void ApuB0() { // BCS Relative(); if (APUCheckCarry()) { IAPU.PC = IAPU.RAM + (uint16_t) Int16; APU.Cycles += IAPU.TwoCycles; APUShutdown(); } else IAPU.PC += 2; }
void ApuF0() { // BEQ Relative(); if (APUCheckZero()) { IAPU.PC = IAPU.RAM + (uint16_t) Int16; APU.Cycles += IAPU.TwoCycles; APUShutdown(); } else IAPU.PC += 2; }
void Apu30() { // BMI Relative(); if (APUCheckNegative()) { IAPU.PC = IAPU.RAM + (uint16_t) Int16; APU.Cycles += IAPU.TwoCycles; APUShutdown(); } else IAPU.PC += 2; }
void ApuD0() { // BNE Relative(); if (!APUCheckZero()) { IAPU.PC = IAPU.RAM + (uint16) Int16; CPU.APU_Cycles += IAPU.TwoCycles; APUShutdown(); } else IAPU.PC += 2; }
void Apu90() { // BCC Relative(); if (!APUCheckCarry()) { IAPU.PC = IAPU.RAM + (uint16) Int16; CPU.APU_Cycles += IAPU.TwoCycles; APUShutdown(); } else IAPU.PC += 2; }
void ApuDE() { // CBNE dp+X,rel uint8_t Work8 = OP1 + IAPU.Registers.X; Relative2(); if (S9xAPUGetByteZ(Work8) != IAPU.Registers.YA.B.A) { IAPU.PC = IAPU.RAM + (uint16_t) Int16; APU.Cycles += IAPU.TwoCycles; APUShutdown(); } else IAPU.PC += 3; }
void ApuDE() { // CBNE dp+X,rel uint8 Work8 = OP1 + IAPU.X; Relative2(); if (S9xAPUGetByteZ(Work8) != IAPU.YA.B.A) { IAPU.PC = IAPU.RAM + (uint16) Int16; CPU.APU_Cycles += IAPU.TwoCycles; APUShutdown(); } else IAPU.PC += 3; }