void run()
{
mutex->lock();
++count;
dummy.wakeOne(); // this wakeup should be lost
started.wakeOne();
dummy.wakeAll(); // this one too
cond->wait(mutex);
--count;
mutex->unlock();
}
void run()
{
readWriteLock->lockForWrite();
++count;
dummy.wakeOne(); // this wakeup should be lost
started.wakeOne();
dummy.wakeAll(); // this one too
cond->wait(readWriteLock);
--count;
readWriteLock->unlock();
}
void run()
{
readWriteLock.lockForWrite();
cond.wakeOne();
cond.wait(&readWriteLock);
readWriteLock.unlock();
}
void run()
{
readWriteLock->lockForRead();
started.wakeOne();
cond->wait(readWriteLock);
readWriteLock->unlock();
}
void run()
{
mutex.lock();
cond.wakeOne();
cond.wait(&mutex);
mutex.unlock();
}
void run()
{
mutex->lock();
started.wakeOne();
cond->wait(mutex);
mutex->unlock();
}
void run()
{
pointers.setLocalData(new Pointer);
QMutexLocker locker(&mutex);
cond.wakeOne();
cond.wait(&mutex);
}
void intSignalHandler(int sig)
{
Q_UNUSED(sig)
hIMutex.lock();
hasInterrupt = true;
hICondition.wakeOne();
hIMutex.unlock();
}
void mainWindow::continueSolution (void)
{
pauseSolveThread = false;
pauseButton->setEnabled(TRUE);
continueButton->setEnabled(FALSE);
continueSolveThread.wakeOne();
statusLabel->setText(tr("Status: RUNNING"));
}
void
hwcv10_proc_vsync(const struct hwc_procs* procs, int disp, int64_t timestamp)
{
//fprintf(stderr, "%s: procs=%x, disp=%d, timestamp=%.0f\n", __func__, procs, disp, (float)timestamp);
vsync_mutex.lock();
vsync_cond.wakeOne();
vsync_mutex.unlock();
}
void VS_CC frameDoneCallback(void *userData, const VSFrameRef *f, int n, VSNodeRef *, const char *errorMsg) {
completedFrames++;
if (f) {
reorderMap.insert(n, f);
while (reorderMap.contains(outputFrames)) {
const VSFrameRef *frame = reorderMap.take(outputFrames);
if (!outputError) {
if (y4m) {
if (!fwrite("FRAME\n", 6, 1, outFile)) {
errorMessage = "Error: fwrite() call failed";
totalFrames = requestedFrames;
outputError = true;
}
}
if (!outputError) {
const VSFormat *fi = vsapi->getFrameFormat(frame);
for (int p = 0; p < fi->numPlanes; p++) {
int stride = vsapi->getStride(frame, p);
const uint8_t *readPtr = vsapi->getReadPtr(frame, p);
int rowSize = vsapi->getFrameWidth(frame, p) * fi->bytesPerSample;
int height = vsapi->getFrameHeight(frame, p);
for (int y = 0; y < height; y++) {
if (!fwrite(readPtr, rowSize, 1, outFile)) {
errorMessage = "Error: fwrite() call failed";
totalFrames = requestedFrames;
outputError = true;
p = 100; // break out of the outer loop
break;
}
readPtr += stride;
}
}
}
}
vsapi->freeFrame(frame);
outputFrames++;
}
} else {
outputError = true;
totalFrames = requestedFrames;
if (errorMsg)
errorMessage = QString("Error: Failed to retrieve frame ") + n + QString(" with error: ") + QString::fromUtf8(errorMsg);
else
errorMessage = QString("Error: Failed to retrieve frame ") + n;
}
if (requestedFrames < totalFrames) {
vsapi->getFrameAsync(requestedFrames, node, frameDoneCallback, NULL);
requestedFrames++;
}
if (totalFrames == completedFrames) {
QMutexLocker lock(&mutex);
condition.wakeOne();
}
}
int RawHIDWriteThread::pushDataToWrite(const char *data, int size)
{
QMutexLocker lock(&m_writeBufMtx);
m_writeBuffer.append(data, size);
m_newDataToWrite.wakeOne(); //signal that new data arrived
return size;
}
void
IdThreadWorker::stop()
{
{
QMutexLocker l( &s_mutex );
m_stop = true;
}
s_waitCond.wakeOne();
}
void run() {
readWriteLock->lockForWrite();
ready = true;
startup->wakeOne();
returnValue = waitCondition->wait(readWriteLock, timeout);
readWriteLock->unlock();
}
void run() {
mutex->lock();
ready = true;
startup->wakeOne();
returnValue = waitCondition->wait(mutex, timeout);
mutex->unlock();
}
bool checkForExit()
{
QMutexLocker l(&mustQuitMutex);
if (mustQuit) {
mustQuit = false;
mustQuitCond.wakeOne();
return true;
}
return false;
}
void UserInterface::abort()
{
if (isRunning())
{
hIMutex.lock();
isAborting = true;
hasInterrupt = true;
hICondition.wakeOne();
hIMutex.unlock();
}
}
/**
* @brief rajoute un vélo sur le site, si auncune borne n'est disponnible
* attends qu'une borne se libère
*/
void put(){
mutex.lock();
while(_nbBikes >= NB_BORNES){
availableBorne.wait(&mutex);
}
++_nbBikes;
availableBike.wakeOne();
gui_interface->setBikes(ID, _nbBikes);
mutex.unlock();
}
bool checkForAbort()
{
QMutexLocker k(&abortRequestsMutex);
if (abortRequests > 0) {
abortRequests = 0;
abortRequestsCond.wakeOne();
return true;
}
return false;
}
/**
* @brief enlève un vélo du site, si aucun vélo n'est disponible, attends
* que quelqu'un en dépose un
*/
void take() {
mutex.lock();
while(_nbBikes <= 0){
availableBike.wait(&mutex);
}
--_nbBikes;
availableBorne.wakeOne();
gui_interface->setBikes(ID, _nbBikes);
mutex.unlock();
}
void run()
{
test_mutex.lock();
mutex.lock();
for (int i = 0; i < iterations; ++i) {
cond.wakeOne();
cond.wait(&mutex);
}
mutex.unlock();
test_mutex.unlock();
}
void Consumer1::run()
{
qDebug() << "Consumer " << m_id << " before wakeall ";
if(m_bWakeAll)
g_con.wakeAll();
else
g_con.wakeOne();
qDebug() << "Consumer " << m_id << " after wakeall";
}
void
IdThreadWorker::getAlbumId( const album_ptr& album, bool autoCreate )
{
QueueItem* item = internalGet( artist_ptr(), album, trackdata_ptr(), autoCreate, AlbumType );
album->setIdFuture( item->promise.future() );
#if ID_THREAD_DEBUG
tDebug() << "QUEUEING ALUBM:" << album->artist()->name() << album->name();
#endif
s_mutex.lock();
s_workQueue.enqueue( item );
s_mutex.unlock();
s_waitCond.wakeOne();
#if ID_THREAD_DEBUG
tDebug() << "DONE WOKE UP THREAD:" << album->artist()->name() << album->name();
#endif
}
void
IdThreadWorker::getTrackId( const trackdata_ptr& track, bool autoCreate )
{
QueueItem* item = internalGet( artist_ptr(), album_ptr(), track, autoCreate, TrackType );
track->setIdFuture( item->promise.future() );
#if ID_THREAD_DEBUG
tDebug() << "QUEUEING TRACK:" << track->toString();
#endif
s_mutex.lock();
s_workQueue.enqueue( item );
s_mutex.unlock();
s_waitCond.wakeOne();
#if ID_THREAD_DEBUG
tDebug() << "DONE WOKE UP THREAD:" << track->toString();
#endif
}
void tst_QWaitCondition::wait_QReadWriteLock()
{
{
QReadWriteLock readWriteLock(QReadWriteLock::Recursive);
QWaitCondition waitCondition;
// ensure that the lockForRead is correctly restored
readWriteLock.lockForRead();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
QVERIFY(!readWriteLock.tryLockForWrite());
QVERIFY(readWriteLock.tryLockForRead());
readWriteLock.unlock();
QVERIFY(!readWriteLock.tryLockForWrite());
readWriteLock.unlock();
QVERIFY(readWriteLock.tryLockForWrite());
readWriteLock.unlock();
}
{
QReadWriteLock readWriteLock(QReadWriteLock::Recursive);
QWaitCondition waitCondition;
// ensure that the lockForWrite is correctly restored
readWriteLock.lockForWrite();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
QVERIFY(!readWriteLock.tryLockForRead());
QVERIFY(readWriteLock.tryLockForWrite());
readWriteLock.unlock();
QVERIFY(!readWriteLock.tryLockForRead());
readWriteLock.unlock();
QVERIFY(readWriteLock.tryLockForRead());
readWriteLock.unlock();
}
int x;
for (int i = 0; i < iterations; ++i) {
{
QReadWriteLock readWriteLock;
QWaitCondition waitCondition;
readWriteLock.lockForRead();
waitCondition.wakeOne();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
waitCondition.wakeAll();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
readWriteLock.unlock();
}
{
QReadWriteLock readWriteLock;
QWaitCondition waitCondition;
readWriteLock.lockForWrite();
waitCondition.wakeOne();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
waitCondition.wakeAll();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
readWriteLock.unlock();
}
{
// test multiple threads waiting on separate wait conditions
wait_QReadWriteLock_Thread_1 thread[ThreadCount];
for (x = 0; x < ThreadCount; ++x) {
thread[x].readWriteLock.lockForRead();
thread[x].start();
// wait for thread to start
QVERIFY(thread[x].cond.wait(&thread[x].readWriteLock, 1000));
thread[x].readWriteLock.unlock();
}
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].isRunning());
QVERIFY(!thread[x].isFinished());
}
for (x = 0; x < ThreadCount; ++x) {
thread[x].readWriteLock.lockForRead();
thread[x].cond.wakeOne();
thread[x].readWriteLock.unlock();
}
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].wait(1000));
}
}
{
// test multiple threads waiting on a wait condition
QReadWriteLock readWriteLock;
QWaitCondition cond1, cond2;
wait_QReadWriteLock_Thread_2 thread[ThreadCount];
readWriteLock.lockForWrite();
for (x = 0; x < ThreadCount; ++x) {
thread[x].readWriteLock = &readWriteLock;
thread[x].cond = (x < ThreadCount / 2) ? &cond1 : &cond2;
thread[x].start();
// wait for thread to start
QVERIFY(thread[x].started.wait(&readWriteLock, 1000));
}
readWriteLock.unlock();
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].isRunning());
QVERIFY(!thread[x].isFinished());
}
readWriteLock.lockForWrite();
cond1.wakeAll();
cond2.wakeAll();
readWriteLock.unlock();
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].wait(1000));
}
}
}
}
void tst_QWaitCondition::wait_RaceCondition()
{
{
QMutex mutex;
QWaitCondition startup;
QWaitCondition waitCondition;
wait_RaceConditionThread timeoutThread(&mutex, &startup, &waitCondition, 1000),
waitingThread1(&mutex, &startup, &waitCondition);
timeoutThread.start();
waitingThread1.start();
mutex.lock();
// wait for the threads to start up
while (!timeoutThread.ready
|| !waitingThread1.ready) {
startup.wait(&mutex);
}
QTest::qWait(2000);
waitCondition.wakeOne();
mutex.unlock();
QVERIFY(timeoutThread.wait(5000));
QVERIFY(!timeoutThread.returnValue);
QVERIFY(waitingThread1.wait(5000));
QVERIFY(waitingThread1.returnValue);
}
{
QReadWriteLock readWriteLock;
QWaitCondition startup;
QWaitCondition waitCondition;
wait_RaceConditionThread_2 timeoutThread(&readWriteLock, &startup, &waitCondition, 1000),
waitingThread1(&readWriteLock, &startup, &waitCondition);
timeoutThread.start();
waitingThread1.start();
readWriteLock.lockForRead();
// wait for the threads to start up
while (!timeoutThread.ready
|| !waitingThread1.ready) {
startup.wait(&readWriteLock);
}
QTest::qWait(2000);
waitCondition.wakeOne();
readWriteLock.unlock();
QVERIFY(timeoutThread.wait(5000));
QVERIFY(!timeoutThread.returnValue);
QVERIFY(waitingThread1.wait(5000));
QVERIFY(waitingThread1.returnValue);
}
}
void tst_QWaitCondition::wait_QReadWriteLock()
{
{
QReadWriteLock readWriteLock(QReadWriteLock::Recursive);
QWaitCondition waitCondition;
// ensure that the lockForRead is correctly restored
readWriteLock.lockForRead();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
QVERIFY(!readWriteLock.tryLockForWrite());
QVERIFY(readWriteLock.tryLockForRead());
readWriteLock.unlock();
QVERIFY(!readWriteLock.tryLockForWrite());
readWriteLock.unlock();
QVERIFY(readWriteLock.tryLockForWrite());
readWriteLock.unlock();
}
{
QReadWriteLock readWriteLock(QReadWriteLock::Recursive);
QWaitCondition waitCondition;
// ensure that the lockForWrite is correctly restored
readWriteLock.lockForWrite();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
QVERIFY(!readWriteLock.tryLockForRead());
QVERIFY(readWriteLock.tryLockForWrite());
readWriteLock.unlock();
QVERIFY(!readWriteLock.tryLockForRead());
readWriteLock.unlock();
QVERIFY(readWriteLock.tryLockForRead());
readWriteLock.unlock();
}
int x;
for (int i = 0; i < iterations; ++i) {
{
QReadWriteLock readWriteLock;
QWaitCondition waitCondition;
readWriteLock.lockForRead();
waitCondition.wakeOne();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
waitCondition.wakeAll();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
readWriteLock.unlock();
}
{
QReadWriteLock readWriteLock;
QWaitCondition waitCondition;
readWriteLock.lockForWrite();
waitCondition.wakeOne();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
waitCondition.wakeAll();
QVERIFY(!waitCondition.wait(&readWriteLock, 1));
readWriteLock.unlock();
}
{
// test multiple threads waiting on separate wait conditions
wait_QReadWriteLock_Thread_1 thread[ThreadCount];
for (x = 0; x < ThreadCount; ++x) {
thread[x].readWriteLock.lockForRead();
thread[x].start();
// wait for thread to start
#if defined(Q_OS_SYMBIAN) && defined(Q_CC_WINSCW)
// Symbian emulator startup simultaneously with this thread causes additional delay
QVERIFY(thread[x].cond.wait(&thread[x].readWriteLock, 10000));
#else
QVERIFY(thread[x].cond.wait(&thread[x].readWriteLock, 1000));
#endif
thread[x].readWriteLock.unlock();
}
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].isRunning());
QVERIFY(!thread[x].isFinished());
}
for (x = 0; x < ThreadCount; ++x) {
thread[x].readWriteLock.lockForRead();
thread[x].cond.wakeOne();
thread[x].readWriteLock.unlock();
}
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].wait(1000));
}
}
{
// test multiple threads waiting on a wait condition
QReadWriteLock readWriteLock;
QWaitCondition cond1, cond2;
wait_QReadWriteLock_Thread_2 thread[ThreadCount];
readWriteLock.lockForWrite();
for (x = 0; x < ThreadCount; ++x) {
thread[x].readWriteLock = &readWriteLock;
thread[x].cond = (x < ThreadCount / 2) ? &cond1 : &cond2;
thread[x].start();
// wait for thread to start
QVERIFY(thread[x].started.wait(&readWriteLock, 1000));
}
readWriteLock.unlock();
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].isRunning());
QVERIFY(!thread[x].isFinished());
}
readWriteLock.lockForWrite();
cond1.wakeAll();
cond2.wakeAll();
readWriteLock.unlock();
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].wait(1000));
}
}
}
}
void tst_QWaitCondition::wait_QMutex()
{
int x;
for (int i = 0; i < iterations; ++i) {
{
QMutex mutex;
QWaitCondition cond;
mutex.lock();
cond.wakeOne();
QVERIFY(!cond.wait(&mutex, 1));
cond.wakeAll();
QVERIFY(!cond.wait(&mutex, 1));
mutex.unlock();
}
{
// test multiple threads waiting on separate wait conditions
wait_QMutex_Thread_1 thread[ThreadCount];
for (x = 0; x < ThreadCount; ++x) {
thread[x].mutex.lock();
thread[x].start();
// wait for thread to start
QVERIFY(thread[x].cond.wait(&thread[x].mutex, 1000));
thread[x].mutex.unlock();
}
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].isRunning());
QVERIFY(!thread[x].isFinished());
}
for (x = 0; x < ThreadCount; ++x) {
thread[x].mutex.lock();
thread[x].cond.wakeOne();
thread[x].mutex.unlock();
}
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].wait(1000));
}
}
{
// test multiple threads waiting on a wait condition
QMutex mutex;
QWaitCondition cond1, cond2;
wait_QMutex_Thread_2 thread[ThreadCount];
mutex.lock();
for (x = 0; x < ThreadCount; ++x) {
thread[x].mutex = &mutex;
thread[x].cond = (x < ThreadCount / 2) ? &cond1 : &cond2;
thread[x].start();
// wait for thread to start
QVERIFY(thread[x].started.wait(&mutex, 1000));
}
mutex.unlock();
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].isRunning());
QVERIFY(!thread[x].isFinished());
}
mutex.lock();
cond1.wakeAll();
cond2.wakeAll();
mutex.unlock();
for (x = 0; x < ThreadCount; ++x) {
QVERIFY(thread[x].wait(1000));
}
}
}
}
void run()
{
QMutexLocker locker(&mutex);
cond.wakeOne();
}
void tst_QWaitCondition::wakeOne()
{
int x;
// wake up threads, one at a time
for (int i = 0; i < iterations; ++i) {
QMutex mutex;
QWaitCondition cond;
// QMutex
wake_Thread thread[ThreadCount];
bool thread_exited[ThreadCount];
mutex.lock();
for (x = 0; x < ThreadCount; ++x) {
thread[x].mutex = &mutex;
thread[x].cond = &cond;
thread_exited[x] = false;
thread[x].start();
// wait for thread to start
QVERIFY(thread[x].started.wait(&mutex, 1000));
// make sure wakeups are not queued... if nothing is
// waiting at the time of the wakeup, nothing happens
QVERIFY(!thread[x].dummy.wait(&mutex, 1));
}
mutex.unlock();
QCOMPARE(wake_Thread::count, ThreadCount);
// wake up threads one at a time
for (x = 0; x < ThreadCount; ++x) {
mutex.lock();
cond.wakeOne();
QVERIFY(!cond.wait(&mutex, COND_WAIT_TIME));
QVERIFY(!thread[x].dummy.wait(&mutex, 1));
mutex.unlock();
int exited = 0;
for (int y = 0; y < ThreadCount; ++y) {
if (thread_exited[y])
continue;
if (thread[y].wait(exited > 0 ? 10 : 1000)) {
thread_exited[y] = true;
++exited;
}
}
QCOMPARE(exited, 1);
QCOMPARE(wake_Thread::count, ThreadCount - (x + 1));
}
QCOMPARE(wake_Thread::count, 0);
// QReadWriteLock
QReadWriteLock readWriteLock;
wake_Thread_2 rwthread[ThreadCount];
readWriteLock.lockForWrite();
for (x = 0; x < ThreadCount; ++x) {
rwthread[x].readWriteLock = &readWriteLock;
rwthread[x].cond = &cond;
thread_exited[x] = false;
rwthread[x].start();
// wait for thread to start
QVERIFY(rwthread[x].started.wait(&readWriteLock, 1000));
// make sure wakeups are not queued... if nothing is
// waiting at the time of the wakeup, nothing happens
QVERIFY(!rwthread[x].dummy.wait(&readWriteLock, 1));
}
readWriteLock.unlock();
QCOMPARE(wake_Thread_2::count, ThreadCount);
// wake up threads one at a time
for (x = 0; x < ThreadCount; ++x) {
readWriteLock.lockForWrite();
cond.wakeOne();
QVERIFY(!cond.wait(&readWriteLock, COND_WAIT_TIME));
QVERIFY(!rwthread[x].dummy.wait(&readWriteLock, 1));
readWriteLock.unlock();
int exited = 0;
for (int y = 0; y < ThreadCount; ++y) {
if (thread_exited[y])
continue;
if (rwthread[y].wait(exited > 0 ? 10 : 1000)) {
thread_exited[y] = true;
++exited;
}
}
QCOMPARE(exited, 1);
QCOMPARE(wake_Thread_2::count, ThreadCount - (x + 1));
}
QCOMPARE(wake_Thread_2::count, 0);
}
// wake up threads, two at a time
for (int i = 0; i < iterations; ++i) {
QMutex mutex;
QWaitCondition cond;
// QMutex
wake_Thread thread[ThreadCount];
bool thread_exited[ThreadCount];
mutex.lock();
for (x = 0; x < ThreadCount; ++x) {
thread[x].mutex = &mutex;
thread[x].cond = &cond;
thread_exited[x] = false;
thread[x].start();
// wait for thread to start
QVERIFY(thread[x].started.wait(&mutex, 1000));
// make sure wakeups are not queued... if nothing is
// waiting at the time of the wakeup, nothing happens
QVERIFY(!thread[x].dummy.wait(&mutex, 1));
}
mutex.unlock();
QCOMPARE(wake_Thread::count, ThreadCount);
// wake up threads one at a time
for (x = 0; x < ThreadCount; x += 2) {
mutex.lock();
cond.wakeOne();
cond.wakeOne();
QVERIFY(!cond.wait(&mutex, COND_WAIT_TIME));
QVERIFY(!thread[x].dummy.wait(&mutex, 1));
QVERIFY(!thread[x + 1].dummy.wait(&mutex, 1));
mutex.unlock();
int exited = 0;
for (int y = 0; y < ThreadCount; ++y) {
if (thread_exited[y])
continue;
if (thread[y].wait(exited > 0 ? 10 : 1000)) {
thread_exited[y] = true;
++exited;
}
}
QCOMPARE(exited, 2);
QCOMPARE(wake_Thread::count, ThreadCount - (x + 2));
}
QCOMPARE(wake_Thread::count, 0);
// QReadWriteLock
QReadWriteLock readWriteLock;
wake_Thread_2 rwthread[ThreadCount];
readWriteLock.lockForWrite();
for (x = 0; x < ThreadCount; ++x) {
rwthread[x].readWriteLock = &readWriteLock;
rwthread[x].cond = &cond;
thread_exited[x] = false;
rwthread[x].start();
// wait for thread to start
QVERIFY(rwthread[x].started.wait(&readWriteLock, 1000));
// make sure wakeups are not queued... if nothing is
// waiting at the time of the wakeup, nothing happens
QVERIFY(!rwthread[x].dummy.wait(&readWriteLock, 1));
}
readWriteLock.unlock();
QCOMPARE(wake_Thread_2::count, ThreadCount);
// wake up threads one at a time
for (x = 0; x < ThreadCount; x += 2) {
readWriteLock.lockForWrite();
cond.wakeOne();
cond.wakeOne();
QVERIFY(!cond.wait(&readWriteLock, COND_WAIT_TIME));
QVERIFY(!rwthread[x].dummy.wait(&readWriteLock, 1));
QVERIFY(!rwthread[x + 1].dummy.wait(&readWriteLock, 1));
readWriteLock.unlock();
int exited = 0;
for (int y = 0; y < ThreadCount; ++y) {
if (thread_exited[y])
continue;
if (rwthread[y].wait(exited > 0 ? 10 : 1000)) {
thread_exited[y] = true;
++exited;
}
}
QCOMPARE(exited, 2);
QCOMPARE(wake_Thread_2::count, ThreadCount - (x + 2));
}
QCOMPARE(wake_Thread_2::count, 0);
}
}
