) {
mx = t;
}
cnt++;
}
}
if (cnt < 2) {
best = 0;
} else if ((s32)(flags & 0x7F) < mn) {
goto done;
}
if (best == 0) {
if (flags & 0x4000) {
if ((flags & 0x3000) == 0) {
goto done;
}
}
best = func_8003310C(v);
if (best == 0) {
goto done;
}
ret = best;
best = ret - 1;
e = &SLOTS[best];
} else {
ret = best;
best = ret - 1;
e = &SLOTS[best];
if (e->unk08 != 0) {
goto done;
}
func_8003324C((u16)best);
}
if (flags & 0x1000) {
e->unk0B = flags & 0x7F;
if ((s32)(flags & 0x7F) < mx) {
flags |= 0x8000;
}
}
b0 = p[0];
e->unk04 = x;
e->unk06 = y;
e->unk02 = v;
e->unk00 = (b0 & 0xC0) | 1;
e->unk08 = rec->unk0C;
e->unk0A = 5;
func_80032A74((Slot54 *)e, best, rec, (u16)flags);
done:
*PFLAG = old;
return ret;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80032A74);
INCLUDE_ASM("asm/nonmatchings/800", func_8003310C);
INCLUDE_ASM("asm/nonmatchings/800", func_800331D4);
/* func_8003324C — MATCH (54 ins).
*
* D_800A46E8 is an array of 0x54-byte slot records; records [8..15] (base
* +0x2A0 == 8 * 0x54) are Ent30D80 entities. Switch on (rec->flags & 0x3F):
* case 1 walks the 8 per-slot "dirty" bytes at e[i + 0xE], clearing each set
* one, blanking the matching entity's unk40 callback, and calling
* func_80030D80 on it when unk4E is set; then zeroes the flags halfword.
* case 5 tail-calls func_80034650(e, 0).
*
* Second pass over the 2-instruction NEAR draft (target: `sw $zero,0x40($s0)`
* in the beqz delay slot, then `addu $a0,$s0,$zero`; the first draft emitted
* the pair in the opposite order with $a0 as the store base). It was NOT a
* scheduler tie-break — four independent source-level levers, each verified
* load-bearing by ablation:
*
* 1. `p->unk40 = 0;` sits BEFORE the `if (p->unk4E)`, not inside it. reorg
* may only steal a store into a delay slot BACKWARD (from before the
* branch) — a forward/fall-through steal of a store is unsafe. So the
* target's `sw` in the beqz slot proves the store precedes the test in
* source order. (Cookbook §175 lever A: statement order.)
* 2. `register Ent30D80 *p __asm__("$16")`. Hoisting the store out of the
* inner `if` gives p three in-loop uses, and loop.c then splits it into
* two induction variables (+0x2A0 for the call argument, +0x2EE for the
* 0x40/0x4E address giv) — 58 ins. loop.c's biv/giv detection only
* considers PSEUDO registers, so pinning p to a hard reg disables strength
* reduction for it outright and leaves the single `addiu $s0,$s0,0x54`.
* This also drops the first draft's copy-fence: every access now goes
* through $s0 and the `addu $a0,$s0,$zero` is emitted last, as the target
* has it. Ablating the pin: 58 ins.
* 3. `__asm__ ("" :: "r"(base));` after p's initialisation. With p pinned,
* `addiu p, base, 0x2A0` is base's last use, so the allocator ties base to
* $s0 and performs the add in place ("lui $s0 / addiu $s0,$s0,0x2A0"),
* wrecking the prologue. The zero-instruction asm extends base past the
* add and breaks the tie. Ablating it: 8 mismatches.
* 4. `off` computed into its own local BEFORE `base` is loaded. Otherwise the
* %hi/%lo pair is scheduled above the `andi $a0,$a0,0xFFFF`, base then
* conflicts with the incoming argument's live range and lands in $a1
* instead of $a0. Ablating it: 8 mismatches.
*
* Banking note for src/800.c: `typedef struct Ent30D80`, `extern u16
* D_800A46E8[];` and `void func_80030D80(Ent30D80 *, s16)` already exist
* ABOVE the INCLUDE_ASM line — do not duplicate them. Only
* `extern void func_80034650(u8 *, s32);` is new (func_80034650 is still
* INCLUDE_ASM further down the TU). The TU's existing
* `extern void func_8003324C(s32);` matches this definition's signature.
*/
extern u16 D_800A46E8[];
extern void func_80030D80(Ent30D80 *arg0, s16 arg1);
extern void func_80034650(u8 *, s32);
void func_8003324C(s32 arg0) {
u8 *base;
u8 *e;
s32 off;
s32 code;
off = (u16)arg0 * 0x54;
base = (u8 *)D_800A46E8;
e = base + off;
code = *(u16 *)e & 0x3F;
switch (code) {
case 1: {
register Ent30D80 *p __asm__("$16");
s32 i;
i = 0;
p = (Ent30D80 *)(base + 0x2A0);
__asm__ ("" :: "r"(base));
for (; i < 8; i++, p++) {
u8 *q = e + i;
if (q[0xE] != 0) {
q[0xE] = 0;
p->unk40 = 0;
if (p->unk4E != 0) {
func_80030D80(p, 0);
}
}
}
*(u16 *)e = 0;
break;
}
case 5:
func_80034650(e, 0);
break;
}
}
extern u16 D_800A46E8[];
void func_80033324(s32 a0, s32 a1) {
u8 *e = (u8 *)D_800A46E8 + a1 * 0x54;
u16 t;
if ((*(u16 *)e & 0x3F) == 1) {
*(u8 *)(e + a0 + 0xE) = 0;
t = *(u16 *)(e + 0xC) - 1;
*(u16 *)(e + 0xC) = t;
if (t != 0) {
return;
}
if (*(u8 *)(e + 0xA) != 5) {
*(u8 *)(e + 0xA) = 0;
*(u16 *)e = 0;
}
}
}
/* TU decls (src/800.c): `typedef struct Ent30D80 { ... } Ent30D80;` and
* `extern void func_80030D80(Ent30D80 *arg0, s16 arg1);` already exist
* above this function's INCLUDE_ASM line (see func_80030D80's own
* definition and func_8003324C's banking note) — reproduced here verbatim
* for standalone compilation. Do not duplicate in the TU when banking. */
extern u16 D_800A46E8[];
extern void func_80030D80(Ent30D80 *arg0, s16 arg1);
/* TU already declares func_80034650 as (u8 *, s32) above func_8003324C
* (src/800.c) — a `void *` redeclaration here would conflict with it. */
extern void func_80034650(u8 *a0, s32 a1);
void func_80033398(u32 arg0)
{
/* RC-12 / cookbook §136d-1: the $0-add OPAQUE COPY.
* The target's `addu $s7,$a0,$zero` must NOT be cse-linked to the
* parameter, so that `srl $s6,$a0,16` keeps reading the raw incoming
* $a0 (the parm pseudo dies at the srl and local-alloc gives it $a0,
* deleting the real parm copy). A plain `s7v = arg0;` makes
* cse.c make_regs_eqv head-promote s7v to canonical and canon_reg
* rewrites the srl to `srl $s6,$s7,16` (the 1-ins residual). */
register s32 zr __asm__("$0");
u32 s7v;
u8 *s5v;
s32 s4v;
u32 s6v;
u8 *fpv;
register u8 *s3v __asm__("$19");
u8 *s2v;
register s32 s1v __asm__("$17");
register u8 *s0v __asm__("$16");
s32 t0;
s7v = arg0 + zr;
s5v = (u8 *)D_800A46E8;
s4v = 0;
s6v = arg0 >> 16;
fpv = s5v + 0x2A0;
s3v = s5v + 6;
for (; s4v < 8; s3v += 0x54, s5v += 0x54) {
if ((*(u16 *)s5v & 0x3F) == 1 &&
*(u16 *)(s3v - 2) == (u16)s7v &&
(s6v == 0 || *(u16 *)s3v == s6v)) {
s2v = (u8 *)D_800A46E8 + (u32)(u16)s4v * 0x54;
t0 = *(u16 *)s2v & 0x3F;
switch (t0) {
case 1:
s1v = 0;
s0v = fpv;
for (; s1v < 8; s1v++, s0v += 0x54) {
u8 *p = s2v + s1v;
if (p[0xE] != 0) {
p[0xE] = 0;
*(u32 *)(s0v + 0x40) = 0;
if (s0v[0x4E] != 0) {
func_80030D80((Ent30D80 *)s0v, 0);
}
}
}
*(u16 *)s2v = 0;
break;
case 5:
func_80034650(s2v, 0);
break;
default:
s4v++;
continue;
}
}
s4v++;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_8003350C);
/* TU decls (src/800.c): `extern u16 D_800A46E8[];`, `extern void func_800335B8(s32, s32);` */
extern u16 D_800A46E8[];
void func_800335B8(s32 a0, s32 a1) {
u8 *e = (u8 *)D_800A46E8 + a0 * 0x54;
u8 *p;
s32 a2;
s32 v1;
s32 t0;
if ((*(u16 *)e & 0x3F) != 1) {
return;
}
/* copy-fence: keeps the `addu $t0,$a1,$zero` param copy alive (cse would
otherwise propagate $a1 into branch 2's `andi $a1,$t0,0x7F`). */
t0 = a1;
__asm__ ("" : "=r"(t0) : "0"(t0));
if (a1 & 0x1000) {
v1 = 0;
a2 = *(u16 *)(e + 0xC);
a1 = a1 & 0x7F;
t0 = 1;
p = (u8 *)D_800A46E8 + 0x2A0;
for (; v1 < 8; v1++, p += 0x54) {
u8 *rec;
if (a2 == 0) {
return;
}
if (*(u8 *)(e + v1 + 0xE) != 0) {
/* copy-fence: materialises the target's in-loop
`addu $v0,$a0,$zero` (reorg then steals it for the
beqz delay slot). Walking pointer, NOT p + v1*0x54,
so loop strength reduction still owns $a0. */
rec = p;
__asm__ ("" : "=r"(rec) : "0"(rec));
a2--;
*(u16 *)(rec + 0x48) = a1;
*(u8 *)(rec + 0x4F) = t0;
}
}
} else if (a1 & 0x2000) {
a2 = *(u16 *)(e + 0xC);
v1 = 0;
a1 = t0 & 0x7F;
p = (u8 *)D_800A46E8 + 0x2A0;
for (; v1 < 8; v1++) {
u8 *rec;
if (a2 == 0) {
return;
}
if (*(u8 *)(e + v1 + 0xE) != 0) {
rec = p + v1 * 0x54;
if (*(u8 *)(rec + 0x35) != 0) {
*(u8 *)(rec + 0x53) = a1;
}
a2--;
}
}
}
}
/* func_800336A8 — MATCH (121 ins).
*
* Second-pass fix over the 49/-1 NEAR draft. The whole residual was ONE unfilled
* branch-delay slot: the target leaves `beqz $v0, .L80033818` (the D_800A4F19 test)
* with a `nop`, our build let reorg.c's EAGER FALLTHROUGH STEAL pull the then-arm's
* head insn `sll $v0,$v1,1` into it (dbr dump: insn 241 folded into a SEQUENCE with
* jump_insn 234).
*
* Lever: reorg.c `stop_search_p` (2.7.2:675) returns TRUE for an `ASM_INPUT` insn, so
* `fill_slots_from_thread`'s trial loop terminates on the FIRST insn of the thread and
* never reaches the `sll`. A zero-byte `__asm__ __volatile__("")` planted as the first
* statement of the then-arm therefore kills the steal and restores the `nop` — with no
* emitted instruction of its own (cookbook D3 lever (c), "make the join head ineligible",
* generalised: make it un-searchable).
*
* Also removed the first draft's `register u16 *p __asm__("$6")` pin — byte-verified
* unnecessary once the slot is fixed, so this body is PIN-FREE (§42e sibling-TU safe).
*
* Structural levers kept from pass 1 (each byte-load-bearing):
* - byte-arithmetic index `(Chan336A8 *)(D_800A4988 + i*0x54)` keeps the t1/t3/t4 layout;
* - `q = D_8007319E + 1; q[0x7F - n]` reproduces cse's related-value `addiu $t6,$t5,2`;
* - inverted clamp `if (n >= 0x42) ... else n = 1;` for the bnez/else-last layout;
* - one `v` funnelling all three store paths so cross-jumping merges the trailing `sh`;
* - `extern const u16 D_8007319E[]` (D_8007321E must stay non-const) lets the second
* table load hoist across `sh $v0,0xA($a3)` and interleave into the first mult.
*/
typedef struct {
/* 0x00 */ u8 pad00[0x0A];
/* 0x0A */ u16 unk0A;
/* 0x0C */ u8 pad0C[0x28];
/* 0x34 */ u8 unk34;
/* 0x35 */ u8 unk35;
/* 0x36 */ u8 pad36[0x1C];
/* 0x52 */ u8 unk52;
/* 0x53 */ u8 pad53[1];
} Chan336A8; /* size 0x54 */
typedef struct {
/* 0x00 */ s32 unk00;
/* 0x04 */ s32 unk04;
/* 0x08 */ s16 unk08;
/* 0x0A */ s16 unk0A;
/* 0x0C */ u8 pad0C[0x34];
/* 0x40 */ s32 unk40;
/* 0x44 */ u8 unk44;
/* 0x45 */ u8 pad45[3];
} Voice336A8; /* size 0x48 */
typedef struct {
/* 0x00 */ u8 pad00[0x16];
/* 0x16 */ u8 unk16;
/* 0x17 */ u8 pad17[1];
/* 0x18 */ u16 unk18;
/* 0x1A */ u8 pad1A[2];
/* 0x1C */ u16 unk1C[12];
/* 0x34 */ u8 pad34[4];
/* 0x38 */ u8 unk38;
/* 0x39 */ u8 pad39[1];
/* 0x3A */ u8 unk3A[8];
} Req336A8;
extern u8 D_800A4988[];
extern s32 D_80073140[];
extern u16 D_8006AA30[];
extern const u16 D_8007319E[];
extern u16 D_8007321E;
extern u8 D_800A4F19;
void func_800336A8(Req336A8 *arg)
{
Chan336A8 *ch;
Voice336A8 *vo;
u16 *p;
const u16 *q;
u32 m;
u32 n;
u32 v;
s32 i;
s32 j;
for (i = 0; i < 8; i++) {
if (arg->unk3A[i] == 0) {
continue;
}
ch = (Chan336A8 *)(D_800A4988 + i * 0x54);
vo = (Voice336A8 *)(D_800A4988 + 0x2A0 + i * 0x48);
vo->unk00 = D_80073140[ch->unk0A];
m = ch->unk34;
m = D_8006AA30[m];
m = m * *(s16 *)(D_800A4988 + 0x572);
m = m >> 7;
if (arg->unk16 != 0) {
m = m * arg->unk18;
m = m >> 15;
}
p = arg->unk1C;
for (j = 2; j >= 0; j--, p += 4) {
m = m * *p;
m = m >> 14;
}
n = ch->unk35;
if (n == 0) {
v = m;
vo->unk0A = v;
vo->unk08 = v;
} else {
if (arg->unk38 != 0) {
n += arg->unk38;
if (n >= 0x42) {
n -= 0x40;
if (n >= 0x80) {
n = 0x7F;
}
} else {
n = 1;
}
}
ch->unk52 = n;
if (D_800A4F19 != 0) {
/* zero-byte dbr fence: ASM_INPUT stops reorg's fallthrough trial scan
* (stop_search_p), so the beqz above keeps its `nop` delay slot. */
__asm__ __volatile__("");
v = (m * D_8007319E[n]) >> 14;
vo->unk0A = v;
q = D_8007319E + 1;
v = (m * q[0x7F - n]) >> 14;
vo->unk08 = v;
} else {
v = (m * D_8007321E) >> 14;
vo->unk0A = v;
vo->unk08 = v;
}
}
vo->unk40 = ch->unk0A;
if (vo->unk44 != 0) {
vo->unk04 |= 3;
} else {
vo->unk04 = 3;
vo->unk44 = 1;
}
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_8003388C);
extern u16 D_800A46E8[];
void func_800342E8(u8 *a0, s32 a1) {
u32 t = a1 * 84 + (u32)D_800A46E8;
*(u8 *)(t + (u32)a0 + 0x3A) = 0;
}
/* TU decls already present in src/800.c (do NOT duplicate at bank time):
* extern u16 D_800A46E8[];
* extern s16 D_800A4EF0;
* extern Owner4EE8 *D_800A4EE8; (typedef `Owner4EE8`, defined in src/800.c
* as { u8 pad00[0x14]; Rec14 **unk14; } — this function never touches
* unk14; it reads offset 0x18 via a raw (u8*) pointer-cast, so it needs
* Owner4EE8 only as an OPAQUE type. refuse-BROKE-MATCH note: the batch
* reconciler tried to canonicalize this offset-0x18 access into a named
* struct field (extending Owner4EE8's size), which shifted bytes in a
* sibling already-matched user of the struct — do NOT add a field for
* 0x18 to Owner4EE8; keep the byte-offset cast below instead.)
* extern s32 func_8003310C(s32);
*/
/* 0xC-byte sound-instrument record, indexed by p[3]. */
typedef struct Rec12 {
/* 0x00 */ s32 unk00;
/* 0x04 */ u16 unk04;
/* 0x06 */ u16 unk06;
/* 0x08 */ u8 unk08;
/* 0x09 */ u8 pad09[3];
} Rec12; /* 0xC */
typedef struct Snd54Sub {
/* 0x00 */ s16 unk00;
/* 0x02 */ s16 unk02;
/* 0x04 */ s16 unk04;
/* 0x06 */ u8 unk06;
/* 0x07 */ u8 pad07;
} Snd54Sub; /* 0x8 */
/* the 0x54-stride voice slot inside D_800A46E8 */
typedef struct Snd54 {
/* 0x00 */ s16 unk00;
/* 0x02 */ s16 unk02;
/* 0x04 */ s16 unk04;
/* 0x06 */ s16 unk06;
/* 0x08 */ u16 unk08;
/* 0x0A */ u8 pad0A[2];
/* 0x0C */ s32 unk0C;
/* 0x10 */ s32 unk10;
/* 0x14 */ s16 unk14;
/* 0x16 */ u8 unk16;
/* 0x17 */ u8 unk17;
/* 0x18 */ s16 unk18;
/* 0x1A */ s16 unk1A;
/* 0x1C */ Snd54Sub unk1C[3];
/* 0x34 */ s16 unk34;
/* 0x36 */ u8 unk36;
/* 0x37 */ u8 unk37;
/* 0x38 */ u8 unk38;
/* 0x39 */ u8 unk39;
/* 0x3A */ u8 unk3A[8];
/* 0x42 */ u8 pad42[6];
/* 0x48 */ u8 unk48;
/* 0x49 */ u8 pad49[7];
/* 0x50 */ s16 unk50;
/* 0x52 */ s16 unk52;
} Snd54; /* 0x54 */
/* opaque — matches the TU's `typedef struct Owner4EE8 Owner4EE8;` spelling
* exactly so this local decl is droppable at bank time in favor of the TU's;
* this function only pointer-casts through it (offset 0x18), never names a
* field, so the incomplete type is sufficient and adds no struct layout. */
extern Rec12 D_80068A54[];
extern u8 D_8006AED8[];
extern u16 D_800A46E8[];
extern Owner4EE8 *D_800A4EE8;
extern s16 D_800A4EF0;
extern s32 func_8003310C(s32);
extern s32 func_800348A8(u32);
extern void func_80034650(u8 *, s32);
s32 func_80034314(u32 arg0, u8 *p, u32 arg2) {
u32 flags;
Snd54 *e;
Rec12 *rec;
u8 *q;
s16 *pa;
register s32 idx __asm__("$3");
s32 ret;
s32 i;
s32 j;
s32 b1;
u32 x;
u32 y;
y = arg0 >> 16;
flags = arg2;
x = arg0;
b1 = p[1];
if (b1 == 0) {
rec = &D_80068A54[p[3]];
} else {
if (D_800A4EE8 == 0) {
return 0;
}
if (D_800A4EF0 != b1) {
return 0;
}
rec = *(Rec12 **)((u8 *)D_800A4EE8 + 0x18) + p[3];
}
idx = func_800348A8(arg0);
ret = idx;
if (idx != 0) {
idx = ret - 1;
e = (Snd54 *)((u8 *)D_800A46E8 + idx * 0x54);
if (flags & 0x1000) {
e->unk1C[0].unk06 = 1;
e->unk1C[0].unk02 = 0x100;
e->unk1C[0].unk04 = ((s32)(flags & 0x7F) * 0x3FFF) >> 7;
if (flags & 0x2000) {
e->unk38 = D_8006AED8[(flags >> 8) & 0xF];
} else {
e->unk38 = 0;
e->unk39 = 0;
}
return ret;
}
if (e->unk08 != 0) {
return 0;
}
func_80034650(e, 0);
} else {
idx = func_8003310C(rec->unk04);
ret = idx;
if (idx == 0) {
return 0;
}
idx = ret - 1;
e = (Snd54 *)((u8 *)D_800A46E8 + idx * 0x54);
}
/* dbr fence (zero-byte, non-volatile asm -> reorg stop_search_p): keeps the
* `j .L800344B4` delay slot a nop; without it reorg eagerly steals + duplicates
* the merge block's first store. */
__asm__ ("" : "=r"(e) : "0"(e));
e->unk37 = rec->unk08;
e->unk34 = b1;
e->unk0C = rec->unk00;
e->unk02 = rec->unk04;
e->unk10 = e->unk0C;
e->unk04 = x;
e->unk06 = y;
e->unk14 = 1;
e->unk17 = p[2];
e->unk16 = 0;
e->unk18 = 0x7FFF;
e->unk08 = rec->unk06;
e->unk50 = 0;
e->unk52 = 0;
if (rec->unk08 & 0x10) {
e->unk48 = 1;
} else {
e->unk48 = 0;
}
if (rec->unk08 & 4) {
e->unk1A = 0x400;
} else if (rec->unk08 & 8) {
e->unk1A = 0x200;
} else {
e->unk1A = 0x5F;
}
e->unk36 = 0;
/* sched fence: without it the two stores (memory-unit users) sink below the
* whole loop preheader (potential_hazard beats the LUID tie-break). */
__asm__ ("" : "=r"(e) : "0"(e));
pa = &e->unk1C[0].unk00;
for (i = 0; i < 3; i++, pa = (s16 *)((u8 *)pa + 8)) {
pa[1] = 0x100;
*((u8 *)pa + 6) = 0;
if (i != 0) {
pa[0] = 0x3FFF;
pa[2] = 0x3FFF;
} else if (flags & 0x1000) {
pa[0] = ((flags & 0x7F) * 0x3FFF) >> 7;
pa[2] = ((flags & 0x7F) * 0x3FFF) >> 7;
if (flags & 0x2000) {
u8 tv = D_8006AED8[(flags >> 8) & 0xF];
e->unk38 = tv;
e->unk39 = tv;
}
} else {
pa[0] = 0x3FFF;
pa[2] = 0x3FFF;
e->unk38 = 0;
e->unk39 = 0;
}
}
q = e->unk3A;
for (j = 7; j >= 0; j--) {
*q++ = 0;
}
e->unk00 = 5;
return ret;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80034650);
INCLUDE_ASM("asm/nonmatchings/800", func_800346D0);
INCLUDE_ASM("asm/nonmatchings/800", func_800347C8);
extern u16 D_800A46E8[];
void func_80034844(void)
{
register u8 *a0 __asm__("$4") = (u8 *)D_800A46E8;
register int a1 __asm__("$5") = 0;
register int t0 __asm__("$8") = 0x5;
register int a3 __asm__("$7") = 0x1;
register int a2 __asm__("$6") = 0x220;
register u8 *v1 __asm__("$3") = (u8 *)D_800A46E8 + 0x1A;
while (a1 < 8) {
if (*(u16 *)a0 == t0) {
u8 b = *(u8 *)(v1 + 0x1D);
if ((b & 0x2) == 0) {
*(u8 *)(v1 - 0x4) = a3;
*(u16 *)v1 = a2;
}
}
a1++;
v1 += 0x54;
a0 += 0x54;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_800348A8);
INCLUDE_ASM("asm/nonmatchings/800", func_8003491C);
extern s8 D_800A4F17;
void func_80034A54(s32 a0) {
s32 self = a0;
u8 v0 = *(u8 *)(self + 0x37);
if ((v0 & 0x1) != 0) {
s8 *p = &D_800A4F17;
s8 old = *p;
*p = 1;
*(u8 *)(self + 0x32) = 1;
*(s16 *)(self + 0x2E) = 0x3FF;
*(s16 *)(self + 0x30) = 0xFFF;
*p = old;
}
}
extern s8 D_800A4F17;
void func_80034A9C(void *a0) {
register void *a1 __asm__("$5") = a0;
u8 *v1;
u8 old;
if (*(u16 *)((u8 *)a1 + 0x30) == 0x3FFF) {
return;
}
v1 = (u8 *)&D_800A4F17;
old = *v1;
*v1 = 1;
*(s8 *)((u8 *)a1 + 0x32) = 1;
*(s16 *)((u8 *)a1 + 0x2E) = 0x3FF;
*(s16 *)((u8 *)a1 + 0x30) = 0x3FFF;
*v1 = old;
}
extern s8 D_800A4F17;
void func_80034AE0(void *a0)
{
s8 *v1;
s8 orig;
v1 = &D_800A4F17;
orig = *v1;
*v1 = 1;
*(s8 *)(a0 + 0x2A) = 1;
*(s16 *)(a0 + 0x26) = 0x3FF;
*(s16 *)(a0 + 0x28) = 0;
*v1 = orig;
}
extern s8 D_800A4F17;
void func_80034B0C(s32 a0) {
s8 *p = &D_800A4F17;
s8 old = *p;
*p = 1;
*(u8 *)(a0 + 0x2A) = 1;
*(s16 *)(a0 + 0x26) = 0x3FF;
*(s16 *)(a0 + 0x28) = 0x3FFF;
*p = old;
}
extern s32 D_8006AEF8;
extern s32 D_8006AEFC;
extern u8 D_8007620C;
s32 func_80034B3C(void)
{
u8 flags;
if (D_8006AEF8 != D_8006AEFC) {
flags = D_8007620C;
if (flags & 0x80) {
return 2;
}
if (flags & 0x20) {
return 4;
}
return 1;
}
D_8007620C = 0;
return 0;
}
extern s32 D_8006AEF8;
extern s32 D_8006AEFC;
extern u8 D_80076214;
extern u8 D_8007620C;
/* CD read-queue status: head==tail (D_8006AEF8/FC equal) => idle; flags D_80076214 (a
* pending/error byte) and D_8007620C (bit7/bit5) classify the busy/result state.
* Returns 0=idle done, 8=had pending, 2/4/1=busy variants. */
s32 CdQueueBusy(void) {
if (D_8006AEF8 != D_8006AEFC) {
if (D_80076214 == 0) {
if (D_8007620C & 0x80) {
return 2;
}
if (D_8007620C & 0x20) {
return 4;
}
return 1;
}
} else {
D_8007620C = 0;
if (D_80076214 == 0) {
return 0;
}
}
D_80076214 = 0;
return 8;
}
extern s32 D_8006AEF8;
extern s32 D_8006AEFC;
extern u8 D_8006AEF4;
extern u8 D_800A63E4;
extern void *streamLoad_savedReadyCB;
extern u8 streamLoad_cbActive;
extern int streamLoad_state;
extern int D_800A6544;
extern s32 D_8006AEE8;
extern s32 D_800A63E8;
extern s32 D_8007610C;
extern u8 D_8006AEF5;
extern u8 D_8007620C;
extern s32 D_80076114;
extern u8 D_80076214;
extern s32 D_80078F10;
extern void D_800C7D30();
extern int DecDCToutCallback(void (*func)());
extern s32 D_800A5BC8;
extern s32 D_800C6D28;
void func_80034C24(void) {
s32 *p = &D_80078F10;
s32 i;
D_8006AEF8 = 0;
D_8006AEFC = 0;
D_8006AEF4 = 0;
D_800A63E4 = 0;
streamLoad_savedReadyCB = 0;
streamLoad_cbActive = 0;
streamLoad_state = 0;
D_800A6544 = 0;
D_8006AEE8 = 0;
D_800A63E8 = 0;
D_8007610C = 0;
D_8006AEF5 = 0;
D_8007620C = 0;
D_80076114 = 0;
D_80076214 = 0;
for (i = 0; i < 5; i++) {
p[i] = 0;
}
D_800A5BC8 = DecDCToutCallback(D_800C7D30);
D_800C6D28 = 0;
}
extern u8 D_8006AEF5;
extern s32 D_8006AEF8;
extern s32 D_8006AEFC;
extern u8 D_80076118[];
s32 func_80034CF0(u8 *p) {
s32 idx = D_8006AEFC;
u8 saved = D_8006AEF5;
s32 limit = D_8006AEF8;
u8 *self;
s32 f28;
s32 oldIdx;
s32 ret;
D_8006AEF5 = 1;
idx = idx + 1;
if (idx >= 4) {
idx = 0;
}
if (idx == limit) {
D_8006AEF5 = saved;
return 0;
}
self = D_80076118 + D_8006AEFC * 0x30;
*(s32 *)(self + 0x8) = *(s32 *)(p + 0x8);
*(s32 *)(self + 0xC) = *(s32 *)(p + 0xC);
*(s32 *)(self + 0x10) = *(s32 *)(p + 0x10);
*(s32 *)(self + 0x14) = *(s32 *)(p + 0x14);
*(s32 *)(self + 0x18) = *(s32 *)(p + 0x18);
*(s32 *)(self + 0x1C) = *(s32 *)(p + 0x1C);
*(s32 *)(self + 0x20) = *(s32 *)(p + 0x20);
*(s32 *)(self + 0x24) = *(s32 *)(p + 0x24);
f28 = *(s32 *)(p + 0x28);
self[0] = 1;
self[1] = 0;
self[2] = 0;
self[3] = 0;
self[7] = 1;
oldIdx = D_8006AEFC;
D_8006AEFC = idx;
D_8006AEF5 = saved;
ret = oldIdx + 1;
*(s32 *)(self + 0x28) = f28;
*(s32 *)(self + 0x2C) = oldIdx;
return ret;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80034DFC);
extern u8 D_8006AEF5;
extern s32 D_8006AEF8;
extern s32 D_8006AEFC;
extern u8 D_80076118[];
extern u8 D_80076138[];
extern s32 D_80076114;
extern u8 D_8007620C;
void func_8003500C(void) {
if (D_8006AEF5 != 0) {
return;
}
if (D_8006AEFC != D_8006AEF8) {
s32 idx = D_8006AEF8;
u8 *self = D_80076118 + idx * 0x30;
if (self[0] != 0) {
register s32 (*fn8)(void *) __asm__("$3") = *(s32 (**)(void *))(self + 8);
register s32 type __asm__("$2") = self[4];
D_80076114 = type;
if (fn8(self) == 0) {
return;
}
{
register s32 (*fn1C)(s32) __asm__("$6") = *(s32 (**)(s32))(self + 0x1C);
register s32 type2 __asm__("$5") = self[4];
D_80076114 = type2;
if (fn1C != NULL) {
fn1C(*(s32 *)(D_80076138 + D_8006AEF8 * 0x30));
}
}
self[0] = 0;
self[1] = 0;
D_8006AEF8 += 1;
if ((u32)D_8006AEF8 >= 4) {
D_8006AEF8 = 0;
}
if (D_8006AEF8 == D_8006AEFC) {
D_80076114 = 0;
}
return;
} else {
if (self[1] != 0 && self[7] == 0) {
s32 (*fn24)(void *) = *(s32 (**)(void *))(self + 0x24);
if (fn24 != NULL) {
fn24(self);
}
if (self[2] != 0) {
return;
}
}
self[1] = 0;
D_8006AEF8 += 1;
if ((u32)D_8006AEF8 >= 4) {
D_8006AEF8 = 0;
}
if (D_8006AEF8 == D_8006AEFC) {
D_80076114 = 0;
} else {
D_80076114 = 1;
}
return;
}
} else {
D_8007620C = 0;
}
}
extern s32 D_80076218;
s32 func_800351E8(s32 arg0)
{
D_80076218 = arg0;
return arg0 & -((u32)(arg0 - 0x1010) <= 0x7EFF0);
}
extern s32 D_80076218;
extern void func_8003C498(s32);
extern void SpuWrite(s32, s32);
void func_80035210(s32 a0, s32 a1)
{
register s32 v1 __asm__("$3");
v1 = D_80076218;
func_8003C498(v1);
SpuWrite(a0, a1);
v1 = D_80076218;
D_80076218 = v1 + a1;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80035270);
INCLUDE_ASM("asm/nonmatchings/800", func_800359B0);
INCLUDE_ASM("asm/nonmatchings/800", func_80035C4C);
INCLUDE_ASM("asm/nonmatchings/800", func_8003602C);
extern u8 D_800A63E4;
extern s32 D_8007610C;
extern s32 D_800A63E8;
void func_80036130(s32 a0, u8 *a1) {
u8 v1;
s32 temp;
s32 v3;
s32 v0;
s32 byte_val;
s32 low;
v1 = D_800A63E4;
if (v1 != 0xC) {
return;
}
v1 = a0 & 0xFF;
if (v1 != 0x1) {
return;
}
temp = D_8007610C;
if (temp < 0xA) {
D_8007610C = temp + 1;
return;
}
if ((a1[4] & 0x80) != 0) {
return;
}
byte_val = a1[1];
v1 = byte_val >> 4;
v0 = v1 << 2;
v0 = v0 + v1;
v0 = v0 << 1;
low = byte_val & 0xF;
v3 = D_800A63E8;
v0 = v0 + low;
if (v0 != v3) {
D_800A63E4 = 0xD;
}
}
extern void *streamLoad_savedReadyCB;
extern u8 streamLoad_cbActive;
extern void *CdReadyCallback(void *func);
void func_800361CC(void) {
if (streamLoad_cbActive == 0) {
streamLoad_savedReadyCB = ((void *(*)(void))CdReadyCallback)();
} else {
((void *(*)(void))CdReadyCallback)();
}
streamLoad_cbActive = 1;
}
extern void *CdReadyCallback(void *func);
extern void *streamLoad_savedReadyCB;
extern u8 streamLoad_cbActive;
void func_8003621C(void) {
if (streamLoad_cbActive != 0) {
CdReadyCallback(streamLoad_savedReadyCB);
streamLoad_savedReadyCB = 0;
streamLoad_cbActive = 0;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_80036260);
#ifdef NON_MATCHING
extern int CdControl(u8 com, u8 *param, u8 *result);
extern int CdSync(int mode, u8 *result);
extern u32 CdMode(void);
extern void CdFlush(void);
extern void *CdReadyCallback(void *func);
extern void func_800377D8(void); /* this loader's CdlReadN ready-callback */
extern void func_80036260(void); /* sub-handler passed to func_80037CD8 */
extern void func_8002EC10(void);
extern void func_80037334(void);
extern void func_80037358(int posInt);
extern void func_80037144(int idx);
extern int func_80037CD8(void *arg);
extern int func_8003750C(void);
extern int func_800374CC(int *out);
extern int func_8003775C(void);
extern void func_80037D74(void);
extern void *func_80037368(int *out);
extern int streamLoad_state; /* 0x8006AF00 */
extern void *streamLoad_savedReadyCB;
extern u8 streamLoad_cbActive;
extern int D_800A4F28; /* tick / timeout counter */
extern int D_800A4F2C; /* CdMode-derived retry budget */
extern int D_800A4F30; /* remaining sub-stream repeat count (from param_3) */
extern int D_800A4F34; /* last sector position (stall detection) */
extern int D_800A4F38; /* end/abort flag */
extern int D_800A6544;
extern u16 D_800A4E8E; /* 16-bit status flags */
extern u8 D_8006AEF4; /* 8-bit status flags */
extern u8 D_80068B60[]; /* per-resource descriptor table (0x10 stride) */
/* Second CD loader, DISTINCT from CdReadStateMachine: an 18-state machine (streamLoad_state) with
* its OWN ready-callback (func_800377D8). Runs SetMode(0xA0)/SeekL/ReadN with retry + CdMode
* handling, looping param_3 (D_800A4F30) times over sub-streams. Returns 0 = busy, 1 = done,
* 2 = error/abort. Driven by ResourceLoadStateMachine. Provenance: static trace, Phase 3 T4 (fn id
* verified; full semantics partial).
* NON_MATCHING: faithful translation of the Ghidra decompile — logically faithful, not byte-verified. */
int StreamLoadStateMachine(int param_1, void *param_2, int param_3) { /* param_2 is a CdlLOC* */
short sVar1;
int iVar4;
u32 uVar2;
char *pcVar3;
u8 local_28[8];
u8 local_20[8];
int local_18;
int local_14;
sVar1 = *(short *)(D_80068B60 + (param_1 - 0x100) * 0x10);
D_800A4F28++;
switch (streamLoad_state) {
case 0:
D_800A4F38 = 0;
D_800A6544 = 0;
D_800A4F30 = param_3;
func_8002EC10();
streamLoad_state++;
D_800A4E8E &= 0xFFDF;
return 0;
case 1:
func_80037334();
iVar4 = CdPosToInt((CdlLOC *)param_2);
func_80037358(iVar4);
func_80037144(sVar1);
streamLoad_state++;
/* fall through */
case 2:
local_14 = CdSync(1, local_20);
if (local_14 != 5 && local_14 != 2) return 0;
uVar2 = CdMode();
D_800A4F2C = ((uVar2 & 0x80) == 0) ? 3 : 0;
streamLoad_state++;
/* fall through */
case 3:
local_28[0] = 0xA0;
iVar4 = CdControl(0x0E, local_28, local_20); /* CdlSetmode */
if (iVar4 == 0) {
if ((local_20[0] & 0x10) != 0) { func_80037334(); streamLoad_state = 0; return 2; }
return 0;
}
D_800A4F28 = 0;
streamLoad_state++;
/* fall through */
case 4:
iVar4 = CdSync(1, local_20);
if (iVar4 != 5) {
if (iVar4 == 2) {
streamLoad_state++;
local_14 = 2;
modeWait:
if (D_800A4F2C != 0) { D_800A4F2C--; return 0; }
streamLoad_state++;
goto issueSeek;
}
if (D_800A4F28 < 0x3D) return 0;
}
streamLoad_state = 3;
return 0;
case 5:
goto modeWait;
case 6:
issueSeek:
iVar4 = func_80037CD8((void *)func_80036260);
if (iVar4 == 0) return 0;
streamLoad_state = 7;
/* fall through */
case 7:
iVar4 = func_8003750C();
if (iVar4 == 0) return 0;
streamLoad_state++;
/* fall through */
case 8:
local_14 = CdSync(1, local_20);
if (local_14 != 5 && local_14 != 2) return 0;
streamLoad_state++;
/* fall through */
case 9:
D_800A4F28 = 0;
iVar4 = CdControl(0x15, (u8 *)param_2, local_20); /* CdlSeekL */
if (iVar4 == 0) return 0;
streamLoad_state++;
/* fall through */
case 10:
local_14 = CdSync(1, local_20);
if (local_14 == 5) {
iVar4 = CdControl(0x01, (u8 *)0, local_20); /* CdlNop */
if (iVar4 == 0) { streamLoad_state = 9; return 0; }
if ((local_20[0] & 0x10) != 0) {
func_80037334();
D_8006AEF4 &= 0xFD;
streamLoad_state = 0;
return 2;
}
streamLoad_state = 9;
return 0;
}
if (local_14 != 2) {
if (D_800A4F28 < 0x12D) return 0;
CdFlush();
streamLoad_state = 9;
return 2;
}
streamLoad_state++;
local_14 = 2;
/* fall through */
case 0xB:
D_800A4F28 = 0;
iVar4 = CdControl(0x06, (u8 *)param_2, local_20); /* CdlReadN */
if (iVar4 != 0) {
if (streamLoad_cbActive == 0)
streamLoad_savedReadyCB = CdReadyCallback((void *)func_800377D8);
else
CdReadyCallback((void *)func_800377D8);
streamLoad_state++;
streamLoad_cbActive = 1;
return 0;
}
if ((local_20[0] & 0x10) == 0) return 0;
D_8006AEF4 &= 0xFD;
func_80037334();
streamLoad_state = 0;
return 2;
case 0xC:
iVar4 = func_800374CC(&local_18);
if (iVar4 == 0) {
if (local_18 != D_800A4F34) { D_800A4F34 = local_18; D_800A4F28 = 0; }
if (D_800A4F28 > 300) {
if (streamLoad_cbActive != 0) {
CdReadyCallback(streamLoad_savedReadyCB);
streamLoad_savedReadyCB = 0;
streamLoad_cbActive = 0;
}
streamLoad_state++;
}
return 0;
}
if (streamLoad_cbActive != 0) {
CdReadyCallback(streamLoad_savedReadyCB);
streamLoad_savedReadyCB = 0;
streamLoad_cbActive = 0;
}
streamLoad_state++;
/* fall through */
case 0xD:
iVar4 = func_8003775C();
if (iVar4 == 0) return 0;
func_80037D74();
streamLoad_state++;
return 0;
case 0xE:
pcVar3 = (char *)func_80037368(&local_14);
if (local_14 != 1) { streamLoad_state = 0x11; return 0; }
if (*pcVar3 != 1) {
if (*pcVar3 == 2) { streamLoad_state = 0x11; D_800A4F38 = 1; return 0; }
if (D_800A4F30 != 0) {
if (D_800A4F30 - 1 == 0) { streamLoad_state = 0x11; D_800A4F30 = 0; return 0; }
streamLoad_state = 1;
D_800A4F30--;
return 0;
}
streamLoad_state = 1;
return 0;
}
streamLoad_state++;
break; /* -> CdlPause (post-switch) */
case 0xF:
break; /* -> CdlPause (post-switch) */
case 0x10:
iVar4 = CdSync(1, local_20);
if (iVar4 != 5 && iVar4 != 2) return 0;
if (D_800A4F38 == 0) { streamLoad_state = 0; return 1; }
streamLoad_state = 0;
D_800A4F38 = 0;
return 2;
case 0x11:
iVar4 = CdControl(0x09, (u8 *)0, local_20); /* CdlPause */
if (iVar4 != 0) { streamLoad_state = 0x10; return 0; }
return 0;
default:
return 0;
}
/* shared tail for states 0xE (advance) and 0xF: pause, then wait for it */
iVar4 = CdControl(0x09, (u8 *)0, local_20); /* CdlPause */
if (iVar4 != 0) { streamLoad_state++; return 0; }
if ((local_20[0] & 0x10) != 0) { streamLoad_state = 0; return 1; }
return 0;
}
#else
INCLUDE_ASM("asm/nonmatchings/800", StreamLoadStateMachine);
#endif
INCLUDE_ASM("asm/nonmatchings/800", func_80036AF8);
extern s32 D_8006AEE8;
extern s32 D_80078F10;
extern u8 D_800A4F1A;
void func_80036D24(void) {
s32 v0 = D_8006AEE8;
D_80078F10 = 0;
if (v0 < 2) {
D_8006AEE8 = 0;
D_800A4F1A = 0;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_80036D58);
extern u8 D_800A4F1A;
extern s32 D_800C6D28;
extern void func_80036F18(void);
void func_80036EB4(void) {
if (!D_800A4F1A) {
func_80036F18();
D_800C6D28 = 0;
}
}
extern u8 D_800A4F1A;
extern s32 D_800C6D28;
extern void func_80036F18(void);
void func_80036EE8(void) {
func_80036F18();
D_800C6D28 = 0;
D_800A4F1A = 0;
}
extern s32 D_800C6D28;
extern s32 D_80078F10;
extern s32 D_800A63E8;
extern s32 D_8006AEE8;
extern void func_80034DFC(short);
void func_80036F18(void) {
s32 i;
if (D_8006AEE8 != 0) {
D_800C6D28 = D_800A63E8;
for (i = 0; i < D_8006AEE8; i++) {
func_80034DFC(*(short *)(&D_80078F10 + i));
(&D_80078F10)[i] = 0;
}
D_8006AEE8 = 0;
}
}
extern s32 D_80078F10;
extern s32 D_8006AEE8;
void func_80036F98(void) {
D_80078F10 = 0;
D_8006AEE8 = 0;
}
void func_80036FB0(s32 arg0, s32 arg1) {
extern s32 D_8006AEE8;
extern s32 D_80078F10;
f64 hole;
s32 count;
s32 i;
s32 *p;
__asm__ volatile("" ::
"m"(hole));
if (D_8006AEE8 > 0) {
i = 0;
count = D_8006AEE8;
p = &D_80078F10;
do {
if (*p == arg0) {
*p = arg1;
}
p++;
i++;
} while (i < count);
}
}
CLEAR_TBL40(func_80037004) /* dedup I0: shared body (src/shared/clearTbl40.h) */
/* func_80037028 -- resource-slot allocator (5 slots x 0x10 bytes at 0x80076244).
*
* MATCHING NOTES (P31 second pass, cookbook §31 / sched.md S1+S5):
*
* 1) The slot table MUST be modelled as struct arrays with symbol+scaled-index
* addressing (`sw $5,D_80076240+4($4)`), not as six independent `u8 X[]`
* externs indexed by a byte offset. With separate symbols gcc hoists the
* D_80064D49 load chain to the top of the block and sinks the mark-used
* store (37 mismatches); with the struct form the block is exact.
*
* 2) TWO overlapping bases are used on purpose (D_80076240 for the words,
* D_80076244 for the bytes) so that EVERY field access has a NON-ZERO
* constant offset from its base symbol. sched.c:memrefs_conflict_p reaches
* find_symbolic_term() -- and therefore proves "distinct symbols, no alias"
* -- only for the plain `(plus reg symbol_ref)` form. A zero-offset store
* thus loses its dependence on the later D_80064D49 / D_800A463C loads,
* becomes ready immediately and floats to the bottom of the block. With a
* single base at D_80076244 the `unk00 = val` store did exactly that
* (19 mismatches). Every offset here is non-zero, so all four leading
* stores stay pinned behind the loads and are emitted in source order.
* Final addresses are unchanged: D_80076240+4 == D_80076244, +8 == 248,
* +12 == 24C; D_80076244+12 == D_80076250, +13 == 251, +14 == 252.
*
* 3) `D_8007622C[0]` (not a plain scalar) is required by the /s asymmetry in
* sched.c:true_dependence -- a non-MEM_IN_STRUCT_P, non-varying store is
* assumed not to alias a MEM_IN_STRUCT_P varying load, so the D_800A463C
* reload hoisted above it. Making the store an ARRAY_REF sets /s, kills
* the exclusion clause, and pins the reload after it.
*
* 4) D_80076248 is deliberately never named: src/800.c already declares it as
* `extern Rsc16 D_80076248[]`, and a second `extern u8 D_80076248[]` here
* would be a conflicting-types error at bank time.
*/
extern Slot16A D_80076240[];
extern Slot16 D_80076244[];
extern Elm12 D_80064D49[];
extern Ent24 D_800A463C[];
extern u8 D_80076251;
extern s32 D_8007622C[];
extern W32 D_80076228;
extern W8 D_80076243;
extern W8 D_80076242;
extern W32 D_80076294;
extern W32 D_80076238;
extern s32 D_8007629C;
void func_80037028(s32 base, s32 val) {
s32 slot;
s32 i;
s32 b;
for (slot = 0, i = 0; slot < 5; slot++, i += 0x10) {
if ((&D_80076251)[i] == 0) {
break;
}
}
if (slot < 5) {
D_80076244[slot].unk0D = 1;
D_80076240[slot].unk04 = val;
D_80076244[slot].unk0C = 0;
D_80076240[slot].unk08 = base;
b = D_80064D49[base].unk00;
D_80076244[slot].unk0E = b;
D_80076240[slot].unk0C = D_800A463C[b].unk00;
if (slot == 0) {
s32 r;
D_8007622C[0] = val;
r = D_800A463C[b].unk00;
D_80076228.v = val;
D_80076240[0].unk00 = 0;
D_80076243.v = 2;
D_80076242.v = 0;
D_80076294.v = 0;
D_80076238.v = r;
}
}
D_8007629C = 0;
}
/* The 5-entry, 0x10-stride CD-resource slot table. src/800.c already declares the SAME
* memory as `Rsc16 D_80076248[]` (base = 0x80076248, .unk09 = D_80076251, .unk0A = D_80076252);
* this function also touches the word 4 bytes BELOW that base, so the array is spelled from
* D_80076244 here (offsets shift by -4; the emitted %lo values are identical, and every one of
* D_80076244/48/4C/50/51/52 is a relocation symbol in this function's own .s).
* .unk00 = D_80076244 .unk04 = D_80076248 .unk08 = D_8007624C
* .unk0C = D_80076250 .unk0D = D_80076251 .unk0E = D_80076252
* 0x80076244 + 5*0x10 == 0x80076294, which is the next scalar this function clears. */
/* 2-byte stride u16 table. Declared as an array-of-STRUCT (cookbook §18) so gcc folds
* %lo(D_80065438) into each indexed load instead of materialising the base into a register
* (a plain `extern u16 D_80065438[]` CSEs the two accesses into one lui/addiu/addu base). */
/* THE TAIL SCHEDULE LEVER (gcc-2.7.2 sched.c:817 true_dependence / :845 anti_dependence).
* The `if (i == 0)` block interleaves the varying-address load `D_800A463C[k].unk00`
* (MEM_IN_STRUCT_P=1, rtx_addr_varies_p=1) with fixed-address stores to these scalars.
* true_dependence's last guard reads
* ! (MEM_IN_STRUCT_P (x) && rtx_addr_varies_p (x) && GET_MODE (x) != QImode
* && ! MEM_IN_STRUCT_P (mem) && ! rtx_addr_varies_p (mem))
* so a /s VARYING load and a plain NON-/s FIXED store are declared non-aliasing — every
* store/load edge disappears, the load floats to the top of the block and the whole tail
* comes out permuted. Declaring these scalars as single-field structs sets MEM_IN_STRUCT_P
* on their MEMs too, which fails `! MEM_IN_STRUCT_P (mem)` and restores the real
* store->load / load->store edges. The symbol names are untouched (offset 0 of a 1-field
* struct), so every relocation is still exactly D_8007622C / D_80076228 / ... as in the .s. */
typedef struct { s16 v; } W16;
extern Slot16 D_80076244[];
extern W32 D_80076228;
extern s32 D_8007622C[];
extern W32 D_80076238;
extern Slot16A D_80076240[];
extern W8 D_80076242;
extern W8 D_80076243;
extern W32 D_80076294;
extern s32 D_8007629C; /* src/800.c already declares this one as `extern s32` */
extern u8 D_800BA320[];
extern H2 D_80065438[];
extern s32 D_800652F0[];
extern Ent24 D_800A463C[];
extern s32 D_800A469C;
extern s16 D_800A46A0;
extern s16 D_800A46A2;
extern u8 D_800A46B0;
extern void func_800415A8(s32);
void func_80037144(s32 idx) {
s32 i;
s32 k;
s32 t;
s32 v;
s32 one;
s32 ent;
for (i = 0; i < 5; i++) {
if (D_80076244[i].unk0D == 0) {
break;
}
}
if (i < 5) {
one = 1;
D_80076244[i].unk00 = (s32)D_800BA320;
/* scheduling barrier: the slot stores and the D_80065438 load DO disambiguate here
* (both /s and both varying -> memrefs_conflict_p:614 falls through to
* find_symbolic_term and the two symbols differ), so without this gcc hoists the
* D_80065438 load above all the slot stores and permutes the head block.
* Emits zero instructions. */
__asm__ __volatile__("" ::: "memory");
D_80076244[i].unk0C = 0;
D_80076244[i].unk0D = one;
D_80076244[i].unk04 = idx | 0x2000;
D_80076244[i].unk0E = 4;
v = D_800652F0[D_80065438[idx].f0];
D_800A469C = v;
D_80076244[i].unk08 = v;
k = 4;
if (D_800A46B0 == 0) {
if (D_800A46A0 == (D_80065438[idx].f0 | 0x4000)) {
D_80076244[i].unk04 |= 0x1000;
goto after;
}
t = D_800A46A2;
D_800A46B0 = one;
} else {
t = D_800A46A2;
}
if (t >= 0) {
func_800415A8(t);
D_800A46A2 = -1;
}
after:
if (i == 0) {
D_8007622C[0] = (s32)D_800BA320;
ent = D_800A463C[k].unk00;
D_80076228.v = (s32)D_800BA320;
D_80076240[0].unk00 = 0;
D_80076243.v = 1;
D_80076242.v = 0;
D_80076294.v = 0;
D_80076238.v = ent;
}
}
D_8007629C = 0;
}
CLEAR_TBL40(func_80037334) /* dedup I0: shared body (src/shared/clearTbl40.h) */
extern s32 D_8007623C;
void func_80037358(int posInt) {
D_8007623C = posInt;
}
extern u8 D_80076251; /* Law 2: exact form from src/shared/clearTbl40.h */
extern u8 D_80076220[];
extern u8 D_80076250[];
void *func_80037368(int *out) {
int count = 0;
u8 *ptr = D_80076220;
int i;
for (i = 0; i < 0x50; i += 0x10) {
*ptr = 0;
ptr++;
if ((&D_80076251)[i] != 0) {
D_80076220[count] = D_80076250[i];
count++;
}
}
*out = count;
return D_80076220;
}
typedef struct {
s16 unk00;
u8 pad02[4];
u16 unk06;
} StructA4E88;
/* Law 2: the destination TU (src/800.c) already declares D_80065438 as an array-of-struct
* (H2 = { u16 f0; }) rather than a plain u16[] — refuse-TYPE(D_80065438, u16 vs H2).
* Adopt the TU's spelling verbatim; the use site indexes .f0 instead of dereferencing a u16*. */
extern StructA4E88 D_800A4E88;
extern u8 D_800BA320[];
extern Rsc16 D_80076248[]; /* .unk09 = D_80076251, .unk0A = D_80076252 */
extern u8 D_80076251; /* Law 2: exact form from src/shared/clearTbl40.h (see func_80037368) */
extern u8 D_80076250[];
extern u8 D_80076298;
extern H2 D_80065438[];
extern void func_8002D7FC(s32 arg0);
extern void func_8002FDE8(s32 arg0, void *arg1);
void func_800373D0(void) {
register StructA4E88 *sp2 __asm__("$18");
register u8 *sp3 __asm__("$19");
register Rsc16 *p __asm__("$16");
register s32 i __asm__("$17");
sp2 = &D_800A4E88;
sp3 = D_800BA320;
p = D_80076248;
i = 0;
do {
if ((&D_80076251)[i] != 0) {
if (D_80076250[i] != 0) {
if (p->unk00 & 0x3000) {
sp2->unk00 = p->unk00 & 0xFFF;
sp2->unk06 |= 0x20;
func_8002D7FC((s32) sp3);
if (!(p->unk00 & 0x1000)) {
func_8002FDE8(D_80065438[sp2->unk00].f0, sp3 + 0x7000);
}
}
}
}
p++;
i += 0x10;
} while ((s32) p < (s32) &D_80076298);
}
int func_800374CC(int *out)
{
extern W8 D_80076243;
extern s32 D_8007623C;
s32 x = D_80076243.v;
if (x != 4 && x != 0 && x != 5) {
*out = D_8007623C;
return 0;
}
return 1;
}
typedef struct {
u8 unk00;
u8 unk01[11];
} Rsc12; /* 0x0C */
extern s32 D_8007629C;
extern u8 D_8006AEF4;
extern u8 D_80076298;
extern Rsc16 D_80076248[]; /* .unk09 = D_80076251, .unk0A = D_80076252 */
extern Rsc12 D_80064D4A[];
extern Rsc24 D_800A4640[];
extern s16 D_800C5328[];
extern s16 D_800C532A[];
extern s32 func_8003C4F0(s32);
extern void func_800415A8(s32);
extern void func_80031A98(void);
s32 func_8003750C(void) {
s32 i;
s32 val;
s32 k;
s32 h;
switch (D_8007629C) {
case 0:
if (D_8006AEF4 & 2) {
return 0;
}
D_8006AEF4 |= 2;
D_8007629C = 1;
/* fallthrough */
case 1:
if (D_8006AEF4 & 1) {
if (func_8003C4F0(0) == 0) {
return 0;
}
}
D_8007629C = D_8007629C + 1;
/* fallthrough */
case 2:
for (i = 0; i < 5; i++) {
if (D_80076248[i].unk09 == 0) {
continue;
}
val = D_80076248[i].unk00;
k = D_80076248[i].unk0A;
if (val & 0x6000) {
continue;
}
h = D_800A4640[k].unk04;
if (h != 0 && h != D_80064D4A[val].unk00) {
D_800C532A[D_800A4640[k].unk08 * 2] = -1;
D_800A4640[k].unk04 = 0;
D_800A4640[k].unk08 = 0;
}
if (D_800A4640[k].unk10 != 0) {
continue;
}
D_800A4640[k].unk10 = 1;
D_800C5328[D_800A4640[k].unk00 * 2] = -1;
if (D_800A4640[i].unk02 >= 0) {
func_800415A8(D_800A4640[i].unk02);
D_800A4640[i].unk02 = -1;
}
func_80031A98();
}
D_8007629C = 0;
D_80076298 = 0;
return 1;
default:
return 0;
}
}
typedef struct { u8 v; } W8_;
extern W8_ D_80076242_ __asm__("D_80076242");
extern u8 D_8006AEF4;
extern s32 func_8003C4F0(s32);
extern void func_800373D0(void);
int func_8003775C(void) {
u32 t;
if (D_80076242_.v != 0) {
if (func_8003C4F0(0) == 0) {
return 0;
}
D_80076242_.v = 0;
t = D_8006AEF4;
} else {
t = D_8006AEF4;
}
D_8006AEF4 = t & 0xFC;
func_800373D0();
return 1;
}
INCLUDE_ASM("asm/nonmatchings/800", func_800377D8);
extern s32 D_800BA0F8;
void func_80037CC8(void) {
D_800BA0F8 = 0;
}
extern u8 D_8006AEF4;
extern s32 D_800BA0F8;
int func_80037CD8(void *arg) {
if ((D_8006AEF4 & 0x2) != 0) {
s32 *handler = (s32 *)&D_800BA0F8;
if (*handler != 0) {
int result = ((int (*)(void *))*handler)(arg);
if (result != 0) {
u8 flags = D_8006AEF4;
*handler = (s32)arg;
D_8006AEF4 = flags & 0xFD;
return 1;
}
return 0;
}
}
D_800BA0F8 = (s32)arg;
D_8006AEF4 &= 0xFD;
return 1;
}
extern u8 D_8006AEF4;
extern s32 D_800BA0F8;
void func_80037D74(void) {
D_8006AEF4 &= 0xFD;
D_800BA0F8 = 0;
}
extern u8 *D_800762B0;
extern u8 D_800A4EFE[];
extern s32 D_80073140[];
extern u8 D_800C6DE0[];
extern u8 D_800C6DE4[];
extern u8 D_800C6DEC[];
extern u8 D_800C6DEE[];
extern u8 D_800C6E2A[];
extern u8 D_800C6E2B[];
extern u8 D_800C6E2C[];
extern u8 D_800C6E2D[];
extern u8 D_800C6E2E[];
extern u8 D_800B9EC8[];
extern u8 D_800B9ED2[];
extern u8 D_800B9ED3[];
extern s32 D_80079A68;
extern void func_8003D424(s32 *);
void func_80037D98(void) {
s32 i;
s32 offset;
s32 val;
s32 *table;
D_800762B0 = D_800A4EFE;
i = 0;
table = D_80073140;
offset = 0;
while (i < 0x10) {
val = *table;
table++;
i++;
D_800C6E2A[offset] = 0;
D_800C6E2B[offset] = 0;
D_800C6E2C[offset] = 0;
D_800C6E2D[offset] = 0;
*(s16 *)&D_800C6DEC[offset] = 0;
*(s16 *)&D_800C6DEE[offset] = 0;
*(s32 *)&D_800C6DE4[offset] = 0;
D_800C6E2E[offset] = 0;
*(s32 *)&D_800C6DE0[offset] = val;
offset += 0x60;
}
i = 0;
offset = 0;
for (; i < 2; i++) {
D_800B9ED3[offset] = 0;
D_800B9ED2[offset] = 0;
*(s16 *)&D_800B9EC8[offset] = i;
offset += 0x1FC;
}
func_8003D424(&D_80079A68);
}
INCLUDE_ASM("asm/nonmatchings/800", func_80037EA0);
INCLUDE_ASM("asm/nonmatchings/800", func_80037F3C);
/* --- TU context as in src/800.c (file-scope, verbatim spellings) --- */
extern s32 D_800A2B98;
extern s32 D_800A2BA0;
extern s32 D_800C7D20;
extern s32 D_800C7D2C;
extern u8 D_800A4F1D;
extern u8 D_800C6E2E[];
extern void func_8003BE74(s32, s32);
extern void func_80037FC4(void);
void func_80037FC4(void)
{
/* TU-absent names, block scope */
extern u8 D_800C6DD0[];
extern void func_80038A58(void);
extern void func_8003D3B4(s32, s32);
extern void func_8003C23C(s32, s32);
extern void func_8003B250(s32, void *);
register u8 *p __asm__("$16");
register s32 i __asm__("$17");
register u32 mask __asm__("$18");
u8 *base;
if (D_800A4F1D == 0) {
func_80038A58();
}
i = 0;
mask = 0xFFF9FFFF;
p = D_800C6E2E;
do {
if (p[-4] != 0 && p[-1] == 0 && p[0] != 0) {
func_8003D3B4(i, 8);
*(u32 *)(p - 0x4A) &= mask;
p[0] = 0;
}
i++;
p += 0x60;
} while (i < 0x10);
if ((D_800A2B98 & 0xFFFF) != 0) {
func_8003C23C(0, D_800A2B98 & 0xFFFF);
D_800A2B98 &= 0xFF0000;
}
if ((D_800A2BA0 & 0xFFFF) != 0) {
func_8003BE74(0, D_800A2BA0 & 0xFFFF);
D_800A2BA0 &= 0xFF0000;
}
base = D_800C6DD0;
i = 0;
p = base + 0x5E;
do {
if (p[-4] != 0 && p[-1] != 0) {
func_8003B250(i, base + 0x10);
*(u32 *)(p - 0x4A) = 0;
p[-1] = 0;
p[0] = 0;
}
i++;
p += 0x60;
base += 0x60;
} while (i < 0x10);
if ((D_800C7D20 & 0xFFFF) != 0) {
func_8003C23C(1, D_800C7D20 & 0xFFFF);
D_800C7D20 &= 0xFF0000;
}
if ((D_800C7D2C & 0xFFFF) != 0) {
func_8003BE74(1, D_800C7D2C & 0xFFFF);
D_800C7D2C &= 0xFF0000;
}
}
INCLUDE_ASM("asm/nonmatchings/800", func_8003819C);
extern u8 D_800B9CF0[];
s32 func_800381E4(s32 a0, s32 a1) {
s32 v0;
a1 = (a1 << 16) >> 13;
v0 = (a0 << 7) - a0;
v0 = v0 << 2;
a1 = a1 + v0;
return D_800B9CF0[a1];
}
extern u8 D_800B9CD8[];
extern u8 D_800C1320[];
extern u8 *D_800A6428;
extern s32 func_80038698(void *arg0);
extern s32 func_800387C0(void *arg0);
extern void func_80038838(void *arg0);
s32 func_80038210(s32 a0, s16 a1, s32 a2)
{
u8 *entry;
s32 i;
s32 k;
u8 *q;
s32 v1;
entry = D_800B9CD8;
for (i = 0; i < 2; i++, entry += 0x1FC) {
if (entry[0x1FB] == 0) {
D_800A6428 = entry + 0x1BA;
*(s32 *)entry = a0;
*(s16 *)(entry + 0x1EC) = a1;
*(s32 *)(entry + 0x1E8) = a2;
*(u8 **)(entry + 0x1D8) = D_800C1320;
*(u8 **)(entry + 0x1DC) = D_800C1320 + 0x20;
*(u8 **)(entry + 0x1E0) = D_800C1320 + 0x820;
if (func_80038698(entry) != 0) {
return -1;
}
if (func_800387C0(entry) != 0) {
return -1;
}
func_80038838(entry);
v1 = *(s32 *)entry;
entry[0x1FB] = 1;
*(s32 *)(entry + 4) = v1;
entry[0x1FA] = 0;
for (k = 0xF, q = entry + 0xF; k >= 0; k--, q--) {
q[0x1BA] = 0;
}
return i;
}
}
return -1;
}
extern u8 D_800B9ED2[];
extern u8 D_800B9CD8[];
typedef s32 a32;
void func_80038308(s16 a0)
{
register a32 arg0 asm("$4");
s32 offset;
offset = arg0 * 127;
offset = offset * 4;
D_800B9ED2[offset] = 1;
func_80038908(&D_800B9CD8[offset]);
}
extern u8 D_800B9ECA[];
void func_8003834C(s32 a0, s16 a1) {
s32 offset = ((a0 << 7) - a0) << 2;
*(s16 *)&D_800B9ECA[offset] = a1;
}
extern u8 D_800B9ED3[];
extern u8 D_800B9ED2[];
s32 func_8003836C(s32 a0) {
s32 index;
u8 val;
index = a0 * 127;
index = index * 4;
val = D_800B9ED3[index];
if (val == 0) {
return 0;
}
return D_800B9ED2[index];
}
INCLUDE_ASM("asm/nonmatchings/800", func_800383A4);
INCLUDE_ASM("asm/nonmatchings/800", func_800384A8);
void func_800385C0(s16 a0)
{
extern u8 D_800C6E2A[];
extern u8 D_800B9ED2[];
extern u8 D_800B9ED3[];
register s32 a0v __asm__("$4");
register u8 *v1 __asm__("$3");
s32 a1;
for (a1 = 0, v1 = D_800C6E2A; a1 < 0x10; a1++, v1 += 0x60) {
if (v1[2] != 0 && *(s16 *)(*(s32 *)(v1 - 0xA) + 0x1F0) == a0v) {
v1[2] = 0;
v1[0] = 0;
}
}
D_800B9ED2[((a0v << 7) - a0v) << 2] = 0;
D_800B9ED3[((a0v << 7) - a0v) << 2] = 0;
}
extern u8 D_800B9E92[];
void func_80038638(s32 a0, s32 a1) {
u8 *ptr;
s32 offset;
offset = a0 * 127;
offset = offset * 4;
ptr = D_800B9E92 + offset;
*(ptr + a1) |= 1;
}
extern u8 D_800B9E92[];
void func_80038668(s32 a0, s32 a1) {
s32 offset = ((a0 << 7) - a0) << 2;
char *baseptr = (char *)D_800B9E92 + offset;
*(baseptr + a1) &= 0xFE;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80038698);
INCLUDE_ASM("asm/nonmatchings/800", func_800387C0);
void func_80038838(void *arg0)
{
register unsigned char *a3 asm("$7");
register unsigned char *a1 asm("$5");
register unsigned char *v1;
register unsigned char *v0 asm("$2");
register int a2 asm("$6");
register int v0_c;
register int const1 asm("$8");
register int const2 asm("$9");
register int const3 asm("$3");
a3 = (unsigned char *)arg0 + 0x1A;
a2 = 0;
const1 = 0x40;
const2 = 0x7F;
a1 = (unsigned char *)arg0 + 0x1B;
do {
v1 = a3 + 0x9;
v0_c = 0xF;
a3[0x0] = a2;
*(unsigned short *)(a1 + 0x1) = const1;
a1[0x3] = const1;
a1[0x6] = 0;
a1[0x0] = const2;
do {
v1[0x0] = 0;
v0_c--;
v1++;
} while (v0_c >= 0);
a2++;
a1 += 0x1A;
a3 += 0x1A;
} while (a2 < 0x10);
a2 = 0;
const3 = 0x4000;
v0 = (unsigned char *)arg0;
do {
v0[0x18] = 0;
*(unsigned short *)(v0 + 0x12) = const3;
v0 += 0x8;
a2++;
} while (a2 <= 0);
*(int *)((unsigned long)arg0 + 0x8) = 1;
*(int *)((unsigned long)arg0 + 0x1D0) = 0xE10;
*(int *)((unsigned long)arg0 + 0x1D4) = 0xE10;
*(int *)((unsigned long)arg0 + 0x1CC) = 0xE10;
*(unsigned char *)((unsigned long)arg0 + 0x1F4) = 0;
*(unsigned short *)((unsigned long)arg0 + 0x1E4) = 0x78;
*(unsigned char *)((unsigned long)arg0 + 0x1F7) = 0;
*(unsigned char *)((unsigned long)arg0 + 0x1F8) = 0;
*(unsigned char *)((unsigned long)arg0 + 0x1F9) = 0;
*(unsigned char *)((unsigned long)arg0 + 0x1FA) = 0;
*(unsigned char *)((unsigned long)arg0 + 0x1F6) = 0;
}
INCLUDE_ASM("asm/nonmatchings/800", func_800388E8);
void func_80038908(unsigned char *arg0) {
extern short D_800A4EF8;
extern unsigned short D_800A4EE0;
int counter;
int acc;
unsigned short *ptr;
acc = D_800A4EF8 << 7;
acc *= D_800A4EE0;
ptr = (unsigned short *)(arg0 + 0x12);
counter = 0;
acc >>= 14;
do {
acc *= *ptr;
acc >>= 14;
counter--;
ptr += 4;
} while (counter >= 0);
*(unsigned short *)(arg0 + 0x10) = (unsigned short)acc;
}
extern u8 *D_800762B0;
extern u8 D_800762B4[];
extern u8 D_800C6E2A[];
void func_80038958(void) {
register u8 *a3 __asm__("$7");
register u8 *a2 __asm__("$6");
register s32 a1 __asm__("$5");
register u8 *a0 __asm__("$4");
register s32 t0 __asm__("$8");
register s32 v0 __asm__("$2");
register s32 v1 __asm__("$3");
a3 = D_800762B0;
a2 = D_800762B4;
a1 = 0;
t0 = 3;
a0 = D_800C6E2A;
while (a1 < 0x10) {
v0 = *a3;
if (v0 == 0 || v0 == t0) {
if (*a2 == 0) {
v0 = *a0;
a0[1] = 0;
if (v0 != 0) {
v0 = *(s16 *)(a0 - 0x54);
v1 = v0 << 1;
v1 = v1 + v0;
v1 = v1 << 2;
v1 = v1 + v0;
v0 = *(s32 *)(a0 - 0xA);
v1 = v1 << 1;
v0 = v0 + v1;
v0 = v0 + a1;
*(u8 *)(v0 + 0x23) = 0;
a0[0] = 0;
}
}
}
a1++;
a0 += 0x60;
a3++;
a2++;
}
}
extern u8 *D_800762B0;
extern u8 D_800762B4[];
s32 func_80038A00(void) {
u8 *ptr1 = D_800762B0;
u8 *ptr2 = D_800762B4;
s32 i = 0;
while (i < 0x10) {
if (*ptr1 == 0x2 && *ptr2 == 0) {
return i;
}
i++;
ptr1++;
ptr2++;
}
return -1;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80038A58);
INCLUDE_ASM("asm/nonmatchings/800", func_80038FC4);
INCLUDE_ASM("asm/nonmatchings/800", func_80038FFC);
INCLUDE_ASM("asm/nonmatchings/800", func_8003916C);
INCLUDE_ASM("asm/nonmatchings/800", func_800391D4);
void func_80039300(void) {
}
INCLUDE_ASM("asm/nonmatchings/800", func_80039308);
INCLUDE_ASM("asm/nonmatchings/800", func_80039B20);
void func_80039C5C(s32 *param_1) {
*param_1 += 2;
}
INCLUDE_ASM("asm/nonmatchings/800", func_80039C70);
INCLUDE_ASM("asm/nonmatchings/800", func_80039DEC);
INCLUDE_ASM("asm/nonmatchings/800", func_80039F14);
INCLUDE_ASM("asm/nonmatchings/800", func_80039F50);
INCLUDE_ASM("asm/nonmatchings/800", func_8003A098);
void func_8003A0D0(s32 *arg0) {
(*arg0)++;
}
INCLUDE_ASM("asm/nonmatchings/800", func_8003A0E4);
typedef struct {
/* 0x000 */ u8 *ptr;
/* 0x004 */ u8 pad_004[0x1D0 - 0x004];
/* 0x1D0 */ s32 unk1D0;
/* 0x1D4 */ u8 pad_1D4[0x1E4 - 0x1D4];
/* 0x1E4 */ s16 unk1E4;
/* 0x1E6 */ s16 unk1E6;
/* 0x1E8 */ u8 pad_1E8[0x1F9 - 0x1E8];
/* 0x1F9 */ u8 unk1F9;
} func_8003A234_Ctx;
void func_8003A234(func_8003A234_Ctx *a0) {
u8 *a2 = a0->ptr;
u8 v1;
a0->ptr = a2 + 1;
v1 = *a2;
switch (v1) {
case 0x20:
a0->ptr = a2 + 3;
break;
case '/':
a0->ptr = a2 + 2;
a0->unk1F9 = 1;
break;
case 'Q':
{
register s32 num __asm__("$4");
s32 den;
s32 b3;
s32 b4;
s32 q;
a0->ptr = a2 + 2;
den = a2[1];
if (den != 3) {
a0->unk1F9 = 1;
break;
}
num = 0x3938700;
a0->ptr = a2 + 3;
den = a2[2];
a0->ptr = a2 + 4;
b3 = a2[3];
a0->ptr = a2 + 5;
b4 = a2[4];
den = den << 16;
den += b3 << 8;
den += b4;
q = num / den;
a0->unk1E4 = (s16)q;
a0->unk1D0 = q * a0->unk1E6;
}
break;
case 1:
case 2:
case 3:
case 4:
case 5:
case 6:
case 7:
case 'T':
case 0x58:
case 0x59:
case 0x7F:
{
register u8 *p __asm__("$3") = a0->ptr;
u8 *np = p + 1;
a0->ptr = np;
{
register s32 byte __asm__("$5") = p[0];
a0->ptr = np + byte;
}
}
break;
case 0:
a0->ptr = a2 + 2;
{
register s32 b1 __asm__("$5") = a2[1];
if (b1 != 2) {
a0->unk1F9 = 1;
break;
}
}
a0->ptr = a2 + 4;
break;
default:
a0->unk1F9 = 1;
break;
}
}
u32 func_8003A3D8(u32 a) {
return ((a & 0xFF) << 24) + (((a >> 8) & 0xFF) << 16) + (((a >> 16) & 0xFF) << 8) | (a >> 24);
}
INCLUDE_ASM("asm/nonmatchings/800", func_8003A404);
extern void _SpuInit(s32);
void func_8003A424(void) {
_SpuInit(0);
}
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