void update_clay(t_clay *clay)
{
unsigned int tstate_delta = clay->cpu.tstates;
Z80Execute(&clay->cpu); // Execute next instruction
tstate_delta = clay->cpu.tstates - tstate_delta;
// Update components
z80ctc_update(&clay->ctc, tstate_delta);
ay_3_8912_update(&clay->ay, tstate_delta);
audio_output_update(&clay->audio_out, tstate_delta);
// update SIO
// Process interrupts if any (and if possible)
if (clay->cpu.IFF1)
{
if (clay->ctc.interrupt_request)
{
Z80INT(&clay->cpu, clay->ctc.interrupt_channel_vector);
z80ctc_ack_interrupt_req(&clay->ctc);
}
// ellse if (...)
// ;
}
}
unsigned Z80ExecuteTStates(Z80Context* ctx, unsigned tstates)
{
ctx->tstates = 0;
while (ctx->tstates < tstates)
Z80Execute(ctx);
return ctx->tstates;
}
// Run the z80 cpu for Cycles more cycles
static INLINE void CpuRun(int Cycles)
{
int Done=0;
CyclesLeft+=Cycles; CpuBase=CyclesLeft;
#ifdef EMU_DOZE
DozeRun();
#elif defined(EMU_Z80JB)
Z80Execute(CpuBase);
#elif defined(EMU_DRZ80)
DrZ80Run(&drz80,Cycles);
#endif
Done=CpuMid(); // Find out number of cycles actually done
CpuBase=CyclesLeft; // Reset CpuBase, so CpuMid() will return 0
FrameCyc+=Done; // Add cycles done to frame total
VgmCycleDone(Done); // Add cycles done to VGM total
}
