public void asyncRequestCanceled(OutgoingAsyncBase outAsync, Ice.LocalException ex)
{
Debug.Assert(_outAsync == outAsync);
if (_retryQueue.cancel(this))
{
if (_instance.traceLevels().retry >= 1)
{
_instance.initializationData().logger.trace(_instance.traceLevels().retryCat,
string.Format("operation retry canceled\n{0}", ex));
}
if (_outAsync.exception(ex))
{
_outAsync.invokeExceptionAsync();
}
}
}
private bool sentAsync(OutgoingAsyncBase outAsync)
{
lock (this)
{
if (!_sendAsyncRequests.Remove(outAsync))
{
return(false); // The request timed-out.
}
}
Ice.AsyncCallback cb = outAsync.sent();
if (cb != null)
{
outAsync.invokeSent(cb);
}
return(true);
}
private bool sentAsync(OutgoingAsyncBase outAsync)
{
lock (this)
{
if (!_sendAsyncRequests.Remove(outAsync))
{
return(false); // The request timed-out.
}
if (!outAsync.sent())
{
return(true);
}
}
outAsync.invokeSent();
return(true);
}
public bool handleException(Ice.Exception ex, OutgoingAsyncBase og)
{
//
// If this is a synchronous call, we can notify the task from this thread to avoid
// the thread context switch. We know there aren't any continuations setup with the
// task.
//
if (og.isSynchronous())
{
handleInvokeException(ex, og);
return(false);
}
else
{
return(true);
}
}
public void asyncRequestCanceled(OutgoingAsyncBase outAsync, Ice.LocalException ex)
{
Debug.Assert(_outAsync == outAsync);
if (_retryQueue.cancel(this))
{
if (_instance.traceLevels().retry >= 1)
{
string s = "operation retry canceled\n" + ex;
_instance.initializationData().logger.trace(_instance.traceLevels().retryCat, s);
}
Ice.AsyncCallback cb = _outAsync.completed(ex);
if (cb != null)
{
_outAsync.invokeCompletedAsync(cb);
}
}
}
public bool handleResponse(bool userThread, bool ok, OutgoingAsyncBase og)
{
//
// If this is a synchronous call, we can notify the task from this thread to avoid the
// thread context switch. We know there aren't any continuations setup with the
// task.
//
if (userThread || og.isSynchronous())
{
handleInvokeResponse(ok, og);
return(false);
}
else
{
return(true);
}
}
public void asyncRequestCanceled(OutgoingAsyncBase outAsync, Ice.LocalException ex)
{
lock (this)
{
int requestId;
if (_sendAsyncRequests.TryGetValue(outAsync, out requestId))
{
if (requestId > 0)
{
_asyncRequests.Remove(requestId);
}
_sendAsyncRequests.Remove(outAsync);
Ice.AsyncCallback cb = outAsync.completed(ex);
if (cb != null)
{
outAsync.invokeCompletedAsync(cb);
}
_adapter.decDirectCount(); // invokeAll won't be called, decrease the direct count.
return;
}
if (outAsync is OutgoingAsync)
{
OutgoingAsync o = (OutgoingAsync)outAsync;
Debug.Assert(o != null);
foreach (KeyValuePair <int, OutgoingAsyncBase> e in _asyncRequests)
{
if (e.Value == o)
{
_asyncRequests.Remove(e.Key);
Ice.AsyncCallback cb = outAsync.completed(ex);
if (cb != null)
{
outAsync.invokeCompletedAsync(cb);
}
return;
}
}
}
}
}
public void AsyncRequestCanceled(OutgoingAsyncBase outAsync, Ice.LocalException ex)
{
lock (this)
{
if (_sendAsyncRequests.TryGetValue(outAsync, out int requestId))
{
if (requestId > 0)
{
_asyncRequests.Remove(requestId);
}
_sendAsyncRequests.Remove(outAsync);
if (outAsync.Exception(ex))
{
outAsync.InvokeExceptionAsync();
}
_adapter.DecDirectCount(); // invokeAll won't be called, decrease the direct count.
return;
}
if (outAsync is OutgoingAsync o)
{
Debug.Assert(o != null);
foreach (KeyValuePair <int, OutgoingAsyncBase> e in _asyncRequests)
{
if (e.Value == o)
{
_asyncRequests.Remove(e.Key);
if (outAsync.Exception(ex))
{
outAsync.InvokeExceptionAsync();
}
return;
}
}
}
}
}
public int invokeAsyncRequest(OutgoingAsyncBase outAsync, int batchRequestNum, bool synchronous)
{
//
// Increase the direct count to prevent the thread pool from being destroyed before
// invokeAll is called. This will also throw if the object adapter has been deactivated.
//
_adapter.incDirectCount();
int requestId = 0;
try
{
lock (this)
{
outAsync.cancelable(this); // This will throw if the request is canceled
if (_response)
{
requestId = ++_requestId;
_asyncRequests.Add(requestId, outAsync);
}
_sendAsyncRequests.Add(outAsync, requestId);
}
}
catch (Exception)
{
_adapter.decDirectCount();
throw;
}
outAsync.attachCollocatedObserver(_adapter, requestId);
if (!synchronous || !_response || _reference.getInvocationTimeout() > 0)
{
// Don't invoke from the user thread if async or invocation timeout is set
_adapter.getThreadPool().dispatch(
() =>
{
if (sentAsync(outAsync))
{
invokeAll(outAsync.getOs(), requestId, batchRequestNum);
}
}, null);
}
else if (_dispatcher)
{
_adapter.getThreadPool().dispatchFromThisThread(
() =>
{
if (sentAsync(outAsync))
{
invokeAll(outAsync.getOs(), requestId, batchRequestNum);
}
}, null);
}
else // Optimization: directly call invokeAll if there's no dispatcher.
{
if (sentAsync(outAsync))
{
invokeAll(outAsync.getOs(), requestId, batchRequestNum);
}
}
return(OutgoingAsyncBase.AsyncStatusQueued);
}
public override void handleInvokeResponse(bool ok, OutgoingAsyncBase og)
{
SetResult(((OutgoingAsyncT <T>)og).getResult(ok));
}
public abstract void handleInvokeResponse(bool ok, OutgoingAsyncBase og);
public void handleInvokeException(Ice.Exception ex, OutgoingAsyncBase og)
{
SetException(ex);
}
public virtual void handleInvokeSent(bool sentSynchronously, bool done, bool alreadySent, OutgoingAsyncBase og)
{
if (progress_ != null && !alreadySent)
{
progress_.Report(sentSynchronously);
}
if (done)
{
SetResult(default(T));
}
}
public bool invokeAsyncRequest(OutgoingAsyncBase outAsync, int batchRequestNum, bool synchronous,
out Ice.AsyncCallback sentCallback)
{
//
// Increase the direct count to prevent the thread pool from being destroyed before
// invokeAll is called. This will also throw if the object adapter has been deactivated.
//
_adapter.incDirectCount();
int requestId = 0;
try
{
lock (this)
{
outAsync.cancelable(this); // This will throw if the request is canceled
if (_response)
{
requestId = ++_requestId;
_asyncRequests.Add(requestId, outAsync);
}
_sendAsyncRequests.Add(outAsync, requestId);
}
}
catch (System.Exception ex)
{
_adapter.decDirectCount();
throw ex;
}
outAsync.attachCollocatedObserver(_adapter, requestId);
if (synchronous)
{
//
// Treat this collocated call as if it is a synchronous invocation.
//
if (_reference.getInvocationTimeout() > 0 || !_response)
{
// Don't invoke from the user thread, invocation timeouts wouldn't work otherwise.
_adapter.getThreadPool().dispatch(() =>
{
if (sentAsync(outAsync))
{
invokeAll(outAsync.getOs(), requestId, batchRequestNum);
}
}, null);
}
else if (_dispatcher)
{
_adapter.getThreadPool().dispatchFromThisThread(() =>
{
if (sentAsync(outAsync))
{
invokeAll(outAsync.getOs(), requestId, batchRequestNum);
}
}, null);
}
else // Optimization: directly call invokeAll if there's no dispatcher.
{
if (sentAsync(outAsync))
{
invokeAll(outAsync.getOs(), requestId, batchRequestNum);
}
}
sentCallback = null;
}
else
{
_adapter.getThreadPool().dispatch(() =>
{
if (sentAsync(outAsync))
{
invokeAll(outAsync.getOs(), requestId, batchRequestNum);
}
}, null);
sentCallback = null;
}
return(false);
}
public void asyncRequestCanceled(OutgoingAsyncBase outAsync, Ice.LocalException ex)
{
_connection.asyncRequestCanceled(outAsync, ex);
}
internal void canceled()
{
Debug.Assert(outAsync != null); // Only requests can timeout.
outAsync = null;
}
internal OutgoingMessage(IceInternal.OutgoingAsyncBase outAsync, OutputStream stream,
bool compress, int requestId)
{
this.outAsync = outAsync;
this.stream = stream;
this.compress = compress;
this.requestId = requestId;
}
