public void deleteTestCase(long id) {
String jsonTestCase = testCaseMap.get(id);
if (jsonTestCase != null) {
TestCase testCase = new Gson().fromJson(jsonTestCase, TestCase.class);
testCaseIndex.remove(testCase.title);
testCaseMap.remove(id);
db.commit();
}
}
/** remove(key,value) removes only if pair present */
public void testRemove2() {
ConcurrentNavigableMap map = map5();
assertTrue(map.containsKey(five));
assertEquals("E", map.get(five));
map.remove(five, "E");
assertEquals(4, map.size());
assertFalse(map.containsKey(five));
map.remove(four, "A");
assertEquals(4, map.size());
assertTrue(map.containsKey(four));
}
/** remove(key,value) removes only if pair present */
public void testDescendingRemove2() {
ConcurrentNavigableMap map = dmap5();
assertTrue(map.containsKey(m5));
assertEquals("E", map.get(m5));
map.remove(m5, "E");
assertEquals(4, map.size());
assertFalse(map.containsKey(m5));
map.remove(m4, "A");
assertEquals(4, map.size());
assertTrue(map.containsKey(m4));
}
public static void clearOrphan(ClusterAddressInfo address) {
Integer delay = orphans.remove(address);
delay = (delay == null ? 0 : delay);
if (delay > 2) {
LOG.warn("Forgetting stale orphan address mapping for " + address.toString());
}
}
/** remove(null, x) throws NPE */
public void testRemove2_NullPointerException() {
try {
ConcurrentNavigableMap c = map5();
c.remove(null, "whatever");
shouldThrow();
} catch (NullPointerException success) {
}
}
/** remove(null) throws NPE */
public void testDescendingRemove1_NullPointerException() {
try {
ConcurrentNavigableMap c = dmap5();
c.remove(null);
shouldThrow();
} catch (NullPointerException success) {
}
}
/** {@inheritDoc} */
@Override
@Validate
public V remove(@NotNull final T key, @NotNull final K subkey) {
ConcurrentNavigableMap<K, V> m = map.get(key);
if (m != null) return m.remove(subkey);
return null;
}
public static void handleOrphan(Cluster cluster, ClusterAddressInfo address) {
Integer orphanCount = 1;
orphanCount = orphans.putIfAbsent(address, orphanCount);
orphanCount = (orphanCount == null) ? 1 : orphanCount;
orphans.put(address, orphanCount + 1);
EventRecord.caller(
ClusterState.class,
EventType.ADDRESS_STATE,
"Updated orphaned public ip address: "
+ LogUtil.dumpObject(address)
+ " count="
+ orphanCount)
.debug();
if (orphanCount > AddressingConfiguration.getInstance().getMaxKillOrphans()) {
EventRecord.caller(
ClusterState.class,
EventType.ADDRESS_STATE,
"Unassigning orphaned public ip address: "
+ LogUtil.dumpObject(address)
+ " count="
+ orphanCount)
.warn();
try {
final Address addr = Addresses.getInstance().lookup(address.getAddress());
if (addr.isPending()) {
try {
addr.clearPending();
} catch (Exception ex) {
}
}
try {
if (addr.isAssigned() && "0.0.0.0".equals(address.getInstanceIp())) {
addr.unassign().clearPending();
if (addr.isSystemOwned()) {
addr.release();
}
} else if (addr.isAssigned() && !"0.0.0.0".equals(address.getInstanceIp())) {
AsyncRequests.newRequest(new UnassignAddressCallback(address))
.sendSync(cluster.getConfiguration());
if (addr.isSystemOwned()) {
addr.release();
}
} else if (!addr.isAssigned() && addr.isAllocated() && addr.isSystemOwned()) {
addr.release();
}
} catch (ExecutionException ex) {
if (!addr.isAssigned() && addr.isAllocated() && addr.isSystemOwned()) {
addr.release();
}
}
} catch (InterruptedException ex) {
Exceptions.maybeInterrupted(ex);
} catch (NoSuchElementException ex) {
} finally {
orphans.remove(address);
}
}
}
/** {@inheritDoc} */
@Override
@Validate
public V removeSubKey(@NotNull final K subkey) {
for (ConcurrentNavigableMap<K, V> m : map.values()) {
V value = m.get(subkey);
if (value != null) return m.remove(subkey);
}
return null;
}
private static void handleOrphan(String cluster, Address address) {
Integer orphanCount = 1;
orphanCount = orphans.putIfAbsent(address.getName(), orphanCount);
orphanCount = (orphanCount == null) ? 1 : orphanCount;
orphans.put(address.getName(), orphanCount + 1);
LOG.warn("Found orphaned public ip address: " + address + " count=" + orphanCount);
if (orphanCount > 10) {
orphans.remove(address.getName());
Clusters.dispatchClusterEvent(cluster, new UnassignAddressCallback(address));
}
}
/** {@inheritDoc} */
@Override
@Validate
public V[] removeSubKeys(@NotNull final K subkey) {
List<V> list = new ArrayList<V>();
for (ConcurrentNavigableMap<K, V> m : map.values()) {
V value = m.remove(subkey);
if (value != null) list.add(value);
}
V[] result = Linq.toArray(list, getGenericTypeParameterValue());
if (result.length == 0) result = null;
return result;
}
public static void update(String cluster, List<Pair> ccList) {
List<String> ccListAddrs =
Lists.transform(
ccList,
new Function<Pair, String>() {
@Override
public String apply(Pair p) {
return p.getLeft();
}
});
for (Pair p : ccList) {
Address address = AddressUtil.lookupOrCreate(cluster, p);
try {
InetAddress addr = Inet4Address.getByName(p.getRight());
VmInstance vm;
try {
vm = VmInstances.getInstance().lookupByInstanceIp(p.getRight());
if (Address.UNALLOCATED_USERID.equals(address.getUserId())) {
address.allocate(Component.eucalyptus.name());
}
if (!address.isAssigned()) {
address.setAssigned(vm.getInstanceId(), p.getRight());
}
orphans.remove(address.getName());
} catch (Exception e1) {
if (!addr.isLoopbackAddress() && !AddressUtil.checkForPendingVm()) {
AddressUtil.handleOrphan(cluster, address);
} else {
orphans.remove(address.getName());
}
}
} catch (UnknownHostException e1) {
LOG.debug(e1, e1);
orphans.remove(address.getName());
}
}
}
private void cleanup() {
try {
if ((this.transaction != null) && this.transaction.isActive()) {
this.transaction.rollback();
}
this.transaction = null;
if ((this.session != null) && (this.session.get() != null)) {
this.session.clear();
}
if ((this.em != null) && this.em.isOpen()) {
this.em.close();
}
this.em = null;
} finally {
outstanding.remove(this.txUuid);
}
}
private void registerRemoval(String id, long lifeTime, TimeUnit unit) {
ITaskManagerHook hook = taskManagerHooks.get(id);
if (hook != null) {
long removalTime = unit.toMillis(lifeTime) + System.currentTimeMillis();
// Remove current scheduled removal
Long currentRemovalTime = taskManagerRemovalBackRegister.get(hook);
if (currentRemovalTime != null) {
taskManagerRemovalRegister.remove(currentRemovalTime);
}
// Find an empty spot in the sorted map's key register
removalTime--;
do {
removalTime++;
taskManagerRemovalRegister.putIfAbsent(removalTime, hook);
} while (taskManagerRemovalRegister.get(removalTime) != hook);
// Back reference the removal
taskManagerRemovalBackRegister.put(hook, removalTime);
}
}
public boolean removeBinding(ResourceAddress address, Binding binding) {
ResourceAddress bindAddress = binding.bindAddress();
String nextProtocol = bindAddress.getOption(NEXT_PROTOCOL);
if (nextProtocol == null) {
Binding oldBinding = nullNextProtocol.get();
if (equivalent(oldBinding, binding)) {
binding = oldBinding;
}
if (binding.decrementReferenceCount() == 0) {
return nullNextProtocol.compareAndSet(binding, null);
}
return false;
}
Binding oldBinding = nextProtocols.get(nextProtocol);
if (equivalent(oldBinding, binding)) {
binding = oldBinding;
}
if (binding.decrementReferenceCount() == 0) {
return nextProtocols.remove(nextProtocol, binding);
}
return false;
}
/** pollLastEntry returns entries in order */
public void testDescendingPollLastEntry() {
ConcurrentNavigableMap map = dmap5();
Map.Entry e = map.pollLastEntry();
assertEquals(m5, e.getKey());
assertEquals("E", e.getValue());
e = map.pollLastEntry();
assertEquals(m4, e.getKey());
map.put(m5, "E");
e = map.pollLastEntry();
assertEquals(m5, e.getKey());
assertEquals("E", e.getValue());
e = map.pollLastEntry();
assertEquals(m3, e.getKey());
map.remove(m2);
e = map.pollLastEntry();
assertEquals(m1, e.getKey());
try {
e.setValue("E");
shouldThrow();
} catch (UnsupportedOperationException success) {
}
e = map.pollLastEntry();
assertNull(e);
}
/** pollLastEntry returns entries in order */
public void testPollLastEntry() {
ConcurrentNavigableMap map = map5();
Map.Entry e = map.pollLastEntry();
assertEquals(five, e.getKey());
assertEquals("E", e.getValue());
e = map.pollLastEntry();
assertEquals(four, e.getKey());
map.put(five, "E");
e = map.pollLastEntry();
assertEquals(five, e.getKey());
assertEquals("E", e.getValue());
e = map.pollLastEntry();
assertEquals(three, e.getKey());
map.remove(two);
e = map.pollLastEntry();
assertEquals(one, e.getKey());
try {
e.setValue("E");
shouldThrow();
} catch (UnsupportedOperationException success) {
}
e = map.pollLastEntry();
assertNull(e);
}
public void remove(String key) {
treeMap.remove(key);
db.commit();
}
/** remove removes the correct key-value pair from the map */
public void testDescendingRemove() {
ConcurrentNavigableMap map = dmap5();
map.remove(m5);
assertEquals(4, map.size());
assertFalse(map.containsKey(m5));
}
/**
* The async processing loop that writes to the data files and does the force calls. Since the
* file sync() call is the slowest of all the operations, this algorithm tries to 'batch' or group
* together several file sync() requests into a single file sync() call. The batching is
* accomplished attaching the same CountDownLatch instance to every force request in a group.
*/
private void processQueue() {
DataFile dataFile = null;
RandomAccessFile file = null;
try {
DataByteArrayOutputStream buff =
new DataByteArrayOutputStream(journal.getMaxWriteBatchSize());
boolean last = false;
while (true) {
WriteBatch wb = batchQueue.take();
if (shutdown) {
last = true;
}
if (!wb.writes.isEmpty()) {
boolean newOrRotated = dataFile != wb.dataFile;
if (newOrRotated) {
if (file != null) {
dataFile.closeRandomAccessFile(file);
}
dataFile = wb.dataFile;
file = dataFile.openRandomAccessFile();
}
// Write an empty batch control record.
buff.reset();
buff.writeInt(Journal.BATCH_CONTROL_RECORD_SIZE);
buff.writeByte(Journal.BATCH_CONTROL_RECORD_TYPE);
buff.write(Journal.BATCH_CONTROL_RECORD_MAGIC);
buff.writeInt(0);
buff.writeLong(0);
boolean forceToDisk = false;
WriteCommand control = wb.writes.poll();
WriteCommand first = wb.writes.peek();
WriteCommand latest = null;
for (WriteCommand current : wb.writes) {
forceToDisk |= current.sync;
buff.writeInt(current.location.getSize());
buff.writeByte(current.location.getType());
buff.write(current.data.getData(), current.data.getOffset(), current.data.getLength());
latest = current;
}
Buffer sequence = buff.toBuffer();
// Now we can fill in the batch control record properly.
buff.reset();
buff.skip(Journal.HEADER_SIZE + Journal.BATCH_CONTROL_RECORD_MAGIC.length);
buff.writeInt(sequence.getLength() - Journal.BATCH_CONTROL_RECORD_SIZE);
if (journal.isChecksum()) {
Checksum checksum = new Adler32();
checksum.update(
sequence.getData(),
sequence.getOffset() + Journal.BATCH_CONTROL_RECORD_SIZE,
sequence.getLength() - Journal.BATCH_CONTROL_RECORD_SIZE);
buff.writeLong(checksum.getValue());
}
// Now do the 1 big write.
file.seek(wb.offset);
file.write(sequence.getData(), sequence.getOffset(), sequence.getLength());
ReplicationTarget replicationTarget = journal.getReplicationTarget();
if (replicationTarget != null) {
replicationTarget.replicate(control.location, sequence, forceToDisk);
}
if (forceToDisk) {
IOHelper.sync(file.getFD());
}
journal.setLastAppendLocation(latest.location);
// Now that the data is on disk, remove the writes from the in
// flight
// cache.
inflightWrites.remove(control.location);
for (WriteCommand current : wb.writes) {
if (!current.sync) {
inflightWrites.remove(current.location);
}
}
if (journal.getListener() != null) {
try {
journal.getListener().synced(wb.writes.toArray(new WriteCommand[wb.writes.size()]));
} catch (Throwable ex) {
warn(ex, ex.getMessage());
}
}
// Clear unused data:
wb.writes.clear();
// Signal any waiting threads that the write is on disk.
wb.latch.countDown();
}
if (last) {
break;
}
}
} catch (Exception e) {
firstAsyncException.compareAndSet(null, e);
} finally {
try {
if (file != null) {
dataFile.closeRandomAccessFile(file);
}
} catch (Throwable ignore) {
}
shutdownDone.countDown();
}
}
/** remove removes the correct key-value pair from the map */
public void testRemove() {
ConcurrentNavigableMap map = map5();
map.remove(five);
assertEquals(4, map.size());
assertFalse(map.containsKey(five));
}