public void waitInternal(boolean interrupt) {
if (queueListener.get() == null) {
return;
}
if (isCurrentThread()) {
return;
}
long MAX_TIMEOUT = 1000 * 10;
long start = System.currentTimeMillis();
while (queueListener.get().isRunning()) {
try {
TimeUnit.MILLISECONDS.sleep(100);
Thread thread = queueListener.get().getThread();
if (interrupt) {
if (thread != null) {
thread.interrupt();
}
} else if (System.currentTimeMillis() - start > MAX_TIMEOUT) {
if (thread != null) {
String msg = "Waited for " + MAX_TIMEOUT + "ms, will now interrupt the thread";
log.warn(msg);
thread.interrupt();
throw new RuntimeException(msg);
}
}
} catch (InterruptedException e) {
log.trace("Got Interrupted while waiting for tasks.", e);
}
}
}
/** Run the test for the queue parameter. */
public static SynchronizedQueueResult testQueue(QueueAdapter<Integer> queue) {
try {
mQueue = queue;
// Please make sure to keep all the "TODO" comments in the
// code below to make it easy for peer reviewers to find
// them.
// TODO - you fill in here to replace the null
// initialization below to create two Java Threads, one
// that's passed the producerRunnable and the other that's
// passed the consumerRunnable.
Thread consumer = new Thread(consumerRunnable);
Thread producer = new Thread(producerRunnable);
// TODO - you fill in here to start the threads. More
// interesting results will occur if you start the
// consumer first.
producer.start();
consumer.start();
// Give the Threads a chance to run before interrupting
// them.
Thread.sleep(100);
// TODO - you fill in here to interrupt the threads.
producer.interrupt();
consumer.interrupt();
// TODO - you fill in here to wait for the threads to
// exit.
consumer.join();
producer.join();
;
// Do some sanity checking to see if the Threads work as
// expected.
if (consumer == null || producer == null)
return SynchronizedQueueResult.THREADS_NEVER_CREATED;
else if (consumer.isAlive() || producer.isAlive())
return SynchronizedQueueResult.JOIN_NEVER_CALLED;
else if (mConsumerCounter == 0 || mProducerCounter == 0)
return SynchronizedQueueResult.THREADS_NEVER_RAN;
else if (mConsumerCounter == mMaxIterations || mProducerCounter == mMaxIterations)
return SynchronizedQueueResult.THREADS_NEVER_INTERUPTED;
else if (mConsumerCounter == FAILURE_OCCURRED || mProducerCounter == FAILURE_OCCURRED)
return SynchronizedQueueResult.THREADS_THREW_EXCEPTION;
else if (mConsumerCounter == TIMEOUT_OCCURRED || mProducerCounter == TIMEOUT_OCCURRED)
return SynchronizedQueueResult.THREADS_TIMEDOUT;
else return SynchronizedQueueResult.RAN_PROPERLY;
} catch (Exception e) {
return SynchronizedQueueResult.TESTING_LOGIC_THREW_EXCEPTION;
}
}
public static void main(String[] args) throws Exception {
int counter = 0;
while (true) {
Thread outThread = null;
Thread errThread = null;
try {
// org.pitest.mutationtest.instrument.MutationTestUnit#runTestInSeperateProcessForMutationRange
// *** start slave
ServerSocket commSocket = new ServerSocket(0);
int commPort = commSocket.getLocalPort();
System.out.println("commPort = " + commPort);
// org.pitest.mutationtest.execute.MutationTestProcess#start
// - org.pitest.util.CommunicationThread#start
FutureTask<Integer> commFuture = createFuture(commSocket);
// - org.pitest.util.WrappingProcess#start
// - org.pitest.util.JavaProcess#launch
Process slaveProcess = startSlaveProcess(commPort);
outThread = new Thread(new ReadFromInputStream(slaveProcess.getInputStream()), "stdout");
errThread = new Thread(new ReadFromInputStream(slaveProcess.getErrorStream()), "stderr");
outThread.start();
errThread.start();
// *** wait for slave to die
// org.pitest.mutationtest.execute.MutationTestProcess#waitToDie
// - org.pitest.util.CommunicationThread#waitToFinish
System.out.println("waitToFinish");
Integer controlReturned = commFuture.get();
System.out.println("controlReturned = " + controlReturned);
// NOTE: the following won't get called if commFuture.get() fails!
// - org.pitest.util.JavaProcess#destroy
outThread.interrupt(); // org.pitest.util.AbstractMonitor#requestStop
errThread.interrupt(); // org.pitest.util.AbstractMonitor#requestStop
slaveProcess.destroy();
} catch (Exception e) {
e.printStackTrace(System.out);
}
// test: the threads should exit eventually
outThread.join();
errThread.join();
counter++;
System.out.println("try " + counter + ": stdout and stderr threads exited normally");
}
}
void stop() {
stopping = true;
sinkThread.interrupt();
try {
sinkThread.join();
} catch (InterruptedException e) {
LOG.warn("Stop interrupted", e);
}
}
protected void handleInterruptRequest(Address source, long requestId) {
Owner owner = new Owner(source, requestId);
Runnable runnable = removeKeyForValue(_running, owner);
Thread thread = null;
if (runnable != null) {
thread = _runnableThreads.remove(runnable);
}
if (thread != null) {
thread.interrupt();
} else if (log.isTraceEnabled())
log.trace("Message could not be interrupted due to it already returned");
}
@Override
public void onDestroy() {
if (AppConfig.DEBUG) Log.d(TAG, "Service shutting down");
isRunning = false;
updateReport();
stopForeground(true);
NotificationManager nm = (NotificationManager) getSystemService(NOTIFICATION_SERVICE);
nm.cancel(NOTIFICATION_ID);
downloadCompletionThread.interrupt();
syncExecutor.shutdown();
schedExecutor.shutdown();
cancelNotificationUpdater();
unregisterReceiver(cancelDownloadReceiver);
}
static void test() throws Throwable {
final ExecutorService executor = Executors.newCachedThreadPool();
final NotificationReceiver notifiee1 = new NotificationReceiver();
final NotificationReceiver notifiee2 = new NotificationReceiver();
final Collection<Callable<Object>> tasks = new ArrayList<Callable<Object>>();
tasks.add(new BlockingTask(notifiee1));
tasks.add(new BlockingTask(notifiee2));
tasks.add(new NonBlockingTask());
// start a thread to invoke the tasks
Thread thread =
new Thread() {
public void run() {
try {
executor.invokeAll(tasks);
} catch (RejectedExecutionException t) {
/* OK */
} catch (Throwable t) {
unexpected(t);
}
}
};
thread.start();
// Wait until tasks begin execution
notifiee1.waitForNotification();
notifiee2.waitForNotification();
// Now try to shutdown the executor service while tasks
// are blocked. This should cause the tasks to be
// interrupted.
executor.shutdownNow();
if (!executor.awaitTermination(5, TimeUnit.SECONDS)) throw new Error("Executor stuck");
// Wait for the invocation thread to complete.
thread.join(1000);
if (thread.isAlive()) {
thread.interrupt();
thread.join(1000);
throw new Error("invokeAll stuck");
}
}
public static void main(String[] args) {
// 3 ways to do it:
// use Thread:
Thread t = new Thread(new Worker());
t.start();
t.interrupt();
// use Executor execute:
ExecutorService exec = Executors.newSingleThreadExecutor();
exec.execute(new Worker());
exec.shutdownNow();
// use Executor submit:
ExecutorService exec2 = Executors.newSingleThreadExecutor();
Future<?> f = exec2.submit(new Worker());
try {
TimeUnit.MILLISECONDS.sleep(100); // start task
} catch (InterruptedException e) {
System.out.println("Sleep interrupted in main()");
}
f.cancel(true);
exec2.shutdown();
}
public void cancel() {
LOG.debug("Feed cancelled");
shouldRun = false;
thread.interrupt();
}
void interrupt() {
thread.interrupt();
}
// public int globalTickCount(){return globalTickCount;}
public void interrupt() {
dead = true;
super.interrupt();
}