/// <summary>
/// Constructor.
/// </summary>
/// <param name="r">The reader to read data from.</param>
internal JobEvent(IBinaryRawReader r) : base(r)
{
_taskName = r.ReadString();
_taskClassName = r.ReadString();
_taskSessionId = IgniteGuid.Read(r);
_jobId = IgniteGuid.Read(r);
_taskNode = ReadNode(r);
_taskSubjectId = r.ReadGuid();
}
/// <summary>
/// Constructor.
/// </summary>
/// <param name="r">The reader to read data from.</param>
internal JobEvent(IPortableRawReader r) : base(r)
{
_taskName = r.ReadString();
_taskClassName = r.ReadString();
_taskSessionId = IgniteGuid.ReadPortable(r);
_jobId = IgniteGuid.ReadPortable(r);
_taskNode = ReadNode(r);
_taskSubjectId = r.ReadGuid() ?? Guid.Empty;
}
/// <summary>
/// Constructor.
/// </summary>
/// <param name="r">The reader to read data from.</param>
internal CacheRebalancingEvent(IPortableRawReader r) : base(r)
{
_cacheName = r.ReadString();
_partition = r.ReadInt();
_discoveryNode = ReadNode(r);
_discoveryEventType = r.ReadInt();
_discoveryEventName = r.ReadString();
_discoveryTimestamp = r.ReadLong();
}
/// <summary>
/// Constructor.
/// </summary>
/// <param name="r">The reader to read data from.</param>
internal DiscoveryEvent(IPortableRawReader r) : base(r)
{
_eventNode = ReadNode(r);
_topologyVersion = r.ReadLong();
var nodes = IgniteUtils.ReadNodes(r);
_topologyNodes = nodes == null ? null : new ReadOnlyCollection<IClusterNode>(nodes);
}
/** <inheritDoc /> */
public IClusterGroup ForHost(IClusterNode node)
{
IgniteArgumentCheck.NotNull(node, "node");
var prj = DoOutOpObject(OpForHost, writer =>
{
writer.WriteGuid(node.Id);
});
return(GetClusterGroup(prj));
}
public bool RemoveNode(IClusterNode removedNode)
{
if (Nodes.TryRemove(removedNode.EndPoint, out removedNode))
{
_logger.LogDebug("Removing {0}", removedNode.EndPoint);
removedNode.Dispose();
removedNode = null;
return(true);
}
return(false);
}
public bool RemoveNode(IClusterNode removedNode)
{
_logger.LogDebug("Removing node {endPoint} from {nodes}.", _redactor.SystemData(removedNode.EndPoint), Nodes);
if (Nodes.Remove(removedNode.EndPoint, out removedNode))
{
_logger.LogDebug("Removed node {endPoint} from {nodes}", _redactor.SystemData(removedNode.EndPoint), Nodes);
removedNode.Dispose();
return(true);
}
return(false);
}
/** <inheritDoc /> */
public IClusterGroup ForHost(IClusterNode node)
{
IgniteArgumentCheck.NotNull(node, "node");
IUnmanagedTarget prj = DoProjetionOutOp(OpForHost, writer =>
{
writer.WriteGuid(node.Id);
});
return(GetClusterGroup(prj));
}
public SCircleLayoutForCircles(CircleNodeScene scene,
IClusterNode clusterNode)
: base(scene.Graph, clusterNode)
{
this.mScene = scene;
Box2F bbox = clusterNode.LayoutBBox;
this.CenterX = bbox.X + bbox.W / 2;
this.CenterY = bbox.Y + bbox.H / 2;
this.AdaptToSizeChanges = true;
}
/// <summary>
/// Asserts that client and server node representations are equals.
/// </summary>
/// <param name="clusterNode"></param>
/// <param name="clientNode"></param>
private static void AssertNodesAreEqual(IClusterNode clusterNode, IClientClusterNode clientNode)
{
AssertExtensions.ReflectionEqual(clusterNode.Id, clientNode.Id);
AssertExtensions.ReflectionEqual(clusterNode.Addresses, clientNode.Addresses);
AssertExtensions.ReflectionEqual(clusterNode.HostNames, clientNode.HostNames);
AssertExtensions.ReflectionEqual(clusterNode.IsClient, clientNode.IsClient);
AssertExtensions.ReflectionEqual(clusterNode.IsDaemon, clientNode.IsDaemon);
AssertExtensions.ReflectionEqual(clusterNode.IsLocal, clientNode.IsLocal);
AssertExtensions.ReflectionEqual(clusterNode.Order, clientNode.Order);
AssertExtensions.ReflectionEqual(clusterNode.Version, clientNode.Version);
AssertExtensions.ReflectionEqual(clusterNode.Attributes, clientNode.Attributes);
}
/** <inheritDoc /> */
public IDictionary <IComputeJob <int>, IClusterNode> Map(IList <IClusterNode> subgrid, string arg)
{
var res = new Dictionary <IComputeJob <int>, IClusterNode>();
var job = new StringLengthEmptyJob(arg);
IClusterNode node = subgrid[TestUtils.Random.Next(subgrid.Count)];
res.Add(job, node);
return(res);
}
public virtual void OnGenerateEnd(IClusterNode root)
{
if (IsVerbose)
{
int estimatedMaxNodeCount = CalculateEstimatedNodeCount(MaxBucketCounts);
int estimatedMinNodeCount = CalculateEstimatedNodeCount(MinBucketCounts);
int actualNodeCount = CountNodes <int> .Count <ClusterTree, IClusterNode>(null, root);
Console.WriteLine("Nodes: estimated min: {0:#,#}, estimated max: {1:#,#}, actual: {2:#,#}",
estimatedMinNodeCount, estimatedMaxNodeCount, actualNodeCount);
}
}
/// <summary>
/// Initializes a new instance of the <see cref="EventBase"/> class.
/// </summary>
/// <param name="r">The reader to read data from.</param>
protected EventBase(IPortableRawReader r)
{
_id = IgniteGuid.ReadPortable(r);
_localOrder = r.ReadLong();
_node = ReadNode(r);
_message = r.ReadString();
_type = r.ReadInt();
_name = r.ReadString();
_timeStamp = r.ReadDate() ?? DateTime.Now;
}
public void TestAffinity()
{
IIgnite g = Ignition.GetIgnite("grid-0");
ICacheAffinity aff = g.GetAffinity("default");
IClusterNode node = aff.MapKeyToNode(new AffinityTestKey(0, 1));
for (int i = 0; i < 10; i++)
{
Assert.AreEqual(node.Id, aff.MapKeyToNode(new AffinityTestKey(i, 1)).Id);
}
}
public KKLayoutAlgorithm(Digraph <Node, Edge> graph,
IClusterNode clusterNode)
: base(graph, clusterNode)
{
this.mShortestPathsAlg
= new BasicAllShortestPaths <Node, Edge>(
new DijkstraShortestPath <Node, Edge>(
graph, false, false));
this.mXs = new double[0];
this.mYs = new double[0];
this.mHidden = new bool[0];
this.MaxIterations = 200;
}
public void TestForNodes()
{
ICollection <IClusterNode> nodes = _grid1.GetCluster().GetNodes();
IClusterNode first = nodes.ElementAt(0);
IClusterNode second = nodes.ElementAt(1);
IClusterGroup singleNodePrj = _grid1.GetCluster().ForNodeIds(first.Id);
Assert.AreEqual(1, singleNodePrj.GetNodes().Count);
Assert.AreEqual(first.Id, singleNodePrj.GetNodes().First().Id);
singleNodePrj = _grid1.GetCluster().ForNodeIds(new List <Guid> {
first.Id
});
Assert.AreEqual(1, singleNodePrj.GetNodes().Count);
Assert.AreEqual(first.Id, singleNodePrj.GetNodes().First().Id);
singleNodePrj = _grid1.GetCluster().ForNodes(first);
Assert.AreEqual(1, singleNodePrj.GetNodes().Count);
Assert.AreEqual(first.Id, singleNodePrj.GetNodes().First().Id);
singleNodePrj = _grid1.GetCluster().ForNodes(new List <IClusterNode> {
first
});
Assert.AreEqual(1, singleNodePrj.GetNodes().Count);
Assert.AreEqual(first.Id, singleNodePrj.GetNodes().First().Id);
IClusterGroup multiNodePrj = _grid1.GetCluster().ForNodeIds(first.Id, second.Id);
Assert.AreEqual(2, multiNodePrj.GetNodes().Count);
Assert.IsTrue(multiNodePrj.GetNodes().Contains(first));
Assert.IsTrue(multiNodePrj.GetNodes().Contains(second));
multiNodePrj = _grid1.GetCluster().ForNodeIds(new[] { first, second }.Select(x => x.Id));
Assert.AreEqual(2, multiNodePrj.GetNodes().Count);
Assert.IsTrue(multiNodePrj.GetNodes().Contains(first));
Assert.IsTrue(multiNodePrj.GetNodes().Contains(second));
multiNodePrj = _grid1.GetCluster().ForNodes(first, second);
Assert.AreEqual(2, multiNodePrj.GetNodes().Count);
Assert.IsTrue(multiNodePrj.GetNodes().Contains(first));
Assert.IsTrue(multiNodePrj.GetNodes().Contains(second));
multiNodePrj = _grid1.GetCluster().ForNodes(new List <IClusterNode> {
first, second
});
Assert.AreEqual(2, multiNodePrj.GetNodes().Count);
Assert.IsTrue(multiNodePrj.GetNodes().Contains(first));
Assert.IsTrue(multiNodePrj.GetNodes().Contains(second));
}
internal override async Task BootstrapAsync(IClusterNode node)
{
node.Owner = this;
//fetch the cluster map to avoid race condition with streaming http
BucketConfig = await _httpClusterMap.GetClusterMapAsync(
Name, node.BootstrapUri, CancellationToken.None).ConfigureAwait(false);
KeyMapper = new KetamaKeyMapper(BucketConfig, Context.ClusterOptions);
//the initial bootstrapping endpoint;
await node.SelectBucket(Name).ConfigureAwait(false);
LoadManifest();
await Task.Run(async() => await Context.ProcessClusterMapAsync(this, BucketConfig));
}
private void CalculateStatistics(IClusterNode n, int round, double [] minClusters, double [] maxClusters)
{
if (round == 4)
{
return;
}
int clustersCount = n.ChildrenCount;
minClusters[round] = Math.Min(minClusters[round], clustersCount);
maxClusters[round] = Math.Max(maxClusters[round], clustersCount);
for (int c = 0; c < n.ChildrenCount; ++c)
{
CalculateStatistics(n.GetChild(c), round + 1, minClusters, maxClusters);
}
}
/// <summary>
/// Writes job map.
/// </summary>
/// <param name="writer">Writer.</param>
/// <param name="map">Map</param>
/// <returns>Job handle list.</returns>
private static List <long> WriteJobs(BinaryWriter writer, IDictionary <IComputeJob <T>, IClusterNode> map)
{
Debug.Assert(writer != null && map != null);
writer.WriteInt(map.Count); // Amount of mapped jobs.
var jobHandles = new List <long>(map.Count);
var ignite = writer.Marshaller.Ignite;
try
{
foreach (KeyValuePair <IComputeJob <T>, IClusterNode> mapEntry in map)
{
var job = new ComputeJobHolder(ignite, mapEntry.Key.ToNonGeneric());
IClusterNode node = mapEntry.Value;
var jobHandle = ignite.HandleRegistry.Allocate(job);
jobHandles.Add(jobHandle);
writer.WriteLong(jobHandle);
if (node.IsLocal)
{
writer.WriteBoolean(false); // Job is not serialized.
}
else
{
writer.WriteBoolean(true); // Job is serialized.
writer.WriteObject(job);
}
writer.WriteGuid(node.Id);
}
}
catch (Exception)
{
foreach (var handle in jobHandles)
{
ignite.HandleRegistry.Release(handle);
}
throw;
}
return(jobHandles);
}
internal override async Task BootstrapAsync(IClusterNode node)
{
//fetch the cluster map to avoid race condition with streaming http
BucketConfig = await _httpClusterMap.GetClusterMapAsync(
Name, node.BootstrapEndpoint, CancellationToken.None).ConfigureAwait(false);
KeyMapper = await _ketamaKeyMapperFactory.CreateAsync(BucketConfig);
//the initial bootstrapping endpoint;
await node.SelectBucketAsync(this).ConfigureAwait(false);
LoadManifest();
await Context.ProcessClusterMapAsync(this, BucketConfig);
Bootstrapper.Start(this);
}
/// <summary>
/// Checks that node info is up to date.
/// </summary>
// ReSharper disable once ParameterOnlyUsedForPreconditionCheck.Local
private static void CheckUpdatedNodes(IIgnite client, IClusterNode localNode, ICollection <IClusterNode> nodes)
{
var localNodeNew = client.GetCluster().GetLocalNode();
Assert.AreNotSame(localNode, localNodeNew);
Assert.AreNotEqual(localNode.Id, localNodeNew.Id);
var nodesNew = client.GetCluster().GetNodes();
Assert.AreEqual(2, nodesNew.Count);
foreach (var node in nodesNew)
{
Assert.IsFalse(nodes.Any(n => n.Id == node.Id));
}
}
/// <summary>
/// Constructor.
/// </summary>
/// <param name="r">The reader to read data from.</param>
internal CacheEvent(IBinaryRawReader r) : base(r)
{
_cacheName = r.ReadString();
_partition = r.ReadInt();
_isNear = r.ReadBoolean();
_eventNode = ReadNode(r);
_key = r.ReadObject <object>();
_xid = IgniteGuid.Read(r);
_newValue = r.ReadObject <object>();
_oldValue = r.ReadObject <object>();
_hasOldValue = r.ReadBoolean();
_hasNewValue = r.ReadBoolean();
_subjectId = r.ReadGuid();
_closureClassName = r.ReadString();
_taskName = r.ReadString();
}
private async Task <T> ExecuteOnOneNode <T>(IClusterNode node, string jobClassName, object[] args)
{
IgniteArgumentCheck.NotNull(node, nameof(node));
// Try direct connection to the specified node.
if (_socket.GetEndpoint(node.Name) is { } endpoint)
{
using var writerWithoutNode = new PooledArrayBufferWriter();
Write(writerWithoutNode, writeNode: false);
using var res1 = await _socket.TryDoOutInOpAsync(endpoint, ClientOp.ComputeExecute, writerWithoutNode)
.ConfigureAwait(false);
// Result is null when there was a connection issue, but retry policy allows another try.
if (res1 != null)
{
return(Read(res1.Value));
}
}
// When direct connection is not available, use default connection and pass target node info to the server.
using var writerWithNode = new PooledArrayBufferWriter();
Write(writerWithNode, writeNode: true);
using var res2 = await _socket.DoOutInOpAsync(ClientOp.ComputeExecute, writerWithNode).ConfigureAwait(false);
return(Read(res2));
void Write(PooledArrayBufferWriter writer, bool writeNode)
{
var w = writer.GetMessageWriter();
if (writeNode)
{
w.Write(node.Name);
}
else
{
w.WriteNil();
}
w.Write(jobClassName);
w.WriteObjectArrayWithTypes(args);
w.Flush();
}
public void OnGenerateEnd(IClusterNode root)
{
if (IsVerbose)
{
int estimatedNodeCount = 1;
int power = 1;
for (int r = 0; r < 4; ++r)
{
power *= BucketCounts[r];
estimatedNodeCount += power;
}
int actualNodeCount = CountNodes <int> .Count <ClusterTree, IClusterNode>(null, root);
Console.WriteLine("Nodes: estimated: {0:#,#}, actual: {1:#,#}",
estimatedNodeCount, actualNodeCount);
}
}
/// <summary>
/// Constructor.
/// </summary>
/// <param name="r">The reader to read data from.</param>
internal CacheEvent(IPortableRawReader r) : base(r)
{
_cacheName = r.ReadString();
_partition = r.ReadInt();
_isNear = r.ReadBoolean();
_eventNode = ReadNode(r);
_key = r.ReadObject<object>();
_xid = IgniteGuid.ReadPortable(r);
_lockId = r.ReadObject<object>();
_newValue = r.ReadObject<object>();
_oldValue = r.ReadObject<object>();
_hasOldValue = r.ReadBoolean();
_hasNewValue = r.ReadBoolean();
_subjectId = r.ReadGuid() ?? Guid.Empty;
_closureClassName = r.ReadString();
_taskName = r.ReadString();
}
/// <summary>
/// Called when local client node has been disconnected from the cluster.
/// </summary>
internal void OnClientDisconnected()
{
// Clear cached node data.
// Do not clear _nodes - it is in sync with PlatformContextImpl.sentNodes.
_locNode = null;
_prj.ClearCachedNodeData();
// Raise events.
_clientReconnectTaskCompletionSource = new TaskCompletionSource <bool>();
var handler = ClientDisconnected;
if (handler != null)
{
handler.Invoke(this, EventArgs.Empty);
}
}
public Bucket[] BucketizeHands(int round, McHand[] hands, IClusterNode parentNode)
{
KMeansNode parentKmNode = (KMeansNode)parentNode;
if (hands == null || hands.Length == 0)
{
parentKmNode.AllocateChildren(1);
parentKmNode.Children[0] = new KMeansNode(Dim, 0);
return(new Bucket[] { new Bucket() });
}
double[][] centers;
double[][] values = CalcValuesAndKMeans(parentKmNode, round, hands, out centers);
if (IsVerbose)
{
Console.Write("Centers:");
PrintCenters(centers);
Console.WriteLine();
}
Array.Sort(centers, new CenterComparer());
if (IsVerbose)
{
Console.Write("Sorted centers:");
PrintCenters(centers);
Console.WriteLine();
}
parentKmNode.AllocateChildren(centers.Length);
for (int c = 0; c < centers.Length; ++c)
{
KMeansNode node = new KMeansNode(Dim, 0);
centers[c].CopyTo(node.Center, 0);
parentKmNode.Children[c] = node;
}
Bucket[] buckets = new Bucket[parentKmNode.Children.Length].Fill(i => new Bucket());
for (int i = 0; i < hands.Length; ++i)
{
// Never normalize values here, because it is either not necessary or already done (for k-means).
int abstrCard = parentKmNode.FindClosestChild(values[i], false);
buckets[abstrCard].Hands.Add(hands[i]);
}
return(buckets);
}
internal override async Task BootstrapAsync(IClusterNode node)
{
node.Owner = this;
await node.SelectBucket(this.Name);
if (SupportsCollections)
{
Manifest = await node.GetManifest().ConfigureAwait(false);
}
//we still need to add a default collection
LoadManifest();
BucketConfig = await node.GetClusterMap().ConfigureAwait(false);
KeyMapper = new VBucketKeyMapper(BucketConfig);
await Context.ProcessClusterMapAsync(this, BucketConfig);
}
public void TestAffinityBinary()
{
IIgnite g = Ignition.GetIgnite("grid-0");
ICacheAffinity aff = g.GetAffinity("default");
IBinaryObject affKey = g.GetBinary().ToBinary <IBinaryObject>(new AffinityTestKey(0, 1));
IClusterNode node = aff.MapKeyToNode(affKey);
for (int i = 0; i < 10; i++)
{
IBinaryObject otherAffKey =
g.GetBinary().ToBinary <IBinaryObject>(new AffinityTestKey(i, 1));
Assert.AreEqual(node.Id, aff.MapKeyToNode(otherAffKey).Id);
}
}
public void TestAffinityPortable()
{
IIgnite g = Ignition.GetIgnite("grid-0");
ICacheAffinity aff = g.Affinity(null);
IPortableObject affKey = g.Portables().ToPortable <IPortableObject>(new AffinityTestKey(0, 1));
IClusterNode node = aff.MapKeyToNode(affKey);
for (int i = 0; i < 10; i++)
{
IPortableObject otherAffKey =
g.Portables().ToPortable <IPortableObject>(new AffinityTestKey(i, 1));
Assert.AreEqual(node.Id, aff.MapKeyToNode(otherAffKey).Id);
}
}
protected EventBase(IBinaryRawReader r)
{
Debug.Assert(r != null);
_id = r.ReadObject <IgniteGuid>();
_localOrder = r.ReadLong();
_node = ReadNode(r);
_message = r.ReadString();
_type = r.ReadInt();
_name = r.ReadString();
var timestamp = r.ReadTimestamp();
Debug.Assert(timestamp.HasValue);
_timestamp = timestamp.Value;
}
public bool Connect(string endpoint)
{
if (Status == NodeStatus.Alive)
{
return(true);
}
try
{
string pipeName = "net.pipe://localhost/" + endpoint;
pipeName = "net.tcp://" + endpoint + "/ServiceNode";
NetTcpBinding binding = new NetTcpBinding();
binding.ReceiveTimeout = TimeSpan.MaxValue;
binding.ReliableSession.InactivityTimeout = TimeSpan.MaxValue;
binding.ReliableSession.Enabled = true;
if (channelFactory == null)
{
channelFactory = new ChannelFactory <IClusterNode>(
binding, ///new NetNamedPipeBinding(),
new EndpointAddress(pipeName));
}
channel = channelFactory.CreateChannel();
((IClientChannel)channel).Open(TimeSpan.FromMilliseconds(150));
((IClientChannel)channel).Faulted += new EventHandler(ClientChannel_Falted);
((IClientChannel)channel).Closed += new EventHandler(ClientChannel_Closed);
Status = NodeStatus.Alive;
}
catch (Exception)
{
Status = NodeStatus.Error;
return(false);
}
return(true);
}
/// <summary>
/// Creates a new layout algorithm instance to operate on the given
/// <paramref name="graph"/> using the given
/// <see cref="IClusterNode"/> instance to affect the positions
/// of the graph's nodes.</summary>
/// <param name="graph">The graph that this layout algorithm will
/// operate on by setting the positions of its nodes.</param>
/// <param name="clusterNode">The <see cref="IClusterNode"/>
/// instance that affects the positions of the nodes in the
/// <paramref name="graph"/>.</param>
/// <seealso cref="Graph"/><seealso cref="ClusterNode"/>
public LayoutAlgorithm(Digraph <Node, Edge> graph,
IClusterNode clusterNode)
: base(graph)
{
if (clusterNode == null)
{
throw new ArgumentNullException("clusterNode");
}
this.mClusterNode = clusterNode;
this.mBBox = new Box2F(0, 0, 0, 0);
uint vers = graph.NodeVersion;
this.mLastNVers = vers == 0 ? uint.MaxValue : vers - 1;
vers = graph.EdgeVersion;
this.mLastEVers = vers == 0 ? uint.MaxValue : vers - 1;
this.mLastXs = new float[0];
this.mLastYs = new float[0];
}
/// <summary>
/// Creates a new layout algorithm instance to operate on the given
/// <paramref name="graph"/> using the given <see cref="RectangleF"/>
/// instance to constrain the positions of the graph's nodes to
/// within its boundaries.
/// </summary>
/// <param name="graph">The graph that this layout algorithm will
/// operate on by setting the positions of its nodes.</param>
/// <param name="boundingBox">The <see cref="RectangleF"/> instance
/// that constrains the positions of the nodes in the
/// <paramref name="graph"/> to within its boundaries.</param>
public LayoutAlgorithm(Digraph <Node, Edge> graph,
Box2F boundingBox)
: base(graph)
{
if (boundingBox == null)
{
throw new ArgumentNullException("boundingBox");
}
this.mClusterNode = null;
this.mBBox = boundingBox;
uint vers = graph.NodeVersion;
this.mLastNVers = vers == 0 ? uint.MaxValue : vers - 1;
vers = graph.EdgeVersion;
this.mLastEVers = vers == 0 ? uint.MaxValue : vers - 1;
this.mLastXs = new float[0];
this.mLastYs = new float[0];
}
protected async Task CheckConnection(IClusterNode clusterNode)
{
//TODO temp fix for recreating dead connections - in future use CP to manage them
var connection = clusterNode.Connection;
if (connection.IsDead)
{
//recreate the connection its been closed and disposed
connection = clusterNode.EndPoint.GetConnection();
clusterNode.ServerFeatures = await connection.Hello().ConfigureAwait(false);
clusterNode.ErrorMap = await connection.GetErrorMap().ConfigureAwait(false);
await connection.Authenticate(ClusterOptions, Name).ConfigureAwait(false);
await connection.SelectBucket(Name).ConfigureAwait(false);
clusterNode.Connection = connection;
}
}
public bool Connect(string endpoint)
{
if (Status == NodeStatus.Alive)
return true;
try
{
string pipeName = "net.pipe://localhost/" + endpoint;
pipeName = "net.tcp://" + endpoint + "/ServiceNode";
NetTcpBinding binding = new NetTcpBinding();
binding.ReceiveTimeout = TimeSpan.MaxValue;
binding.ReliableSession.InactivityTimeout = TimeSpan.MaxValue;
binding.ReliableSession.Enabled = true;
if (channelFactory == null)
{
channelFactory = new ChannelFactory<IClusterNode>(
binding, ///new NetNamedPipeBinding(),
new EndpointAddress(pipeName));
}
channel = channelFactory.CreateChannel();
((IClientChannel)channel).Open(TimeSpan.FromMilliseconds(150));
((IClientChannel)channel).Faulted += new EventHandler(ClientChannel_Falted);
((IClientChannel)channel).Closed += new EventHandler(ClientChannel_Closed);
Status = NodeStatus.Alive;
}
catch (Exception)
{
Status = NodeStatus.Error;
return false;
}
return true;
}
/** <inheritdoc /> */
public bool Invoke(IClusterNode node)
{
return node.Id == NodeId;
}
