void
Module::initialiseSchedulerFunctions()
{
sActiveThreads = coreinit::internal::sysAlloc<OSThreadQueue>();
OSInitThreadQueue(sActiveThreads);
for (auto i = 0; i < 3; ++i) {
sSchedulerEnabled[i] = true;
sCurrentThread[i] = nullptr;
sCoreRunQueue[i] = coreinit::internal::sysAlloc<OSThreadQueue>();
OSInitThreadQueue(sCoreRunQueue[i]);
sLastSwitchTime[i] = std::chrono::high_resolution_clock::now();
sCorePauseTime[i] = std::chrono::time_point<std::chrono::high_resolution_clock>::max();
}
}
static void *gx_audio_init(const char *device, unsigned rate, unsigned latency)
{
gx_audio_t *wa = (gx_audio_t*)memalign(32, sizeof(*wa));
if (!wa)
return NULL;
gx_audio_data = (gx_audio_t*)wa;
memset(wa, 0, sizeof(*wa));
AIInit(NULL);
AIRegisterDMACallback(dma_callback);
if (rate < 33000)
{
AISetDSPSampleRate(AI_SAMPLERATE_32KHZ);
g_settings.audio.out_rate = 32000;
}
else
{
AISetDSPSampleRate(AI_SAMPLERATE_48KHZ);
g_settings.audio.out_rate = 48000;
}
OSInitThreadQueue(&wa->cond);
wa->dma_write = BLOCKS - 1;
DCFlushRange(wa->data, sizeof(wa->data));
AIInitDMA((uint32_t)wa->data[wa->dma_next], CHUNK_SIZE);
AIStartDMA();
return wa;
}
void
Module::initialiseAlarm()
{
for (auto i = 0u; i < CoreCount; ++i) {
OSInitAlarmQueue(sAlarmQueue[i]);
OSInitAlarmQueue(sAlarmCallbackQueue[i]);
OSInitThreadQueue(sAlarmCallbackThreadQueue[i]);
}
}
