bool OutboundSSLProtocol::DoHandshake() {
if (_sslHandshakeCompleted)
return true;
int32_t errorCode = SSL_ERROR_NONE;
errorCode = SSL_connect(_pSSL);
if (errorCode < 0) {
int32_t error = SSL_get_error(_pSSL, errorCode);
if (error != SSL_ERROR_WANT_READ &&
error != SSL_ERROR_WANT_WRITE) {
FATAL("Unable to connect SSL: %d; %s", error, STR(GetSSLErrors()));
return false;
}
}
_sslHandshakeCompleted = SSL_is_init_finished(_pSSL);
if (!PerformIO()) {
FATAL("Unable to perform I/O");
return false;
}
if (_sslHandshakeCompleted)
return EnqueueForOutbound();
return true;
}
bool BaseSSLProtocol::SignalInputData(IOBuffer &buffer) {
//1. get the SSL input buffer
BIO *pInBio = SSL_get_rbio(_pSSL);
//2. dump all the data from the network inside the ssl input
BIO_write(pInBio, GETIBPOINTER(buffer),
GETAVAILABLEBYTESCOUNT(buffer));
buffer.IgnoreAll();
//3. Do we have to do some handshake?
if (!_sslHandshakeCompleted) {
if (!DoHandshake()) {
FATAL("Unable to do the SSL handshake");
return false;
}
if (!_sslHandshakeCompleted) {
return true;
}
}
//4. Read the actual data an put it in the descrypted input buffer
int32_t read = 0;
while ((read = SSL_read(_pSSL, _pReadBuffer, MAX_SSL_READ_BUFFER)) > 0) {
_inputBuffer.ReadFromBuffer(_pReadBuffer, (uint32_t) read);
}
if (read < 0) {
int32_t error = SSL_get_error(_pSSL, read);
if (error != SSL_ERROR_WANT_READ &&
error != SSL_ERROR_WANT_WRITE) {
FATAL("Unable to read data: %d", error);
return false;
}
}
//6. If we have pending data inside the decrypted buffer, bubble it up on the protocol stack
if (GETAVAILABLEBYTESCOUNT(_inputBuffer) > 0) {
if (_pNearProtocol != NULL) {
if (!_pNearProtocol->SignalInputData(_inputBuffer)) {
FATAL("Unable to signal near protocol for new data");
return false;
}
}
}
//7. After the data was sent on the upper layers, we might have outstanding
//data that needs to be sent.
return PerformIO();
}
bool BaseSSLProtocol::EnqueueForOutbound() {
//1. Is the SSL handshake completed?
if (!_sslHandshakeCompleted) {
return DoHandshake();
}
//2. Do we have some outstanding data?
IOBuffer *pBuffer = _pNearProtocol->GetOutputBuffer();
if (pBuffer == NULL)
return true;
//3. Encrypt the outstanding data
if (SSL_write(_pSSL, GETIBPOINTER(*pBuffer), GETAVAILABLEBYTESCOUNT(*pBuffer))
!= (int32_t) GETAVAILABLEBYTESCOUNT(*pBuffer)) {
FATAL("Unable to write %u bytes", GETAVAILABLEBYTESCOUNT(*pBuffer));
return false;
}
pBuffer->IgnoreAll();
//4. Do the actual I/O
return PerformIO();
}
void
DevBeginIO( struct AHIRequest* ioreq,
struct AHIBase* AHIBase )
{
if(AHIBase->ahib_DebugLevel >= AHI_DEBUG_LOW)
{
KPrintF("BeginIO(0x%08lx)\n", ioreq);
}
ioreq->ahir_Std.io_Message.mn_Node.ln_Type = NT_MESSAGE;
switch(ioreq->ahir_Std.io_Command)
{
// Immediate commands
case NSCMD_DEVICEQUERY:
case CMD_STOP:
case CMD_FLUSH:
PerformIO(ioreq,AHIBase);
break;
// Queued commands
case CMD_RESET:
case CMD_READ:
case CMD_WRITE:
case CMD_START:
ioreq->ahir_Std.io_Flags &= ~IOF_QUICK;
PutMsg(&ioreq->ahir_Std.io_Unit->unit_MsgPort,&ioreq->ahir_Std.io_Message);
break;
// Unknown commands
default:
ioreq->ahir_Std.io_Error = IOERR_NOCMD;
TermIO(ioreq,AHIBase);
break;
}
}
DWORD
InstallSoftwareDeviceInterface(IN LPGUID DeviceId,
IN LPGUID InterfaceId,
IN LPWSTR ReferenceString)
{
HDEVINFO hDevInfo;
SP_DEVICE_INTERFACE_DATA DeviceInterfaceData;
GUID SWBusGuid = {STATIC_BUSID_SoftwareDeviceEnumerator};
PSP_DEVICE_INTERFACE_DETAIL_DATA_W DeviceInterfaceDetailData;
HANDLE hDevice;
PSWENUM_INSTALL_INTERFACE InstallInterface;
DWORD dwResult;
hDevInfo = SetupDiGetClassDevsW(&SWBusGuid, NULL, NULL, DIGCF_DEVICEINTERFACE| DIGCF_PRESENT);
if (!hDevInfo)
{
// failed
return GetLastError();
}
DeviceInterfaceData.cbSize = sizeof(SP_DEVICE_INTERFACE_DATA);
if (!SetupDiEnumDeviceInterfaces(hDevInfo, NULL, &SWBusGuid, 0, &DeviceInterfaceData))
{
// failed
SetupDiDestroyDeviceInfoList(hDevInfo);
return GetLastError();
}
DeviceInterfaceDetailData = (PSP_DEVICE_INTERFACE_DETAIL_DATA_W)HeapAlloc(GetProcessHeap(), 0, MAX_PATH * sizeof(WCHAR) + sizeof(SP_DEVICE_INTERFACE_DETAIL_DATA_W));
if (!DeviceInterfaceDetailData)
{
// failed
SetupDiDestroyDeviceInfoList(hDevInfo);
return GetLastError();
}
DeviceInterfaceDetailData->cbSize = sizeof(SP_DEVICE_INTERFACE_DETAIL_DATA_W);
if (!SetupDiGetDeviceInterfaceDetailW(hDevInfo, &DeviceInterfaceData, DeviceInterfaceDetailData,MAX_PATH * sizeof(WCHAR) + sizeof(SP_DEVICE_INTERFACE_DETAIL_DATA_W), NULL, NULL))
{
// failed
HeapFree(GetProcessHeap(), 0, DeviceInterfaceDetailData);
SetupDiDestroyDeviceInfoList(hDevInfo);
return GetLastError();
}
hDevice = CreateFileW(DeviceInterfaceDetailData->DevicePath, GENERIC_READ | GENERIC_WRITE, 0, NULL, OPEN_EXISTING, FILE_FLAG_OVERLAPPED|FILE_ATTRIBUTE_NORMAL, NULL);
if (hDevice == INVALID_HANDLE_VALUE)
{
// failed
HeapFree(GetProcessHeap(), 0, DeviceInterfaceDetailData);
SetupDiDestroyDeviceInfoList(hDevInfo);
return GetLastError();
}
InstallInterface = (PSWENUM_INSTALL_INTERFACE)HeapAlloc(GetProcessHeap(), 0, sizeof(SWENUM_INSTALL_INTERFACE) + wcslen(ReferenceString) * sizeof(WCHAR));
if (!InstallInterface)
{
// failed
CloseHandle(hDevice);
HeapFree(GetProcessHeap(), 0, DeviceInterfaceDetailData);
SetupDiDestroyDeviceInfoList(hDevInfo);
return GetLastError();
}
// init install interface param
InstallInterface->DeviceId = *DeviceId;
InstallInterface->InterfaceId = *InterfaceId;
wcscpy(InstallInterface->ReferenceString, ReferenceString);
PerformIO(hDevice, IOCTL_SWENUM_INSTALL_INTERFACE, InstallInterface, sizeof(SWENUM_INSTALL_INTERFACE) + wcslen(ReferenceString) * sizeof(WCHAR), NULL, 0, NULL);
dwResult = HeapFree(GetProcessHeap(), 0, InstallInterface);
CloseHandle(hDevice);
HeapFree(GetProcessHeap(), 0, DeviceInterfaceDetailData);
SetupDiDestroyDeviceInfoList(hDevInfo);
return dwResult;
}
void CheapieBlade::On()
{
mLedPowerLevel = 255;
PerformIO();
}
void CheapieBlade::Off()
{
mLedPowerLevel = 0;
PerformIO();
}
void ZKMORHP_IOThreadSlave::WorkLoop()
{
// grab the IO guard
bool wasLocked = mIOGuard.Lock();
// initialize some stuff
mWorkLoopPhase = kInitializingPhase;
mIOCycleCounter = 0;
mOverloadCounter = 0;
CAPropertyAddress theIsRunningAddress(kAudioDevicePropertyDeviceIsRunning);
mDevice->GetIOCycleTelemetry().IOCycleInitializeBegin(mIOCycleCounter);
try
{
// and signal that the IO thread is running
mIOGuard.NotifyAll();
// initialize the work loop stopping conditions
mStopWorkLoop = false;
// Tell the device that the IO thread has initialized. Note that we unlock around this call
// due to the fact that IOCycleInitialize might not return for a while because it might
// have to wait for the hardware to start.
if(wasLocked)
{
mIOGuard.Unlock();
}
// tell the device that the IO cycle is initializing to start the timing services
mDevice->StartIOCycleTimingServices();
// set the device state to know the engine is running
mDevice->IOEngineStarted();
// notify clients that the engine is running
mDevice->PropertiesChanged(1, &theIsRunningAddress);
// re-lock the guard
wasLocked = mIOGuard.Lock();
// make sure the thread is still running before moving on
if(!mStopWorkLoop)
{
// set the time constraints for the IOThread
SetTimeConstraints();
// initialize the clock
mDevice->EstablishIOCycleAnchorTime(mAnchorTime);
mFrameCounter = 0;
#if Offset_For_Input
if(mDevice->HasInputStreams())
{
// the first sleep cycle as to be at least the input safety offset and a buffer's
// worth of time to be sure that the input data is all there
mFrameCounter += mDevice->GetSafetyOffset(true);
}
#endif
// enter the work loop
mWorkLoopPhase = kRunningPhase;
bool isInNeedOfResynch = false;
mDevice->GetIOCycleTelemetry().IOCycleInitializeEnd(mIOCycleCounter, mAnchorTime);
while(!mStopWorkLoop)
{
// get the current time
AudioTimeStamp theCurrentTime;
mDevice->GetCurrentTime(theCurrentTime);
// calculate the next wake up time
AudioTimeStamp theNextWakeUpTime = CAAudioTimeStamp::kZero;
theNextWakeUpTime.mFlags = kAudioTimeStampSampleTimeValid + kAudioTimeStampHostTimeValid + kAudioTimeStampRateScalarValid;
if(CalculateNextWakeUpTime(theCurrentTime, theNextWakeUpTime, isInNeedOfResynch, wasLocked))
{
// sleep until the next wake up time
mDevice->GetIOCycleTelemetry().IOCycleWorkLoopEnd(mIOCycleCounter, theCurrentTime, theNextWakeUpTime);
mIOGuard.WaitUntil(CAHostTimeBase::ConvertToNanos(theNextWakeUpTime.mHostTime));
// increment the counter
++mIOCycleCounter;
// do IO if the thread wasn't stopped
if(!mStopWorkLoop)
{
// get the current time
mDevice->GetCurrentTime(theCurrentTime);
#if Log_SchedulingLatency
// check to see if we have incurred a large scheduling latency
if(theCurrentTime.mHostTime > (theNextWakeUpTime.mHostTime + mAllowedLatency))
{
// log it
mLatencyLog->Capture(theNextWakeUpTime.mHostTime - mAllowedLatency, theCurrentTime.mHostTime, true);
// print how late we are
DebugMessageN1("HP_IOThread::WorkLoop: woke up late by %f milliseconds", ((Float64)CAHostTimeBase::ConvertToNanos(theCurrentTime.mHostTime - theNextWakeUpTime.mHostTime)) / (1000.0 * 1000.0));
}
#endif
if(theCurrentTime.mSampleTime >= (mAnchorTime.mSampleTime + mFrameCounter))
{
// increment the frame counter
mFrameCounter += mDevice->GetIOBufferFrameSize();
// the new cycle is starting
mDevice->GetIOCycleTelemetry().IOCycleWorkLoopBegin(mIOCycleCounter, theCurrentTime);
if(mDevice->UpdateIOCycleTimingServices())
{
// something unexpected happenned with the time stamp, so resynch prior to doing IO
AudioTimeStamp theNewAnchor = CAAudioTimeStamp::kZero;
theNewAnchor.mSampleTime = 0;
theNewAnchor.mHostTime = 0;
theNewAnchor.mFlags = kAudioTimeStampSampleTimeValid + kAudioTimeStampHostTimeValid + kAudioTimeStampRateScalarValid;
if(mDevice->EstablishIOCycleAnchorTime(theNewAnchor))
{
Resynch(&theNewAnchor, false);
}
else
{
Resynch(NULL, false);
}
// re-get the current time too
mDevice->GetCurrentTime(theCurrentTime);
}
// do the IO
isInNeedOfResynch = PerformIO(theCurrentTime);
}
}
}
else
{
// calculating the next wake up time failed, so we just stop everything (which
// will get picked up when the commands are executed
mDevice->ClearAllCommands();
mDevice->Do_StopAllIOProcs();
}
// execute any deferred commands
mDevice->ExecuteAllCommands();
}
}
mWorkLoopPhase = kTeardownPhase;
mDevice->GetIOCycleTelemetry().IOCycleTeardownBegin(mIOCycleCounter);
// the work loop has finished, clear the time constraints
ClearTimeConstraints();
// tell the device that the IO thread is torn down
mDevice->StopIOCycleTimingServices();
}
catch(const CAException& inException)
{
DebugMessageN1("HP_IOThread::WorkLoop: Caught a CAException, code == %ld", (long int)inException.GetError());
}
catch(...)
{
DebugMessage("HP_IOThread::WorkLoop: Caught an unknown exception.");
}
// set the device state to know the engine has stopped
mDevice->IOEngineStopped();
// Notify clients that the IO thread is stopping. Note that we unlock around this call
// due to the fact that clients might want to call back into the HAL.
if(wasLocked)
{
mIOGuard.Unlock();
}
// Notify clients that the IO thread is stopping
mDevice->PropertiesChanged(1, &theIsRunningAddress);
// re-lock the guard
wasLocked = mIOGuard.Lock();
mDevice->GetIOCycleTelemetry().IOCycleTeardownEnd(mIOCycleCounter);
mWorkLoopPhase = kNotRunningPhase;
mIOGuard.NotifyAll();
mIOCycleCounter = 0;
if(wasLocked)
{
mIOGuard.Unlock();
}
}
void ZKMORHP_IOThreadSlave::WorkLoopIteration(bool& isInNeedOfResynch)
{
if (mStopWorkLoop) {
WorkLoopTeardown();
return;
}
try {
bool wasLocked = mIOGuard.Lock();
// bool wasLocked;
wasLocked = mIOGuard.Try(wasLocked);
// get the current time
AudioTimeStamp theCurrentTime;
mDevice->GetCurrentTime(theCurrentTime);
// increment the counter
++mIOCycleCounter;
// do IO if the thread wasn't stopped
if(!mStopWorkLoop)
{
if(theCurrentTime.mSampleTime >= (mAnchorTime.mSampleTime + mFrameCounter))
{
// increment the frame counter
mFrameCounter += mDevice->GetIOBufferFrameSize();
// the new cycle is starting
mDevice->GetIOCycleTelemetry().IOCycleWorkLoopBegin(mIOCycleCounter, theCurrentTime);
if(mDevice->UpdateIOCycleTimingServices())
{
// something unexpected happened with the time stamp, so resynch prior to doing IO
AudioTimeStamp theNewAnchor = CAAudioTimeStamp::kZero;
theNewAnchor.mSampleTime = 0;
theNewAnchor.mHostTime = 0;
theNewAnchor.mFlags = kAudioTimeStampSampleTimeValid + kAudioTimeStampHostTimeValid + kAudioTimeStampRateScalarValid;
if(mDevice->EstablishIOCycleAnchorTime(theNewAnchor))
{
Resynch(&theNewAnchor, false);
}
else
{
Resynch(NULL, false);
}
// re-get the current time too
mDevice->GetCurrentTime(theCurrentTime);
}
// do the IO
isInNeedOfResynch = PerformIO(theCurrentTime);
}
}
// calculate the next wake up time
AudioTimeStamp theNextWakeUpTime = CAAudioTimeStamp::kZero;
theNextWakeUpTime.mFlags = kAudioTimeStampSampleTimeValid + kAudioTimeStampHostTimeValid + kAudioTimeStampRateScalarValid;
// bool wasLocked = false;
// bool wasLocked = mIOGuard.Lock();
if(CalculateNextWakeUpTime(theCurrentTime, theNextWakeUpTime, isInNeedOfResynch, wasLocked))
{
mDevice->GetIOCycleTelemetry().IOCycleWorkLoopEnd(mIOCycleCounter, theCurrentTime, theNextWakeUpTime);
}
// execute any deferred commands
mDevice->ExecuteAllCommands();
if (wasLocked) mIOGuard.Unlock();
}
catch(const CAException& inException)
{
DebugMessageN1("ZKMORHP_IOThreadSlave::WorkLoopIteration: Caught a CAException, code == %ld", (long int)inException.GetError());
}
catch(...)
{
DebugMessage("ZKMORHP_IOThreadSlave::WorkLoopIteration: Caught an unknown exception.");
}
}
void HP_IOThread::WorkLoop()
{
// grab the IO guard
bool wasLocked = mIOGuard.Lock();
// initialize some stuff
mWorkLoopPhase = kInitializingPhase;
mIOCycleCounter = 0;
mOverloadCounter = 0;
CAPropertyAddress theIsRunningAddress(kAudioDevicePropertyDeviceIsRunning);
#if Use_HAL_Telemetry
mDevice->GetIOCycleTelemetry().IOCycleInitializeBegin(mIOCycleCounter);
#else
HAL_IOCYCLEINITIALIZEBEGIN(mIOCycleCounter);
#endif
try
{
// and signal that the IO thread is running
mIOGuard.NotifyAll();
// initialize the work loop stopping conditions
mStopWorkLoop = false;
// Tell the device that the IO thread has initialized. Note that we unlock around this call
// due to the fact that IOCycleInitialize might not return for a while because it might
// have to wait for the hardware to start.
if(wasLocked)
{
mIOGuard.Unlock();
}
// tell the device that the IO cycle is initializing to start the timing services
mDevice->StartIOCycleTimingServices();
// set the device state to know the engine is running
mDevice->IOEngineStarted();
// notify clients that the engine is running
mDevice->PropertiesChanged(1, &theIsRunningAddress);
// re-lock the guard
wasLocked = mIOGuard.Lock();
// make sure the thread is still running before moving on
if(!mStopWorkLoop)
{
// set the time constraints for the IOThread
SetTimeConstraints();
// initialize the clock
mDevice->EstablishIOCycleAnchorTime(mAnchorTime);
mFrameCounter = 0;
#if Offset_For_Input
if(mDevice->HasInputStreams())
{
// the first sleep cycle as to be at least the input safety offset and a buffer's
// worth of time to be sure that the input data is all there
mFrameCounter += mDevice->GetSafetyOffset(true);
}
#endif
// get the current time
AudioTimeStamp theCurrentTime;
mDevice->GetCurrentTime(theCurrentTime);
// enter the work loop
mWorkLoopPhase = kRunningPhase;
bool isInNeedOfResynch = false;
bool isCheckingForOverloads = false;
Float64 theIOBufferFrameSize = mDevice->GetIOBufferFrameSize();
#if Use_HAL_Telemetry
mDevice->GetIOCycleTelemetry().IOCycleInitializeEnd(mIOCycleCounter, mAnchorTime);
mDevice->GetIOCycleTelemetry().IOCycleWorkLoopBegin(mIOCycleCounter, theCurrentTime);
#else
HAL_IOCYCLEINITIALIZEEND(mIOCycleCounter, mAnchorTime);
HAL_IOCYCLEWORKLOOPBEGIN(mIOCycleCounter, theCurrentTime);
#endif
while(!mStopWorkLoop)
{
// get the new IO buffer frame size
Float64 theNewIOBufferFrameSize = mDevice->GetIOBufferFrameSize();
// initialize the next wake up time
AudioTimeStamp theNextWakeUpTime = CAAudioTimeStamp::kZero;
theNextWakeUpTime.mFlags = kAudioTimeStampSampleTimeValid + kAudioTimeStampHostTimeValid + kAudioTimeStampRateScalarValid;
// get the current time
mDevice->GetCurrentTime(theCurrentTime);
// we have to run a special, untimed IO cycle if the IO buffer size changed
if((theNewIOBufferFrameSize != theIOBufferFrameSize) && (theCurrentTime.mSampleTime >= (mAnchorTime.mSampleTime + mFrameCounter)))
{
// mark the end of the previous cycle
#if Use_HAL_Telemetry
mDevice->GetIOCycleTelemetry().IOCycleWorkLoopEnd(mIOCycleCounter, theCurrentTime, theNextWakeUpTime);
#else
HAL_IOCYCLEWORKLOOPEND(mIOCycleCounter, theCurrentTime, theNextWakeUpTime);
#endif
// increment the cycle counter
++mIOCycleCounter;
// increment the frame counter
mFrameCounter += theIOBufferFrameSize;
// the new cycle is starting
#if Use_HAL_Telemetry
mDevice->GetIOCycleTelemetry().IOCycleWorkLoopBegin(mIOCycleCounter, theCurrentTime);
#else
HAL_IOCYCLEWORKLOOPBEGIN(mIOCycleCounter, theCurrentTime);
#endif
// do the IO, note that we don't need to update the timing services for this special cycle
isInNeedOfResynch = PerformIO(theCurrentTime, theIOBufferFrameSize);
// turn off overload checking for the next cycle to be nice to clients
isCheckingForOverloads = false;
}
// calculate the next wake up time
if(CalculateNextWakeUpTime(theCurrentTime, theIOBufferFrameSize, theNextWakeUpTime, isCheckingForOverloads, isInNeedOfResynch, wasLocked))
{
// sleep until the next wake up time
#if Use_HAL_Telemetry
mDevice->GetIOCycleTelemetry().IOCycleWorkLoopEnd(mIOCycleCounter, theCurrentTime, theNextWakeUpTime);
#else
HAL_IOCYCLEWORKLOOPEND(mIOCycleCounter, theCurrentTime, theNextWakeUpTime);
#endif
mIOGuard.WaitUntil(CAHostTimeBase::ConvertToNanos(theNextWakeUpTime.mHostTime));
// increment the cycle counter
++mIOCycleCounter;
// make sure overload checking is enabled
isCheckingForOverloads = true;
// do IO if the thread wasn't stopped
if(!mStopWorkLoop)
{
// get the current time
mDevice->GetCurrentTime(theCurrentTime);
if(theCurrentTime.mSampleTime >= (mAnchorTime.mSampleTime + mFrameCounter))
{
// increment the frame counter
mFrameCounter += theIOBufferFrameSize;
// refresh the current buffer size
theIOBufferFrameSize = theNewIOBufferFrameSize;
// the new cycle is starting
#if Use_HAL_Telemetry
mDevice->GetIOCycleTelemetry().IOCycleWorkLoopBegin(mIOCycleCounter, theCurrentTime);
#else
HAL_IOCYCLEWORKLOOPBEGIN(mIOCycleCounter, theCurrentTime);
#endif
if(mDevice->UpdateIOCycleTimingServices())
{
// something unexpected happenned with the time stamp, so resynch prior to doing IO
AudioTimeStamp theNewAnchor = CAAudioTimeStamp::kZero;
theNewAnchor.mSampleTime = 0;
theNewAnchor.mHostTime = 0;
theNewAnchor.mFlags = kAudioTimeStampSampleTimeValid + kAudioTimeStampHostTimeValid + kAudioTimeStampRateScalarValid;
if(mDevice->EstablishIOCycleAnchorTime(theNewAnchor))
{
Resynch(&theNewAnchor, false);
}
else
{
Resynch(NULL, false);
}
// re-get the current time too
mDevice->GetCurrentTime(theCurrentTime);
// mark the telemetry
#if Use_HAL_Telemetry
mDevice->GetIOCycleTelemetry().Resynch(GetIOCycleNumber(), mAnchorTime);
#else
HAL_RESYNCH(GetIOCycleNumber(), mAnchorTime);
#endif
}
// do the IO
isInNeedOfResynch = PerformIO(theCurrentTime, theIOBufferFrameSize);
}
}
}
else
{
// calculating the next wake up time failed, so we just stop everything (which
// will get picked up when the commands are executed
mDevice->ClearAllCommands();
mDevice->Do_StopAllIOProcs();
}
// execute any deferred commands
mDevice->ExecuteAllCommands();
}
}
mWorkLoopPhase = kTeardownPhase;
#if Use_HAL_Telemetry
mDevice->GetIOCycleTelemetry().IOCycleTeardownBegin(mIOCycleCounter);
#else
HAL_IOCYCLETEARDOWNBEGIN(mIOCycleCounter);
#endif
// the work loop has finished, clear the time constraints
ClearTimeConstraints();
// tell the device that the IO thread is torn down
mDevice->StopIOCycleTimingServices();
}
catch(const CAException& inException)
{
DebugMessageN1("HP_IOThread::WorkLoop: Caught a CAException, code == %ld", (long int)inException.GetError());
}
catch(...)
{
DebugMessage("HP_IOThread::WorkLoop: Caught an unknown exception.");
}
// set the device state to know the engine has stopped
mDevice->IOEngineStopped();
// Notify clients that the IO thread is stopping. Note that we unlock around this call
// due to the fact that clients might want to call back into the HAL.
if(wasLocked)
{
mIOGuard.Unlock();
}
// Notify clients that the IO thread is stopping
mDevice->PropertiesChanged(1, &theIsRunningAddress);
// re-lock the guard
wasLocked = mIOGuard.Lock();
#if Use_HAL_Telemetry
mDevice->GetIOCycleTelemetry().IOCycleTeardownEnd(mIOCycleCounter);
#else
HAL_IOCYCLETEARDOWNEND(mIOCycleCounter);
#endif
mWorkLoopPhase = kNotRunningPhase;
mIOGuard.NotifyAll();
mIOCycleCounter = 0;
if(wasLocked)
{
mIOGuard.Unlock();
}
}