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#include <stddef.h>
#define F8 *(uint8_t*)(addr++)
#define F8S *(int8_t*)(addr++)
#define F16 *(uint16_t*)(addr+=2, addr-2)
#define F16S *(int16_t*)(addr+=2, addr-2)
#define F32 *(uint32_t*)(addr+=4, addr-4)
#define F32S *(int32_t*)(addr+=4, addr-4)
#define F32S64 (uint64_t)(int64_t)F32S
#define F64 *(uint64_t*)(addr+=8, addr-8)
#define F64S *(int64_t*)(addr+=8, addr-8)
#define PK(a) *(uint8_t*)(addr+a)
#define PARITY(x) (((emu->x64emu_parity_tab[(x) / 32] >> ((x) % 32)) & 1) == 0)
#ifdef DYNAREC
#define STEP if(step && !ACCESS_FLAG(F_TF)) return 0; else if((emu->old_ip>>12)!=(addr>>12)) CheckExec(emu, addr);
#define STEP2 if(step && !ACCESS_FLAG(F_TF)) {R_RIP = addr; return 0;} else if((emu->old_ip>>12)!=(addr>>12)) CheckExec(emu, addr);
#define STEP3 if(*step) (*step)++; else if((emu->old_ip>>12)!=(addr>>12)) CheckExec(emu, addr);
#else
#define STEP
#define STEP2
#define STEP3
#endif
#ifdef TEST_INTERPRETER
#define GETED(D) oped=TestEd(test, &addr, rex, nextop, D)
#define GETE4(D) oped=TestEd4(test, &addr, rex, nextop, D)
#define GETE8(D) oped=TestEd8(test, &addr, rex, nextop, D)
#define GETET(D) oped=TestEdt(test, &addr, rex, nextop, D)
#define GETE8xw(D) oped=TestEd8xw(test, rex.w, &addr, rex, nextop, D)
#define GETGD opgd=GetGd(test->emu, &addr, rex, nextop)
#define GETEB(D) oped=TestEb(test, &addr, rex, nextop, D)
#define GETGB opgd=GetGb(test->emu, &addr, rex, nextop)
#define GETEW(D) oped=TestEw(test, &addr, rex, nextop, D)
#define GETGW opgd=GetGw(test->emu, &addr, rex, nextop)
#define GETEX(D) opex=TestEx(test, &addr, rex, nextop, D, 16)
#define GETEX4(D) opex=TestEx(test, &addr, rex, nextop, D, 4)
#define GETEX8(D) opex=TestEx(test, &addr, rex, nextop, D, 8)
#define GETGX opgx=GetGx(test->emu, &addr, rex, nextop)
#define GETGY opgy=GetGy(test->emu, &addr, rex, nextop)
#define GETEY opey=TestEy(test, &addr, rex, nextop)
#define GETEM(D) opem=TestEm(test, &addr, rex, nextop, D)
#define GETGM opgm=GetGm(test->emu, &addr, rex, nextop)
#define GETVX opvx=&test->emu->xmm[vex.v]
#define GETVY opvy=&test->emu->ymm[vex.v]
#define GETVD opvd=&test->emu->regs[vex.v]
#else
#define GETED(D) oped=GetEd(emu, &addr, rex, nextop, D)
#define GETE4(D) GETED(D)
#define GETE8(D) GETED(D)
#define GETET(D) GETED(D)
#define GETE8xw(D) GETED(D)
#define GETGD opgd=GetGd(emu, &addr, rex, nextop)
#define GETEB(D) oped=GetEb(emu, &addr, rex, nextop, D)
#define GETGB opgd=GetGb(emu, &addr, rex, nextop)
#define GETEW(D) oped=GetEw(emu, &addr, rex, nextop, D)
#define GETGW opgd=GetGw(emu, &addr, rex, nextop)
#define GETEX(D) opex=GetEx(emu, &addr, rex, nextop, D)
#define GETEX4(D) GETEX(D)
#define GETEX8(D) GETEX(D)
#define GETGX opgx=GetGx(emu, &addr, rex, nextop)
#define GETGY opgy=GetGy(emu, &addr, rex, nextop)
#define GETEY opey=(opex>=&emu->xmm[0] && opex<=&emu->xmm[15])?((sse_regs_t*)((uintptr_t)opex+offsetof(x64emu_t, ymm)-offsetof(x64emu_t, xmm))):((sse_regs_t*)((uintptr_t)opex+16))
#define GETEM(D) opem=GetEm(emu, &addr, rex, nextop, D)
#define GETGM opgm=GetGm(emu, &addr, rex, nextop)
#define GETVX opvx=&emu->xmm[vex.v]
#define GETVY opvy=&emu->ymm[vex.v]
#define GETVD opvd=&emu->regs[vex.v]
#endif
#define ED oped
#define GD opgd
#define VD opvd
#define EB oped
#define GB opgd->byte[0]
#define EW oped
#define GW opgd
#define EX opex
#define GX opgx
#define VX opvx
#define EY opey
#define GY opgy
#define VY opvy
#define EM opem
#define GM opgm
#define FAKEED(D) GetEd(emu, &addr, rex, nextop, D)
#define GETEA(D) GetEA(emu, &addr, rex, nextop, D)
#define _GETED(D) oped=GetEd(emu, &addr, rex, nextop, D)
#define _GETEB(D) oped=GetEb(emu, &addr, rex, nextop, D)
#define _GETEX(D) opex=GetEx(emu, &addr, rex, nextop, D)
#define MODREG ((nextop&0xC0)==0xC0)
#if defined(__riscv)
#define NAN_PROPAGATION(dest, src, break_or_continue) \
if (isnan(dest)) { \
break_or_continue; \
} else if (isnan(src)) { \
(dest) = (src); \
break_or_continue; \
}
#else
#define NAN_PROPAGATION(dest, src, break_or_continue)
#endif
#define MARK_NAN_VF_2(A, B) for(int idx=0; idx<4; ++idx) mask_nan[idx] = isnanf(A->f[idx]) || isnanf(B->f[idx])
#define CHECK_NAN_VF(A) for(int idx=0; idx<4; ++idx) if(!mask_nan[idx] && isnanf(A->f[idx])) A->f[idx] = -NAN
#define MARK_NAN_VD_2(A, B) for(int idx=0; idx<2; ++idx) mask_nan[idx] = isnan(A->d[idx]) || isnan(B->d[idx])
#define CHECK_NAN_VD(A) for(int idx=0; idx<2; ++idx) if(!mask_nan[idx] && isnan(A->d[idx])) A->d[idx] = -NAN
#define MARK_NAN_F_2(A, B) is_nan = isnanf(A->f[0]) || isnanf(B->f[0])
#define CHECK_NAN_F(A) if(!is_nan && isnanf(A->f[0])) A->f[0] = -NAN
#define MARK_NAN_D_2(A, B) is_nan = isnan(A->d[0]) || isnan(B->d[0])
#define CHECK_NAN_D(A) if(!is_nan && isnan(A->d[0])) A->d[0] = -NAN
#define GOCOND(BASE, PREFIX, COND, NOTCOND, POST)\
case BASE+0x0: \
PREFIX \
if(ACCESS_FLAG(F_OF)) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0x1: \
PREFIX \
if(!ACCESS_FLAG(F_OF)) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0x2: \
PREFIX \
if(ACCESS_FLAG(F_CF)) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0x3: \
PREFIX \
if(!ACCESS_FLAG(F_CF)) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0x4: \
PREFIX \
if(ACCESS_FLAG(F_ZF)) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0x5: \
PREFIX \
if(!ACCESS_FLAG(F_ZF)) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0x6: \
PREFIX \
if((ACCESS_FLAG(F_ZF) || ACCESS_FLAG(F_CF))) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0x7: \
PREFIX \
if(!(ACCESS_FLAG(F_ZF) || ACCESS_FLAG(F_CF))) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0x8: \
PREFIX \
if(ACCESS_FLAG(F_SF)) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0x9: \
PREFIX \
if(!ACCESS_FLAG(F_SF)) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0xA: \
PREFIX \
if(ACCESS_FLAG(F_PF)) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0xB: \
PREFIX \
if(!ACCESS_FLAG(F_PF)) { \
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0xC: \
PREFIX \
if(ACCESS_FLAG(F_SF) != ACCESS_FLAG(F_OF)) {\
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0xD: \
PREFIX \
if(ACCESS_FLAG(F_SF) == ACCESS_FLAG(F_OF)) {\
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0xE: \
PREFIX \
if(ACCESS_FLAG(F_ZF) || (ACCESS_FLAG(F_SF) != ACCESS_FLAG(F_OF))) {\
COND \
} else { \
NOTCOND \
} \
POST \
break; \
case BASE+0xF: \
PREFIX \
if(!ACCESS_FLAG(F_ZF) && (ACCESS_FLAG(F_SF) == ACCESS_FLAG(F_OF))) {\
COND \
} else { \
NOTCOND \
} \
POST \
break;
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