public TaskSlim<MessageDelivery> Call(string exchange, string routing, BasicProperties properties, ArraySegment<byte> buffer)
{
_semaphoreSlim.Wait();
var task = _taskResultPool.GetObject();
uint correlationId;
if (!SecureSpotAndUniqueCorrelationId(task, out correlationId))
{
_semaphoreSlim.Release();
Console.WriteLine("max calls reached!");
task.SetException(new Exception("reached max calls"));
return task;
}
task.Id = correlationId; // so we can confirm we have the right instance later
task.Started = DateTime.Now.Ticks;
try
{
var prop = properties ?? _channel.RentBasicProperties();
prop.CorrelationId = correlationId.ToString();
prop.ReplyTo = _replyQueueName.Name;
// TODO: confirm this doesnt cause more overhead to rabbitmq
prop.Expiration = _timeoutInMs.ToString();
_channel.BasicPublishFast(exchange, routing, true, false, properties, buffer);
}
catch (Exception ex)
{
// release spot
Interlocked.Exchange(ref _pendingCalls[correlationId % _maxConcurrentCalls], null);
_semaphoreSlim.Release();
task.SetException(ex);
}
return task;
}
internal void DispatchDeliveredMessage(
string consumerTag, ulong deliveryTag, bool redelivered,
string exchange, string routingKey, int bodySize,
BasicProperties properties, BaseLightStream lightStream)
{
BasicConsumerSubscriptionInfo consumer;
if (!_consumerSubscriptions.TryGetValue(consumerTag, out consumer))
{
// received msg but nobody was subscribed to get it (?)
LogAdapter.LogWarn(LogSource, "Received message without a matching subscription. Discarding. " +
"Exchange: " + exchange + " routing: " + routingKey +
" consumer tag: " + consumerTag + " and channel " + this.ChannelNumber);
// Ensure moved cursor ahead
var marker = new RingBufferPositionMarker(lightStream);
marker.EnsureConsumed(bodySize);
return;
}
var delivery = new MessageDelivery
{
bodySize = bodySize,
properties = properties,
routingKey = routingKey,
deliveryTag = deliveryTag + this._deliveryTagOffset, // adds tag offset
redelivered = redelivered,
};
var mode = consumer.Mode;
var cb = consumer.Callback;
var consumerInstance = consumer._consumer;
if (mode == ConsumeMode.SingleThreaded)
{
// run with scissors, we're letting
// the user code mess with the ring buffer in the name of performance
delivery.stream = bodySize == 0 ? EmptyStream : lightStream;
// upon return it's assumed the user has consumed from the stream and is done with it
var marker = new RingBufferPositionMarker(lightStream);
try
{
if (cb != null)
{
cb(delivery).GetAwaiter().GetResult();
}
else
{
consumerInstance.Consume(delivery).GetAwaiter().GetResult();
}
}
finally
{
if (!delivery.TakenOver)
{
delivery.Dispose();
}
// fingers crossed the user cloned the buffer if she needs it later
marker.EnsureConsumed(bodySize);
}
}
else
{
// parallel mode. it cannot hold the frame handler, so we copy the buffer (yuck) and move forward
if (mode == ConsumeMode.ParallelWithBufferCopy ||
mode == ConsumeMode.SerializedWithBufferCopy)
{
delivery.stream = delivery.bodySize == 0
? EmptyStream
: lightStream.CloneStream(bodySize);
}
if (mode == ConsumeMode.SerializedWithBufferCopy) // Posts to a thread
{
if (consumer._consumerThread == null)
{
// Initialization. safe since this delivery call always happen from the same thread
consumer._receivedMessages = new ConcurrentQueue <MessageDelivery>();
consumer._messageAvailableEv = new AutoResetEvent(false);
consumer._consumerThread = ThreadFactory.BackgroundThread(SerializedDelivery, "Delivery_" + consumer.ConsumerTag,
consumer);
}
consumer._receivedMessages.Enqueue(delivery);
consumer._messageAvailableEv.Set();
}
else if (mode == ConsumeMode.ParallelWithBufferCopy) // Posts to TaskScheduler
{
new Task(async state =>
{
var tuple = (Tuple <MessageDelivery, Func <MessageDelivery, Task>, IQueueConsumer, Channel>)state;
var delivery1 = tuple.Item1;
var cb1 = tuple.Item2;
var conInstance = tuple.Item3;
try
{
if (cb1 != null)
{
await cb1(delivery1).ConfigureAwait(false);
}
else
{
await conInstance.Consume(delivery1).ConfigureAwait(false);
}
}
catch (Exception e)
{
if (LogAdapter.IsErrorEnabled)
{
LogAdapter.LogError(LogSource, "Error processing message (user code)", e);
}
}
finally
{
if (!delivery1.TakenOver)
{
delivery1.Dispose();
}
}
}, Tuple.Create(delivery, cb, consumerInstance, this)) // tuple avoids the closure capture
// Start task in the given scheduler
.Start(_schedulerToDeliverMessages);
}
}
}
public static TaskSlim BasicPublish(this Channel source,
string exchange, string routingKey, bool mandatory, bool immediate,
BasicProperties properties, byte[] buffer)
{
return(source.BasicPublish(exchange, routingKey, mandatory, immediate, properties, new ArraySegment <byte>(buffer)));
}
public static void BasicPublishFast(this Channel source,
string exchange, string routingKey, bool mandatory,
BasicProperties properties, byte[] buffer)
{
source.BasicPublishFast(exchange, routingKey, mandatory, false, properties, new ArraySegment <byte>(buffer));
}
// private static async Task StartRpc()
// {
// Connection conn1 = null;
// Connection conn2 = null;
// try
// {
// conn1 = await new ConnectionFactory().Connect(TargetHost, vhost: VHost, username: _username, password: _password);
// conn2 = await new ConnectionFactory().Connect(TargetHost, vhost: VHost, username: _username, password: _password);
//
// Console.WriteLine("[Connected]");
//
// var newChannel = await conn1.CreateChannel();
// Console.WriteLine("[channel created] " + newChannel.ChannelNumber);
// await newChannel.BasicQos(0, Prefetch, false);
//
// await newChannel.ExchangeDeclare("test_ex", "direct", true, false, null, true);
//
// var qInfo = await newChannel.QueueDeclare("rpc1", false, true, false, false, null, true);
//
// Console.WriteLine("[qInfo] " + qInfo);
//
// await newChannel.QueueBind("rpc1", "test_ex", "rpc1", null, true);
//
// var temp = new byte[1000];
//
// Console.WriteLine("Starting Rpc channel consumer...");
// await newChannel.BasicConsume(ConsumeMode.SingleThreaded, delivery =>
// {
// if (delivery.stream != null)
// delivery.stream.Read(temp, 0, (int) delivery.bodySize);
//// else
//// temp = delivery.Body;
//
// var replyProp = new BasicProperties()
// {
// CorrelationId = delivery.properties.CorrelationId
// };
//
// newChannel.BasicPublishFast("",
// delivery.properties.ReplyTo, false, false,
// replyProp, new ArraySegment<byte>(temp, 0, 4));
//
// return Task.CompletedTask;
//
// }, "rpc1", "", true, false, null, waitConfirmation: true);
//
// Console.WriteLine("Starting Rpc calls...");
//
// var newChannel2 = await conn2.CreateChannel();
// Console.WriteLine("[channel created] " + newChannel2.ChannelNumber);
// await newChannel2.BasicQos(0, Prefetch, false);
//
// var rpcHelper = await newChannel2.CreateRpcHelper(ConsumeMode.SingleThreaded);
//
// var watch = new Stopwatch();
// watch.Start();
//
// var totalReceived = 0;
// var req = new byte[100];
// var reply = new byte[100];
// for (int i = 0; i < TotalPublish; i++)
// {
// var prop2 = new BasicProperties();
// req[3] = (byte)((i & 0xFF000000) >> 24);
// req[2] = (byte)((i & 0x00FF0000) >> 16);
// req[1] = (byte)((i & 0x0000FF00) >> 8);
// req[0] = (byte)((i & 0x000000FF));
//
// var rpcCallResult = await rpcHelper.Call("test_ex", "rpc1", prop2, new ArraySegment<byte>(req, 0, 4));
// if (rpcCallResult.stream != null)
// {
// rpcCallResult.stream.Read(reply, 0, rpcCallResult.bodySize);
// var x = BitConverter.ToInt32(reply, 0);
// if (x != i) throw new Exception("Invalid result for call");
// }
//// else if (rpcCallResult.Body != null)
//// {
//// var x = BitConverter.ToInt32(rpcCallResult.Body, 0);
//// if (x != i) throw new Exception("Invalid result for call");
//// }
//
// // var rpcCallResult2 = await rpcHelper.Call("test_ex", "rpc1", prop2, new ArraySegment<byte>(req, 0, 4));
//
// var val = Interlocked.Increment(ref totalReceived);
//
// if (val == TotalPublish)
// {
// watch.Stop();
// Console.WriteLine("Rpc stress. Took " +
// watch.Elapsed.TotalMilliseconds +
// "ms - rate of " + (TotalPublish / watch.Elapsed.TotalSeconds) + " message per second");
// totalReceived = 0;
// }
// }
//
//// watch = Stopwatch.StartNew();
//// int totalReceived = 0;
//
//// Console.WriteLine("[subscribed to queue] " + sub);
//
// await Task.Delay(TimeSpan.FromMinutes(5));
//
// await newChannel.Close();
// await newChannel2.Close();
// }
// catch (AggregateException ex)
// {
// Console.WriteLine("[Captured error] " + ex.Flatten().Message);
// }
// catch (Exception ex)
// {
// Console.WriteLine("[Captured error 2] " + ex.Message);
// }
//
// if (conn1 != null)
// await conn1.Close();
// if (conn2 != null)
// await conn2.Close();
// }
private static async Task Start()
{
Connection conn = null;
try
{
conn = await new ConnectionFactory().Connect(TargetHost, vhost: VHost, username: _username, password: _password);
Console.WriteLine("[Connected]");
var newChannel = await conn.CreateChannel();
// var newChannel = await conn.CreateChannelWithPublishConfirmation();
Console.WriteLine("[channel created] " + newChannel.ChannelNumber);
await newChannel.BasicQos(0, Prefetch, false);
await newChannel.ExchangeDeclare("test_ex", "direct", true, false, null, true);
var qInfo = await newChannel.QueueDeclare("queue1", false, true, false, false, null, true);
Console.WriteLine("[qInfo] " + qInfo);
await newChannel.QueueBind("queue1", "test_ex", "routing1", null, true);
var prop = new BasicProperties()
{
// DeliveryMode = 2,
Type = "type1",
Headers = new Dictionary<string, object> {{"serialization", 0}}
};
newChannel.MessageUndeliveredHandler = (undelivered) =>
{
Console.WriteLine("\t(Ops, message not routed: " +
undelivered.replyCode + " " +
undelivered.replyText + " " +
undelivered.routingKey + ")");
return Task.CompletedTask;
};
Console.WriteLine("Started Publishing...");
var watch = Stopwatch.StartNew();
for (int i = 0; i < TotalPublish; i++)
{
prop.Headers["serialization"] = i;
// var buffer = Encoding.ASCII.GetBytes("The " + i + " " + Message);
await newChannel.BasicPublish("test_ex", "routing1", true, false, prop, new ArraySegment<byte>(MessageContent));
// await Task.Delay(TimeSpan.FromMilliseconds(100));
}
watch.Stop();
Console.WriteLine(DateTime.Now.TimeOfDay.TotalSeconds + " BasicPublish stress. Took " + watch.Elapsed.TotalMilliseconds +
"ms - rate of " + (TotalPublish / watch.Elapsed.TotalSeconds) + " message per second");
await Task.Delay(TimeSpan.FromMilliseconds(200));
var newChannel2 = await conn.CreateChannel();
Console.WriteLine("[channel created] " + newChannel2.ChannelNumber);
await newChannel2.BasicQos(0, Prefetch, false);
var temp = new byte[1000000];
watch = Stopwatch.StartNew();
int totalReceived = 0;
Console.WriteLine("[subscribing to queue] ");
var sub = await newChannel2.BasicConsume(ConsumeMode.SingleThreaded, async (delivery) =>
{
// var len = await delivery.stream.ReadAsync(temp, 0, (int) delivery.bodySize);
// var str = Encoding.UTF8.GetString(temp, 0, len);
// Console.WriteLine("Received : " + str.Length);
if (WithAcks)
{
if (totalReceived % 2 == 0)
newChannel2.BasicAck(delivery.deliveryTag, false);
else
newChannel2.BasicNAck(delivery.deliveryTag, false, false);
}
var val = Interlocked.Increment(ref totalReceived);
if (val == TotalPublish)
{
watch.Stop();
Console.WriteLine("Consume stress. Took " +
watch.Elapsed.TotalMilliseconds +
"ms - rate of " + (TotalPublish / watch.Elapsed.TotalSeconds) + " message per second");
totalReceived = 0;
}
// return Task.CompletedTask;
}, "queue1", "tag123", !WithAcks, false, null, true);
Console.WriteLine("[subscribed to queue] " + sub);
await Task.Delay(TimeSpan.FromMinutes(5));
await newChannel.Close();
await newChannel2.Close();
}
catch (AggregateException ex)
{
Console.WriteLine("[Captured error] " + ex.Flatten().Message);
}
catch (Exception ex)
{
Console.WriteLine("[Captured error 2] " + ex.Message);
}
if (conn != null)
conn.Dispose();
}
// private static async Task StartConcurrentRpc()
// {
// Connection conn2 = null;
// try
// {
// conn2 = await new ConnectionFactory().Connect(TargetHost,
// vhost: VHost, username: _username, password: _password);
//
// Console.WriteLine("[Connected]");
//
// Console.WriteLine("Starting Rpc Parallel calls...");
//
// var newChannel2 = await conn2.CreateChannel();
// Console.WriteLine("[channel created] " + newChannel2.ChannelNumber);
// await newChannel2.BasicQos(0, Prefetch, false);
//
// var rpcHelper = await newChannel2.CreateRpcHelper(ConsumeMode.ParallelWithBufferCopy);
//
// var watch = new Stopwatch();
// watch.Start();
//
// var totalReceived = 0;
//
//
// var tasks = new Task[ConcurrentCalls];
//
// for (int i = 0; i < TotalPublish; i += ConcurrentCalls)
// {
// for (int j = 0; j < ConcurrentCalls; j++)
// {
// var t = MakeCall(rpcHelper, i + j);
// tasks[j] = t;
// }
//
// Task.WaitAll(tasks);
//
// totalReceived += ConcurrentCalls;
//
//// Console.WriteLine("calls " + totalReceived);
//
// if (totalReceived >= TotalPublish)
// {
// watch.Stop();
// Console.WriteLine("Rpc stress done. Took " +
// watch.Elapsed.TotalMilliseconds +
// "ms - rate of " + (TotalPublish / watch.Elapsed.TotalSeconds) + " messages per second");
// totalReceived = 0;
// }
// }
//
// await Task.Delay(TimeSpan.FromMinutes(5));
//
// await newChannel2.Close();
// }
// catch (AggregateException ex)
// {
// Console.WriteLine("[Captured error] " + ex.Message);
// }
// catch (Exception ex)
// {
// Console.WriteLine("[Captured error 2] " + ex.Message);
// }
//
// if (conn2 != null)
// conn2.Dispose();
// }
private static async Task<int> MakeCall(RpcHelper rpcHelper, int y)
{
var prop2 = new BasicProperties();
var req = new byte[4];
req[3] = (byte)((y & 0xFF000000) >> 24);
req[2] = (byte)((y & 0x00FF0000) >> 16);
req[1] = (byte)((y & 0x0000FF00) >> 8);
req[0] = (byte)((y & 0x000000FF));
var rpcCallResult = await rpcHelper.Call("test_ex", "rpc1", prop2, new ArraySegment<byte>(req, 0, 4));
if (rpcCallResult.stream != null)
{
var reply = new byte[4];
rpcCallResult.stream.Read(reply, 0, rpcCallResult.bodySize);
var x = BitConverter.ToInt32(reply, 0);
if (x != y) throw new Exception("Invalid result for call");
}
// else if (rpcCallResult.Body != null)
// {
// var x = BitConverter.ToInt32(rpcCallResult.Body, 0);
// if (x != y) throw new Exception("Invalid result for call");
// }
// Console.WriteLine("Call " + y + " completed");
return y;
}
public static Task <MessageDelivery> Call(this RpcHelper source, string exchange, string routing, BasicProperties properties, byte[] buffer)
{
return(source.Call(exchange, routing, properties, new ArraySegment <byte>(buffer)));
}
object ICloneable.Clone()
{
var cloned = new BasicProperties(false, false)
{
_presenceSWord = this._presenceSWord,
_timestamp = this._timestamp,
_deliveryMode = this._deliveryMode,
_priority = this._priority,
_contentType = this._contentType,
_contentEncoding = this._contentEncoding,
_correlationId = this._correlationId,
_replyTo = this._replyTo,
_expiration = this._expiration,
_messageId = this._messageId,
_type = this._type,
_userId = this._userId,
_appId = this._appId,
_clusterId = this._clusterId,
};
if (this._headers != null && this._headers.Count != 0)
{
cloned._headers = new Dictionary<string, object>(this._headers);
}
return cloned;
}
/// <summary>
/// The request message is expected to have multiple receivers, and multiple replies.
/// The replies will be aggregated and returned, respecting up to a minimum set by minExpectedReplies, and
/// if unsuccessful a timeout error will be thrown.
/// </summary>
public Task <IEnumerable <MessageDelivery> > CallAggregate(string exchange, string routing,
BasicProperties properties,
ArraySegment <byte> buffer, int minExpectedReplies, bool runContinuationsAsynchronously = true)
{
if (!_operational)
{
throw new Exception("Can't make RPC call when connection in recovery");
}
_semaphoreSlim.Wait();
uint correlationId;
long pos;
var tcs = SecureSpotAndUniqueCorrelationId(runContinuationsAsynchronously, exchange, routing, out pos, out correlationId);
if (tcs == null)
{
_semaphoreSlim.Release();
// NOTE: If our use of semaphore is correct, this should never happen:
LogAdapter.LogError(LogSource, "Maxed calls: " + _maxConcurrentCalls);
throw new Exception("reached max calls");
}
var cookie = tcs.Task.Id;
var state = _pendingAggregationState[pos];
lock (state) // bad, but chances of s*** happening are too high
{
Interlocked.Exchange(ref state.waitingCount, minExpectedReplies);
Interlocked.Exchange(ref state.cookie, cookie);
state.received.Clear();
}
try
{
var prop = (properties == null || properties == BasicProperties.Empty) ? _channel.RentBasicProperties() : properties;
prop.CorrelationId = BuildFullCorrelation(cookie, correlationId); // correlationId + SeparatorStr + cookie;
prop.ReplyTo = _replyQueueName.Name;
// TODO: confirm this doesnt cause more overhead to rabbitmq
if (_timeoutInMs.HasValue)
{
// prop.Expiration = _timeoutInMs.ToString();
}
_channel.BasicPublishFast(exchange, routing, true, prop, buffer);
}
catch (Exception ex)
{
if (ReleaseSpot(pos, cookie))
{
_semaphoreSlim.Release();
}
tcs.TrySetException(ex);
}
return(tcs.Task);
}
/// <summary>
/// The request message is expected to have multiple receivers, and multiple replies.
/// The replies will be aggregated and returned, respecting up to a minimum set by minExpectedReplies, and
/// if unsuccessful a timeout error will be thrown.
/// </summary>
public TaskSlim <IEnumerable <MessageDelivery> > CallAggregate(string exchange, string routing, BasicProperties properties,
ArraySegment <byte> buffer, int minExpectedReplies)
{
_semaphoreSlim.Wait();
var task = _taskResultPool.GetObject();
uint correlationId;
long pos;
if (!SecureSpotAndUniqueCorrelationId(task, out pos, out correlationId))
{
_semaphoreSlim.Release();
// NOTE: If our use of semaphore is correct, this should never happen:
LogAdapter.LogError("RpcAggregateHelper", "Maxed calls: " + _maxConcurrentCalls);
task.SetException(new Exception("reached max calls"));
return(task);
}
var cookie = Rnd.Next();
var state = _pendingAggregationState[pos];
lock (state) // bad, but chances of s*** happening are too high
{
Interlocked.Exchange(ref state.waitingCount, minExpectedReplies);
Interlocked.Exchange(ref state.cookie, cookie);
state.received.Clear();
}
task.Id = correlationId; // so we can confirm we have the right instance later
task.Started = DateTime.Now.Ticks;
try
{
var prop = properties ?? _channel.RentBasicProperties();
prop.CorrelationId = correlationId + Separator[0].ToString() + cookie;
prop.ReplyTo = _replyQueueName.Name;
// TODO: confirm this doesnt cause more overhead to rabbitmq
if (_timeoutInMs.HasValue)
{
// prop.Expiration = _timeoutInMs.ToString();
}
_channel.BasicPublishFast(exchange, routing, true, prop, buffer);
}
catch (Exception ex)
{
// release spot
Interlocked.Exchange(ref _pendingCalls[pos], null);
_semaphoreSlim.Release();
task.SetException(ex);
}
return(task);
}
internal async Task DispatchDeliveredMessage(string consumerTag, ulong deliveryTag, bool redelivered,
string exchange, string routingKey, int bodySize, BasicProperties properties, Stream stream)
{
BasicConsumerSubscriptionInfo consumer;
if (_consumerSubscriptions.TryGetValue(consumerTag, out consumer))
{
var delivery = new MessageDelivery()
{
bodySize = bodySize,
properties = properties,
routingKey = routingKey,
deliveryTag = deliveryTag,
redelivered = redelivered
};
var mode = consumer.Mode;
var cb = consumer.Callback;
var consumerInstance = consumer._consumer;
if (mode == ConsumeMode.SingleThreaded)
{
// run with scissors, we're letting
// the user code mess with the ring buffer in the name of performance
delivery.stream = stream;
// upon return it's assumed the user has consumed from the stream and is done with it
try
{
if (cb != null)
{
await cb(delivery);
}
else
{
await consumerInstance.Consume(delivery);
}
}
finally
{
// fingers crossed the user cloned the buffer if she needs it later
this.Return(properties);
}
}
else
{
// parallel mode. it cannot hold the frame handler, so we copy the buffer (yuck) and more forward
// since we dont have any control on how the user
// will deal with the buffer we cant even re-use/use a pool, etc :-(
// Idea: split Ringbuffer consumers, create reader barrier. once they are all done,
// move the read pos forward. Shouldnt be too hard to implement and
// avoids the new buffer + GC and keeps the api Stream based consistently
if (mode == ConsumeMode.ParallelWithBufferCopy)
{
var bufferCopy = BufferUtil.Copy(stream as RingBufferStreamAdapter, (int)bodySize);
var memStream = new MemoryStream(bufferCopy, writable: false);
delivery.stream = memStream;
}
// else if (mode == ConsumeMode.ParallelWithReadBarrier)
// {
// var readBarrier = new RingBufferStreamReadBarrier(stream as RingBufferStreamAdapter, delivery.bodySize);
// delivery.stream = readBarrier;
// }
#pragma warning disable 4014
Task.Factory.StartNew(async() =>
// ThreadPool.UnsafeQueueUserWorkItem((param) =>
#pragma warning restore 4014
{
try
{
using (delivery.stream)
{
if (cb != null)
{
await cb(delivery);
}
else
{
await consumerInstance.Consume(delivery);
}
}
}
catch (Exception e)
{
Console.WriteLine("From threadpool " + e);
}
finally
{
this.Return(properties);
}
}, TaskCreationOptions.PreferFairness);
}
}
else
{
// received msg but nobody was subscribed to get it (?) TODO: log it at least
}
}
internal void __BasicPublish(string exchange, string routingKey, bool mandatory, bool immediate,
BasicProperties properties, ArraySegment<byte> buffer)
{
if (properties == null)
{
properties = BasicProperties.Empty;
}
var args = _basicPubArgsPool.GetObject();
args.exchange = exchange;
args.immediate = immediate;
args.routingKey = routingKey;
args.mandatory = mandatory;
args.properties = properties;
args.buffer = buffer;
_connectionIo.SendCommand(_channelNum, 60, 40,
null, // writer
reply: (channel, classMethodId, error) =>
{
if (properties.IsReusable)
{
_channel.Return(properties); // the tcs is left for the confirmation keeper
}
return Task.CompletedTask;
},
expectsReply: false,
optArg: args);
}
internal TaskSlim __BasicPublishConfirm(string exchange, string routingKey, bool mandatory, bool immediate,
BasicProperties properties, ArraySegment<byte> buffer)
{
if (properties == null)
{
properties = BasicProperties.Empty;
}
var confirmationKeeper = _channel._confirmationKeeper;
TaskSlim tcs = _taskLightPool.GetObject();
confirmationKeeper.WaitForSemaphore(); // make sure we're not over the limit
var args = _basicPubArgsPool.GetObject();
args.exchange = exchange;
args.immediate = immediate;
args.routingKey = routingKey;
args.mandatory = mandatory;
args.properties = properties;
args.buffer = buffer;
_connectionIo.SendCommand(_channelNum, 60, 40,
null, // AmqpChannelLevelFrameWriter.InternalBasicPublish,
reply: (channel, classMethodId, error) =>
{
if (properties.IsReusable)
{
_channel.Return(properties); // the tcs is left for the confirmation keeper
}
return Task.CompletedTask;
},
expectsReply: false,
tcsL: null,
optArg: args,
prepare: () => _channel._confirmationKeeper.Add(tcs));
return tcs;
}
public static TaskSlim BasicPublish(this Channel source,
string exchange, string routingKey, bool mandatory, bool immediate,
BasicProperties properties, byte[] buffer)
{
return source.BasicPublish(exchange, routingKey, mandatory, immediate, properties, new ArraySegment<byte>(buffer));
}
public static void BasicPublishFast(this Channel source,
string exchange, string routingKey, bool mandatory,
BasicProperties properties, byte[] buffer)
{
source.BasicPublishFast(exchange, routingKey, mandatory, false, properties, new ArraySegment<byte>(buffer));
}
