TemporaryRef<SharedThreadPool>
SharedThreadPool::Get(const nsCString& aName, uint32_t aThreadLimit)
{
MOZ_ASSERT(NS_IsMainThread());
EnsureInitialized();
MOZ_ASSERT(sMonitor);
ReentrantMonitorAutoEnter mon(*sMonitor);
SharedThreadPool* pool = nullptr;
nsresult rv;
if (!sPools->Get(aName, &pool)) {
nsCOMPtr<nsIThreadPool> threadPool(CreateThreadPool(aName));
NS_ENSURE_TRUE(threadPool, nullptr);
pool = new SharedThreadPool(aName, threadPool);
// Set the thread and idle limits. Note that we don't rely on the
// EnsureThreadLimitIsAtLeast() call below, as the default thread limit
// is 4, and if aThreadLimit is less than 4 we'll end up with a pool
// with 4 threads rather than what we expected; so we'll have unexpected
// behaviour.
rv = pool->SetThreadLimit(aThreadLimit);
NS_ENSURE_SUCCESS(rv, nullptr);
rv = pool->SetIdleThreadLimit(aThreadLimit);
NS_ENSURE_SUCCESS(rv, nullptr);
sPools->Put(aName, pool);
} else if (NS_FAILED(pool->EnsureThreadLimitIsAtLeast(aThreadLimit))) {
NS_WARNING("Failed to set limits on thread pool");
}
MOZ_ASSERT(pool);
RefPtr<SharedThreadPool> instance(pool);
return instance.forget();
}
int main()
{
char szTmp[] = "hello world";
MyTask taskObj;
taskObj.setArg((void*)szTmp);
zl::ThreadPool threadPool(10);
for(int i = 0; i < 20; i++)
{
threadPool.addTask(&taskObj);
}
while(1)
{
printf("there are still %d tasks need to process\n", threadPool.size());
if (threadPool.size() == 0)
{
threadPool.stop();
printf("Now I will exit from main\n");
exit(0);
}
sleep(2);
}
return 0;
}
int main(int, char **)
{
unsigned int const thread_count = CloudI::API::thread_count();
Output outputObject;
ThreadPool<Input, ThreadData, Output, OutputData>
threadPool(thread_count, thread_count, outputObject);
uint32_t timeout_terminate = 0;
for (unsigned int i = 0; i < thread_count; ++i)
{
Input inputObject(i);
if (timeout_terminate == 0)
{
timeout_terminate = inputObject.timeout_terminate();
assert(timeout_terminate >= 1000);
}
bool const result = threadPool.input(inputObject);
assert(result);
}
while (outputObject.got_output() == false)
::sleep(1);
threadPool.exit(timeout_terminate - 100);
return 0;
}
int main()
{
// random number generator
std::random_device rd;
std::mt19937 urng(rd());
// Create a threadpool with 5 threads
::Uplinkzero::Common::ThreadPool<Uplinkzero::Common::ThreadData> threadPool(5);
// Pointer to the function we want the threads in the pool to execute
auto pFunctionForThreadToRun = std::function<void(Uplinkzero::Common::FunctionParams &)>(functionForThreadToRun);
// enque tasks into the threadpool
for (int i = 0; i < 1000; i++)
{
Uplinkzero::Common::FunctionParams params;
params.i = urng();
Uplinkzero::Common::ThreadData td;
td.setThreadFunction(pFunctionForThreadToRun);
td.setThreadFunctionParams(params);
threadPool.enqueue(td);
}
// sleep for 10 seconds
std::this_thread::sleep_for(std::chrono::milliseconds(10000));
std::cout << "Main thread finished!" << std::endl;
return 0;
}
void testCleanupIdleThread()
{
if (verbose)
{
cout << "testCleanupIdleThread" << endl;
}
try
{
struct timeval deallocateWait = { 0, 1 };
ThreadPool threadPool(0, "test cleanup", 0, 6, deallocateWait);
threadPool.allocate_and_awaken(
(void*)1, funcSleepSpecifiedMilliseconds);
Threads::sleep(1000);
PEGASUS_TEST_ASSERT(threadPool.idleCount() == 1);
threadPool.cleanupIdleThreads();
PEGASUS_TEST_ASSERT(threadPool.idleCount() == 0);
}
catch (const Exception& e)
{
cout << "Exception in testCleanupIdleThread: " <<
e.getMessage() << endl;
PEGASUS_TEST_ASSERT(false);
}
}
int main(int argc, char* argv[])
{
WSADATA Ws;
if ( WSAStartup(MAKEWORD(2,2), &Ws) != 0 )
{
cout<<"Init Windows Socket Failed::"<<GetLastError()<<endl;
return -1;
}
CSocket mysocket;
if ( false == mysocket.init() )
{
cout<<"Create Socket Failed!"<<endl;
return -1;
}
if ( false == mysocket.connect(AF_INET, IP_ADDRESS, PORT) )
{
cout<<"Connect Failed!"<<endl;
return -1;
}
else
{
cout<<"Connect Success!"<<endl;
}
//SOCKET clientSocket = mysocket.accept_connect();
ThreadPool threadPool(1);
threadPool.Call(&DoJob);
fd_set fdread;
int ret;
while(true)
{
// FD_ZERO(&fdread);
// FD_SET(mysocket.get_sock(), &fdread);
// if (SOCKET_ERROR == (ret = select(0, &fdread, NULL, NULL, NULL)))
// {
// continue;
// }
//
// if (ret > 0)
// {
// if (FD_ISSET(mysocket.get_sock(), &fdread))
// {
//
// }
// }
}
WSACleanup();
return 0;
}
void Gather(const char* archivePathName, const char* outputPathName)
{
Framework::CStdStream outputStream(outputPathName, "wb");
CBasicBlock::SetAotBlockOutputStream(&outputStream);
{
Framework::CThreadPool threadPool(std::thread::hardware_concurrency());
filesystem::path archivePath = filesystem::path(archivePathName);
auto archive = std::unique_ptr<CPsfArchive>(CPsfArchive::CreateFromPath(archivePath));
for(const auto& fileInfo : archive->GetFiles())
{
filesystem::path archiveItemPath = fileInfo.name;
filesystem::path archiveItemExtension = archiveItemPath.extension();
if(CPlaylist::IsLoadableExtension(archiveItemExtension.string().c_str() + 1))
{
threadPool.Enqueue(
[=] ()
{
printf("Processing %s...\r\n", archiveItemPath.string().c_str());
CPsfVm virtualMachine;
CPsfLoader::LoadPsf(virtualMachine, archiveItemPath.wstring(), archivePath);
int currentTime = 0;
virtualMachine.OnNewFrame.connect(
[¤tTime] ()
{
currentTime += 16;
});
virtualMachine.Resume();
#ifdef _DEBUG
static const unsigned int executionTime = 1;
#else
static const unsigned int executionTime = 10;
#endif
while(currentTime <= (executionTime * 60 * 1000))
{
std::this_thread::sleep_for(std::chrono::milliseconds(10));
}
virtualMachine.Pause();
}
);
}
}
}
CBasicBlock::SetAotBlockOutputStream(nullptr);
}
void testOverloadPool()
{
if (verbose)
{
cout << "testOverloadPool" << endl;
}
try
{
struct timeval deallocateWait = { 0, 1 };
ThreadPool threadPool(0, "test overload", 0, 4, deallocateWait);
ThreadStatus threadStarted;
threadStarted = threadPool.allocate_and_awaken(
(void*)3000, funcSleepSpecifiedMilliseconds);
PEGASUS_TEST_ASSERT(threadStarted == PEGASUS_THREAD_OK);
threadStarted = threadPool.allocate_and_awaken(
(void*)3000, funcSleepSpecifiedMilliseconds);
PEGASUS_TEST_ASSERT(threadStarted == PEGASUS_THREAD_OK);
threadStarted = threadPool.allocate_and_awaken(
(void*)3000, funcSleepSpecifiedMilliseconds);
PEGASUS_TEST_ASSERT(threadStarted == PEGASUS_THREAD_OK);
threadStarted = threadPool.allocate_and_awaken(
(void*)3000, funcSleepSpecifiedMilliseconds);
PEGASUS_TEST_ASSERT(threadStarted == PEGASUS_THREAD_OK);
threadStarted = threadPool.allocate_and_awaken(
(void*)300, funcSleepSpecifiedMilliseconds);
PEGASUS_TEST_ASSERT(threadStarted ==
PEGASUS_THREAD_INSUFFICIENT_RESOURCES);
ThreadStatus rc = PEGASUS_THREAD_OK;
while ( (rc =threadPool.allocate_and_awaken(
(void*)100, funcSleepSpecifiedMilliseconds)) != PEGASUS_THREAD_OK)
{
if (rc ==PEGASUS_THREAD_INSUFFICIENT_RESOURCES)
Threads::yield();
else
throw Exception("Could not allocate and awaken a thread.");
}
}
catch (const Exception& e)
{
cout << "Exception in testOverloadPool: " << e.getMessage() << endl;
PEGASUS_TEST_ASSERT(false);
}
}
void Command::delegate(std::unique_ptr<Activity> activity) {
assert(activity);
connect(activity.get(), SIGNAL(finished()), this, SLOT(activityFinished()), Qt::QueuedConnection);
++activityCount_;
#ifdef NC_USE_THREADS
activity->setAutoDelete(true);
threadPool()->start(activity.release());
#else
activity->run();
#endif
}
int main(int, char *[])
{
FastOS_ThreadPool threadPool(512*1024);
printf("Main stack(%p)\n", &threadPool);
Thread context;
FastOS_ThreadInterface * th[4];
for (size_t i=0; i<sizeof(th)/sizeof(th[0]); i++) {
th[i] = threadPool.NewThread(&context);
}
for (size_t i=0; i<sizeof(th)/sizeof(th[0]); i++) {
th[i]->Join();
delete th[i];
}
return 0;
}
std::vector<Node::Ptr> RegionsBuilder::BuildCountryRegionTrees(RegionsBuilder::Regions const & countries)
{
std::vector<std::future<Node::Ptr>> tmp;
{
base::thread_pool::computational::ThreadPool threadPool(m_threadsCount);
for (auto const & country : countries)
{
auto result = threadPool.Submit(&RegionsBuilder::BuildCountryRegionTree, country, m_regions);
tmp.emplace_back(std::move(result));
}
}
std::vector<Node::Ptr> res;
res.reserve(tmp.size());
std::transform(std::begin(tmp), std::end(tmp),
std::back_inserter(res), [](auto & f) { return f.get(); });
return res;
}
already_AddRefed<SharedThreadPool>
SharedThreadPool::Get(const nsCString& aName, uint32_t aThreadLimit)
{
MOZ_ASSERT(sMonitor && sPools);
ReentrantMonitorAutoEnter mon(*sMonitor);
SharedThreadPool* pool = nullptr;
nsresult rv;
if (auto entry = sPools->LookupForAdd(aName)) {
pool = entry.Data();
if (NS_FAILED(pool->EnsureThreadLimitIsAtLeast(aThreadLimit))) {
NS_WARNING("Failed to set limits on thread pool");
}
} else {
nsCOMPtr<nsIThreadPool> threadPool(CreateThreadPool(aName));
if (NS_WARN_IF(!threadPool)) {
sPools->Remove(aName); // XXX entry.Remove()
return nullptr;
}
pool = new SharedThreadPool(aName, threadPool);
// Set the thread and idle limits. Note that we don't rely on the
// EnsureThreadLimitIsAtLeast() call below, as the default thread limit
// is 4, and if aThreadLimit is less than 4 we'll end up with a pool
// with 4 threads rather than what we expected; so we'll have unexpected
// behaviour.
rv = pool->SetThreadLimit(aThreadLimit);
if (NS_WARN_IF(NS_FAILED(rv))) {
sPools->Remove(aName); // XXX entry.Remove()
return nullptr;
}
rv = pool->SetIdleThreadLimit(aThreadLimit);
if (NS_WARN_IF(NS_FAILED(rv))) {
sPools->Remove(aName); // XXX entry.Remove()
return nullptr;
}
entry.OrInsert([pool] () { return pool; });
}
MOZ_ASSERT(pool);
RefPtr<SharedThreadPool> instance(pool);
return instance.forget();
}
int main(int, char **)
{
unsigned int const thread_count = CloudI::API::thread_count();
Output outputObject;
ThreadPool<Input, ThreadData, Output, OutputData>
threadPool(thread_count, thread_count, outputObject);
for (unsigned int i = 0; i < thread_count; ++i)
{
Input inputObject(i);
bool const result = threadPool.input(inputObject);
assert(result);
}
while (outputObject.got_output() == false)
::sleep(1);
threadPool.exit(3000);
return 0;
}
int main(int argc, char **argv) {
if (argc < 2) {
std::cout << "Usaga: ./PageCommonFansCompute ids.txt" << std::endl;
exit(1);
}
/*
MyUtil::IntSeq common;
try {
common = xce::buddy::adapter::PageCommonFansCacheAdapter::instance().GetCommon(299331400, 600098863, 0, -1);
} catch (Ice::Exception& e) {
LOG(LERROR) << e.what();
} catch (...) {
LOG(LERROR) << "...exeption";
}
LOG(INFO) << "common.size():" << common.size();
for (size_t i = 0; i < common.size(); ++i) {
LOG(INFO) << "i:" << i << "\t" << common[i];
}
return 0;
*/
std::vector<int> ids;
ReadFileGetId(argv[1], ids);
xce::ThreadPool threadPool(8, 20);
std::vector<xce::buddy::CMessage*> cmess;
for (size_t i = 0; i < ids.size(); ++i) {
int id = ids[i];
xce::buddy::CMessage* msg = new xce::buddy::CMessage(id);
cmess.push_back(msg);
if (i % 1000 == 0) {
LOG(INFO) << "total:" << ids.size() << "\tcount:" << i;
}
}
threadPool.Post(cmess.begin(), cmess.end());
sleep(3);
threadPool.Stop();
threadPool.Join();
return 0;
}
/**
* Store the simulated events in the given workspace. This clears the calculated
* values
* @param resultWS :: An output workspace that has all of its meta-data set up
* and just needs to
* be filled with events.
*/
void ResolutionConvolvedCrossSection::storeSimulatedEvents(
const API::IMDEventWorkspace_sptr &resultWS) {
auto outputWS = boost::dynamic_pointer_cast<MDEventWorkspace4>(resultWS);
if (!outputWS) {
throw std::invalid_argument(
"ResolutionConvolvedCrossSection currently only supports 4 dimensions");
}
auto iterEnd = m_simulatedEvents.end();
for (auto iter = m_simulatedEvents.begin(); iter != iterEnd; ++iter) {
outputWS->addEvent(*iter);
}
m_simulatedEvents.clear();
// This splits up all the boxes according to split thresholds and sizes.
auto threadScheduler = new ThreadSchedulerFIFO();
ThreadPool threadPool(threadScheduler);
outputWS->splitAllIfNeeded(threadScheduler);
threadPool.joinAll();
outputWS->refreshCache();
}
void testWorkException()
{
if (verbose)
{
cout << "testWorkException" << endl;
}
try
{
struct timeval deallocateWait = { 0, 1 };
ThreadPool threadPool(0, "test exception", 0, 6, deallocateWait);
threadPool.allocate_and_awaken((void*)1, funcThrow);
Threads::sleep(100);
}
catch (const Exception& e)
{
cout << "Exception in testWorkException: " << e.getMessage() << endl;
PEGASUS_TEST_ASSERT(false);
}
}
void testDestructWithRunningThreads()
{
if (verbose)
{
cout << "testDestructWithRunningThreads" << endl;
}
try
{
struct timeval deallocateWait = { 0, 1 };
ThreadPool threadPool(0, "test destruct", 0, 0, deallocateWait);
threadPool.allocate_and_awaken(
(void*)100, funcSleepSpecifiedMilliseconds);
threadPool.allocate_and_awaken(
(void*)200, funcSleepSpecifiedMilliseconds);
threadPool.allocate_and_awaken(
(void*)300, funcSleepSpecifiedMilliseconds);
threadPool.allocate_and_awaken(
(void*)400, funcSleepSpecifiedMilliseconds);
threadPool.allocate_and_awaken(
(void*)500, funcSleepSpecifiedMilliseconds);
threadPool.allocate_and_awaken(
(void*)600, funcSleepSpecifiedMilliseconds);
threadPool.allocate_and_awaken(
(void*)700, funcSleepSpecifiedMilliseconds);
threadPool.allocate_and_awaken(
(void*)800, funcSleepSpecifiedMilliseconds);
threadPool.allocate_and_awaken(
(void*)900, funcSleepSpecifiedMilliseconds);
PEGASUS_TEST_ASSERT(threadPool.runningCount() > 0);
}
catch (const Exception& e)
{
cout << "Exception in testDestructWithRunningThreads: " <<
e.getMessage() << endl;
PEGASUS_TEST_ASSERT(false);
}
}
void Eval::doEval(int high, int low) {
XenOption* opt = XenOption::getInstance();
StaticData* sD = StaticData::getInstance();
if (opt->getSVocab()->getFileName().compare("") == 0) { sD->getVocabs()->getPtrSourceVoc()->initialize(sD->getSourceCorps()->getPtrInCorp()); }
else { sD->getVocabs()->getPtrSourceVoc()->initialize(opt->getSVocab()); }
pool threadPool(opt->getThreads());
int pc = low;
if (pc == 0) { pc = opt->getStep(); }
std::vector<std::string> parts;
while (pc <= high) {
EvalMap::iterator found = ptrDist->find(pc);
if (found == ptrDist->end()) {
std::string partName = sD->getXenResult()->getXenFile()->getDirName() + "/" + sD->getXenResult()->getXenFile()->getPrefix() + "-" + XenCommon::toString(pc) + "pc.gz";
XenIO::writeXRpart(sD->getXenResult(), pc, partName);
boost::shared_ptr<Corpus> c = boost::make_shared<Corpus>();
c->initialize(partName, "xx");
threadPool.schedule(
boost::bind(taskEval, pc, c, sD->getVocabs()->getPtrSourceVoc(), sD->getDevCorp(),
ptrDist));
parts.push_back(partName);
}
pc += opt->getStep();
}
threadPool.wait();
for (int i = 0; i < parts.size(); i++)
XenIO::delFile(parts[i]);
std::cout << "Evaluation done." << std::endl;
}
void FileSystemItem::load()
{
if (!m_rendererFactory) {
return;
}
QImage *cachedCover = g_coverCache[coverCacheKey()];
if (cachedCover) {
bool *isDefaultFolderCover = g_isDefaultFolderCover[coverCacheKey()];
markIsDefaultFolderCover(
isDefaultFolderCover ? *isDefaultFolderCover : true);
setThumbnail(new QImage(*cachedCover));
} else {
LoadRunnable *r = new LoadRunnable(m_pathInfo);
connect(r, SIGNAL(markIsDefaultFolderCover(bool)),
this, SLOT(markIsDefaultFolderCover(bool)));
connect(r, SIGNAL(gotThumbnail(QString)),
this, SLOT(gotThumbnail(QString)));
connect(r, SIGNAL(loadCover(QString)),
this, SLOT(loadCover(QString)));
threadPool()->start(r);
}
}
int main()
{
zl::ThreadPool threadPool(10);
MyTask taskObj[20];
for(int i = 0; i < 20; i++)
{
threadPool.addTask(std::bind(&MyTask::run, &taskObj[i], i, "helloworld"));
}
while(1)
{
printf("there are still %d tasks need to process\n", threadPool.size());
if (threadPool.size() == 0)
{
threadPool.stop();
printf("Now I will exit from main\n");
exit(0);
}
sleep(2);
}
return 0;
}
void go( int portNumber, const char* directory )
{
printf("Creating objects ...\n");
SystemThreadApi threadApi;
RawSocketApi socketApi;
HttpSocketReader socketReader( socketApi );
HttpResponseSocketWriter socketWriter( socketApi );
SystemDirectoryApi directoryApi;
SystemFileFactory fileFactory;
SystemFileApi fileApi( fileFactory );
std::string basePath( directory );
HttpRequestParserImpl requestParser;
HttpRequestHandlerFactoryImpl requestHandlerFactory( basePath, fileApi, directoryApi );
StlWorkItemQueue workItemQueue;
unsigned numberOfThreads = 50;
SystemSlaveThreadFactory slaveThreadFactory( threadApi );
ThreadPool threadPool( threadApi, slaveThreadFactory, workItemQueue, numberOfThreads );
ThreadedRequestHandler connectionhandler
( socketReader, requestParser, requestHandlerFactory, socketWriter, threadPool );
SocketConnectionReceiver receiver( socketApi, portNumber );
printf("Creating server...\n");
Server server( receiver, connectionhandler );
printf("Starting server (you won't see a Server Started message :) )...\n");
server.start();
}
void testBlockingThread()
{
if (verbose)
{
cout << "testBlockingThread" << endl;
}
try
{
struct timeval deallocateWait = { 5, 0 };
ThreadPool threadPool(0, "test blocking", 0, 6, deallocateWait);
Semaphore blocking(0);
ThreadStatus rt = PEGASUS_THREAD_OK;
while ( (rt =threadPool.allocate_and_awaken(
(void*)16, funcSleepSpecifiedMilliseconds, &blocking)) !=
PEGASUS_THREAD_OK)
{
if (rt == PEGASUS_THREAD_INSUFFICIENT_RESOURCES)
{
Threads::yield();
}
else
{
throw Exception("Could not allocate thread for"
" funcSleepSpecifiedMilliseconds function.");
}
}
blocking.wait();
threadPool.cleanupIdleThreads();
}
catch (const Exception& e)
{
cout << "Exception in testBlockingThread: " << e.getMessage() << endl;
PEGASUS_TEST_ASSERT(false);
}
}
int main() {
// Create thread pool
printf("Creating thread pool\n");
int NUM_THREADS = 4;
DataSource dataSource;
ResultData result;
//TODO change to smart pointers
std::vector<WorkerThread*> threadPool(NUM_THREADS);
for(std::vector<WorkerThread*>::iterator it = threadPool.begin();
it != threadPool.end();
++it) {
*it = new WorkerThread();
}
unsigned t0 = clock();
for(std::vector<WorkerThread*>::iterator it = threadPool.begin();
it != threadPool.end();
++it) {
(*it)->Run(&dataSource, &result);
}
printf("Exiting the program\n");
for(std::vector<WorkerThread*>::iterator it = threadPool.begin();
it != threadPool.end();
++it) {
delete(*it);
}
unsigned t1 = clock() - t0;
printf("Exec time(%d), Final result: %d\n", t1, result.GetResult());
}
int main(int argc, char** argv)
{
try
{
if (argc > 1 && argv[1] == std::string("-h"))
{
std::cerr << "Usage: server [WORK_THREAD_COUNT] [PORT]" << std::endl;
return 1;
}
auto threadCount = (argc <= 1) ? yatest::ThreadPool::cpuCoreCount() :
static_cast<size_t>(std::stoi(argv[1]));
auto port = (argc <= 2) ? yatest::DEFAULT_PORT :
static_cast<uint16_t>(std::stoi(argv[2]));
yatest::ThreadPool threadPool(threadCount);
yatest::Server::Processor processor =
[&threadPool](const std::string& path)
{
auto wc = yatest::WordCounter::countDirectory(path, threadPool);
auto top = wc.top(TOP_COUNT);
return boost::algorithm::join(top, "\n");
};
yatest::Server server(processor, port);
server.sync(); // wait for SIG_KILL or whatever
}
catch (const std::exception& error)
{
std::cerr << "Error: " << error.what() << std::endl;
}
catch (...)
{
std::cerr << "Something terrible has happend" << std::endl;
}
}
//-------------------------------------------------------------------------------------
bool Dbmgr::initInterfacesHandler()
{
pInterfacesAccountHandler_ = InterfacesHandlerFactory::create(g_kbeSrvConfig.interfacesAccountType(), threadPool(), *static_cast<KBEngine::DBThreadPool*>(DBUtil::pThreadPool()));
pInterfacesChargeHandler_ = InterfacesHandlerFactory::create(g_kbeSrvConfig.interfacesChargeType(), threadPool(), *static_cast<KBEngine::DBThreadPool*>(DBUtil::pThreadPool()));
INFO_MSG(fmt::format("Dbmgr::initInterfacesHandler: interfaces addr({}), accountType:({}), chargeType:({}).\n",
g_kbeSrvConfig.interfacesAddr().c_str(),
g_kbeSrvConfig.interfacesAccountType(),
g_kbeSrvConfig.interfacesChargeType()));
if(strlen(g_kbeSrvConfig.interfacesThirdpartyAccountServiceAddr()) > 0)
{
INFO_MSG(fmt::format("Dbmgr::initInterfacesHandler: thirdpartyAccountService_addr({}:{}).\n",
g_kbeSrvConfig.interfacesThirdpartyAccountServiceAddr(),
g_kbeSrvConfig.interfacesThirdpartyAccountServicePort()));
}
if(strlen(g_kbeSrvConfig.interfacesThirdpartyChargeServiceAddr()) > 0)
{
INFO_MSG(fmt::format("Dbmgr::initInterfacesHandler: thirdpartyChargeService_addr({}:{}).\n",
g_kbeSrvConfig.interfacesThirdpartyChargeServiceAddr(),
g_kbeSrvConfig.interfacesThirdpartyChargeServicePort()));
}
return pInterfacesAccountHandler_->initialize() && pInterfacesChargeHandler_->initialize();
}
void DebugRenderer::render(const Scene &scene, const RenderSettings &settings) const {
#ifdef DEBUG
uint32_t numThreads = 1;
#else
uint32_t numThreads = std::thread::hardware_concurrency();
#endif
XORShiftRNG topRand(settings.getInt(RenderSettingItem::RNGSeed));
std::unique_ptr<ArenaAllocator[]> mems = std::unique_ptr<ArenaAllocator[]>(new ArenaAllocator[numThreads]);
std::unique_ptr<IndependentLightPathSampler[]> samplers = std::unique_ptr<IndependentLightPathSampler[]>(new IndependentLightPathSampler[numThreads]);
for (int i = 0; i < numThreads; ++i) {
new (mems.get() + i) ArenaAllocator();
new (samplers.get() + i) IndependentLightPathSampler(topRand.getUInt());
}
std::unique_ptr<IndependentLightPathSampler*[]> samplerRefs = std::unique_ptr<IndependentLightPathSampler*[]>(new IndependentLightPathSampler*[numThreads]);
for (int i = 0; i < numThreads; ++i)
samplerRefs[i] = &samplers[i];
const Camera* camera = scene.getCamera();
ImageSensor* sensor = camera->getSensor();
Job job;
job.renderer = this;
job.scene = &scene;
job.mems = mems.get();
job.pathSamplers = samplerRefs.get();
job.camera = camera;
job.timeStart = settings.getFloat(RenderSettingItem::TimeStart);
job.timeEnd = settings.getFloat(RenderSettingItem::TimeEnd);
job.sensor = sensor;
job.imageWidth = settings.getInt(RenderSettingItem::ImageWidth);
job.imageHeight = settings.getInt(RenderSettingItem::ImageHeight);
job.numPixelX = sensor->tileWidth();
job.numPixelY = sensor->tileHeight();
sensor->init(job.imageWidth, job.imageHeight);
DefaultAllocator &defMem = DefaultAllocator::instance();
std::array<std::unique_ptr<Image2D, Allocator::DeleterType>, (int)ExtraChannel::NumChannels> chImages;
for (int i = 0; i < m_channels.size(); ++i) {
if (!m_channels[i]) {
chImages[i] = nullptr;
continue;
}
switch ((ExtraChannel)i) {
case ExtraChannel::GeometricNormal:
chImages[i] = defMem.createUnique<TiledImage2D>(job.imageWidth, job.imageHeight, ColorFormat::RGB8x3, &defMem);
break;
case ExtraChannel::ShadingNormal:
chImages[i] = defMem.createUnique<TiledImage2D>(job.imageWidth, job.imageHeight, ColorFormat::RGB8x3, &defMem);
break;
case ExtraChannel::ShadingTangent:
chImages[i] = defMem.createUnique<TiledImage2D>(job.imageWidth, job.imageHeight, ColorFormat::RGB8x3, &defMem);
break;
case ExtraChannel::Distance:
chImages[i] = defMem.createUnique<TiledImage2D>(job.imageWidth, job.imageHeight, ColorFormat::Gray8, &defMem);
break;
default:
break;
}
}
job.chImages = &chImages;
ThreadPool threadPool(numThreads);
for (int ty = 0; ty < sensor->numTileY(); ++ty) {
for (int tx = 0; tx < sensor->numTileX(); ++tx) {
job.basePixelX = tx * sensor->tileWidth();
job.basePixelY = ty * sensor->tileHeight();
threadPool.enqueue(std::bind(&Job::kernel, job, std::placeholders::_1));
}
}
threadPool.wait();
// char filename[256];
// sprintf(filename, "output.bmp");
// sensor->saveImage(filename, 1);
for (int i = 0; i < chImages.size(); ++i) {
if (!chImages[i])
continue;
std::string filename;
switch ((ExtraChannel)i) {
case ExtraChannel::GeometricNormal:
filename = "geometric_normal.bmp";
break;
case ExtraChannel::ShadingNormal:
filename = "shading_normal.bmp";
break;
case ExtraChannel::ShadingTangent:
filename = "shading_tangent.bmp";
break;
case ExtraChannel::Distance:
filename = "distance.bmp";
break;
default:
break;
}
chImages[i]->saveImage(filename, false);
}
}
/**
* Create an output event workspace filled with data simulated with the fitting
* function.
* @param baseName :: The base name for the workspace
* @param inputWorkspace :: The input workspace.
* @param values :: The calculated values
* @param outputWorkspacePropertyName :: The property name
*/
boost::shared_ptr<API::Workspace> FitMD::createEventOutputWorkspace(
const std::string &baseName, const API::IMDEventWorkspace &inputWorkspace,
const API::FunctionValues &values,
const std::string &outputWorkspacePropertyName) {
auto outputWS =
MDEventFactory::CreateMDWorkspace(inputWorkspace.getNumDims(), "MDEvent");
// Add events
// TODO: Generalize to ND (the current framework is a bit limiting)
auto mdWS = boost::dynamic_pointer_cast<
DataObjects::MDEventWorkspace<DataObjects::MDEvent<4>, 4>>(outputWS);
if (!mdWS) {
return boost::shared_ptr<API::Workspace>();
}
// Bins extents and meta data
for (size_t i = 0; i < 4; ++i) {
boost::shared_ptr<const Geometry::IMDDimension> inputDim =
inputWorkspace.getDimension(i);
Geometry::MDHistoDimensionBuilder builder;
builder.setName(inputDim->getName());
builder.setId(inputDim->getDimensionId());
builder.setUnits(inputDim->getUnits());
builder.setNumBins(inputDim->getNBins());
builder.setMin(inputDim->getMinimum());
builder.setMax(inputDim->getMaximum());
builder.setFrameName(inputDim->getMDFrame().name());
outputWS->addDimension(builder.create());
}
// Run information
outputWS->copyExperimentInfos(inputWorkspace);
// Coordinates
outputWS->setCoordinateSystem(inputWorkspace.getSpecialCoordinateSystem());
// Set sensible defaults for splitting behaviour
BoxController_sptr bc = outputWS->getBoxController();
bc->setSplitInto(3);
bc->setSplitThreshold(3000);
outputWS->initialize();
outputWS->splitBox();
auto inputIter = inputWorkspace.createIterator();
size_t resultValueIndex(0);
const float errorSq = 0.0;
do {
const size_t numEvents = inputIter->getNumEvents();
const float signal =
static_cast<float>(values.getCalculated(resultValueIndex));
for (size_t i = 0; i < numEvents; ++i) {
coord_t centers[4] = {
inputIter->getInnerPosition(i, 0), inputIter->getInnerPosition(i, 1),
inputIter->getInnerPosition(i, 2), inputIter->getInnerPosition(i, 3)};
mdWS->addEvent(MDEvent<4>(signal, errorSq, inputIter->getInnerRunIndex(i),
inputIter->getInnerDetectorID(i), centers));
}
++resultValueIndex;
} while (inputIter->next());
delete inputIter;
// This splits up all the boxes according to split thresholds and sizes.
auto threadScheduler = new Kernel::ThreadSchedulerFIFO();
Kernel::ThreadPool threadPool(threadScheduler);
outputWS->splitAllIfNeeded(threadScheduler);
threadPool.joinAll();
outputWS->refreshCache();
// Store it
if (!outputWorkspacePropertyName.empty()) {
declareProperty(
new API::WorkspaceProperty<API::IMDEventWorkspace>(
outputWorkspacePropertyName, "", Direction::Output),
"Name of the output Workspace holding resulting simulated spectrum");
m_manager->setPropertyValue(outputWorkspacePropertyName,
baseName + "Workspace");
m_manager->setProperty(outputWorkspacePropertyName, outputWS);
}
return outputWS;
}
// Initialize the context menu handler.
IFACEMETHODIMP FileContextMenuExt::Initialize(
LPCITEMIDLIST pidlFolder, LPDATAOBJECT pDataObj, HKEY hKeyProgID)
{
if (NULL == pDataObj)
{
return E_INVALIDARG;
}
HRESULT hr = E_FAIL;
FORMATETC fe = { CF_HDROP, NULL, DVASPECT_CONTENT, -1, TYMED_HGLOBAL };
STGMEDIUM stm;
// The pDataObj pointer contains the objects being acted upon. In this
// example, we get an HDROP handle for enumerating the selected files and
// folders.
if (SUCCEEDED(pDataObj->GetData(&fe, &stm)))
{
// Get an HDROP handle.
HDROP hDrop = static_cast<HDROP>(GlobalLock(stm.hGlobal));
if (hDrop != NULL)
{
//! start of Haponov CHANGES:
//!****************************************************
//! Haponov: number of threads depends on number of selected files
UINT nFiles = DragQueryFile(hDrop, 0xFFFFFFFF, NULL, 0);
if (nFiles)
{
wchar_t temp_forName[MAX_PATH];
if (nFiles > 1)
{
//std::vector<std::thread> threads;
ThreadPool threadPool(std::thread::hardware_concurrency());
for (UINT i = 0; i < nFiles - 1; ++i)
{
// Get full path of the file.
if (0 != DragQueryFile(hDrop, i, temp_forName /*such path is written to temp_forName*/,
ARRAYSIZE(temp_forName)))
{
std::wstring ws(temp_forName);
filePaths.push_back(ws);
//threads.push_back(std::thread(&FileContextMenuExt::
// processSelectedFiles, this, filePaths[i]));
threadPool.doJob(std::bind(&FileContextMenuExt::processSelectedFiles, this, filePaths[i]));
}
}
//! Haponov: use the main thread to do part of the work -
//! process the last file
if (0 != DragQueryFile(hDrop, nFiles - 1, temp_forName, ARRAYSIZE(temp_forName)))
{
std::wstring ws(temp_forName);
processSelectedFiles(ws);
}
//!Haponov: no need for joining here anymore
//for (auto &t : threads)
//{
// t.join();
//}
}
//! Haponov: use only main thread if a sinle file is selected
else
{
if (0 != DragQueryFile(hDrop, 0, temp_forName, ARRAYSIZE(temp_forName)))
{
std::wstring ws(temp_forName);
processSelectedFiles(ws);
}
}
}
if (sortedFiles.size()) hr = S_OK;
//! end of Haponov changes
//!****************************************************
GlobalUnlock(stm.hGlobal);
}
ReleaseStgMedium(&stm);
}
// If any value other than S_OK is returned from the method, the context
// menu item is not displayed.
return hr;
}
//-------------------------------------------------------------------------------------
bool Dbmgr::initBillingHandler()
{
pBillingAccountHandler_ = BillingHandlerFactory::create(g_kbeSrvConfig.billingSystemAccountType(), threadPool(), dbThreadPool_);
pBillingChargeHandler_ = BillingHandlerFactory::create(g_kbeSrvConfig.billingSystemChargeType(), threadPool(), dbThreadPool_);
INFO_MSG(boost::format("Dbmgr::initBillingHandler: billing addr(%1%), accountType:(%2%), chargeType:(%3%).\n") %
g_kbeSrvConfig.billingSystemAddr().c_str() %
g_kbeSrvConfig.billingSystemAccountType() %
g_kbeSrvConfig.billingSystemChargeType());
if(strlen(g_kbeSrvConfig.billingSystemThirdpartyAccountServiceAddr()) > 0)
{
INFO_MSG(boost::format("Dbmgr::initBillingHandler: thirdpartyAccountService_addr(%1%:%2%).\n") %
g_kbeSrvConfig.billingSystemThirdpartyAccountServiceAddr() %
g_kbeSrvConfig.billingSystemThirdpartyAccountServicePort());
}
if(strlen(g_kbeSrvConfig.billingSystemThirdpartyChargeServiceAddr()) > 0)
{
INFO_MSG(boost::format("Dbmgr::initBillingHandler: thirdpartyChargeService_addr(%1%:%2%).\n") %
g_kbeSrvConfig.billingSystemThirdpartyChargeServiceAddr() %
g_kbeSrvConfig.billingSystemThirdpartyChargeServicePort());
}
return pBillingAccountHandler_->initialize() && pBillingChargeHandler_->initialize();
}
// Entry point for commandlet
// Sample commandline:
// <app-name> threadpooltest <uint:num threads> <uint:stack size kb>
PkInt Main( const PkInt argc, char** argv )
{
PkAssert( ECmdArgs_MaxArgs == argc );
// Parse commandline arguments
const PkUInt numThreads = atoi( argv[ ECmdArgs_NumThreads ] );
const PkUInt stackSizeKb = atoi( argv[ ECmdArgs_StackSizeKb ] );
// Convert stack size to bytes
const PkUInt stackSizeBytes = stackSizeKb * 1024;
// Initialize thread pool
PkThreadPool threadPool( numThreads, stackSizeBytes );
// Initialize jobs to run on the pool
BusyLoopRunnable jobs[] =
{
BusyLoopRunnable( 5 /* jobDurationSeconds */ )
, BusyLoopRunnable( 3 /* jobDurationSeconds */ )
, BusyLoopRunnable( 4 /* jobDurationSeconds */ )
, BusyLoopRunnable( 2 /* jobDurationSeconds */ )
, BusyLoopRunnable( 1 /* jobDurationSeconds */ )
, BusyLoopRunnable( 5 /* jobDurationSeconds */ )
, BusyLoopRunnable( 7 /* jobDurationSeconds */ )
, BusyLoopRunnable( 2 /* jobDurationSeconds */ )
, BusyLoopRunnable( 3 /* jobDurationSeconds */ )
, BusyLoopRunnable( 1 /* jobDurationSeconds */ )
, BusyLoopRunnable( 6 /* jobDurationSeconds */ )
, BusyLoopRunnable( 2 /* jobDurationSeconds */ )
, BusyLoopRunnable( 3 /* jobDurationSeconds */ )
, BusyLoopRunnable( 4 /* jobDurationSeconds */ )
, BusyLoopRunnable( 20 /* jobDurationSeconds */ )
, BusyLoopRunnable( 30 /* jobDurationSeconds */ )
};
// Determine number of jobs
const PkInt numJobs = sizeof(jobs)/sizeof(BusyLoopRunnable);
// Queue the jobs
for ( PkInt i=0; i<numJobs; ++i )
{
threadPool.queueJob( jobs[i] );
}
// Wait for jobs to finish
const time_t startTime = PkClock::getSeconds();
while ( BusyLoopRunnable::getJobCompletionCounter() < numJobs )
{
// Man pages for unix indicate that sleep equivalents
// sleep the entire process? There is pthread_yield
// but that does not take a time parameter. Therefore,
// only using Sleep for Windows at the moment
#if WINDOWS
Sleep( 1000 /* dwMilliseconds */ );
#endif
// Destroy thread pool while jobs are running
if ( BusyLoopRunnable::getJobCompletionCounter() >= (PkInt)(numJobs * 0.75f) )
{
#if WINDOWS
Sleep(1);
#endif
PkLogf( "Destroying thread pool while running jobs\n" );
threadPool.destroy();
break;
}
}
const time_t elapsedTime = PkClock::getSeconds() - startTime;
PkLogf( "Finished all jobs in %d seconds", (PkInt)elapsedTime );
return 0;
}