/** 改变标志位停止线程 */
public void stop_() {
synchronized (this) {
isContinue = false;
watchDataThreadPool.shutdown();
submitDataThreadPool.shutdown();
}
}
@Override
public void shutdown() {
RuntimeException exception = null;
try {
if (executor != null) {
executor.shutdownNow();
executor.awaitTermination(5, TimeUnit.SECONDS);
executor = null;
}
} catch (RuntimeException e) {
exception = e;
} catch (InterruptedException e) {
exception = new RuntimeException(e);
}
try {
if (scheduledExecutor != null) {
scheduledExecutor.shutdown();
scheduledExecutor.awaitTermination(5, TimeUnit.SECONDS);
scheduledExecutor = null;
}
} catch (RuntimeException e) {
exception = e;
} catch (InterruptedException e) {
exception = new RuntimeException(e);
}
if (exception != null) {
throw new RuntimeException("Unable to shut down job scheduler properly.", exception);
}
}
@Override
public void serviceStop() {
llapTaskUmbilicalServer.shutdownServer();
timer.shutdown();
if (this.communicator != null) {
this.communicator.stop();
}
}
@Override
public void stop() {
pause();
stpe.shutdown();
super.stop();
Sensor.setSensorStatus(Sensor.SENSOR_LOCATION, Sensor.SENSOR_OFF);
refreshStatus();
}
public void stopRetryProcessor() {
if (timer == null) return;
try {
timer.shutdown();
} catch (Exception e) {
SpineToolsLogger.getInstance()
.log("org.warlock.spine.connection.ConnectionManager.stopRetryProcessor", e);
}
}
public void shutdown() {
_shutdown = true;
try {
_effectsScheduledThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_generalScheduledThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_generalPacketsThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_ioPacketsThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_generalThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_effectsScheduledThreadPool.shutdown();
_generalScheduledThreadPool.shutdown();
_generalPacketsThreadPool.shutdown();
_ioPacketsThreadPool.shutdown();
_generalThreadPool.shutdown();
_log.info("All ThreadPools are now stopped");
} catch (InterruptedException e) {
_log.log(Level.WARNING, "", e);
}
}
@Override
public void onDestroy() {
log.debug("Called onDestroy()");
persistor.close();
executorService.shutdown();
super.onDestroy();
}
public void shutdown() {
estimatedTimeThread.running = false;
estimatedTimeThread.interrupt();
scheduler.shutdown();
for (ExecutorHolder executor : executors.values()) {
if (executor.executor instanceof ThreadPoolExecutor) {
((ThreadPoolExecutor) executor.executor).shutdown();
}
}
}
public void terminateAudio() {
mAudioTrack.flush();
mAudioTrack.release();
mAudioTrack = null;
reqThreadrunning = false;
stpe.shutdown();
stpe = null;
}
public void shutdown() {
_shutdown = true;
try {
_effectsScheduledThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_generalScheduledThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_generalPacketsThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_ioPacketsThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_generalThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_aiThreadPool.awaitTermination(1, TimeUnit.SECONDS);
_effectsScheduledThreadPool.shutdown();
_generalScheduledThreadPool.shutdown();
_generalPacketsThreadPool.shutdown();
_ioPacketsThreadPool.shutdown();
_generalThreadPool.shutdown();
_aiThreadPool.shutdown();
System.out.println("All ThreadPools are now stoped");
} catch (InterruptedException e) {
_log.log(Level.SEVERE, e.getLocalizedMessage(), e);
}
}
public void deactivate() {
final ScheduledThreadPoolExecutor executor = m_executor;
executor.shutdown();
try {
executor.awaitTermination(m_conf.terminationWaitTimeInSeconds(), TimeUnit.SECONDS);
} catch (InterruptedException e) {
// Ignore
}
m_executor = null;
m_conf = null;
c_logger.info("Scheduler deactivated");
}
@Override
protected void serviceStop() throws Exception {
if (sched != null) {
sched.shutdown();
boolean terminated = false;
try {
terminated = sched.awaitTermination(10, SECONDS);
} catch (InterruptedException e) {
}
if (terminated != true) {
sched.shutdownNow();
}
}
super.serviceStop();
}
public void stop() throws Exception {
LOGGER.info("Shutting down Network !!");
_state.set(State.SHUTTING_DOWN);
_connPool.shutdown();
_eventLoopGroup.shutdownGracefully();
_routingTable.shutdown();
_poolTimeoutExecutor.shutdown();
_requestSenderPool.shutdown();
_state.set(State.SHUTDOWN);
LOGGER.info("Network shutdown!!");
LOGGER.info("Stopping Jetty server !!");
_server.stop();
LOGGER.info("Stopped Jetty server !!");
}
@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);
}
void test(String[] args) throws Throwable {
ScheduledThreadPoolExecutor pool = new ScheduledThreadPoolExecutor(0);
Runnable task =
new Runnable() {
public void run() {
taskRun = true;
}
};
check(pool.getCorePoolSize() == 0);
pool.schedule(task, 1, TimeUnit.SECONDS);
pool.shutdown();
check(pool.awaitTermination(20L, TimeUnit.SECONDS));
check(pool.getCorePoolSize() == 0);
check(taskRun);
}
/**
* Shuts down the task scheduler.
*
* @see ScheduledThreadPoolExecutor#shutdown()
*/
public void shutdown() {
mThreadPool.shutdown();
}
@Override
public void shutdown() throws Exception {
scheduledExec.shutdown();
}
@Override
public void destroy() {
super.destroy();
exec.shutdown();
}
@Test
@Parameters
@SuppressWarnings("unchecked")
public final void testDelayed(
int minDelay,
int maxDelay,
float lossChance,
float dupChance,
int executeInterval,
long executeTime,
boolean retransmit)
throws InterruptedException {
/*
* Record phase
*/
final UnreliableQueue<Packet<Long>> aToB =
new UnreliableQueue<Packet<Long>>(
queueListenerAtoB, minDelay, maxDelay, lossChance, dupChance);
final UnreliableQueue<Packet<Long>> bToA =
new UnreliableQueue<Packet<Long>>(
queueListenerBtoA, minDelay, maxDelay, lossChance, dupChance);
ProtocolListener<Long> listenerA =
DEBUG
? new DebugProtocolListener<Long>(protocolListenerA, Logger.getConsoleLogger("A"))
: protocolListenerA;
final TestHost<Long> hostA =
new TestHost<Long>(
hostListenerA,
new LongDataGenerator(),
bToA,
aToB,
new ProtocolConfig<Long>(listenerA),
DEBUG ? "A" : null);
final List<Long> sentA = new ArrayList<Long>();
final List<Long> lostSentA = new ArrayList<Long>();
final List<Long> dupedSentA = new ArrayList<Long>();
final List<Long> receivedA = new ArrayList<Long>();
final List<Long> ackedA = new ArrayList<Long>();
final List<Long> notAckedA = new ArrayList<Long>();
final List<Long> orderedA = new ArrayList<Long>();
final List<Long> unorderedA = new ArrayList<Long>();
final List<Long> retransmitsA = new ArrayList<Long>();
ProtocolListener<Long> listenerB =
DEBUG
? new DebugProtocolListener<Long>(protocolListenerB, Logger.getConsoleLogger("B"))
: protocolListenerB;
final TestHost<Long> hostB =
new TestHost<Long>(
hostListenerB,
new LongDataGenerator(),
aToB,
bToA,
new ProtocolConfig<Long>(listenerB),
DEBUG ? "B" : null);
final List<Long> sentB = new ArrayList<Long>();
final List<Long> lostSentB = new ArrayList<Long>();
final List<Long> dupedSentB = new ArrayList<Long>();
final List<Long> receivedB = new ArrayList<Long>();
final List<Long> ackedB = new ArrayList<Long>();
final List<Long> notAckedB = new ArrayList<Long>();
final List<Long> orderedB = new ArrayList<Long>();
final List<Long> unorderedB = new ArrayList<Long>();
final List<Long> retransmitsB = new ArrayList<Long>();
new NonStrictExpectations() {
{
hostListenerA.notifyReceived(withCapture(receivedA));
hostListenerA.notifySent(withCapture(sentA));
hostListenerA.notifyRetransmitted(withCapture(retransmitsA));
protocolListenerA.handleAckedData(anyShort, withCapture(ackedA));
protocolListenerA.handleUnackedData(anyShort, withCapture(notAckedA));
protocolListenerA.handleOrderedData(anyShort, withCapture(orderedA));
protocolListenerA.handleUnorderedData(anyShort, withCapture(unorderedA));
}
};
new NonStrictExpectations() {
{
hostListenerB.notifyReceived(withCapture(receivedB));
hostListenerB.notifySent(withCapture(sentB));
hostListenerB.notifyRetransmitted(withCapture(retransmitsB));
protocolListenerB.handleAckedData(anyShort, withCapture(ackedB));
protocolListenerB.handleUnackedData(anyShort, withCapture(notAckedB));
protocolListenerB.handleOrderedData(anyShort, withCapture(orderedB));
protocolListenerB.handleUnorderedData(anyShort, withCapture(unorderedB));
}
};
new NonStrictExpectations() {
{
queueListenerAtoB.notifyDuplicate((Packet<Long>) any);
result =
new Delegate<Packet<Long>>() {
@SuppressWarnings("unused")
void delegate(Packet<Long> dup) {
for (Metadata<Long> metadata : dup.getMetadatas()) {
dupedSentA.add(metadata.getData());
if (DEBUG) System.out.println("[A-dupedSent]: " + metadata.getData());
}
}
};
queueListenerAtoB.notifyLoss((Packet<Long>) any);
result =
new Delegate<Packet<Long>>() {
@SuppressWarnings("unused")
void delegate(Packet<Long> loss) {
for (Metadata<Long> metadata : loss.getMetadatas()) {
lostSentA.add(metadata.getData());
if (DEBUG) System.out.println("[A-lostSent]: " + metadata.getData());
}
}
};
queueListenerBtoA.notifyDuplicate((Packet<Long>) any);
result =
new Delegate<Packet<Long>>() {
@SuppressWarnings("unused")
void delegate(Packet<Long> dup) {
for (Metadata<Long> metadata : dup.getMetadatas()) {
dupedSentB.add(metadata.getData());
if (DEBUG) System.out.println("[B-dupedSent]: " + metadata.getData());
}
}
};
queueListenerBtoA.notifyLoss((Packet<Long>) any);
result =
new Delegate<Packet<Long>>() {
@SuppressWarnings("unused")
void delegate(Packet<Long> loss) {
for (Metadata<Long> metadata : loss.getMetadatas()) {
lostSentB.add(metadata.getData());
if (DEBUG) System.out.println("[B-lostSent]: " + metadata.getData());
}
}
};
}
};
/*
* Replay phase
*/
// play it for a longer interval
executor.scheduleAtFixedRate(hostA, 0, executeInterval, TimeUnit.MILLISECONDS);
executor.scheduleAtFixedRate(
hostB, executeInterval / 2, executeInterval, TimeUnit.MILLISECONDS);
executor.schedule(
new Runnable() {
@Override
public void run() {
// enable reliable queue mode for final messages
aToB.setDupChance(0f);
aToB.setLossChance(0f);
aToB.setMinDelay(0L);
aToB.setMaxDelay(0L);
bToA.setDupChance(0f);
bToA.setLossChance(0f);
bToA.setMinDelay(0L);
bToA.setMaxDelay(0L);
}
},
executeTime - executeTime / 10,
TimeUnit.SECONDS);
executor.awaitTermination(executeTime, TimeUnit.SECONDS);
executor.shutdown();
executor.awaitTermination(executeInterval * 2 + maxDelay * 2, TimeUnit.MILLISECONDS);
// let pending messages finish
Thread.sleep(maxDelay * 2);
hostA.receive();
hostB.receive();
hostA.send();
hostB.send();
Thread.sleep(maxDelay * 2); // wait for queue to make all elements available
hostA.receive();
hostB.receive();
System.out.println();
/*
* Verify phase
*/
for (Long item : notAckedA)
assertTrue("notAcked data should not have been acked", !ackedA.contains(item));
for (Long item : notAckedB)
assertTrue("notAcked data should not have been acked", !ackedB.contains(item));
for (Long item : retransmitsA)
assertTrue("retransmitted data should have been sent from sender", sentA.contains(item));
for (Long item : retransmitsB)
assertTrue("retransmitted data should have been sent from sender", sentB.contains(item));
for (Long item : lostSentA)
assertTrue("over medium lost data should have been sent from sender", sentA.contains(item));
for (Long item : lostSentB)
assertTrue("over medium lost data should have been sent from sender", sentB.contains(item));
for (Long item : dupedSentA)
assertTrue(
"over medium duplicated data should have been sent from sender", sentA.contains(item));
for (Long item : dupedSentB)
assertTrue(
"over medium duplicated data should have been sent from sender", sentB.contains(item));
Long lastItem = null;
for (Long item : orderedA) {
assertTrue("orderly received data should have been sent from sender", sentB.contains(item));
if (lastItem != null) {
assertTrue("ordered data should be ordered", item > lastItem);
}
lastItem = item;
}
lastItem = null;
for (Long item : orderedB) {
assertTrue("orderly received data should have been sent from sender", sentA.contains(item));
if (lastItem != null) {
assertTrue("ordered data should be ordered", item > lastItem);
}
lastItem = item;
}
lastItem = null;
for (Long item : unorderedA) {
assertTrue("unorderly received data should have been sent from sender", sentB.contains(item));
if (lastItem != null) {
assertTrue("unordered data should be ordered", item > lastItem);
}
lastItem = item;
assertTrue("unordered data should not have been orderly received", !orderedA.contains(item));
// The following assertions can not be guaranteed, since there may be multiple unordered
// events and multiple holes until an ordered event occurs
// Long pred = item;
// do {
// pred--;
// } while(unorderedA.contains(pred));
// Long succ = item;
// do {
// succ++;
// } while(unorderedA.contains(succ));
// assertTrue("ordered data contains predecessor of unorderedData",
// orderedA.contains(pred));
// assertTrue("ordered data contains successor of unorderedData", orderedA.contains(succ));
}
lastItem = null;
for (Long item : unorderedB) {
assertTrue("orderly received data should have been sent from sender", sentA.contains(item));
if (lastItem != null) {
assertTrue("unordered data should be ordered", item > lastItem);
}
lastItem = item;
assertTrue("unordered data should not have been orderly received", !orderedB.contains(item));
// The following assertions can not be guaranteed, since there may be multiple unordered
// events and multiple holes until an ordered event occurs
// Long pred = item;
// do {
// pred--;
// } while(unorderedB.contains(pred));
// Long succ = item;
// do {
// succ++;
// } while(unorderedB.contains(succ));
// assertTrue("ordered data contains predecessor of unorderedData",
// orderedB.contains(pred));
// assertTrue("ordered data contains successor of unorderedData", orderedB.contains(succ));
}
// the following addition of "magic constants" is due to the scheduling procedure of the very
// last messages
assertEquals(
"all messages from A must be received at B",
receivedB.size(),
sentA.size() - lostSentA.size() + dupedSentA.size());
assertEquals(
"all messages from A must be acked",
ackedA.size(),
sentA.size() - retransmitsA.size() - notAckedA.size() - 1);
assertEquals(
"all messages from A must be ordered at B",
orderedB.size(),
sentA.size() - retransmitsA.size() - unorderedB.size());
// the following addition of "magic constants" is due to the scheduling procedure of the very
// last messages
assertEquals(
"all messages from B must be received at A",
receivedA.size(),
sentB.size() - lostSentB.size() + dupedSentB.size());
assertEquals(
"all messages from B must be acked",
ackedB.size(),
sentB.size() - retransmitsB.size() - notAckedB.size() - 1);
assertEquals(
"all messages from B must be ordered at A",
orderedA.size(),
sentB.size() - retransmitsB.size() - unorderedA.size());
if (lossChance == 0f) {
assertEquals("no lost packets", 0, lostSentB.size());
assertEquals("no lost packets", 0, lostSentA.size());
}
if (dupChance == 0f) {
assertEquals("no duped packets", 0, dupedSentB.size());
assertEquals("no duped packets", 0, dupedSentA.size());
}
if (retransmit || lossChance == 0f) {
new Verifications() {
{
protocolListenerA.handleUnackedData(anyShort, anyLong);
times = 0;
protocolListenerA.handleUnorderedData(anyShort, anyLong);
times = 0;
}
};
new Verifications() {
{
protocolListenerB.handleUnackedData(anyShort, anyLong);
times = 0;
protocolListenerB.handleUnorderedData(anyShort, anyLong);
times = 0;
}
};
assertEquals("all packets acked", 0, notAckedA.size());
assertEquals("all packets ordered", 0, unorderedA.size());
assertEquals("all packets acked", 0, notAckedB.size());
assertEquals("all packets ordered", 0, unorderedB.size());
}
}
private void waitForShutdown(ScheduledThreadPoolExecutor timerService)
throws InterruptedException {
timerService.shutdown();
timerService.awaitTermination(20, TimeUnit.SECONDS);
}
public static List<File> instrument(
List<File> srcPaths, String instrumenterFileName, String instrumenterClassName) {
if (instrumenterFileName == null) return srcPaths;
if (instrumenterClassName == null) return srcPaths;
Instrumenter instrumenter;
try {
List<URL> tmpUrls = new ArrayList<URL>();
for (File file : srcPaths) {
tmpUrls.add(file.toURI().toURL());
}
ClassLoader tmpLoader =
new URLClassLoader(
tmpUrls.toArray(new URL[tmpUrls.size()]), InstrumenterWorker.class.getClassLoader());
instrumenter = (Instrumenter) tmpLoader.loadClass(instrumenterClassName).newInstance();
} catch (IllegalAccessException e) {
e.printStackTrace();
return srcPaths;
} catch (InstantiationException e) {
e.printStackTrace();
return srcPaths;
} catch (IOException e) {
e.printStackTrace();
return srcPaths;
} catch (ClassNotFoundException e) {
return srcPaths;
}
ScheduledThreadPoolExecutor executor =
new ScheduledThreadPoolExecutor(
ManagementFactory.getOperatingSystemMXBean().getAvailableProcessors());
try {
File instrumenterFile = new File(instrumenterFileName);
instrumenterFile.delete();
instrumenter.open(instrumenterFile, true);
List<Future<File>> futures = new ArrayList<Future<File>>();
for (File file : srcPaths) {
String path = file.getPath();
if (path.matches(".*/ofbiz[^/]*\\.(jar|zip)")) {
futures.add(executor.submit(new FileInstrumenter(instrumenter, file)));
} else {
futures.add(new ConstantFutureFile(file));
}
}
List<File> result = new ArrayList<File>(futures.size());
for (Future<File> future : futures) {
result.add(future.get());
}
instrumenter.close();
return result;
} catch (ExecutionException e) {
e.printStackTrace();
return srcPaths;
} catch (InterruptedException e) {
e.printStackTrace();
return srcPaths;
} catch (IOException e) {
e.printStackTrace();
return srcPaths;
} finally {
executor.shutdown();
}
}
/** Shut down the pool executor and unbind updatetoparse serivce on detroy. */
@Override
protected void onDestroy() {
super.onDestroy();
poolExecutor.shutdown();
unbindService(this);
}
