void
cpu_tag(cpu_t *cpu, addr_t pc)
{
update_timing(cpu, TIMER_TAG, true);
tag_start(cpu, pc);
update_timing(cpu, TIMER_TAG, false);
}
void osd_update_video_and_audio(struct mame_display *display)
{
cycles_t cps = osd_cycles_per_second();
// if this is the first time through, initialize the previous time value
if (warming_up)
{
last_skipcount0_time = osd_cycles() - (int)((double)FRAMESKIP_LEVELS * (double)cps / video_fps);
warming_up = 0;
}
// if this is the first frame in a sequence, adjust the base time for this frame
if (frameskip_counter == 0)
this_frame_base = last_skipcount0_time + (int)((double)FRAMESKIP_LEVELS * (double)cps / video_fps);
// if we're not skipping this frame, draw it
if (display->changed_flags & GAME_BITMAP_CHANGED)
update_timing();
//// if the LEDs have changed, update them
//if (display->changed_flags & LED_STATE_CHANGED)
// osd_set_leds(display->led_state);
// increment the frameskip counter
frameskip_counter = (frameskip_counter + 1) % FRAMESKIP_LEVELS;
// check for inputs
check_inputs();
}
/* Update the display. */
void osd_update_display(void)
{
#if defined(GP2X) || defined(PSP)
/* Update Timing */
update_timing();
#endif
#ifdef PSP
/* Wait VSync */
if (gp2x_vsync==1)
gp2x_video_wait_vsync();
#endif
/* Manage the palette */
if (dirtypalette)
update_palette();
/* Update Display */
p_update_display();
#ifdef GP2X
/* Show FPS Counter */
if (gp2x_showfps)
frame_counter();
#endif
#ifdef GP2X
/* Double Buffer Video Flip */
if (gp2x_double_buffer)
gp2x_video_flip();
#endif
}
static void
cpu_translate_function(cpu_t *cpu)
{
BasicBlock *bb_ret, *bb_trap, *label_entry, *bb_start;
/* create function and fill it with std basic blocks */
cpu->cur_func = cpu_create_function(cpu, "jitmain", &bb_ret, &bb_trap, &label_entry);
cpu->func[cpu->functions] = cpu->cur_func;
/* TRANSLATE! */
update_timing(cpu, TIMER_FE, true);
if (cpu->flags_debug & CPU_DEBUG_SINGLESTEP) {
bb_start = cpu_translate_singlestep(cpu, bb_ret, bb_trap);
} else if (cpu->flags_debug & CPU_DEBUG_SINGLESTEP_BB) {
bb_start = cpu_translate_singlestep_bb(cpu, bb_ret, bb_trap);
} else {
bb_start = cpu_translate_all(cpu, bb_ret, bb_trap);
}
update_timing(cpu, TIMER_FE, false);
/* finish entry basicblock */
BranchInst::Create(bb_start, label_entry);
/* make sure everything is OK */
verifyFunction(*cpu->cur_func, PrintMessageAction);
if (cpu->flags_debug & CPU_DEBUG_PRINT_IR)
cpu->mod->dump();
if (cpu->flags_codegen & CPU_CODEGEN_OPTIMIZE) {
LOG("*** Optimizing...");
optimize(cpu);
LOG("done.\n");
if (cpu->flags_debug & CPU_DEBUG_PRINT_IR_OPTIMIZED)
cpu->mod->dump();
}
LOG("*** Translating...");
update_timing(cpu, TIMER_BE, true);
cpu->fp[cpu->functions] = cpu->exec_engine->getPointerToFunction(cpu->cur_func);
update_timing(cpu, TIMER_BE, false);
LOG("done.\n");
cpu->functions++;
}
int
cpu_run(cpu_t *cpu, debug_function_t debug_function)
{
addr_t pc = 0, orig_pc = 0;
uint32_t i;
int ret;
bool success;
bool do_translate = true;
/* try to find the entry in all functions */
while(true) {
if (do_translate) {
cpu_translate(cpu);
pc = cpu->f.get_pc(cpu, cpu->rf.grf);
}
orig_pc = pc;
success = false;
for (i = 0; i < cpu->functions; i++) {
fp_t FP = (fp_t)cpu->fp[i];
update_timing(cpu, TIMER_RUN, true);
breakpoint();
ret = FP(cpu->RAM, cpu->rf.grf, cpu->rf.frf, debug_function);
update_timing(cpu, TIMER_RUN, false);
pc = cpu->f.get_pc(cpu, cpu->rf.grf);
if (ret != JIT_RETURN_FUNCNOTFOUND)
return ret;
if (!is_inside_code_area(cpu, pc))
return ret;
if (pc != orig_pc) {
success = true;
break;
}
}
if (!success) {
LOG("{%" PRIx64 "}", pc);
cpu_tag(cpu, pc);
do_translate = true;
}
}
}
void honoka::Timing_wheel::run()
{
for(;;)
{
{
std::lock_guard<std::mutex> g(mutex_);
if(is_stop)
break;
while(!queue_.empty())
{
auto tmp_event = queue_.front();
queue_.pop();
switch(tmp_event.type_)
{
case NEW_TIMING:
create_timing(tmp_event.fd_);
break;
case UPDATE_TIMING:
update_timing(tmp_event.fd_);
break;
case DEL_TIMING:
del_timing(tmp_event.fd_);
break;
default:
break;
}
}
}
int fd;
cur = std::begin(*cur_ms);
cur_ed = std::end(*cur_ms);
skip_within_time();
while((fd = get_timeout()) != 0)
{
if(reactor_ == nullptr)
{
LOG(ERROR)<<"Timing_wheel::Timing_wheel() reactor_ == nullptr";
}
if(thread_pool_ == nullptr)
{
LOG(ERROR)<<"Timing_wheel::Timing_wheel() thread_pool_ == nullptr";
}
auto tmp_event = reactor_->create_event(fd, TIMEOUT);
thread_pool_->add_event(tmp_event);
skip_within_time();
}
cur_ms->clear();
advance();
}
}
char run()
{
for(;;)
{
// Phase 1
set_OCT1_tot(); //set maximum waiting time for zero-crossing before quit
if(wait_for_transition(0))
{
return -1; // return with error
}
commutationDelay(); // delay about 15deg between zero-crossing and commutation
com1com2(); //perform next commutation
update_timing(wt_comp_scan); // Calculate new commutation timing
WAIT_OCT1_TOT; // Wait "wt_comp_scan" before next zero-crossing scan
set_OCT1_tot(); //set maximum waiting time for zero-crossing before quit
// Phase 2
if(wait_for_transition(1))
{
return -1; // return with error
}
commutationDelay();
com2com3();
update_timing(wt_comp_scan);
WAIT_OCT1_TOT;
set_OCT1_tot(); //set maximum waiting time for zero-crossing before quit
// Phase 3
if(wait_for_transition(0))
{
return -1; // return with error
}
commutationDelay();
com3com4();
update_timing(wt_comp_scan);
WAIT_OCT1_TOT;
set_OCT1_tot(); //set maximum waiting time for zero-crossing before quit
// Phase 4
if(wait_for_transition(1))
{
return -1; // return with error
}
commutationDelay();
com4com5();
update_timing(wt_comp_scan);
WAIT_OCT1_TOT;
set_OCT1_tot(); //set maximum waiting time for zero-crossing before quit
// Phase 5
if(wait_for_transition(0))
{
return -1; // return with error
}
commutationDelay();
com5com6();
update_timing(wt_comp_scan);
WAIT_OCT1_TOT;
set_OCT1_tot(); //set maximum waiting time for zero-crossing before quit
// Phase 6
if(wait_for_transition(1))
{
return -1; // return with error
}
commutationDelay();
com6com1();
update_timing(wt_comp_scan);
WAIT_OCT1_TOT;
if(!FLAG(IS_MAINTENANCE)) //don't check timeouts when in maintenance mode
{
if(uart_timeout== 0) //if communication time-out
{
// cut power to the motor
SET_FLAG(POWER_OFF);
}
}
if(meas_rpm < (RPM_MIN/2))
{
return -1; //if too slow, quit
}
}
}
static void update(HWND hwnd)
{
update_disasm(hwnd);
update_registers(hwnd);
update_timing(hwnd);
}