void WatekStatusu::zablokujSockety()
{
pisanieWTrakcie.acquire();
czytanie.acquire();
mutCzytelnik.acquire();
if (++iloscCzytlenikow == 1)
pisanie.acquire();
mutCzytelnik.release();
czytanie.release();
pisanieWTrakcie.release();
}
void Customer::run() {
waitChair.acquire(); // wait for a chair
barberReady->acquire(); // wait for a barber to be ready
l2.lock();
int bID = buffer[out];
out = (out + 1) % numBarbers;
l2.unlock();
waitChair.release(); // get up from the chair
barberChair.acquire(); // wait for an available barber chair
customerReady[bID].release(); // signal that customer is ready
concurPrint(ID, bID);
barberDone[bID].acquire(); // wait for barber to finish haircut
barberChair.release(); // get up from barber's chair
}
void Consumer::run()
{
for (int i = 0; i < DataSize; ++i) {
usedSpace.acquire();
QCOMPARE(buffer[i % BufferSize], alphabet[i % AlphabetSize]);
freeSpace.release();
}
for (int i = 0; i < DataSize; ++i) {
if ((i % ConsumerChunkSize) == 0)
usedSpace.acquire(ConsumerChunkSize);
QCOMPARE(buffer[i % BufferSize], alphabet[i % AlphabetSize]);
if ((i % ConsumerChunkSize) == (ConsumerChunkSize - 1))
freeSpace.release(ConsumerChunkSize);
}
}
void WatekStatusu::odblokujSockety()
{
mutCzytelnik.acquire();
if (--iloscCzytlenikow == 0)
pisanie.release();
mutCzytelnik.release();
}
static PyObject *meth_QSemaphore_acquire(PyObject *sipSelf, PyObject *sipArgs, PyObject *sipKwds)
{
PyObject *sipParseErr = NULL;
{
int a0 = 1;
QSemaphore *sipCpp;
static const char *sipKwdList[] = {
sipName_n,
};
if (sipParseKwdArgs(&sipParseErr, sipArgs, sipKwds, sipKwdList, NULL, "B|i", &sipSelf, sipType_QSemaphore, &sipCpp, &a0))
{
Py_BEGIN_ALLOW_THREADS
sipCpp->acquire(a0);
Py_END_ALLOW_THREADS
Py_INCREF(Py_None);
return Py_None;
}
}
/* Raise an exception if the arguments couldn't be parsed. */
sipNoMethod(sipParseErr, sipName_QSemaphore, sipName_acquire, NULL);
return NULL;
}
static void skin_surface_free(SkinSurface *s)
{
D("skin_surface_free %d", s->id);
QSemaphore semaphore;
s->window->releaseBitmap(s, &semaphore);
semaphore.acquire();
free(s);
}
void run()
{
testsTurn.release();
threadsTurn.acquire();
QVERIFY(!recursiveMutex.tryLock());
testsTurn.release();
threadsTurn.acquire();
QVERIFY(recursiveMutex.tryLock());
QVERIFY(lockCount.testAndSetRelaxed(0, 1));
QVERIFY(recursiveMutex.tryLock());
QVERIFY(lockCount.testAndSetRelaxed(1, 2));
QVERIFY(lockCount.testAndSetRelaxed(2, 1));
recursiveMutex.unlock();
QVERIFY(lockCount.testAndSetRelaxed(1, 0));
recursiveMutex.unlock();
testsTurn.release();
threadsTurn.acquire();
QTime timer;
timer.start();
QVERIFY(!recursiveMutex.tryLock(waitTime));
QVERIFY(timer.elapsed() >= waitTime);
QVERIFY(!recursiveMutex.tryLock(0));
testsTurn.release();
threadsTurn.acquire();
timer.start();
QVERIFY(recursiveMutex.tryLock(waitTime));
QVERIFY(timer.elapsed() <= waitTime);
QVERIFY(lockCount.testAndSetRelaxed(0, 1));
QVERIFY(recursiveMutex.tryLock(waitTime));
QVERIFY(lockCount.testAndSetRelaxed(1, 2));
QVERIFY(lockCount.testAndSetRelaxed(2, 1));
recursiveMutex.unlock();
QVERIFY(lockCount.testAndSetRelaxed(1, 0));
recursiveMutex.unlock();
testsTurn.release();
threadsTurn.acquire();
QVERIFY(!recursiveMutex.tryLock(0));
QVERIFY(!recursiveMutex.tryLock(0));
testsTurn.release();
threadsTurn.acquire();
timer.start();
QVERIFY(recursiveMutex.tryLock(0));
QVERIFY(timer.elapsed() < waitTime);
QVERIFY(lockCount.testAndSetRelaxed(0, 1));
QVERIFY(recursiveMutex.tryLock(0));
QVERIFY(lockCount.testAndSetRelaxed(1, 2));
QVERIFY(lockCount.testAndSetRelaxed(2, 1));
recursiveMutex.unlock();
QVERIFY(lockCount.testAndSetRelaxed(1, 0));
recursiveMutex.unlock();
testsTurn.release();
threadsTurn.acquire();
}
extern void skin_surface_fill(SkinSurface *dst, SkinRect *rect, uint32_t argb_premul)
{
D("skin_surface_fill %d: %d, %d, %d, %d: %x", dst->id, rect->pos.x, rect->pos.y, rect->size.w, rect->size.h, argb_premul);
QRect qrect(rect->pos.x, rect->pos.y, rect->size.w, rect->size.h);
QColor color(argb_premul);
QSemaphore semaphore;
dst->window->fill(dst, &qrect, &color, &semaphore);
semaphore.acquire();
}
extern bool skin_event_poll(SkinEvent* event) {
bool retval;
QSemaphore semaphore;
EmulatorWindow *window = EmulatorWindow::getInstance();
if (window == false) return false;
window->pollEvent(event, &retval, &semaphore);
semaphore.acquire();
return retval;
}
extern void skin_surface_update(SkinSurface *surface, SkinRect *rect)
{
#if 0
D("skin_surface_update %d: %d,%d,%d,%d", surface->id, rect->pos.x, rect->pos.y, rect->size.w, rect->size.h);
#endif
QRect qrect(rect->pos.x, rect->pos.y, rect->size.w, rect->size.h);
QSemaphore semaphore;
surface->window->requestUpdate(&qrect, &semaphore);
semaphore.acquire();
}
void Consumer::run()
{
for (int i = 0; i < DataSize; ++i) {
usedBytes.acquire();
fprintf(stderr, "%c", buffer[i % BufferSize]);
freeBytes.release();
}
fprintf(stderr, "\n");
}
/**
* \brief Thread-safe vypis o behu servru.
* \param msg Sprava pre vypis
* \retval void
*/
void debug(const char * msg) {
static QSemaphore my_sem(1);
my_sem.acquire();
qDebug() << "[" << QThread::currentThreadId() << "]"
<<QTime::currentTime().toString() << msg;
my_sem.release();
}
void run()
{
testsTurn.release();
threadsTurn.acquire();
QVERIFY(!readWriteLock.tryLockForRead());
testsTurn.release();
threadsTurn.acquire();
QVERIFY(readWriteLock.tryLockForRead());
lockCount.ref();
QVERIFY(readWriteLock.tryLockForRead());
lockCount.ref();
lockCount.deref();
readWriteLock.unlock();
lockCount.deref();
readWriteLock.unlock();
testsTurn.release();
threadsTurn.acquire();
QTime timer;
timer.start();
QVERIFY(!readWriteLock.tryLockForRead(1000));
QVERIFY(timer.elapsed() >= 1000);
testsTurn.release();
threadsTurn.acquire();
timer.start();
QVERIFY(readWriteLock.tryLockForRead(1000));
QVERIFY(timer.elapsed() <= 1000);
lockCount.ref();
QVERIFY(readWriteLock.tryLockForRead(1000));
lockCount.ref();
lockCount.deref();
readWriteLock.unlock();
lockCount.deref();
readWriteLock.unlock();
testsTurn.release();
threadsTurn.acquire();
}
int main( int argc, char** argv ) {
qRegisterMetaType<vector<string> >("vector<string>");
QThread* thread = new MainProcessingThread( );
thread->start();
// thread->exec();
QApplication* app = new QApplication( argc, argv );
semaphore.acquire();
grid = new GridViewer(districtMap);
QObject::connect( thread, SIGNAL(sendPath(vector<string>)), grid, SLOT(sendPath(vector<string>))); //, Qt::QueuedConnection );
grid->show();
app->exec();
}
/*
Test that the thread pool really reuses threads.
*/
void tst_QThreadPool::threadRecycling()
{
QThreadPool threadPool;
threadPool.start(new ThreadRecorderTask());
threadRecyclingSemaphore.acquire();
QThread *thread1 = recycledThread;
QTest::qSleep(100);
threadPool.start(new ThreadRecorderTask());
threadRecyclingSemaphore.acquire();
QThread *thread2 = recycledThread;
QCOMPARE(thread1, thread2);
QTest::qSleep(100);
threadPool.start(new ThreadRecorderTask());
threadRecyclingSemaphore.acquire();
QThread *thread3 = recycledThread;
QCOMPARE(thread2, thread3);
}
extern SkinSurface* skin_surface_create_window(int x, int y, int w, int h, int original_w, int original_h, int is_fullscreen)
{
D("skin_surface_create_window %d, %d, %d, %d, %d, %d, fullscreen: %d", x, y, w, h, original_w, original_h, is_fullscreen);
QSemaphore semaphore;
EmulatorWindow *window = EmulatorWindow::getInstance();
if (window == NULL) return NULL;
SkinSurface *surface = create_surface(w, h, original_w, original_h);
QRect rect(x, y, w, h);
window->showWindow(surface, &rect, is_fullscreen, &semaphore);
semaphore.acquire();
D("ID of backing bitmap surface is %d", surface->id);
return surface;
}
void TextConsumer::run()
{
int i = 0;
// QSemaphore::availableData():
// returns the number of available semaphores
while( atEnd.available() || availableData.available() )
{
availableData.acquire();
qDebug() << buffer[ i ];
i = (i+1) % bufferSize;
freeSpace.release();
}
}
void NodeProtocolObjectPrivate::init()
{
nodeNum = 0;
ctlCode = 0;
cmdType = 0;
cmdNum = 0;
cmdContent = 0;
cmdPramLen = 0;
memset(cmdParam, 0, sizeof(cmdParam));
if(sem.available() > 0)
{
sem.acquire(1);
}
}
void Consumer::run()
{
for(int i=0;i<DataSize;i++)
{
usedBytes.acquire();
fprintf(stderr,"%d",buffer[i%BufferSize]);
if(i%16==0&&i!=0)
fprintf(stderr,"\n");
freeBytes.release();
}
fprintf(stderr,"\n");
}
void run()
{
testsTurn.release();
threadsTurn.acquire();
QVERIFY(!normalMutex.tryLock());
testsTurn.release();
threadsTurn.acquire();
QVERIFY(normalMutex.tryLock());
QVERIFY(lockCount.testAndSetRelaxed(0, 1));
QVERIFY(!normalMutex.tryLock());
QVERIFY(lockCount.testAndSetRelaxed(1, 0));
normalMutex.unlock();
testsTurn.release();
threadsTurn.acquire();
QTime timer;
timer.start();
QVERIFY(!normalMutex.tryLock(1000));
QVERIFY(timer.elapsed() >= 1000);
testsTurn.release();
threadsTurn.acquire();
timer.start();
QVERIFY(normalMutex.tryLock(1000));
QVERIFY(timer.elapsed() <= 1000);
QVERIFY(lockCount.testAndSetRelaxed(0, 1));
timer.start();
QVERIFY(!normalMutex.tryLock(1000));
QVERIFY(timer.elapsed() >= 1000);
QVERIFY(lockCount.testAndSetRelaxed(1, 0));
normalMutex.unlock();
testsTurn.release();
threadsTurn.acquire();
}
void run()
{
testsTurn.release();
threadsTurn.acquire();
if (readWriteLock.tryLockForWrite())
failureCount++;
testsTurn.release();
threadsTurn.acquire();
if (!readWriteLock.tryLockForWrite())
failureCount++;
if (!lockCount.testAndSetRelaxed(0, 1))
failureCount++;
if (!lockCount.testAndSetRelaxed(1, 0))
failureCount++;
readWriteLock.unlock();
testsTurn.release();
threadsTurn.acquire();
if (readWriteLock.tryLockForWrite(1000))
failureCount++;
testsTurn.release();
threadsTurn.acquire();
if (!readWriteLock.tryLockForWrite(1000))
failureCount++;
if (!lockCount.testAndSetRelaxed(0, 1))
failureCount++;
if (!lockCount.testAndSetRelaxed(1, 0))
failureCount++;
readWriteLock.unlock();
testsTurn.release();
threadsTurn.acquire();
}
void Bindable::callSlotObject(Detail::Binding binding, void **args)
{
if (connectionType(binding.m_receiver) == Qt::BlockingQueuedConnection)
{
QSemaphore semaphore;
QMetaCallEvent *ev =
new QMetaCallEvent(binding.m_object, nullptr, -1, 0, 0, args, &semaphore);
QCoreApplication::postEvent(const_cast<QObject *>(binding.m_receiver), ev);
semaphore.acquire();
}
else
{
binding.m_object->call(const_cast<QObject *>(binding.m_receiver), args);
}
}
static inline void checkPauseApplication()
{
m_pauseApplicationMutex.lock();
if (m_pauseApplication) {
m_pauseApplicationMutex.unlock();
m_pauseApplicationSemaphore.acquire(); // wait until surface is created
m_pauseApplicationMutex.lock();
m_pauseApplication = false;
m_pauseApplicationMutex.unlock();
//FIXME
// QWindowSystemInterface::handleScreenAvailableGeometryChange(0);
// QWindowSystemInterface::handleScreenGeometryChange(0);
} else {
m_pauseApplicationMutex.unlock();
}
}
void RadioSendThread::run()
{
RadioServer Server;
if (!Server.Open())
{
printf("Server Open failed!\r\n");
return;
}
int size;
while (true)
{
qDebug() << "Available: " << RadioSendRequest.available();
RadioSendRequest.acquire();
if (shutdownView)break;
RadioSendMutex.lock();
RadioCmds.set_time_stamp(0);
size= RadioCmds.cmds_size();
qDebug() << "size:" << size;
qDebug() << "IsInitialized: " << RadioCmds.IsInitialized();
if (RadioCmds.IsInitialized() && size>0 && size<10)
{
RadioCmds.set_time_stamp(0);
Server.Send(RadioCmds);
qDebug() << "sending";
}
else
{
printf("Radio Send Packet Error!\r\n");
}
Server.Send(RadioCmds);
RadioCmds.clear_cmds();
RadioSendMutex.unlock();
RadioSendRequest.release();
}
}
ThreadManager& ServerThreadManager::reportProgress(const ProgressInfo& pi)
{
QStringList msg;
if (pi.hasProgress()) {
int percent = static_cast<int>( pi.progress()*100 + 0.5 );
msg << QString("progress: %1%%").arg(percent);
}
foreach(const QString& file, pi.files())
msg << "file: " + file;
if (pi.needSync())
msg << "sync";
if (!msg.isEmpty())
EQUARES_COUT << msg.join("\n") << endl;
if (pi.needSync()) {
QSemaphore *sem = semSync(m_threadData.localData()->jobId);
Q_ASSERT(sem);
sem->acquire();
}
return *this;
}
extern void skin_surface_blit(SkinSurface *dst, SkinPos *pos, SkinSurface *src, SkinRect *rect, SkinBlitOp op)
{
#if 0
D("skin_surface_blit from %d (%d, %d) to %d: %d,%d,%d,%d", src->id, rect->pos.x, rect->pos.y, dst->id, rect->pos.x, rect->pos.y, rect->size.w, rect->size.h);
#endif
QRect qrect(rect->pos.x, rect->pos.y, rect->size.w, rect->size.h);
QPoint qpos(pos->x, pos->y);
QPainter::CompositionMode qop;
switch(op) {
default:
case SKIN_BLIT_COPY:
qop = QPainter::CompositionMode_Source;
break;
case SKIN_BLIT_SRCOVER:
qop = QPainter::CompositionMode_SourceOver;
break;
}
QSemaphore semaphore;
dst->window->blit(src->bitmap, &qrect, dst->bitmap, &qpos, &qop, &semaphore);
semaphore.acquire();
}
static SkinSurface *create_surface(int w, int h, int original_w, int original_h)
{
SkinSurface* s = (SkinSurface*)malloc(sizeof(*s));
EmulatorWindow *window = EmulatorWindow::getInstance();
if (window == NULL) return NULL;
if (s != NULL) {
QSemaphore semaphore;
window->createBitmap(s, original_w, original_h, &semaphore);
semaphore.acquire();
s->refcount = 1;
s->w = w;
s->h = h;
s->original_w = original_w;
s->original_h = original_h;
s->id = next_id++;
s->window = window;
D("Created surface %d %d w,%d h, original %d, %d", s->id, w, h, original_w, original_h);
}
else {
D( "not enough memory to allocate new skin surface !" );
}
return s;
}
void operator()(FeatureBuilder1 & fb)
{
buffer_vector<borders::CountryPolygons const *, 32> vec;
m_countries.ForEachInRect(fb.GetLimitRect(), InsertCountriesPtr(vec));
switch (vec.size())
{
case 0:
break;
case 1:
EmitFeature(vec[0], fb);
break;
default:
{
#if PARALLEL_POLYGONIZER
m_ThreadPoolSemaphore.acquire();
m_ThreadPool.start(new PolygonizerTask(this, vec, fb));
#else
PolygonizerTask task(this, vec, fb);
task.RunBase();
#endif
}
}
}
void waitForTest()
{
semaphore.release();
testSemaphore.acquire();
}
void run()
{
testsTurn.release();
// TEST 1: thread can't acquire lock
threadsTurn.acquire();
QVERIFY(!normalMutex.tryLock());
testsTurn.release();
// TEST 2: thread can acquire lock
threadsTurn.acquire();
QVERIFY(normalMutex.tryLock());
QVERIFY(lockCount.testAndSetRelaxed(0, 1));
QVERIFY(!normalMutex.tryLock());
QVERIFY(lockCount.testAndSetRelaxed(1, 0));
normalMutex.unlock();
testsTurn.release();
// TEST 3: thread can't acquire lock, timeout = waitTime
threadsTurn.acquire();
QTime timer;
timer.start();
QVERIFY(!normalMutex.tryLock(waitTime));
QVERIFY(timer.elapsed() >= waitTime);
testsTurn.release();
// TEST 4: thread can acquire lock, timeout = waitTime
threadsTurn.acquire();
timer.start();
QVERIFY(normalMutex.tryLock(waitTime));
QVERIFY(timer.elapsed() <= waitTime);
QVERIFY(lockCount.testAndSetRelaxed(0, 1));
timer.start();
// it's non-recursive, so the following lock needs to fail
QVERIFY(!normalMutex.tryLock(waitTime));
QVERIFY(timer.elapsed() >= waitTime);
QVERIFY(lockCount.testAndSetRelaxed(1, 0));
normalMutex.unlock();
testsTurn.release();
// TEST 5: thread can't acquire lock, timeout = 0
threadsTurn.acquire();
QVERIFY(!normalMutex.tryLock(0));
testsTurn.release();
// TEST 6: thread can acquire lock, timeout = 0
threadsTurn.acquire();
timer.start();
QVERIFY(normalMutex.tryLock(0));
QVERIFY(timer.elapsed() < waitTime);
QVERIFY(lockCount.testAndSetRelaxed(0, 1));
QVERIFY(!normalMutex.tryLock(0));
QVERIFY(lockCount.testAndSetRelaxed(1, 0));
normalMutex.unlock();
testsTurn.release();
// TEST 7 overflow: thread can acquire lock, timeout = 3000 (QTBUG-24795)
threadsTurn.acquire();
timer.start();
QVERIFY(normalMutex.tryLock(3000));
QVERIFY(timer.elapsed() < 3000);
normalMutex.unlock();
testsTurn.release();
threadsTurn.acquire();
}
