public void removeChannel(Channel channel) {
lock.lock();
try {
if (channel.getDirection() == Direction.OUT) {
BrokerHost registeredHost = null;
for (Map.Entry<BrokerHost, List<Channel>> e : brokerHostToProducerChannelMap.entrySet()) {
List<Channel> channels = e.getValue();
Iterator<Channel> channelIterator = channels.iterator();
while (channelIterator.hasNext()) {
Channel c = channelIterator.next();
if (c.equals(channel)) {
registeredHost = e.getKey();
channelIterator.remove();
// if there are no more channels remove the producer
if (channels.size() == 0) {
Manageable producer = producers.remove(registeredHost);
producer.stop();
}
break;
}
}
if (registeredHost != null) {
break;
}
}
} else if (channel.getDirection() == Direction.IN) {
BrokerHost registeredHost = null;
for (Map.Entry<BrokerHost, List<Channel>> e : brokerHostToConsumerChannelMap.entrySet()) {
List<Channel> channels = e.getValue();
Iterator<Channel> channelIterator = channels.iterator();
while (channelIterator.hasNext()) {
Channel c = channelIterator.next();
if (c.equals(channel)) {
registeredHost = e.getKey();
channelIterator.remove();
// if there are no more channels remove the producer
if (channels.size() == 0) {
ConsumingWorker worker = consumingWorkers.remove(registeredHost);
worker.stop();
Manageable consumer = consumers.remove(registeredHost);
consumer.stop();
}
break;
}
}
if (registeredHost != null) {
break;
}
}
}
} finally {
lock.unlock();
}
}
/**
* JUnit.
*
* @throws Exception If failed.
*/
public void testIterator() throws Exception {
// Random queue name.
String queueName = UUID.randomUUID().toString();
IgniteQueue<String> queue = grid(0).queue(queueName, 0, config(false));
for (int i = 0; i < 100; i++) assert queue.add(Integer.toString(i));
Iterator<String> iter1 = queue.iterator();
int cnt = 0;
for (int i = 0; i < 100; i++) {
assertNotNull(iter1.next());
cnt++;
}
assertEquals(100, queue.size());
assertEquals(100, cnt);
assertNotNull(queue.take());
assertNotNull(queue.take());
assertTrue(queue.remove("33"));
assertTrue(queue.remove("77"));
assertEquals(96, queue.size());
Iterator<String> iter2 = queue.iterator();
try {
iter2.remove();
} catch (IllegalStateException e) {
info("Caught expected exception: " + e);
}
iter2.next();
iter2.remove();
cnt = 0;
while (iter2.hasNext()) {
assertNotNull(iter2.next());
cnt++;
}
assertEquals(95, cnt);
assertEquals(95, queue.size());
iter2.remove();
}
/** Return all of the neighbors with whom we share the provided range. */
static Set<InetAddress> getNeighbors(String table, Range<Token> toRepair) {
StorageService ss = StorageService.instance;
Map<Range<Token>, List<InetAddress>> replicaSets = ss.getRangeToAddressMap(table);
Range<Token> rangeSuperSet = null;
for (Range<Token> range : ss.getLocalRanges(table)) {
if (range.contains(toRepair)) {
rangeSuperSet = range;
break;
} else if (range.intersects(toRepair)) {
throw new IllegalArgumentException(
"Requested range intersects a local range but is not fully contained in one; this would lead to imprecise repair");
}
}
if (rangeSuperSet == null || !replicaSets.containsKey(toRepair)) return Collections.emptySet();
Set<InetAddress> neighbors = new HashSet<InetAddress>(replicaSets.get(rangeSuperSet));
neighbors.remove(FBUtilities.getBroadcastAddress());
// Excluding all node with version <= 0.7 since they don't know how to
// create a correct merkle tree (they build it over the full range)
Iterator<InetAddress> iter = neighbors.iterator();
while (iter.hasNext()) {
InetAddress endpoint = iter.next();
if (Gossiper.instance.getVersion(endpoint) <= MessagingService.VERSION_07) {
logger.info(
"Excluding "
+ endpoint
+ " from repair because it is on version 0.7 or sooner. You should consider updating this node before running repair again.");
iter.remove();
}
}
return neighbors;
}
protected void handleIterator(String[] args) {
Iterator it = null;
String iteratorStr = args[0];
if (iteratorStr.startsWith("s.")) {
it = getSet().iterator();
} else if (iteratorStr.startsWith("m.")) {
it = getMap().keySet().iterator();
} else if (iteratorStr.startsWith("q.")) {
it = getQueue().iterator();
} else if (iteratorStr.startsWith("l.")) {
it = getList().iterator();
}
if (it != null) {
boolean remove = false;
if (args.length > 1) {
String removeStr = args[1];
remove = removeStr.equals("remove");
}
int count = 1;
while (it.hasNext()) {
print(count++ + " " + it.next());
if (remove) {
it.remove();
print(" removed");
}
println("");
}
}
}
/**
* Determines whether {@code effect} has been paused/stopped by the remote peer. The determination
* is based on counting frames and is triggered by the receipt of (a piece of) a new (video) frame
* by {@code cause}.
*
* @param cause the {@code SimulcastLayer} which has received (a piece of) a new (video) frame and
* has thus triggered a check on {@code effect}
* @param pkt the {@code RawPacket} which was received by {@code cause} and possibly influenced
* the decision to trigger a check on {@code effect}
* @param effect the {@code SimulcastLayer} which is to be checked whether it looks like it has
* been paused/stopped by the remote peer
* @param endIndexInSimulcastLayerFrameHistory
*/
private void maybeTimeout(
SimulcastLayer cause,
RawPacket pkt,
SimulcastLayer effect,
int endIndexInSimulcastLayerFrameHistory) {
Iterator<SimulcastLayer> it = simulcastLayerFrameHistory.iterator();
boolean timeout = true;
for (int ix = 0; it.hasNext() && ix < endIndexInSimulcastLayerFrameHistory; ++ix) {
if (it.next() == effect) {
timeout = false;
break;
}
}
if (timeout) {
effect.maybeTimeout(pkt);
if (!effect.isStreaming()) {
// Since effect has been determined to have been paused/stopped
// by the remote peer, its possible presence in
// simulcastLayerFrameHistory is irrelevant now. In other words,
// remove effect from simulcastLayerFrameHistory.
while (it.hasNext()) {
if (it.next() == effect) it.remove();
}
}
}
}
public void testDescendingSubMapContents2() {
ConcurrentNavigableMap map = dmap5();
SortedMap sm = map.subMap(m2, m3);
assertEquals(1, sm.size());
assertEquals(m2, sm.firstKey());
assertEquals(m2, sm.lastKey());
assertFalse(sm.containsKey(m1));
assertTrue(sm.containsKey(m2));
assertFalse(sm.containsKey(m3));
assertFalse(sm.containsKey(m4));
assertFalse(sm.containsKey(m5));
Iterator i = sm.keySet().iterator();
Object k;
k = (Integer) (i.next());
assertEquals(m2, k);
assertFalse(i.hasNext());
Iterator j = sm.keySet().iterator();
j.next();
j.remove();
assertFalse(map.containsKey(m2));
assertEquals(4, map.size());
assertEquals(0, sm.size());
assertTrue(sm.isEmpty());
assertSame(sm.remove(m3), null);
assertEquals(4, map.size());
}
public void testSubMapContents2() {
ConcurrentNavigableMap map = map5();
SortedMap sm = map.subMap(two, three);
assertEquals(1, sm.size());
assertEquals(two, sm.firstKey());
assertEquals(two, sm.lastKey());
assertFalse(sm.containsKey(one));
assertTrue(sm.containsKey(two));
assertFalse(sm.containsKey(three));
assertFalse(sm.containsKey(four));
assertFalse(sm.containsKey(five));
Iterator i = sm.keySet().iterator();
Object k;
k = (Integer) (i.next());
assertEquals(two, k);
assertFalse(i.hasNext());
Iterator j = sm.keySet().iterator();
j.next();
j.remove();
assertFalse(map.containsKey(two));
assertEquals(4, map.size());
assertEquals(0, sm.size());
assertTrue(sm.isEmpty());
assertSame(sm.remove(three), null);
assertEquals(4, map.size());
}
/**
* Waits for renting partitions.
*
* @return {@code True} if mapping was changed.
* @throws IgniteCheckedException If failed.
*/
private boolean waitForRent() throws IgniteCheckedException {
boolean changed = false;
// Synchronously wait for all renting partitions to complete.
for (Iterator<GridDhtLocalPartition> it = locParts.values().iterator(); it.hasNext(); ) {
GridDhtLocalPartition p = it.next();
GridDhtPartitionState state = p.state();
if (state == RENTING || state == EVICTED) {
if (log.isDebugEnabled()) log.debug("Waiting for renting partition: " + p);
// Wait for partition to empty out.
p.rent(true).get();
if (log.isDebugEnabled()) log.debug("Finished waiting for renting partition: " + p);
// Remove evicted partition.
it.remove();
changed = true;
}
}
return changed;
}
/** Selects on sockets and informs their Communicator when there is something to do. */
public void communicate(int timeout) {
try {
selector.select(timeout);
} catch (IOException e) {
// Not really sure why/when this happens yet
return;
}
Iterator<SelectionKey> keys = selector.selectedKeys().iterator();
while (keys.hasNext()) {
SelectionKey key = keys.next();
keys.remove();
if (!key.isValid()) continue; // WHY
Communicator communicator = (Communicator) key.attachment();
if (key.isReadable()) communicator.onReadable();
if (key.isWritable()) communicator.onWritable();
if (key.isAcceptable()) communicator.onAcceptable();
}
// Go through the queue and handle each communicator
while (!queue.isEmpty()) {
Communicator c = queue.poll();
c.onMemo();
}
}
/**
* Remove records telling what entity caps node a contact has.
*
* @param contact the contact
*/
public void removeContactCapsNode(Contact contact) {
Caps caps = null;
String lastRemovedJid = null;
Iterator<String> iter = userCaps.keySet().iterator();
while (iter.hasNext()) {
String jid = iter.next();
if (StringUtils.parseBareAddress(jid).equals(contact.getAddress())) {
caps = userCaps.get(jid);
lastRemovedJid = jid;
iter.remove();
}
}
// fire only for the last one, at the end the event out
// of the protocol will be one and for the contact
if (caps != null) {
UserCapsNodeListener[] listeners;
synchronized (userCapsNodeListeners) {
listeners = userCapsNodeListeners.toArray(NO_USER_CAPS_NODE_LISTENERS);
}
if (listeners.length != 0) {
String nodeVer = caps.getNodeVer();
for (UserCapsNodeListener listener : listeners)
listener.userCapsNodeRemoved(lastRemovedJid, nodeVer, false);
}
}
}
protected void handleView(View view) {
this.view = view;
if (log.isDebugEnabled()) log.debug("view=" + view);
List<Address> members = view.getMembers();
_consumerLock.lock();
try {
// This removes the consumers that were registered that are now gone
Iterator<Owner> iterator = _consumersAvailable.iterator();
while (iterator.hasNext()) {
Owner owner = iterator.next();
if (!members.contains(owner.getAddress())) {
iterator.remove();
sendRemoveConsumerRequest(owner);
}
}
// This removes the tasks that those requestors are gone
iterator = _runRequests.iterator();
while (iterator.hasNext()) {
Owner owner = iterator.next();
if (!members.contains(owner.getAddress())) {
iterator.remove();
sendRemoveRunRequest(owner);
}
}
synchronized (_awaitingReturn) {
for (Entry<Owner, Runnable> entry : _awaitingReturn.entrySet()) {
// The person currently servicing our request has gone down
// without completing so we have to keep our request alive by
// sending ours back to the coordinator
Owner owner = entry.getKey();
if (!members.contains(owner.getAddress())) {
Runnable runnable = entry.getValue();
// We need to register the request id before sending the request back to the coordinator
// in case if our task gets picked up since another was removed
_requestId.put(runnable, owner.getRequestId());
_awaitingConsumer.add(runnable);
sendToCoordinator(RUN_REQUEST, owner.getRequestId(), local_addr);
}
}
}
} finally {
_consumerLock.unlock();
}
}
/**
* Notifies this {@code SimulcastReceiver} that a specific {@code SimulcastReceiver} has detected
* the start of a new video frame in the RTP stream that it represents. Determines whether any of
* {@link #simulcastLayers} other than {@code source} have been paused/stopped by the remote peer.
* The determination is based on counting (video) frames.
*
* @param source the {@code SimulcastLayer} which is the source of the event i.e. which has
* detected the start of a new video frame in the RTP stream that it represents
* @param pkt the {@code RawPacket} which was received by {@code source} and possibly influenced
* the decision that a new view frame was started in the RTP stream represented by {@code
* source}
* @param layers the set of {@code SimulcastLayer}s managed by this {@code SimulcastReceiver}.
* Explicitly provided to the method in order to avoid invocations of {@link
* #getSimulcastLayers()} because the latter makes a copy at the time of this writing.
*/
private void simulcastLayerFrameStarted(
SimulcastLayer source, RawPacket pkt, SimulcastLayer[] layers) {
// Allow the value of the constant TIMEOUT_ON_FRAME_COUNT to disable (at
// compile time) the frame-based approach to the detection of layer
// drops.
if (TIMEOUT_ON_FRAME_COUNT <= 1) return;
// Timeouts in layers caused by source may occur only based on the span
// (of time or received frames) during which source has received
// TIMEOUT_ON_FRAME_COUNT number of frames. The current method
// invocation signals the receipt of 1 frame by source.
int indexOfLastSourceOccurrenceInHistory = -1;
int sourceFrameCount = 0;
int ix = 0;
for (Iterator<SimulcastLayer> it = simulcastLayerFrameHistory.iterator(); it.hasNext(); ++ix) {
if (it.next() == source) {
if (indexOfLastSourceOccurrenceInHistory != -1) {
// Prune simulcastLayerFrameHistory so that it does not
// become unnecessarily long.
it.remove();
} else if (++sourceFrameCount >= TIMEOUT_ON_FRAME_COUNT - 1) {
// The span of TIMEOUT_ON_FRAME_COUNT number of frames
// received by source only is to be examined for the
// purposes of timeouts. The current method invocations
// signals the receipt of 1 frame by source so
// TIMEOUT_ON_FRAME_COUNT - 1 occurrences of source in
// simulcastLayerFrameHistory is enough.
indexOfLastSourceOccurrenceInHistory = ix;
}
}
}
if (indexOfLastSourceOccurrenceInHistory != -1) {
// Presumably, if a SimulcastLayer is active, all SimulcastLayers
// before it (according to SimulcastLayer's order) are active as
// well. Consequently, timeouts may occur in SimulcastLayers which
// are after source.
boolean maybeTimeout = false;
for (SimulcastLayer layer : layers) {
if (maybeTimeout) {
// There's no point in timing layer out if it's timed out
// already.
if (layer.isStreaming()) {
maybeTimeout(source, pkt, layer, indexOfLastSourceOccurrenceInHistory);
}
} else if (layer == source) {
maybeTimeout = true;
}
}
}
// As previously stated, the current method invocation signals the
// receipt of 1 frame by source.
simulcastLayerFrameHistory.add(0, source);
// TODO Prune simulcastLayerFrameHistory by forgetting so that it does
// not become too long.
}
/** iterator.remove removes element */
public void testIteratorRemove() {
List full = populatedArray(SIZE);
Iterator it = full.iterator();
Object first = full.get(0);
it.next();
it.remove();
assertFalse(full.contains(first));
}
/** Stop the executors and clean memory on registered CUObject */
public static void stop() {
synchronized (cudaEngines) {
cuCtxSynchronizeAll();
for (Iterator<CudaEngine> iterator = cudaEngines.values().iterator(); iterator.hasNext(); ) {
iterator.next().shutdown();
iterator.remove();
}
// for (CudaEngine ce : cudaEngines.values()) {
// ce.shutdown();
// }
}
}
public void deregisterAllVerbHandlers(EndPoint localEndPoint) {
Iterator keys = verbHandlers_.keySet().iterator();
String key = null;
/*
* endpoint specific verbhandlers can be distinguished because
* their key's contain the name of the endpoint.
*/
while (keys.hasNext()) {
key = (String) keys.next();
if (key.contains(localEndPoint.toString())) keys.remove();
}
}
/** Return all of the neighbors with whom we share data. */
static Set<InetAddress> getNeighbors(String table, Range range) {
StorageService ss = StorageService.instance;
Map<Range, List<InetAddress>> replicaSets = ss.getRangeToAddressMap(table);
if (!replicaSets.containsKey(range)) return Collections.emptySet();
Set<InetAddress> neighbors = new HashSet<InetAddress>(replicaSets.get(range));
neighbors.remove(FBUtilities.getLocalAddress());
// Excluding all node with version <= 0.7 since they don't know how to
// create a correct merkle tree (they build it over the full range)
Iterator<InetAddress> iter = neighbors.iterator();
while (iter.hasNext()) {
InetAddress endpoint = iter.next();
if (Gossiper.instance.getVersion(endpoint) <= MessagingService.VERSION_07) {
logger.info(
"Excluding "
+ endpoint
+ " from repair because it is on version 0.7 or sooner. You should consider updating this node before running repair again.");
iter.remove();
}
}
return neighbors;
}
void autoUpdate() {
if (hasTitle()) {
return;
}
for (Shape s : allShapes) {
s.autoUpdate();
}
Iterator<Shape> iter = allShapes.iterator();
while (iter.hasNext()) {
Shape s = iter.next();
s.update();
if (s.isDestroyed()) {
if (s.isSolid()) {
removeSolid(s);
}
removeFromLayers(s);
iter.remove();
}
}
}
@Test
public void iterateOverMapKeys() {
HazelcastClient hClient = getHazelcastClient();
Map<String, String> map = hClient.getMap("iterateOverMapKeys");
map.put("1", "A");
map.put("2", "B");
map.put("3", "C");
Set<String> keySet = map.keySet();
assertEquals(3, keySet.size());
Set<String> s = new HashSet<String>();
for (String string : keySet) {
s.add(string);
assertTrue(Arrays.asList("1", "2", "3").contains(string));
}
assertEquals(3, s.size());
Iterator<String> iterator = keySet.iterator();
while (iterator.hasNext()) {
iterator.next();
iterator.remove();
}
assertEquals(0, map.size());
}
/** {@inheritDoc} */
@SuppressWarnings({"MismatchedQueryAndUpdateOfCollection"})
@Nullable
@Override
public GridDhtPartitionMap update(
@Nullable GridDhtPartitionExchangeId exchId, GridDhtPartitionFullMap partMap) {
if (log.isDebugEnabled())
log.debug(
"Updating full partition map [exchId=" + exchId + ", parts=" + fullMapString() + ']');
assert partMap != null;
lock.writeLock().lock();
try {
if (stopping) return null;
if (exchId != null && lastExchangeId != null && lastExchangeId.compareTo(exchId) >= 0) {
if (log.isDebugEnabled())
log.debug(
"Stale exchange id for full partition map update (will ignore) [lastExchId="
+ lastExchangeId
+ ", exchId="
+ exchId
+ ']');
return null;
}
if (node2part != null && node2part.compareTo(partMap) >= 0) {
if (log.isDebugEnabled())
log.debug(
"Stale partition map for full partition map update (will ignore) [lastExchId="
+ lastExchangeId
+ ", exchId="
+ exchId
+ ", curMap="
+ node2part
+ ", newMap="
+ partMap
+ ']');
return null;
}
long updateSeq = this.updateSeq.incrementAndGet();
if (exchId != null) lastExchangeId = exchId;
if (node2part != null) {
for (GridDhtPartitionMap part : node2part.values()) {
GridDhtPartitionMap newPart = partMap.get(part.nodeId());
// If for some nodes current partition has a newer map,
// then we keep the newer value.
if (newPart != null && newPart.updateSequence() < part.updateSequence()) {
if (log.isDebugEnabled())
log.debug(
"Overriding partition map in full update map [exchId="
+ exchId
+ ", curPart="
+ mapString(part)
+ ", newPart="
+ mapString(newPart)
+ ']');
partMap.put(part.nodeId(), part);
}
}
for (Iterator<UUID> it = partMap.keySet().iterator(); it.hasNext(); ) {
UUID nodeId = it.next();
if (!cctx.discovery().alive(nodeId)) {
if (log.isDebugEnabled())
log.debug(
"Removing left node from full map update [nodeId="
+ nodeId
+ ", partMap="
+ partMap
+ ']');
it.remove();
}
}
}
node2part = partMap;
Map<Integer, Set<UUID>> p2n = new HashMap<>(cctx.affinity().partitions(), 1.0f);
for (Map.Entry<UUID, GridDhtPartitionMap> e : partMap.entrySet()) {
for (Integer p : e.getValue().keySet()) {
Set<UUID> ids = p2n.get(p);
if (ids == null)
// Initialize HashSet to size 3 in anticipation that there won't be
// more than 3 nodes per partitions.
p2n.put(p, ids = U.newHashSet(3));
ids.add(e.getKey());
}
}
part2node = p2n;
boolean changed = checkEvictions(updateSeq);
consistencyCheck();
if (log.isDebugEnabled()) log.debug("Partition map after full update: " + fullMapString());
return changed ? localPartitionMap() : null;
} finally {
lock.writeLock().unlock();
}
}
@Override
public void onTopologyUpdate(CacheTopology cacheTopology, boolean isRebalance) {
if (trace)
log.tracef(
"Received new CH %s for cache %s", cacheTopology.getWriteConsistentHash(), cacheName);
int numStartedTopologyUpdates = activeTopologyUpdates.incrementAndGet();
if (isRebalance) {
rebalanceInProgress.set(true);
}
final ConsistentHash previousCh =
this.cacheTopology != null ? this.cacheTopology.getWriteConsistentHash() : null;
// Ensures writes to the data container use the right consistent hash
// No need for a try/finally block, since it's just an assignment
stateTransferLock.acquireExclusiveTopologyLock();
this.cacheTopology = cacheTopology;
if (numStartedTopologyUpdates == 1) {
updatedKeys = new ConcurrentHashSet<Object>();
}
stateTransferLock.releaseExclusiveTopologyLock();
stateTransferLock.notifyTopologyInstalled(cacheTopology.getTopologyId());
try {
// fetch transactions and data segments from other owners if this is enabled
if (isTransactional || isFetchEnabled) {
Set<Integer> addedSegments;
if (previousCh == null) {
// we start fresh, without any data, so we need to pull everything we own according to
// writeCh
addedSegments = getOwnedSegments(cacheTopology.getWriteConsistentHash());
if (trace) {
log.tracef("On cache %s we have: added segments: %s", cacheName, addedSegments);
}
} else {
Set<Integer> previousSegments = getOwnedSegments(previousCh);
Set<Integer> newSegments = getOwnedSegments(cacheTopology.getWriteConsistentHash());
Set<Integer> removedSegments = new HashSet<Integer>(previousSegments);
removedSegments.removeAll(newSegments);
// This is a rebalance, we need to request the segments we own in the new CH.
addedSegments = new HashSet<Integer>(newSegments);
addedSegments.removeAll(previousSegments);
if (trace) {
log.tracef(
"On cache %s we have: removed segments: %s; new segments: %s; old segments: %s; added segments: %s",
cacheName, removedSegments, newSegments, previousSegments, addedSegments);
}
// remove inbound transfers and any data for segments we no longer own
cancelTransfers(removedSegments);
// If L1.onRehash is enabled, "removed" segments are actually moved to L1. The new (and
// old) owners
// will automatically add the nodes that no longer own a key to that key's requestors
// list.
invalidateSegments(newSegments, removedSegments);
// check if any of the existing transfers should be restarted from a different source
// because the initial source is no longer a member
Set<Address> members =
new HashSet<Address>(cacheTopology.getReadConsistentHash().getMembers());
synchronized (this) {
for (Iterator<Address> it = transfersBySource.keySet().iterator(); it.hasNext(); ) {
Address source = it.next();
if (!members.contains(source)) {
if (trace) {
log.tracef(
"Removing inbound transfers from source %s for cache %s", source, cacheName);
}
List<InboundTransferTask> inboundTransfers = transfersBySource.get(source);
it.remove();
for (InboundTransferTask inboundTransfer : inboundTransfers) {
// these segments will be restarted if they are still in new write CH
if (trace) {
log.tracef(
"Removing inbound transfers for segments %s from source %s for cache %s",
inboundTransfer.getSegments(), source, cacheName);
}
transfersBySegment.keySet().removeAll(inboundTransfer.getSegments());
addedSegments.addAll(inboundTransfer.getUnfinishedSegments());
}
}
}
// exclude those that are already in progress from a valid source
addedSegments.removeAll(transfersBySegment.keySet());
}
}
if (!addedSegments.isEmpty()) {
addTransfers(addedSegments); // add transfers for new or restarted segments
}
}
} finally {
stateTransferLock.notifyTransactionDataReceived(cacheTopology.getTopologyId());
if (activeTopologyUpdates.decrementAndGet() == 0) {
notifyEndOfTopologyUpdate(cacheTopology.getTopologyId());
}
}
}