@Override
// Keep subtracting an amount from the account
public void run() {
while (true) {
account.withdraw((int) (Math.random() * 10) + 1);
}
}
/**
* @param cctx Context.
* @param id Partition ID.
*/
@SuppressWarnings("ExternalizableWithoutPublicNoArgConstructor")
GridDhtLocalPartition(GridCacheContext cctx, int id) {
assert cctx != null;
this.id = id;
this.cctx = cctx;
log = U.logger(cctx.kernalContext(), logRef, this);
rent =
new GridFutureAdapter<Object>() {
@Override
public String toString() {
return "PartitionRentFuture [part=" + GridDhtLocalPartition.this + ", map=" + map + ']';
}
};
map = new ConcurrentHashMap8<>(cctx.config().getStartSize() / cctx.affinity().partitions());
int delQueueSize =
CU.isSystemCache(cctx.name())
? 100
: Math.max(MAX_DELETE_QUEUE_SIZE / cctx.affinity().partitions(), 20);
rmvQueue = new GridCircularBuffer<>(U.ceilPow2(delQueueSize));
}
/**
* Creates a new map with the same mappings as the given map. The map is created with a capacity
* of twice the number of mappings in the given map or 11 (whichever is greater), and a default
* load factor.
*
* @param t the map
*/
public ConcurrentHashMap(Map<? extends K, ? extends V> t) {
this(
Math.max((int) (t.size() / DEFAULT_LOAD_FACTOR) + 1, 11),
DEFAULT_LOAD_FACTOR,
DEFAULT_SEGMENTS);
putAll(t);
}
@Override
public void setHeartbeatInterval(int msHeartbeatInterval) {
synchronized (this.concurrentClientLock) {
synchronized (this.callbackLock) {
this.msHeartbeatInterval = Math.max(0, msHeartbeatInterval);
}
}
}
@Override
// Keep adding an amount to the account
public void run() {
try { // Purposely delay it to let the withdraw method proceed
while (true) {
account.deposit((int) (Math.random() * 10) + 1);
Thread.sleep(1000);
}
} catch (InterruptedException ex) {
ex.printStackTrace();
}
}
public void followUpdate() {
ObjectStub followObj = (ObjectStub) followTarget.getEntity(Namespace.MOB);
Point followLoc = followObj.getWorldNode().getLoc();
InterpolatedWorldNode node = obj.getWorldNode();
Point myLoc = node.getLoc();
long oid = obj.getOid();
float fdist = Point.distanceTo(followLoc, destLoc);
float dist = Point.distanceTo(followLoc, myLoc);
if (Log.loggingDebug)
Log.debug(
"BaseBehavior.followUpdate: oid = "
+ oid
+ "; myLoc = "
+ myLoc
+ "; followLoc = "
+ followLoc
+ "; fdist = "
+ fdist
+ "; dist = "
+ dist);
long msToSleep = (long) 500;
// If the new target location is more than a meter from
// the old one, create a new path.
if (fdist > 1000) {
long msToDest = setupPathInterpolator(oid, myLoc, followLoc, true, node.getFollowsTerrain());
destLoc = followLoc;
msToSleep = msToDest == 0 ? (long) 500 : Math.min((long) 500, msToDest);
}
// Else if we're interpolating, interpolate the current path
else if (interpolatingPath) {
interpolatePath();
if (Log.loggingDebug)
Log.debug(
"baseBehavior.followUpdate: oid = "
+ oid
+ "; interpolated myLoc = "
+ obj.getWorldNode().getLoc());
}
scheduleMe(interpolatingPath ? msToSleep : pathState.pathTimeRemaining());
}
static void realMain(String[] args) throws Throwable {
// jmap doesn't work on Windows
if (System.getProperty("os.name").startsWith("Windows")) return;
final String childClassName = Job.class.getName();
final String classToCheckForLeaks = Job.classToCheckForLeaks();
final String uniqueID = String.valueOf(new Random().nextInt(Integer.MAX_VALUE));
final String[] jobCmd = {
java,
"-Xmx8m",
"-classpath",
System.getProperty("test.classes", "."),
childClassName,
uniqueID
};
final Process p = new ProcessBuilder(jobCmd).start();
final String childPid =
match(
commandOutputOf(jps, "-m"),
"(?m)^ *([0-9]+) +\\Q" + childClassName + "\\E *" + uniqueID + "$",
1);
final int n0 = objectsInUse(p, childPid, classToCheckForLeaks);
final int n1 = objectsInUse(p, childPid, classToCheckForLeaks);
equal(p.waitFor(), 0);
equal(p.exitValue(), 0);
failed += p.exitValue();
// Check that no objects were leaked.
System.out.printf("%d -> %d%n", n0, n1);
check(Math.abs(n1 - n0) < 2); // Almost always n0 == n1
check(n1 < 20);
drainers.shutdown();
}
public int getPauseTime() {
return (int) (Math.max(1000, 5000 * random.nextDouble()));
}
private void scheduleRecheck() {
if (!isDone()) {
GridTimeoutObject old = timeoutObj;
if (old != null) cctx.kernalContext().timeout().removeTimeoutObject(old);
GridTimeoutObject timeoutObj =
new GridTimeoutObjectAdapter(
cctx.gridConfig().getNetworkTimeout()
* Math.max(1, cctx.gridConfig().getCacheConfiguration().length)) {
@Override
public void onTimeout() {
cctx.kernalContext()
.closure()
.runLocalSafe(
new Runnable() {
@Override
public void run() {
if (isDone()) return;
if (!enterBusy()) return;
try {
U.warn(
log,
"Retrying preload partition exchange due to timeout [done="
+ isDone()
+ ", dummy="
+ dummy
+ ", exchId="
+ exchId
+ ", rcvdIds="
+ F.id8s(rcvdIds)
+ ", rmtIds="
+ F.id8s(rmtIds)
+ ", remaining="
+ F.id8s(remaining())
+ ", init="
+ init
+ ", initFut="
+ initFut.isDone()
+ ", ready="
+ ready
+ ", replied="
+ replied
+ ", added="
+ added
+ ", oldest="
+ U.id8(oldestNode.get().id())
+ ", oldestOrder="
+ oldestNode.get().order()
+ ", evtLatch="
+ evtLatch.getCount()
+ ", locNodeOrder="
+ cctx.localNode().order()
+ ", locNodeId="
+ cctx.localNode().id()
+ ']',
"Retrying preload partition exchange due to timeout.");
recheck();
} finally {
leaveBusy();
}
}
});
}
};
this.timeoutObj = timeoutObj;
cctx.kernalContext().timeout().addTimeoutObject(timeoutObj);
}
}
protected void scheduleMe(long timeToDest) {
long ms = Math.min((long) 500, timeToDest);
// if (Log.loggingDebug)
// Log.debug("BaseBehavior.scheduleMe: ms = " + ms);
Engine.getExecutor().schedule(this, ms, TimeUnit.MILLISECONDS);
}
