int
main()
{
try
{
WorkQueuePtr h = new WorkQueue();
IceUtil::ThreadControl control = h->start();
printf("Pushing work items");
printf("."); fflush(stdout);
h->add("item1");
printf("."); fflush(stdout);
h->add("item2");
printf("."); fflush(stdout);
h->add("item3");
printf("."); fflush(stdout);
h->add("item4");
printf("."); fflush(stdout);
h->add("item5");
printf("."); fflush(stdout);
h->add("destroy");
printf(" ok\n");
printf("Waiting for WorkQueue to terminate\n");
control.join();
}
catch(const IceUtil::Exception& ex)
{
fprintf(stderr, "%s\n", ex.toString().c_str());
return EXIT_FAILURE;
}
return EXIT_SUCCESS;
}
void
TimeoutI::holdAdapter(Ice::Int to, const Ice::Current& current)
{
current.adapter->hold();
IceUtil::ThreadPtr thread = new ActivateAdapterThread(current.adapter, to);
IceUtil::ThreadControl threadControl = thread->start();
threadControl.detach();
}
void
AliveTest::run()
{
//
// Check that calling isAlive() returns the correct result for alive and
// and dead threads.
//
CondVar childCreated;
CondVar parentReady;
AliveTestThreadPtr t = new AliveTestThread(childCreated, parentReady);
IceUtil::ThreadControl c = t->start();
childCreated.waitForSignal();
test(t->isAlive());
parentReady.signal();
c.join();
test(!t->isAlive());
}
void
Test::AccountI::transfer3_async(const AMD_Account_transfer3Ptr& cb, int amount, const Test::AccountPrx& toAccount, const Current& current)
{
//
// Here the dispatch thread does the actual work, but a separate thread sends the response
//
ResponseThreadPtr thread = new ResponseThread(cb);
IceUtil::ThreadControl tc = thread->start(33000);
test(_evictor->getCurrentTransaction() != 0);
try
{
toAccount->deposit(amount); // collocated call
deposit(-amount, current); // direct call
}
catch(const Ice::UserException& e)
{
tc.detach();
//
// Need to rollback here -- "rollback on user exception" does not work
// when the dispatch commits before it gets any response!
//
_evictor->getCurrentTransaction()->rollback();
thread->exception(e);
return;
}
catch(...)
{
thread->cancel();
tc.join();
throw;
}
tc.detach();
thread->response();
}
TEST(ConcurrencyTest, testEvent )
{
list<BaseThreadPtr> rs;
list<IceUtil::ThreadControl> rcs;
for (int i = 0; i < 10; i++) {
BaseThreadPtr r = new ReaderThread();
rs.push_back(r);
rcs.push_back(r->start());
}
BaseThreadPtr w = new WriterThread();
IceUtil::ThreadControl wc = w->start();
wc.join();
ASSERT_TRUE( (*w).passed );
for (int i = 0; i < 10; i++) {
BaseThreadPtr r = rs.front();
IceUtil::ThreadControl tc = rcs.front();
rs.pop_front();
rcs.pop_front();
tc.join();
ASSERT_TRUE( (*r).passed );
}
}
int main(int argc, char** argv)
{
int status;
// ICE
Ice::CommunicatorPtr ic;
jderobot::cameraClient* camRGB = NULL; // parallelIce RGB Image
jderobot::Pose3DPrx pose3Dprx = 0; // ICE Pose3D proxy
IceUtil::ThreadControl rgbTc; // RGB Image Thread Control
pthread_t thr_gui; // GUI thread
pthread_t thr_camera; // Update Camera thread
pthread_t thr_speed; //speed control
std::string prefix("navigatorCamera"); // Component Prefix
std::string gladeFile; // Path to the glade file
bool guiActivated; // GUI activation flag
bool controlActivated; // Control activation flag
bool speedActivated;
int pose3dFps; // Frequency to update the Pose3D.
long cycle_pose3d; // Time cycle for control the update of Pose3D.
sharer = new navigatorCamera::Sharer();
struct timeval a, b;
long totala, totalb;
long diff;
//--------------------INPUT ARGUMENTS--------------------//
if (argc != 2)
{
std::cerr << "\nUSE: ./" << prefix << " --Ice.Config=" << prefix << ".cfg\n" << std::endl;
return 1;
}
//------------------END INPUT ARGUMENTS------------------//
try
{
//--------------------ICE--------------------//
ic = Ice::initialize(argc,argv);
Ice::PropertiesPtr prop = ic->getProperties();
gladeFile = prop->getPropertyWithDefault(prefix + ".gladeFile", "./" + prefix + ".glade");
guiActivated = prop->getPropertyAsIntWithDefault(prefix + ".guiActivated",1);
controlActivated = prop->getPropertyAsIntWithDefault(prefix + ".controlActivated",0);
speedActivated = prop->getPropertyAsIntWithDefault(prefix + ".speedActivated",0);
pose3dFps = prop->getPropertyAsIntWithDefault(prefix + ".Pose3D.Fps",25);
cycle_pose3d = (long)( (1./(float)pose3dFps) * 1000000); //microseconds
sharer->setTranslationStep(atof(prop->getPropertyWithDefault(prefix + ".TranslationStep","0.1").c_str()));
sharer->setRotationStep(atof(prop->getPropertyWithDefault(prefix + ".RotationStep","0.1").c_str()));
// Contact to RGB Image interface
camRGB = new jderobot::cameraClient(ic, prefix + ".CameraRGB.");
if (camRGB != NULL){
rgbTc = camRGB->start();
}
else{
throw prefix + ": failed to load RGB Camera";
}
// Contact to Pose3D interface
Ice::ObjectPrx basePose3D = ic->propertyToProxy(prefix + ".Pose3D.Proxy");
if ( basePose3D == 0 )
throw "Could not create proxy with Pose3D.";
// Cast to Pose3D
pose3Dprx = jderobot::Pose3DPrx::checkedCast(basePose3D);
if ( pose3Dprx == 0 )
throw std::invalid_argument("Invalid proxy " + prefix + ".Pose3D.Proxy");
//------------------END ICE------------------//
sharer->setGuiVisible(guiActivated);
sharer->setControlActive(controlActivated);
if ( guiActivated )
pthread_create(&thr_gui, NULL, &showGui, static_cast<void *>(&gladeFile));
pthread_create(&thr_camera, NULL, &updateCamera, static_cast<void *>(camRGB));
// Captures Pose3D ICE data.
jderobot::Pose3DDataPtr p3dData = pose3Dprx->getPose3DData();
sharer->setPose3D(p3dData);
if ( speedActivated ) {
pthread_create(&thr_speed, NULL, &updateSpeed, NULL);
}
while ( sharer->getControlActive() || sharer->getGuiVisible() )
{
gettimeofday(&a, NULL);
totala = a.tv_sec * 1000000 + a.tv_usec;
// Update the current Pose3D ICE data.
pose3Dprx->setPose3DData(sharer->getPose3D());
// Sleep Algorithm
gettimeofday(&b, NULL);
totalb = b.tv_sec * 1000000 + b.tv_usec;
diff = (totalb - totala);
cycleWait(cycle_pose3d, diff);
}
if ( guiActivated )
pthread_join(thr_gui, NULL);
pthread_join(thr_camera, NULL);
camRGB->stop_thread();
} catch (const Ice::Exception& ex) {
std::cerr << ex << std::endl;
status = 1;
} catch (const std::exception& ex) {
std::cerr << ex.what() << std::endl;
status = 1;
} catch (const char* msg) {
std::cerr << "Error: " << msg << std::endl;
status = 1;
}
rgbTc.join();
if ( ic )
ic->destroy();
return status;
} //end main
int main(int argc, char * argv[])
{
cout<<"testing start() and stop()... ";
{
gbxiceutilacfr::Thread* t=0;
try
{
t = new TestThread;
t->start();
}
catch (...)
{
cout<<"failed"<<endl<<"should be able to create thread"<<endl;
exit(EXIT_FAILURE);
}
IceUtil::ThreadControl tc = t->getThreadControl();
t->stop();
tc.join();
// do not delete t! it's already self-destructed.
}
cout<<"ok"<<endl;
cout<<"testing start() and stop() with smart pointer ... ";
{
gbxiceutilacfr::ThreadPtr t;
try
{
t = new TestThread;
t->start();
}
catch (...)
{
cout<<"failed"<<endl<<"should be able to create thread"<<endl;
exit(EXIT_FAILURE);
}
IceUtil::ThreadControl tc = t->getThreadControl();
t->stop();
tc.join();
}
cout<<"ok"<<endl;
// alexm: is this test still needed?
cout<<"testing Thread() with exceptions... ";
{
TestThreadWithThrow* t=0;
try
{
t = new TestThreadWithThrow( true );
cout<<"failed"<<endl<<"should not be able to create thread"<<endl;
exit(EXIT_FAILURE);
}
catch (...)
{
// ok
}
}
cout<<"ok"<<endl;
cout<<"testing state machine ... ";
{
// works only with smart pointers because with dumb ones the threads self-destruct
// and we can't examine their final state.
gbxiceutilacfr::ThreadPtr t = new TestThreadWithExit;
if ( t->isStopping()!=false || t->isAlive()!=false || t->isStarted()!=false ) {
cout<<"failed"<<endl
<<"should be in Starting state but internal states do not match:"<<endl
<<"isStopping="<<(int)t->isStopping()<<" isAlive="<<(int)t->isAlive()<<" isStarted()="<<(int)t->isStarted()<<endl;
exit(EXIT_FAILURE);
}
t->start();
if ( t->isStopping()!=false || t->isAlive()!=true || t->isStarted()!=true ) {
cout<<"failed"<<endl
<<"should be in Started state but internal states do not match:"<<endl
<<"isStopping="<<(int)t->isStopping()<<" isAlive="<<(int)t->isAlive()<<" isStarted()="<<(int)t->isStarted()<<endl;
exit(EXIT_FAILURE);
}
t->stop();
if ( t->isStopping()!=true || t->isAlive()!=true || t->isStarted()!=true ) {
cout<<"failed"<<endl
<<"should be in Stopping state but internal states do not match:"<<endl
<<"isStopping="<<(int)t->isStopping()<<" isAlive="<<(int)t->isAlive()<<" isStarted()="<<(int)t->isStarted()<<endl;
exit(EXIT_FAILURE);
}
IceUtil::ThreadControl tc = t->getThreadControl();
// this ugly shit is to call one special function
TestThreadWithExit* dumb = (TestThreadWithExit*)&(*t);
dumb->exit();
IceUtil::ThreadControl::sleep(IceUtil::Time::milliSeconds(150));
// alexm: I think it self-destructs here. what can we tell about it?
if ( t->isStopping()!=true || t->isAlive()!=false || t->isStarted()!=true ) {
cout<<"failed"<<endl
<<"should be in Stopped state but internal states do not match:"<<endl
<<"isStopping="<<(int)t->isStopping()<<" isAlive="<<(int)t->isAlive()<<" isStarted()="<<(int)t->isStarted()<<endl;
exit(EXIT_FAILURE);
}
tc.join();
}
cout<<"ok"<<endl;
cout<<"testing waitForStop() ... ";
{
gbxiceutilacfr::ThreadPtr t = new TestThreadWithWait;
t->start();
if ( t->isAlive()!=true ) {
cout<<"failed"<<endl
<<"should be in Started state but internal states do not match:"<<endl
<<"isStopping="<<(int)t->isStopping()<<" isAlive="<<(int)t->isAlive()<<" isStarted()="<<(int)t->isStarted()<<endl;
exit(EXIT_FAILURE);
}
t->stop();
IceUtil::ThreadControl tc = t->getThreadControl();
IceUtil::ThreadControl::sleep(IceUtil::Time::milliSeconds(150));
if ( t->isAlive()!=false ) {
cout<<"failed"<<endl
<<"should be in Stopped state but internal states do not match:"<<endl
<<"isStopping="<<(int)t->isStopping()<<" isAlive="<<(int)t->isAlive()<<" isStarted()="<<(int)t->isStarted()<<endl;
exit(EXIT_FAILURE);
}
tc.join();
}
cout<<"ok"<<endl;
// alexm: don't know how to test this, because of self-destruction
// cout<<"testing stopAndJoin() ... ";
// {
// }
// cout<<"ok"<<endl;
cout<<"testing stopAndJoin() with smart pointer ... ";
{
gbxiceutilacfr::ThreadPtr t = new TestThread;
t->start();
if ( t->isAlive()!=true ) {
cout<<"failed"<<endl
<<"should be in Started state but internal states do not match:"<<endl
<<"isStopping="<<(int)t->isStopping()<<" isAlive="<<(int)t->isAlive()<<" isStarted()="<<(int)t->isStarted()<<endl;
exit(EXIT_FAILURE);
}
gbxiceutilacfr::stopAndJoin( t );
IceUtil::ThreadControl::sleep(IceUtil::Time::milliSeconds(150));
if ( t->isAlive()!=false ) {
cout<<"failed"<<endl
<<"should be in Stopped state but internal states do not match:"<<endl
<<"isStopping="<<(int)t->isStopping()<<" isAlive="<<(int)t->isAlive()<<" isStarted()="<<(int)t->isStarted()<<endl;
exit(EXIT_FAILURE);
}
}
cout<<"ok"<<endl;
cout<<"testing checkedSleep() ... ";
{
gbxiceutilacfr::ThreadPtr t = new TestThreadWithNap;
t->start();
IceUtil::Time stopTime = IceUtil::Time::now();
gbxiceutilacfr::stopAndJoin( t );
IceUtil::Time joinTime = IceUtil::Time::now();
cout<<"time to stop = "<<(joinTime-stopTime).toDuration()<<endl;
if ( joinTime-stopTime > IceUtil::Time::seconds(1) ) {
cout<<"failed"<<endl
<<"should stop faster than in 1 second, time to stop ="<<(joinTime-stopTime).toDuration()<<endl;
exit(EXIT_FAILURE);
}
}
cout<<"ok"<<endl;
return EXIT_SUCCESS;
}