public void Set(IOThreadTimer timer, long dueTime)
{
long num = dueTime - timer.dueTime;
if (num < 0L)
{
num = -num;
}
if (num > timer.maxSkew)
{
lock (this.ThisLock)
{
IOThreadTimer.TimerGroup timerGroup = timer.timerGroup;
IOThreadTimer.TimerQueue timerQueue = timerGroup.TimerQueue;
if (timer.index > 0)
{
if (timerQueue.UpdateTimer(timer, dueTime))
{
this.UpdateWaitableTimer(timerGroup);
}
}
else if (timerQueue.InsertTimer(timer, dueTime))
{
this.UpdateWaitableTimer(timerGroup);
if (timerQueue.Count == 1)
{
this.EnsureWaitScheduled();
}
}
}
}
}
public bool Cancel(IOThreadTimer timer)
{
lock (this.ThisLock)
{
if (timer.index > 0)
{
IOThreadTimer.TimerGroup timerGroup = timer.timerGroup;
IOThreadTimer.TimerQueue timerQueue = timerGroup.TimerQueue;
timerQueue.DeleteTimer(timer);
if (timerQueue.Count > 0)
{
this.UpdateWaitableTimer(timerGroup);
}
else
{
IOThreadTimer.TimerGroup otherTimerGroup = this.GetOtherTimerGroup(timerGroup);
if (otherTimerGroup.TimerQueue.Count == 0)
{
long now = Ticks.Now;
long num2 = timerGroup.WaitableTimer.DueTime - now;
long num3 = otherTimerGroup.WaitableTimer.DueTime - now;
if ((num2 > 0x989680L) && (num3 > 0x989680L))
{
timerGroup.WaitableTimer.Set(Ticks.Add(now, 0x989680L));
}
}
}
return(true);
}
return(false);
}
}
public MsmqSubqueueLockingQueue(string formatName, string hostname, int accessMode)
: base(formatName, accessMode)
{
// The hostname will be empty for MsmqIntegrationBinding
if (string.Compare(hostname, string.Empty, StringComparison.OrdinalIgnoreCase) == 0)
{
this.validHostName = MsmqSubqueueLockingQueue.TryGetHostName(formatName, out hostname);
}
else
{
this.validHostName = true;
}
this.disposed = false;
this.lockQueueName = this.formatName + ";" + MsmqSubqueueLockingQueue.GenerateLockQueueName();
this.lockQueueForReceive = new MsmqQueue(this.lockQueueName, UnsafeNativeMethods.MQ_RECEIVE_ACCESS, UnsafeNativeMethods.MQ_DENY_RECEIVE_SHARE);
this.lockQueueForMove = new MsmqQueue(this.lockQueueName, UnsafeNativeMethods.MQ_MOVE_ACCESS);
this.mainQueueForMove = new MsmqQueue(this.formatName, UnsafeNativeMethods.MQ_MOVE_ACCESS);
this.lockCollectionTimer = new IOThreadTimer(new Action<object>(OnCollectionTimer), null, false);
if (string.Compare(hostname, "localhost", StringComparison.OrdinalIgnoreCase) == 0)
{
this.hostname = null;
}
else
{
this.hostname = hostname;
}
}
public bool UpdateTimer(IOThreadTimer timer, long dueTime)
{
int num = timer.index;
IOThreadTimer[] oThreadTimerArray = this.timers;
int num1 = this.count;
int num2 = num / 2;
if (num2 == 0 || oThreadTimerArray[num2].dueTime <= dueTime)
{
int num3 = num * 2;
if (num3 > num1 || oThreadTimerArray[num3].dueTime >= dueTime)
{
int num4 = num3 + 1;
if (num4 > num1 || oThreadTimerArray[num4].dueTime >= dueTime)
{
timer.dueTime = dueTime;
return(num == 1);
}
}
}
this.DeleteTimer(timer);
this.InsertTimer(timer, dueTime);
return(true);
}
public MsmqSubqueueLockingQueue(string formatName, string hostname, int accessMode) : base(formatName, accessMode)
{
this.lockCollectionInterval = TimeSpan.FromMinutes(5.0);
this.timerLock = new object();
if (string.Compare(hostname, string.Empty, StringComparison.OrdinalIgnoreCase) == 0)
{
this.validHostName = TryGetHostName(formatName, out hostname);
}
else
{
this.validHostName = true;
}
this.disposed = false;
this.lockQueueName = base.formatName + ";" + GenerateLockQueueName();
this.lockQueueForReceive = new MsmqQueue(this.lockQueueName, 1, 1);
this.lockQueueForMove = new MsmqQueue(this.lockQueueName, 4);
this.mainQueueForMove = new MsmqQueue(base.formatName, 4);
this.lockCollectionTimer = new IOThreadTimer(new Action<object>(this.OnCollectionTimer), null, false);
if (string.Compare(hostname, "localhost", StringComparison.OrdinalIgnoreCase) == 0)
{
this.hostname = null;
}
else
{
this.hostname = hostname;
}
}
private void DeleteMinTimerCore()
{
int num3;
int count = this.count;
if (count == 1)
{
this.count = 0;
this.timers[1] = null;
return;
}
IOThreadTimer[] timers = this.timers;
IOThreadTimer timer = timers[count];
this.count = --count;
int index = 1;
Label_0034:
num3 = index * 2;
if (num3 <= count)
{
int num4;
IOThreadTimer timer2;
if (num3 < count)
{
IOThreadTimer timer3 = timers[num3];
int num5 = num3 + 1;
IOThreadTimer timer4 = timers[num5];
if (timer4.dueTime < timer3.dueTime)
{
timer2 = timer4;
num4 = num5;
}
else
{
timer2 = timer3;
num4 = num3;
}
}
else
{
num4 = num3;
timer2 = timers[num4];
}
if (timer.dueTime > timer2.dueTime)
{
timers[index] = timer2;
timer2.index = index;
index = num4;
if (num3 < count)
{
goto Label_0034;
}
}
}
timers[index] = timer;
timer.index = index;
timers[count + 1] = null;
}
public AsyncQueueWaiter(TimeSpan timeout, AsyncCallback callback, object state) : base(callback, state)
{
if (timeout != TimeSpan.MaxValue)
{
this.timer = new IOThreadTimer(timerCallback, this, false);
this.timer.Set(timeout);
}
}
public void DeleteMinTimer()
{
IOThreadTimer minTimer = this.MinTimer;
this.DeleteMinTimerCore();
minTimer.index = 0;
minTimer.dueTime = 0L;
}
internal PeerDefaultCustomResolverClient()
{
this.address = null;
this.binding = null;
this.defaultLifeTime = TimeSpan.FromHours(1);
clientId = Guid.NewGuid();
timer = new IOThreadTimer(new Action<object>(RegistrationExpired), this, false);
}
public Msmq4PoisonHandler(MsmqReceiveHelper receiver)
{
this.receiver = receiver;
this.timer = new IOThreadTimer(new Action<object>(OnTimer), null, false);
this.disposed = false;
this.mainQueueName = this.ReceiveParameters.AddressTranslator.UriToFormatName(this.ListenUri);
this.poisonQueueName = this.ReceiveParameters.AddressTranslator.UriToFormatName(new Uri(this.ListenUri.AbsoluteUri + ";poison"));
this.retryQueueName = this.ReceiveParameters.AddressTranslator.UriToFormatName(new Uri(this.ListenUri.AbsoluteUri + ";retry"));
}
internal TransactionWaitAsyncResult(Transaction transaction, PersistenceContext persistenceContext, TimeSpan timeout, AsyncCallback callback, object state)
: base(callback, state)
{
bool completeSelf = false;
TransactionException exception = null;
this.PersistenceContext = persistenceContext;
this.thisLock = new object();
if (null != transaction)
{
// We want an "blocking" dependent transaction because we want to ensure the transaction
// does not commit successfully while we are still waiting in the queue for the PC transaction
// lock.
this.dependentTransaction = transaction.DependentClone(DependentCloneOption.BlockCommitUntilComplete);
}
else
{
this.dependentTransaction = null;
}
// Put a lock around this and Complete() in case the transaction we are queueing up behind
// finishes and we end up calling Complete() before we actually finish constructing this
// object by creating the DependentClone and setting up the IOThreadTimer.
lock (ThisLock)
{
if (persistenceContext.QueueForTransactionLock(transaction, this))
{
// If we were given a transaction in our constructor, we need to
// create a volatile enlistment on it and complete the
// dependent clone that we created. This will allow the transaction to commit
// successfully when the time comes.
if (null != transaction)
{
// We are not going async, so we need to complete our dependent clone now.
this.dependentTransaction.Complete();
exception = this.CreateVolatileEnlistment(transaction);
}
completeSelf = true;
}
else
{
// If the timeout value is not TimeSpan.MaxValue, start a timer.
if (timeout != TimeSpan.MaxValue)
{
this.timer = new IOThreadTimer(TimeoutCallbackAction, this, true);
this.timer.Set(timeout);
}
}
}
// We didn't want to call Complete while holding the lock.
if (completeSelf)
{
base.Complete(true, exception);
}
}
internal void AfterReply(ref MessageRpc rpc)
{
if (rpc.Operation.IsTerminating && rpc.Channel.HasSession)
{
IOThreadTimer timer = new IOThreadTimer(new Action<object>(TerminatingOperationBehavior.AbortChannel),
rpc.Channel.Binder.Channel, false);
timer.Set(rpc.Channel.CloseTimeout);
}
}
public MsmqReceiveContextLockManager(MsmqReceiveContextSettings receiveContextSettings, MsmqQueue queue)
{
this.queue = queue;
this.receiveContextSettings = receiveContextSettings;
this.messageExpiryMap = new Dictionary<long, MsmqReceiveContext>();
this.transMessages = new Dictionary<Guid, List<MsmqReceiveContext>>();
this.transactionCompletedHandler = new TransactionCompletedEventHandler(this.OnTransactionCompleted);
this.messageExpiryTimer = new IOThreadTimer(new Action<object>(this.CleanupExpiredLocks), null, false);
this.messageExpiryTimer.Set(this.messageTimeoutInterval);
}
public void CancelTimer()
{
lock (this.ThisLock)
{
this.timerCancelled = true;
if (this.taskTimer != null)
{
this.taskTimer.Cancel();
this.taskTimer = null;
}
}
}
public CloseCommunicationAsyncResult(TimeSpan timeout, AsyncCallback callback, object state, object mutex) : base(callback, state)
{
this.timeout = timeout;
this.timeoutHelper = new TimeoutHelper(timeout);
this.mutex = mutex;
if (timeout < TimeSpan.Zero)
{
throw DiagnosticUtility.ExceptionUtility.ThrowHelperError(new TimeoutException(System.ServiceModel.SR.GetString("SFxCloseTimedOut1", new object[] { timeout })));
}
this.timer = new IOThreadTimer(new Action<object>(CloseCommunicationAsyncResult.TimeoutCallback), this, true);
this.timer.Set(timeout);
}
public AsyncQueueReader(InputQueue <T> inputQueue, TimeSpan timeout, AsyncCallback callback, object state) : base(callback, state)
{
if (inputQueue.AsyncCallbackGenerator != null)
{
base.VirtualCallback = inputQueue.AsyncCallbackGenerator();
}
this.inputQueue = inputQueue;
if (timeout != TimeSpan.MaxValue)
{
this.timer = new IOThreadTimer(InputQueue <T> .AsyncQueueReader.timerCallback, this, false);
this.timer.Set(timeout);
}
}
public MsmqReceiveContextLockManager(MsmqReceiveContextSettings receiveContextSettings, MsmqQueue queue)
{
Fx.Assert(queue is ILockingQueue, "Queue must be ILockingQueue");
this.disposed = false;
this.queue = queue;
this.receiveContextSettings = receiveContextSettings;
this.messageExpiryMap = new Dictionary<long, MsmqReceiveContext>();
this.transMessages = new Dictionary<Guid, List<MsmqReceiveContext>>();
transactionCompletedHandler = new TransactionCompletedEventHandler(OnTransactionCompleted);
this.messageExpiryTimer = new IOThreadTimer(new Action<object>(CleanupExpiredLocks), null, false);
this.messageExpiryTimer.Set(messageTimeoutInterval);
}
private bool AddTimer(IPeerNeighbor neighbor)
{
bool flag = false;
lock (this.ThisLock)
{
if ((this.state == State.Opened) && (neighbor.State == PeerNeighborState.Connecting))
{
IOThreadTimer timer = new IOThreadTimer(new Action<object>(this.OnConnectTimeout), neighbor, true);
timer.Set(this.config.ConnectTimeout);
this.timerTable.Add(neighbor, timer);
flag = true;
}
}
return flag;
}
private void InternalSet(TimeSpan interval, bool ifNotSet)
{
lock (this.ThisLock)
{
if (!this.aborted && (!ifNotSet || !this.set))
{
if (this.timer == null)
{
this.timer = new IOThreadTimer(onTimerElapsed, this, true);
}
this.timer.Set(interval);
this.set = true;
}
}
}
private void UpdateWaitableTimer(IOThreadTimer.TimerGroup timerGroup)
{
IOThreadTimer.WaitableTimer waitableTimer = timerGroup.WaitableTimer;
IOThreadTimer minTimer = timerGroup.TimerQueue.MinTimer;
long dueTime = waitableTimer.DueTime - minTimer.dueTime;
if (dueTime < (long)0)
{
dueTime = -dueTime;
}
if (dueTime > minTimer.maxSkew)
{
waitableTimer.Set(minTimer.dueTime);
}
}
private void UpdateWaitableTimer(IOThreadTimer.TimerGroup timerGroup)
{
IOThreadTimer.WaitableTimer waitableTimer = timerGroup.WaitableTimer;
IOThreadTimer minTimer = timerGroup.TimerQueue.MinTimer;
long num = waitableTimer.DueTime - minTimer.dueTime;
if (num < 0L)
{
num = -num;
}
if (num > minTimer.maxSkew)
{
waitableTimer.Set(minTimer.dueTime);
}
}
private void ScheduleElapsedTimers(IOThreadTimer.TimerGroup timerGroup, long now)
{
IOThreadTimer.TimerQueue timerQueue = timerGroup.TimerQueue;
while (timerQueue.Count > 0)
{
IOThreadTimer minTimer = timerQueue.MinTimer;
long num = minTimer.dueTime - now;
if (num > minTimer.maxSkew)
{
break;
}
timerQueue.DeleteMinTimer();
ActionItem.Schedule(minTimer.callback, minTimer.callbackState);
}
}
public override void CloseQueue()
{
lock (this.timerLock)
{
if (!this.disposed)
{
this.disposed = true;
this.lockCollectionTimer.Cancel();
this.lockCollectionTimer = null;
}
}
this.CollectLocks(this.lockQueueForReceive);
this.mainQueueForMove.CloseQueue();
this.lockQueueForMove.CloseQueue();
this.lockQueueForReceive.CloseQueue();
base.CloseQueue();
}
public IOThreadTimer(Action <object> callback, object callbackState, bool isTypicallyCanceledShortlyAfterBeingSet, int maxSkewInMilliseconds)
{
IOThreadTimer.TimerGroup volatileTimerGroup;
this.callback = callback;
this.callbackState = callbackState;
this.maxSkew = Ticks.FromMilliseconds(maxSkewInMilliseconds);
IOThreadTimer oThreadTimer = this;
if (isTypicallyCanceledShortlyAfterBeingSet)
{
volatileTimerGroup = IOThreadTimer.TimerManager.Value.VolatileTimerGroup;
}
else
{
volatileTimerGroup = IOThreadTimer.TimerManager.Value.StableTimerGroup;
}
oThreadTimer.timerGroup = volatileTimerGroup;
}
public void DeleteTimer(IOThreadTimer timer)
{
int index = timer.index;
IOThreadTimer[] timers = this.timers;
while (true)
{
int num2 = index / 2;
if (num2 < 1)
{
break;
}
IOThreadTimer timer2 = timers[num2];
timers[index] = timer2;
timer2.index = index;
index = num2;
}
timer.index = 0;
timer.dueTime = 0L;
timers[1] = null;
this.DeleteMinTimerCore();
}
public void DeleteTimer(IOThreadTimer timer)
{
int num = timer.index;
IOThreadTimer[] oThreadTimerArray = this.timers;
while (true)
{
int num1 = num / 2;
if (num1 < 1)
{
break;
}
IOThreadTimer oThreadTimer = oThreadTimerArray[num1];
oThreadTimerArray[num] = oThreadTimer;
oThreadTimer.index = num;
num = num1;
}
timer.index = 0;
timer.dueTime = (long)0;
oThreadTimerArray[1] = null;
this.DeleteMinTimerCore();
}
public ReliableInputSessionChannelOverDuplex(ReliableChannelListenerBase<IInputSessionChannel> listener, IServerReliableChannelBinder binder, FaultHelper faultHelper, UniqueId inputID) : base(listener, binder, faultHelper, inputID)
{
this.guard = new Guard(0x7fffffff);
this.acknowledgementInterval = listener.AcknowledgementInterval;
this.acknowledgementTimer = new IOThreadTimer(new Action<object>(this.OnAcknowledgementTimeoutElapsed), null, true);
base.DeliveryStrategy.DequeueCallback = new Action(this.OnDeliveryStrategyItemDequeued);
if (binder.HasSession)
{
try
{
base.StartReceiving(false);
}
catch (Exception exception)
{
if (Fx.IsFatal(exception))
{
throw;
}
base.ReliableSession.OnUnknownException(exception);
}
}
}
public TransmissionStrategy(ReliableMessagingVersion reliableMessagingVersion, TimeSpan initRtt, int maxWindowSize, bool requestAcks, UniqueId id)
{
if (initRtt < TimeSpan.Zero)
{
throw Fx.AssertAndThrow("Argument initRtt cannot be negative.");
}
if (maxWindowSize <= 0)
{
throw Fx.AssertAndThrow("Argument maxWindow size must be positive.");
}
this.id = id;
this.maxWindowSize = this.lossWindowSize = maxWindowSize;
this.meanRtt = Math.Min((long) initRtt.TotalMilliseconds, 0x55555555555555L) << 7;
this.serrRtt = this.meanRtt >> 1;
this.window = new SlidingWindow(maxWindowSize);
this.slowStartThreshold = maxWindowSize;
this.timeout = Math.Max((long) (0xc800L + this.meanRtt), (long) (this.meanRtt + (this.serrRtt << 2)));
this.quotaRemaining = 0x7fffffff;
this.retryTimer = new IOThreadTimer(new Action<object>(this.OnRetryElapsed), null, true);
this.requestAcks = requestAcks;
this.reliableMessagingVersion = reliableMessagingVersion;
}
public bool Cancel(IOThreadTimer timer)
{
bool flag;
lock (this.ThisLock)
{
if (timer.index <= 0)
{
flag = false;
}
else
{
IOThreadTimer.TimerGroup timerGroup = timer.timerGroup;
IOThreadTimer.TimerQueue timerQueue = timerGroup.TimerQueue;
timerQueue.DeleteTimer(timer);
if (timerQueue.Count <= 0)
{
IOThreadTimer.TimerGroup otherTimerGroup = this.GetOtherTimerGroup(timerGroup);
if (otherTimerGroup.TimerQueue.Count == 0)
{
long now = Ticks.Now;
long dueTime = timerGroup.WaitableTimer.DueTime - now;
long num = otherTimerGroup.WaitableTimer.DueTime - now;
if (dueTime > (long)0x989680 && num > (long)0x989680)
{
timerGroup.WaitableTimer.Set(Ticks.Add(now, (long)0x989680));
}
}
}
else
{
this.UpdateWaitableTimer(timerGroup);
}
flag = true;
}
}
return(flag);
}
public bool InsertTimer(IOThreadTimer timer, long dueTime)
{
IOThreadTimer[] oThreadTimerArray = this.timers;
int num = this.count + 1;
if (num == (int)oThreadTimerArray.Length)
{
oThreadTimerArray = new IOThreadTimer[(int)oThreadTimerArray.Length * 2];
Array.Copy(this.timers, oThreadTimerArray, (int)this.timers.Length);
this.timers = oThreadTimerArray;
}
this.count = num;
if (num > 1)
{
while (true)
{
int num1 = num / 2;
if (num1 == 0)
{
break;
}
IOThreadTimer oThreadTimer = oThreadTimerArray[num1];
if (oThreadTimer.dueTime <= dueTime)
{
break;
}
oThreadTimerArray[num] = oThreadTimer;
oThreadTimer.index = num;
num = num1;
}
}
oThreadTimerArray[num] = timer;
timer.index = num;
timer.dueTime = dueTime;
return(num == 1);
}
void WriteStreamedMessage(TimeSpan timeout)
{
this.outputStream = GetWrappedOutputStream();
// Since HTTP streams don't support timeouts, we can't just use TimeoutStream here.
// Rather, we need to run a timer to bound the overall operation
if (onStreamSendTimeout == null)
{
onStreamSendTimeout = new Action<object>(OnStreamSendTimeout);
}
IOThreadTimer sendTimer = new IOThreadTimer(onStreamSendTimeout, this, true);
sendTimer.Set(timeout);
try
{
MtomMessageEncoder mtomMessageEncoder = messageEncoder as MtomMessageEncoder;
if (mtomMessageEncoder == null)
{
messageEncoder.WriteMessage(this.message, this.outputStream);
}
else
{
mtomMessageEncoder.WriteMessage(this.message, this.outputStream, this.mtomBoundary);
}
}
finally
{
sendTimer.Cancel();
}
}
void SetFlushTimer()
{
if (this.flushTimer == null)
{
int flushSkew = Ticks.ToMilliseconds(Math.Min(this.flushTimeout / 10, Ticks.FromMilliseconds(maxFlushSkew)));
this.flushTimer = new IOThreadTimer(new Action<object>(OnFlushTimer), null, true, flushSkew);
}
this.flushTimer.Set(Ticks.ToTimeSpan(this.flushTimeout));
}
public void CancelTimer()
{
if (this.timer != null)
{
this.timer.Cancel();
this.timer = null;
}
}
public void SetTimer(Action<object> callback, object state, TimeSpan timeout)
{
if (this.timer != null)
{
throw Fx.Exception.AsError(new InvalidOperationException(InternalSR.MustCancelOldTimer));
}
this.originalTimeout = timeout;
this.timer = new IOThreadTimer(callback, state, false);
this.timer.Set(timeout);
}
void FaultMessageQueueOnFailure()
{
lock (ThisLock)
{
this.queueState = QueueState.Faulted;
// Drop pending messages.
this.DropPendingMessages(true);
// Throttling
if (throttlingTimer == null)
{
throttlingTimer = new IOThreadTimer(new Action<object>(ThrottlingCallback),
this, true, ThrottlingMaxSkewInMilliseconds);
}
throttlingTimer.Set(FailureThrottlingTimeout);
}
}
void CancelRetryTimer()
{
if (this.timer != null)
{
this.timer.Cancel();
this.timer = null;
}
}
private List<InstancePersistenceEvent> StartWaiting(WaitForEventsAsyncResult result, IOThreadTimer timeoutTimer, TimeSpan timeout)
{
lock (this.ThisLock)
{
if (this.waitResult != null)
{
throw Fx.Exception.AsError(new InvalidOperationException(SRCore.WaitAlreadyInProgress));
}
if (!this.IsValid)
{
throw Fx.Exception.AsError(new OperationCanceledException(SRCore.HandleFreed));
}
if ((this.boundOwnerEvents != null) && (this.boundOwnerEvents.Count > 0))
{
List<InstancePersistenceEvent> list = this.Store.SelectSignaledEvents(this.boundOwnerEvents, this.Owner);
if (list != null)
{
return list;
}
}
this.waitResult = result;
if (timeoutTimer != null)
{
timeoutTimer.Set(timeout);
}
return null;
}
}
bool EnqueueRetry()
{
bool result = false;
int delay = this.GetRetryDelay();
if (this.timeoutHelper.RemainingTime().TotalMilliseconds > delay)
{
this.sqlCommand.Dispose();
IOThreadTimer iott = new IOThreadTimer(StartCommandCallback, new SqlCommandAsyncResult(CloneSqlCommand(this.sqlCommand), this.connectionString, this.eventTraceActivity, this.dependentTransaction,
this.timeoutHelper.RemainingTime(), this.retryCount, this.maximumRetries, this.PrepareAsyncCompletion(onRetryCommandCallback), this), false);
iott.Set(delay);
if (TD.QueuingSqlRetryIsEnabled())
{
TD.QueuingSqlRetry(this.eventTraceActivity, delay.ToString(CultureInfo.InvariantCulture));
}
result = true;
}
return result;
}
private void DeleteMinTimerCore()
{
int num;
int num1;
IOThreadTimer oThreadTimer;
int num2 = this.count;
if (num2 != 1)
{
IOThreadTimer[] oThreadTimerArray = this.timers;
IOThreadTimer oThreadTimer1 = oThreadTimerArray[num2];
int num3 = num2 - 1;
num2 = num3;
this.count = num3;
int num4 = 1;
do
{
num = num4 * 2;
if (num > num2)
{
break;
}
if (num >= num2)
{
num1 = num;
oThreadTimer = oThreadTimerArray[num1];
}
else
{
IOThreadTimer oThreadTimer2 = oThreadTimerArray[num];
int num5 = num + 1;
IOThreadTimer oThreadTimer3 = oThreadTimerArray[num5];
if (oThreadTimer3.dueTime >= oThreadTimer2.dueTime)
{
oThreadTimer = oThreadTimer2;
num1 = num;
}
else
{
oThreadTimer = oThreadTimer3;
num1 = num5;
}
}
if (oThreadTimer1.dueTime <= oThreadTimer.dueTime)
{
break;
}
oThreadTimerArray[num4] = oThreadTimer;
oThreadTimer.index = num4;
num4 = num1;
}while (num < num2);
oThreadTimerArray[num4] = oThreadTimer1;
oThreadTimer1.index = num4;
oThreadTimerArray[num2 + 1] = null;
return;
}
else
{
this.count = 0;
this.timers[1] = null;
return;
}
}
public void WaitAndBackoff(Action<object> callback, object state)
{
if (this.backoffCallback != callback || this.backoffState != state)
{
if (this.backoffTimer != null)
{
this.backoffTimer.Cancel();
}
this.backoffCallback = callback;
this.backoffState = state;
this.backoffTimer = new IOThreadTimer(callback, state, false, BackoffTimeoutHelper.maxSkewMilliseconds);
}
TimeSpan backoffTime = WaitTimeWithDrift();
Backoff();
this.backoffTimer.Set(backoffTime);
}
// Add a timer for the specified neighbor to the timer table. The timer is only added
// if Connector is open and the neighbor is in Connecting state.
bool AddTimer(IPeerNeighbor neighbor)
{
bool added = false;
lock (ThisLock)
{
if (state == State.Opened && neighbor.State == PeerNeighborState.Connecting)
{
IOThreadTimer timer = new IOThreadTimer(new Action<object>(OnConnectTimeout), neighbor, true);
timer.Set(this.config.ConnectTimeout);
this.timerTable.Add(neighbor, timer);
added = true;
}
}
return added;
}
void SetTimer(TimeSpan timeout)
{
Fx.Assert(this.sendTimer == null, "SetTimer should only be called once");
this.sendTimer = new IOThreadTimer(onStreamSendTimeout, this.httpOutput, true);
this.sendTimer.Set(timeout);
}
public UnloadInstancePolicyHelper(WorkflowServiceInstance instance, TimeSpan timeToPersist, TimeSpan timeToUnload)
{
Fx.Assert(instance != null, String.Empty);
this.instance = instance;
this.timeToPersist = timeToPersist;
this.timeToUnload = timeToUnload;
this.persistEnabled = this.instance.persistenceContext.CanPersist && this.timeToPersist < this.timeToUnload;
this.unloadEnabled = this.instance.persistenceContext.CanPersist && this.timeToUnload < TimeSpan.MaxValue;
if (this.persistEnabled)
{
this.persistTimer = new IOThreadTimer(onTimerCallback, new Action(Persist), true);
}
if (this.unloadEnabled)
{
this.unloadTimer = new IOThreadTimer(onTimerCallback, new Action(Unload), true);
}
}
void SetTimer(IOThreadTimer timer, TimeSpan ts)
{
Fx.Assert(timer != null && ts >= TimeSpan.Zero, String.Empty);
// It is ok to dirty read the state, the consistency will be ensured by persis/unload itself.
if (this.instance.state == State.Suspended)
{
// Unload/Persist immediately when suspended
timer.Set(TimeSpan.Zero);
}
else
{
timer.Set(ts);
}
}
internal WaitForEventsAsyncResult(InstanceHandle handle, TimeSpan timeout, AsyncCallback callback, object state) : base(callback, state)
{
this.handle = handle;
this.timeout = timeout;
if ((this.timeout != TimeSpan.Zero) && (this.timeout != TimeSpan.MaxValue))
{
this.timer = new IOThreadTimer(timeoutCallback, this, false);
}
List<InstancePersistenceEvent> list = this.handle.StartWaiting(this, this.timer, this.timeout);
if (list == null)
{
if (this.timeout == TimeSpan.Zero)
{
this.handle.CancelWaiting(this);
throw Fx.Exception.AsError(new TimeoutException(SRCore.WaitForEventsTimedOut(TimeSpan.Zero)));
}
}
else
{
this.readyEvents = list;
base.Complete(true);
}
}
public void Dispose()
{
lock (this.internalStateLock)
{
if (!this.disposed)
{
this.disposed = true;
this.messageExpiryTimer.Cancel();
this.messageExpiryTimer = null;
}
}
}
