void* VideoServerBase::runThread(void*) 
{
	VideoCapture capture(-1);

	//int key=0;

	capture.set( CV_CAP_PROP_FRAME_WIDTH, 640);
	capture.set( CV_CAP_PROP_FRAME_HEIGHT, 480);

	capture.read(cap_img);

	/* run the stream server as a separate thread */
	
	ss.runAsync();

	while(1/*key != 'q'*/) //display routine
	{

		capture.read(cap_img);

		mutex_video.lock();
		cvtColor(cap_img, gray_img, CV_BGR2GRAY);

		//imshow(" ",gray_img);
		waitKey(1);

		is_data_ready = 1;
		mutex_video.unlock();

	}

}
void PtzCameraExample::handleCameraListReply(ArNetPacket *pkt)
{
  ArTypes::Byte2 numCams = pkt->bufToByte2();
  ArLog::log(ArLog::Normal, "%d cameras in list.", numCams);
  char camName[128];
  char camType[128];
  char displayName[128];
  char displayType[128];
  char cmdDesc[128];
  char cmdName[128];
  ArTypes::Byte4 cmdFreq;
  int dataReqFreq = 100;
  for(ArTypes::Byte2 i = 0; i < numCams; ++i)
  {
    memset(camName, 0, 128);
    memset(camType, 0, 128);
    memset(displayName, 0, 128);
    memset(displayType, 0, 128);
    pkt->bufToStr(camName, 128); // name

    ArClientHandlerCamera *cam = new ArClientHandlerCamera(myClient, camName);

    pkt->bufToStr(camType, 128); // type
    cam->type = camType;
    pkt->bufToStr(displayName, 128); // description
    cam->displayName = displayName;
    pkt->bufToStr(displayType, 128); // description
    cam->displayType = displayType;
    ArTypes::Byte2 numCmds = pkt->bufToByte2();
    ArLog::log(ArLog::Normal, "%d commands for camera \'%s\' (%s) / \'%s\' (%s)", numCmds, camName, camType, displayName, displayType);
    for(ArTypes::Byte2 c = 0; c < numCmds; ++c)
    {
      memset(cmdDesc, 0, 128);
      memset(cmdName, 0, 128);
      char cmdDesc[128];
      char cmdName[128];
      pkt->bufToStr(cmdDesc, 128); // description
      pkt->bufToStr(cmdName, 128); // request name
      cmdFreq = pkt->bufToByte4(); // recommended request frequency
      ArLog::log(ArLog::Normal, "Camera %s has %s command named %s with recommended request frequency %d.", camName, cmdDesc, cmdName, cmdFreq);

      if(strcmp(cmdDesc, "getCameraData") == 0)
        dataReqFreq = cmdFreq;
    }
    ArTypes::Byte2 numParams = pkt->bufToByte2();
    ArLog::log(ArLog::Normal, "Camera %s has %d parameters.", camName, numParams);
    for(ArTypes::Byte2 p = 0; p < numParams; ++p)
    {
      ArClientArg carg;
      ArConfigArg arg;
      if(!carg.bufToArgValue(pkt, arg))
        ArLog::log(ArLog::Normal, "Hmm, error getting ArClientArg for camera %s's parameter #%d.", camName, p);
    }

    cam->requestUpdates(dataReqFreq);
    mutex.lock();
    myCameras.insert(cam);
    mutex.unlock();
  }
}
void C_RobotVideoCB(ArNetPacket* robVideoPack)
{
	unsigned int width;
	unsigned int height;
	unsigned int vType;
	
	if(imgSize==0)
	{
		mutex_robotVideo.lock();
		robImgPtr = robot_img.data;
	}
	else
		robImgPtr = robot_img.data+ imgSize;

	robVideoPack->bufToData(robImgPtr, robVideoPack->getDataLength());

	imgSize += robVideoPack->getDataLength();

	//cout <<imgSize<< "  robVideoPack->getDataLength()  " << robVideoPack->getDataLength()<<endl;

	if (imgSize >= 480*640)
	{
		imgSize=0;
		mutex_robotVideo.unlock();
		
		//cout <<"received" <<endl;
		imshow("Robot1",robot_img);
		waitKey(1);
		//client->requestOnce("RobotVideo");
		//return;
	}

}
bool PtzCameraExample::init()
{
  // If the server has the "getCameraList" request, then it's using
  // ArServerHandlerCameraCollection, and migth have multiple PTZs/cameras each with
  // its own set of requests. So send a "getCameraList" request, and when its
  // reply is received, the handler will send "getCameraInfo" requests for each.
  // If the server does not have "getCameraList", it only has one PTZ camera, just
  // send "getCameraInfo". The handler for that will send various control
  // commands.
  // If the server does not have "getCameraInfo", then it doesn't provide any
  // access to PTZ cameras.
  if(myClient->dataExists("getCameraList"))
  {
    ArLog::log(ArLog::Normal, "Server may have multiple cameras. Requesting list.");
    myClient->addHandler("getCameraList", &myCameraListReplyFunc);
    myClient->requestOnce("getCameraList");
  }
  else if(myClient->dataExists("getCameraInfo"))
  {
    ArLog::log(ArLog::Normal, "Server does not support multiple cameras. Requesting info for its camera.");
    ArClientHandlerCamera *camClient = new ArClientHandlerCamera(myClient, "");
    camClient->requestUpdates(100);
    mutex.lock();
    myCameras.insert(camClient);
    mutex.unlock();
  }
  else
  {
    ArLog::log(ArLog::Terse, "Error, server does not have any camera control requests. (Was the server run with video features enabled or video forwarding active?)");
    return false;
  }
  return true;
}
Beispiel #5
0
  void* runThread(void*) 
  {
    size_t strSize;
		

    // The socket objects: one for accepting new client connections,
    // and another for communicating with a client after it connects.
    ArSocket serverSock, clientSock;

    // Open the server socket
    if (serverSock.open(VIDEO_PORT, ArSocket::TCP))
      ArLog::log(ArLog::Normal, " Opened the server port %d.", VIDEO_PORT);
    else
      ArLog::log(ArLog::Normal, " Failed to open the server port: %s.", serverSock.getErrorStr().c_str());
    

    if (serverSock.accept(&clientSock))
      ArLog::log(ArLog::Normal, " Client has connected.");
    else
      ArLog::log(ArLog::Terse, " Error in accepting a connection from the client: %s.", serverSock.getErrorStr().c_str());

    while(1)
    {
      /* send the grayscaled frame, thread safe */
      mutex_video.lock();
      if (is_data_ready) 
      {
				int grayImgSize=gray_img.rows*gray_img.cols;
				//cout <<" Sending image to the client.grayImgSize= " << grayImgSize;
				if ((strSize = clientSock.write(gray_img.data, grayImgSize))==grayImgSize )
					;//ArLog::log(ArLog::Normal, " Sent image to the client.grayImgSize= %d", grayImgSize);
// 				else
// 					ArLog::log(ArLog::Normal, " Error in sending hello string to the client.");

				//ArLog::log(ArLog::Normal, " String Size: \"%d\"", strSize);
	
				is_data_ready = 0;
      }
      mutex_video.unlock();
      
      if(!clientSock.isOpen())
      {
	if (serverSock.accept(&clientSock))
	  ArLog::log(ArLog::Normal, " Client has connected.");
	else
	  ArLog::log(ArLog::Terse, " Error in accepting a connection from the client: %s.", serverSock.getErrorStr().c_str());
      }
    }
	// Now lets close the connection to the client
    clientSock.close();
    ArLog::log(ArLog::Normal, " Socket to client closed.");
    // And lets close the server port
    serverSock.close();
    ArLog::log(ArLog::Normal, " Server socket closed.");

    // Uninitialize Aria and exit the program
    //Aria::exit(0);

  } //end of runThread
Beispiel #6
0
int main(int argc, char **argv) 
{
  Aria::init(Aria::SIGHANDLE_THREAD, false);

  ArMutex mutex;
  mutex.setLogName("mutex");

  ArMutex::setLockWarningTime(1);
  ArMutex::setUnlockWarningTime(5);
  TestThread thread1(1, mutex), thread2(2, mutex), thread3(3, mutex),
    thread4(4, mutex);

  thread1.setThreadName("thread1");
  thread2.setThreadName("thread2");
  thread3.setThreadName("thread3");
  thread4.setThreadName("thread4");
  srand(time(0));


  thread1.create();
  thread2.create();
  thread3.create();

  printf("main thread name=\"%s\", OS handle=%lu, OS pointer=0x%x\n", ArThread::getThisThreadName(), ArThread::getThisOSThread(), (unsigned int) ArThread::getThisThread());
  printf("thread1 thread name=\"%s\", OS handle=%lu, OS pointer=0x%x\n", thread1.getThreadName(), thread1.getOSThread(), (unsigned int) thread1.getThread());
  printf("thread2 thread name=\"%s\", OS handle=%lu, OS pointer=0x%x\n", thread2.getThreadName(), thread2.getOSThread(), (unsigned int) thread2.getThread());
  printf("thread3 thread name=\"%s\", OS handle=%lu, OS pointer=0x%x\n", thread3.getThreadName(), thread3.getOSThread(), (unsigned int) thread3.getThread());
  printf("thread4 (not created yet) thread name=\"%s\", OS handle=%lu, OS pointer=0x%x\n", thread4.getThreadName(), thread4.getOSThread(), (unsigned int) thread4.getThread());
  if(ArThread::getThisOSThread() == thread1.getOSThread() ||
     ArThread::getThisOSThread() == thread2.getOSThread() ||
     ArThread::getThisOSThread() == thread3.getOSThread() ||
     ArThread::getThisOSThread() == thread4.getOSThread() ||
     thread1.getOSThread() == thread2.getOSThread() ||
     thread1.getOSThread() == thread3.getOSThread() ||
     thread1.getOSThread() == thread4.getOSThread() ||
     thread2.getOSThread() == thread1.getOSThread() ||
     thread2.getOSThread() == thread3.getOSThread() ||
     thread2.getOSThread() == thread4.getOSThread() ||
     thread3.getOSThread() == thread1.getOSThread() ||
     thread3.getOSThread() == thread2.getOSThread() ||
     thread3.getOSThread() == thread4.getOSThread() ||
     thread4.getOSThread() == thread1.getOSThread() ||
     thread4.getOSThread() == thread2.getOSThread() ||
     thread4.getOSThread() == thread3.getOSThread() )
  {
    puts("error, some thread IDs are the same!");
    return 5;
  }

  thread4.runInThisThread();

  Aria::shutdown();

  return(0);
}
// Method called by accessor methods when properties changed. This reconstructs
// the myReply packet sent in response to requests from clients
void Circle::regenerate()
{
  myMutex.lock();
  myReply.empty();
  myReply.byte4ToBuf(myNumPoints);
  double a = 360.0/myNumPoints;
  for(unsigned int i = 0; i < myNumPoints; ++i)
  {
    myReply.byte4ToBuf(ArMath::roundInt(myPos.getX()+ArMath::cos(i*a)*myRadius)); // X
    myReply.byte4ToBuf(ArMath::roundInt(myPos.getY()+ArMath::sin(i*a)*myRadius)); // Y
  }
  myMutex.unlock();
}
void PtzCameraExample::run()
{
  enum { MinPan, MaxPan, Center1, MinTilt, MaxTilt, Center2} stage;
  stage = MinPan;
  while(myClient->isConnected()) 
  {
    mutex.lock();
    for(std::set<ArClientHandlerCamera*>::const_iterator i = myCameras.begin(); i != myCameras.end(); ++i)
    {
      ArClientHandlerCamera* c = (*i);
      c->lock();
      switch(stage)
      {
        case MinPan:
          c->request.requestPanTiltAbs(c->minPan, 0);
          stage = MaxPan;
          break;
        case MaxPan:
          c->request.requestPanTiltAbs(c->maxPan, 0);
          stage = Center1;
          break;
        case Center1:
          c->request.requestPanTiltAbs(0, 0);
          stage = MinTilt;
          break;
        case MinTilt:
          c->request.requestPanTiltAbs(0, c->minTilt);
          stage = MaxTilt;
          break;
        case MaxTilt:
          c->request.requestPanTiltAbs(0, c->maxTilt);
          stage = Center2;
          break;
        case Center2:
          c->request.requestPanTiltAbs(0, 0);
          stage = MinPan;
      }
      c->unlock();
    }
    mutex.unlock();
    ArUtil::sleep(3000);
  }
}
void* GlassesVideo::runThread(void*) 
{

	VideoCapture gl_capture(3); 

	gl_capture.set(CV_CAP_PROP_FRAME_WIDTH , 640);
	gl_capture.set(CV_CAP_PROP_FRAME_HEIGHT, 480);

	if(!gl_capture.isOpened())
	{
		cout << "Cannot open glasses video !" << endl;
	}

	Mat gl_img, gl_img_OR;

	Mat curMat, preMat;

	//glassesOR glOR(&gl_img_OR);
	//glOR.stopRunning();
	ObjectRecognition gl_or("g20111105_4.yml.gz");
	Mat gl_img_bk;
	Mat glres_image;				//display result image

	int gl_result=255;



	RobotSearch robotsearch;
	//robotsearch.create();
	robotsearch.stopRunning();

	
	//namedWindow("Glasses Video");
	//moveWindow("Glasses Video", 645, 0);
	namedWindow("Video Live");
	moveWindow("Video Live", 645, 0);
	namedWindow("Glasses_result",CV_WINDOW_NORMAL);
	moveWindow("Glasses_result",1000,600);
	//G_glassesMode = glassesOR;
	while(1)
	{

		gl_capture >> gl_img;
		cvtColor(gl_img,gl_img_bk,CV_RGB2GRAY);
		imshow("Video Live",gl_img_bk);
		waitKey(1);

		//----------------------------glasses Motion ------------------------
		preMat = gl_img.clone();
		//imshow("preMat", preMat);
		gl_capture >> curMat;
		//imshow ("cur", curMat);
		modeSwitch(preMat, curMat);
		//-------------------------------------------------------------------

		if(G_glassesMode == glassesOR) //OR MODE
		{

			//Open Glasses Objct Recognition
			//glOR.runAsync();

			gl_result=255;
			gl_result = gl_or.find(gl_img_bk, 'G');

			//if(gl_result !=255)
			//{
			//	gl_capture >> gl_img;
			//	cvtColor(gl_img,gl_img_bk,CV_RGB2GRAY);
			//	imshow("Video Live",gl_img);
			//	waitKey(1);
			//	gl_result=255;
			//	gl_result = gl_or.find(gl_img_bk, 'G');
			//	/*if(gl_result !=255)
			//	{
			//		gl_capture >> gl_img;
			//		cvtColor(gl_img,gl_img_bk,CV_RGB2GRAY);
			//		imshow("Video Live",gl_img);
			//		waitKey(1);
			//		gl_result=255;
			//		gl_result = gl_or.find(gl_img_bk, 'G');
			//	}
			//	else gl_result=255;*/

			//}
			//gl_result=4;

			if(gl_result !=255)
			{

				//-------------------------Display the result ------------------------
				robotSpeak(gl_result, "name");
				stringstream ret_src1;  //result src
				ObjectRecognition::loadImage(ret_src1, gl_result, 'G', 1);
				glres_image = imread(ret_src1.str());
				imshow("Glasses_result", glres_image);
				waitKey(1);
				
				//--------------------glasses goes to roobt search mode------------------
				GlassesModeMutex.lock();
				CB.clear();
				G_glassesMode = robotSearch;
				G_Search_Step = 0;
				isDoneRobot = true;
				G_Target= gl_result/5;
				gl_result = 255;
				HelpStartTime = time(NULL);
				//RobotCommand(CameraMotion); //cameraMotion
				GlassesModeMutex.unlock();

				////-------------------------Open robot search thread ------------------------

				if(!robotsearch.getRunning())
					robotsearch.runAsync();
				
			}

		}



	}
	//return 0;

}
void Circle::drawingServerCB(ArServerClient *client, ArNetPacket *pkt)
{
  myMutex.lock();
  client->sendPacketUdp(&myReply);
  myMutex.unlock();
}
	void* runThread(void*)  
	{
		size_t strSize;


		// The socket objects: one for accepting new client connections,
		// and another for communicating with a client after it connects.
		

		// Open the server socket
		if (serverSock.open(VIDEO_PORT, ArSocket::TCP))
			ArLog::log(ArLog::Normal, " Opened the server port %d.", VIDEO_PORT);
		else
			ArLog::log(ArLog::Normal, " Failed to open the server port: %s.", serverSock.getErrorStr().c_str());

		
		

		if (serverSock.accept(&clientSock))
			ArLog::log(ArLog::Normal, " Client has connected.");
		else
			ArLog::log(ArLog::Terse, " Error in accepting a connection from the client: %s.", serverSock.getErrorStr().c_str());
		
		//.setCloseCallback(new ArGlobalFunctor1<ArNetPacket*>(&clientCloseCallback));
		//serverSock.setCloseCallback(new ArGlobalFunctor1<ArNetPacket*>(&clientCloseCallback));
		while(1)
		{

			//int clinetSocketStatus = serverSock.accept(&clientSock); // MODIFIED By Yang, Try to accept new client.
			//
			//if (clinetSocketStatus > 0){

			//	char buf[1024] = {0};
			//	int recievedInt = clientSock.read(buf, 1024, 0);
			//	cout << recievedInt << endl;

			//	while(true)
			//	{
					/* send the grayscaled frame, thread safe */
					mutex_video.lock();
		
					if (is_data_ready) 
					{
						int grayImgSize=gray_img.rows*gray_img.cols;
						//cout <<" Sending image to the client.grayImgSize= " << grayImgSize;
						if ((strSize = clientSock.write(gray_img.data, grayImgSize))==grayImgSize )
							;//ArLog::log(ArLog::Normal, " Sent image to the client.grayImgSize= %d", grayImgSize);
						// 				else
						// 					ArLog::log(ArLog::Normal, " Error in sending hello string to the client.");

						//ArLog::log(ArLog::Normal, " String Size: \"%d\"", strSize);

						is_data_ready = 0;
					}
					mutex_video.unlock();

					//if(!clientSock.isOpen())
					//{
					//	clientSock.close();
					//	ArLog::log(ArLog::Normal, " Socket to client closed.");
					//	if (serverSock.accept(&clientSock))
					//		ArLog::log(ArLog::Normal, " Client has connected.");
					//	else
					//		ArLog::log(ArLog::Terse, " Error in accepting a connection from the client: %s.", serverSock.getErrorStr().c_str());
					//}
				}
			//}
			
		//}
		// Now lets close the connection to the client
		clientSock.close();
		ArLog::log(ArLog::Normal, " Socket to client closed.");
		// And lets close the server port
		//serverSock.close();
		//ArLog::log(ArLog::Normal, " Server socket closed.");

		// Uninitialize Aria and exit the program
		//Aria::exit(0);

	} //end of runThread
 void unlock() { myMutex.unlock(); }
 void lock() { myMutex.lock(); }
int main(int argc, char **argv) 
{
  Aria::init();
  ArMutex mutex;
  mutex.setLogName("test mutex");
  ArLog::log(ArLog::Normal, "This test succeeds if three (and only three) mutex lock/unlock time warning follow.");
  puts("setting test_mutex warning time to 1 sec");
  mutex.setUnlockWarningTime(1); // 1 sec
  puts("locking and unlocking immediately, should not warn...");
  mutex.lock();
  mutex.unlock(); // should not warn
  puts("locking and unlocking after 2 sec, should warn...");
  mutex.lock();
  ArUtil::sleep(2000); // 2 sec
  mutex.unlock(); // should warn
  puts("locking and unlocking after 0.5 sec, should not warn...");
  mutex.lock();
  ArUtil::sleep(500); // 0.5 sec
  mutex.unlock();	// should not warn
  puts("setting test_mutex warning time to 0.5 sec");
  mutex.setUnlockWarningTime(0.5); // 0.5 sec
  puts("locking and unlocking after 0.6 sec, should warn...");
  mutex.lock();
  ArUtil::sleep(600); // 0.6 sec
  mutex.unlock(); // should warn
  puts("locking and unlocking after 0.2 sec, should not warn...");
  mutex.lock();
  ArUtil::sleep(200); // 0.2 sec
  mutex.unlock(); // should not warn
  puts("locking and unlocking immediately, should not warn...");
  mutex.lock();
  mutex.unlock(); // should not warn
  puts("setting test_mutex warning time to 0.1 sec");
  mutex.setUnlockWarningTime(0.1);  // 0.1 sec
  puts("locking and unlocking after 0.2 sec, should warn...");
  mutex.lock();
  ArUtil::sleep(200); // 0.2 sec
  mutex.unlock(); // should warn
  mutex.setUnlockWarningTime(0.0); // off
  mutex.lock();
  ArUtil::sleep(100); // should not warn
  mutex.unlock();

  // Create and destroy a few mutexes, locking them, etc.
  ArMutex *m1 = new ArMutex();
  m1->setLogName("m1");
  m1->lock();
  ArMutex *m2 = new ArMutex();
  m2->lock();
  m2->setLogName("m2");
  puts("unlocking m1 before destroying it...");
  m1->unlock();
  delete m1;
  puts("NOT unlocking m2 before destroying it...");
  delete m2;

  puts("exiting with Aria::exit(0)...");
  Aria::exit(0);
}
void* RobotVideo::runThread(void* arg)
{

	cvNamedWindow("Robot", CV_WINDOW_AUTOSIZE);
	moveWindow("Robot", 0, 0);
	// The buffer in which to receive the hello from the server
	//unsigned char buff[12];
	unsigned char imgBuff[480*640];

	//Mat imgRecieve(480,640,CV_8UC1);
	// The size of the string the server sent
	size_t strSize;

	// The socket object
	ArSocket sock;
	unsigned char *ptr;
	// Initialize Aria.  It is especially important to do
	// this on Windows, because it will initialize Window's
	// sockets system. 
	// Aria::init();

	// Connect to the server
	//ArLog::log(ArLog::Normal, "socketClientExample: Connecting to localhost TCP port 7777...");

	if (sock.connect(server_ip, ROBOT_VIDEO_PORT, ArSocket::TCP))
		ArLog::log(ArLog::Normal, "Connected to server at %s TCP port 11000.", server_ip);
	else
	{
		ArLog::log(ArLog::Terse, "Error connecting to server at  %s  TCP port 11000: %s",server_ip, sock.getErrorStr().c_str());
		//return(-1);
	}

	//---------------------------VideoWriter---------------------------------------


	robotVideo.open("robot.avi"  , CV_FOURCC('M','J','P','G') /* CV_FOURCC('P','I','M','1') */, 20/*inputVideo.get(CV_CAP_PROP_FPS)*/,Size(640, 480), false);

	if (!robotVideo.isOpened())
	{
		cout  << "Could not open the output video for write: " /*<< source*/ << endl;
	}


	while(1)
	{
		ptr = &imgBuff[0];
		strSize = 0;
		while (strSize < 640 * 480)
		{
			//ArLog::log(ArLog::Normal, "socketClientExample: String Size: \"%d\"", strSize);
			strSize += sock.read(ptr, 2);
			ptr += 2;
		}

		ptr=robot_img.datastart;
		//ArLog::log(ArLog::Normal, "socketClientExample: String Size: \"%d\"", strSize);

		mutex_robotVideo.lock();
		for (int i = 0,k = 0; i < robot_img.rows*robot_img.cols; i++) 
		{
			*(ptr++) = imgBuff[k++];
		}


		imshow("Robot", robot_img);
		robotVideo << robot_img;


		mutex_robotVideo.unlock();
		waitKey(1);/*0)==27) break;*/
	}
	sock.close();
	//outputVideo.release();
	// Now close the connection to the server

	ArLog::log(ArLog::Normal, "Socket to server closed.");
	destroyWindow("Robot");
	// Uninitialize Aria and exit
	//Aria::exit(0);
	return NULL;
}
Beispiel #16
0
int main(int argc, char **argv) 
{
  Aria::init();
  ArMutex mutex;
  mutex.setLogName("test mutex");
  ArLog::log(ArLog::Normal, "This test succeeds if three (and only three) mutex lock/unlock time warning follow.");
  mutex.setUnlockWarningTime(1); // 1 sec
  mutex.lock();
  mutex.unlock(); // should not warn
  mutex.lock();
  ArUtil::sleep(2000); // 2 sec
  mutex.unlock(); // should warn
  mutex.lock();
  ArUtil::sleep(500); // 0.5 sec
  mutex.unlock();	// should not warn
  mutex.setUnlockWarningTime(0.5); // 0.5 sec
  mutex.lock();
  ArUtil::sleep(600); // 0.6 sec
  mutex.unlock(); // should warn
  mutex.lock();
  ArUtil::sleep(200); // 0.2 sec
  mutex.unlock(); // should not warn
  mutex.lock();
  mutex.unlock(); // should not warn
  mutex.setUnlockWarningTime(0.1);  // 0.1 sec
  mutex.lock();
  ArUtil::sleep(200); // 0.2 sec
  mutex.unlock(); // should warn
  mutex.setUnlockWarningTime(0.0); // off
  mutex.lock();
  ArUtil::sleep(100); // should not warn
  mutex.unlock();
  Aria::exit(0);
}