/** @author [email protected] */ public abstract class ConnectionOrientedMessageChannel extends MessageChannel implements SIPMessageListener, Runnable, RawMessageChannel { private static StackLogger logger = CommonLogger.getLogger(ConnectionOrientedMessageChannel.class); protected SIPTransactionStack sipStack; protected Socket mySock; protected PipelinedMsgParser myParser; protected String key; protected InputStream myClientInputStream; // just to pass to thread. // Set here on initialization to avoid thread leak. See issue 266 protected boolean isRunning = true; protected boolean isCached; protected Thread mythread; protected String myAddress; protected int myPort; protected InetAddress peerAddress; // This is the port and adress that we will find in the headers of the messages from the peer protected int peerPortAdvertisedInHeaders = -1; protected String peerAddressAdvertisedInHeaders; protected int peerPort; protected String peerProtocol; private volatile long lastKeepAliveReceivedTime; private SIPStackTimerTask pingKeepAliveTimeoutTask; private Semaphore keepAliveSemaphore; private long keepAliveTimeout; public ConnectionOrientedMessageChannel(SIPTransactionStack sipStack) { this.sipStack = sipStack; this.keepAliveTimeout = sipStack.getReliableConnectionKeepAliveTimeout(); if (keepAliveTimeout > 0) { keepAliveSemaphore = new Semaphore(1); } } /** Returns "true" as this is a reliable transport. */ public boolean isReliable() { return true; } /** Close the message channel. */ public void close() { close(true, true); } protected abstract void close(boolean removeSocket, boolean stopKeepAliveTask); /** * Get my SIP Stack. * * @return The SIP Stack for this message channel. */ public SIPTransactionStack getSIPStack() { return sipStack; } /** * get the address of the client that sent the data to us. * * @return Address of the client that sent us data that resulted in this channel being created. */ public String getPeerAddress() { if (peerAddress != null) { return peerAddress.getHostAddress(); } else return getHost(); } protected InetAddress getPeerInetAddress() { return peerAddress; } public String getPeerProtocol() { return this.peerProtocol; } /** * Return a formatted message to the client. We try to re-connect with the peer on the other end * if possible. * * @param sipMessage Message to send. * @throws IOException If there is an error sending the message */ public void sendMessage(final SIPMessage sipMessage) throws IOException { if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG) && !sipMessage.isNullRequest()) { logger.logDebug( "sendMessage:: " + sipMessage.getFirstLine() + " cseq method = " + sipMessage.getCSeq().getMethod()); } for (MessageProcessor messageProcessor : getSIPStack().getMessageProcessors()) { if (messageProcessor.getIpAddress().getHostAddress().equals(this.getPeerAddress()) && messageProcessor.getPort() == this.getPeerPort() && messageProcessor.getTransport().equalsIgnoreCase(this.getPeerProtocol())) { Runnable processMessageTask = new Runnable() { public void run() { try { processMessage((SIPMessage) sipMessage.clone()); } catch (Exception ex) { if (logger.isLoggingEnabled(ServerLogger.TRACE_ERROR)) { logger.logError("Error self routing message cause by: ", ex); } } } }; getSIPStack().getSelfRoutingThreadpoolExecutor().execute(processMessageTask); if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) logger.logDebug("Self routing message"); return; } } byte[] msg = sipMessage.encodeAsBytes(this.getTransport()); long time = System.currentTimeMillis(); // need to store the peerPortAdvertisedInHeaders in case the response has an rport (ephemeral) // that failed to retry on the regular via port // for responses, no need to store anything for subsequent requests. if (peerPortAdvertisedInHeaders <= 0) { if (sipMessage instanceof SIPResponse) { SIPResponse sipResponse = (SIPResponse) sipMessage; Via via = sipResponse.getTopmostVia(); if (via.getRPort() > 0) { if (via.getPort() <= 0) { // if port is 0 we assume the default port for TCP this.peerPortAdvertisedInHeaders = 5060; } else { this.peerPortAdvertisedInHeaders = via.getPort(); } if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { logger.logDebug( "1.Storing peerPortAdvertisedInHeaders = " + peerPortAdvertisedInHeaders + " for via port = " + via.getPort() + " via rport = " + via.getRPort() + " and peer port = " + peerPort + " for this channel " + this + " key " + key); } } } } // JvB: also retry for responses, if the connection is gone we should // try to reconnect this.sendMessage(msg, sipMessage instanceof SIPRequest); // message was sent without any exception so let's set set port and // address before we feed it to the logger sipMessage.setRemoteAddress(this.peerAddress); sipMessage.setRemotePort(this.peerPort); sipMessage.setLocalAddress(this.getMessageProcessor().getIpAddress()); sipMessage.setLocalPort(this.getPort()); if (logger.isLoggingEnabled(ServerLogger.TRACE_MESSAGES)) logMessage(sipMessage, peerAddress, peerPort, time); } protected abstract void sendMessage(byte[] msg, boolean b) throws IOException; public void processMessage(SIPMessage sipMessage, InetAddress address) { this.peerAddress = address; try { processMessage(sipMessage); } catch (Exception e) { if (logger.isLoggingEnabled(ServerLog.TRACE_ERROR)) { logger.logError("ERROR processing self routing", e); } } } /** * Gets invoked by the parser as a callback on successful message parsing (i.e. no parser errors). * * @param sipMessage Message to process (this calls the application for processing the message). * <p>Jvb: note that this code is identical to TCPMessageChannel, refactor some day */ public void processMessage(SIPMessage sipMessage) throws Exception { try { if (sipMessage.getFrom() == null || sipMessage.getTo() == null || sipMessage.getCallId() == null || sipMessage.getCSeq() == null || sipMessage.getViaHeaders() == null) { if (logger.isLoggingEnabled()) { String badmsg = sipMessage.encode(); logger.logError("bad message " + badmsg); logger.logError(">>> Dropped Bad Msg"); } return; } sipMessage.setRemoteAddress(this.peerAddress); sipMessage.setRemotePort(this.getPeerPort()); sipMessage.setLocalAddress(this.getMessageProcessor().getIpAddress()); sipMessage.setLocalPort(this.getPort()); // Issue 3: https://telestax.atlassian.net/browse/JSIP-3 sipMessage.setPeerPacketSourceAddress(this.peerAddress); sipMessage.setPeerPacketSourcePort(this.peerPort); ViaList viaList = sipMessage.getViaHeaders(); // For a request // first via header tells where the message is coming from. // For response, this has already been recorded in the outgoing // message. if (sipMessage instanceof SIPRequest) { Via v = (Via) viaList.getFirst(); // the peer address and tag it appropriately. Hop hop = sipStack.addressResolver.resolveAddress(v.getHop()); this.peerProtocol = v.getTransport(); // if(peerPortAdvertisedInHeaders <= 0) { int hopPort = v.getPort(); if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { logger.logDebug( "hop port = " + hopPort + " for request " + sipMessage + " for this channel " + this + " key " + key); } if (hopPort <= 0) { // if port is 0 we assume the default port for TCP this.peerPortAdvertisedInHeaders = 5060; } else { this.peerPortAdvertisedInHeaders = hopPort; } if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { logger.logDebug( "3.Storing peerPortAdvertisedInHeaders = " + peerPortAdvertisedInHeaders + " for this channel " + this + " key " + key); } // } // may be needed to reconnect, when diff than peer address if (peerAddressAdvertisedInHeaders == null) { peerAddressAdvertisedInHeaders = hop.getHost(); if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { logger.logDebug( "3.Storing peerAddressAdvertisedInHeaders = " + peerAddressAdvertisedInHeaders + " for this channel " + this + " key " + key); } } try { if (mySock != null) { // selfrouting makes socket = null // https://jain-sip.dev.java.net/issues/show_bug.cgi?id=297 this.peerAddress = mySock.getInetAddress(); } // Check to see if the received parameter matches // the peer address and tag it appropriately. // JvB: dont do this. It is both costly and incorrect // Must set received also when it is a FQDN, regardless // whether // it resolves to the correct IP address // InetAddress sentByAddress = // InetAddress.getByName(hop.getHost()); // JvB: if sender added 'rport', must always set received boolean hasRPort = v.hasParameter(Via.RPORT); if (!hasRPort && v.getPort() != peerPort) { // https://github.com/RestComm/jain-sip/issues/79 if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { logger.logDebug( "setting rport since viaPort " + v.getPort() + " different than peerPacketSourcePort " + peerPort + " so that the response can be routed back"); } hasRPort = true; } if (hasRPort || !hop.getHost().equals(this.peerAddress.getHostAddress())) { v.setParameter(Via.RECEIVED, this.peerAddress.getHostAddress()); } // @@@ hagai // JvB: technically, may only do this when Via already // contains // rport v.setParameter(Via.RPORT, Integer.toString(this.peerPort)); } catch (java.text.ParseException ex) { InternalErrorHandler.handleException(ex); } // Use this for outgoing messages as well. if (!this.isCached && mySock != null) { // self routing makes // mySock=null // https://jain-sip.dev.java.net/issues/show_bug.cgi?id=297 this.isCached = true; int remotePort = ((java.net.InetSocketAddress) mySock.getRemoteSocketAddress()).getPort(); String key = IOHandler.makeKey(mySock.getInetAddress(), remotePort); if (this.messageProcessor instanceof NioTcpMessageProcessor) { // https://java.net/jira/browse/JSIP-475 don't use iohandler in case of NIO // communications of the socket will leak in the iohandler sockettable ((NioTcpMessageProcessor) this.messageProcessor) .nioHandler.putSocket(key, mySock.getChannel()); } else { sipStack.ioHandler.putSocket(key, mySock); } // since it can close the socket it needs to be after the mySock usage otherwise // it the socket will be disconnected and NPE will be thrown in some edge cases ((ConnectionOrientedMessageProcessor) this.messageProcessor).cacheMessageChannel(this); } } // Foreach part of the request header, fetch it and process it long receptionTime = System.currentTimeMillis(); // if (sipMessage instanceof SIPRequest) { // This is a request - process the request. SIPRequest sipRequest = (SIPRequest) sipMessage; // Create a new sever side request processor for this // message and let it handle the rest. if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { logger.logDebug("----Processing Message---"); } if (logger.isLoggingEnabled(ServerLogger.TRACE_MESSAGES)) { sipStack.serverLogger.logMessage( sipMessage, this.getPeerHostPort().toString(), this.messageProcessor.getIpAddress().getHostAddress() + ":" + this.messageProcessor.getPort(), false, receptionTime); } // Check for reasonable size - reject message // if it is too long. if (sipStack.getMaxMessageSize() > 0 && sipRequest.getSize() + (sipRequest.getContentLength() == null ? 0 : sipRequest.getContentLength().getContentLength()) > sipStack.getMaxMessageSize()) { SIPResponse sipResponse = sipRequest.createResponse(SIPResponse.MESSAGE_TOO_LARGE); byte[] resp = sipResponse.encodeAsBytes(this.getTransport()); this.sendMessage(resp, false); throw new Exception("Message size exceeded"); } String sipVersion = ((SIPRequest) sipMessage).getRequestLine().getSipVersion(); if (!sipVersion.equals("SIP/2.0")) { SIPResponse versionNotSupported = ((SIPRequest) sipMessage) .createResponse(Response.VERSION_NOT_SUPPORTED, "Bad SIP version " + sipVersion); this.sendMessage(versionNotSupported.encodeAsBytes(this.getTransport()), false); throw new Exception("Bad version "); } String method = ((SIPRequest) sipMessage).getMethod(); String cseqMethod = ((SIPRequest) sipMessage).getCSeqHeader().getMethod(); if (!method.equalsIgnoreCase(cseqMethod)) { SIPResponse sipResponse = sipRequest.createResponse(SIPResponse.BAD_REQUEST); byte[] resp = sipResponse.encodeAsBytes(this.getTransport()); this.sendMessage(resp, false); throw new Exception("Bad CSeq method" + sipMessage + " method " + method); } // Stack could not create a new server request interface. // maybe not enough resources. ServerRequestInterface sipServerRequest = sipStack.newSIPServerRequest(sipRequest, this); if (sipServerRequest != null) { try { sipServerRequest.processRequest(sipRequest, this); } finally { if (sipServerRequest instanceof SIPTransaction) { SIPServerTransaction sipServerTx = (SIPServerTransaction) sipServerRequest; if (!sipServerTx.passToListener()) ((SIPTransaction) sipServerRequest).releaseSem(); } } } else { if (sipStack.sipMessageValve == null) { // Allow message valves to nullify messages without error SIPResponse response = sipRequest.createResponse(Response.SERVICE_UNAVAILABLE); RetryAfter retryAfter = new RetryAfter(); // Be a good citizen and send a decent response code back. try { retryAfter.setRetryAfter((int) (10 * (Math.random()))); response.setHeader(retryAfter); this.sendMessage(response); } catch (Exception e) { // IGNore } if (logger.isLoggingEnabled()) logger.logWarning("Dropping message -- could not acquire semaphore"); } } } else { SIPResponse sipResponse = (SIPResponse) sipMessage; // JvB: dont do this // if (sipResponse.getStatusCode() == 100) // sipResponse.getTo().removeParameter("tag"); try { sipResponse.checkHeaders(); } catch (ParseException ex) { if (logger.isLoggingEnabled()) logger.logError("Dropping Badly formatted response message >>> " + sipResponse); return; } // This is a response message - process it. // Check the size of the response. // If it is too large dump it silently. if (sipStack.getMaxMessageSize() > 0 && sipResponse.getSize() + (sipResponse.getContentLength() == null ? 0 : sipResponse.getContentLength().getContentLength()) > sipStack.getMaxMessageSize()) { if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) logger.logDebug("Message size exceeded"); return; } ServerResponseInterface sipServerResponse = sipStack.newSIPServerResponse(sipResponse, this); if (sipServerResponse != null) { try { if (sipServerResponse instanceof SIPClientTransaction && !((SIPClientTransaction) sipServerResponse).checkFromTag(sipResponse)) { if (logger.isLoggingEnabled()) logger.logError("Dropping response message with invalid tag >>> " + sipResponse); return; } sipServerResponse.processResponse(sipResponse, this); } finally { if (sipServerResponse instanceof SIPTransaction && !((SIPTransaction) sipServerResponse).passToListener()) { // Note that the semaphore is released in event // scanner if the // request is actually processed by the Listener. ((SIPTransaction) sipServerResponse).releaseSem(); } } } else { logger.logWarning( "Application is blocked -- could not acquire semaphore -- dropping response"); } } } finally { } } /** * This gets invoked when thread.start is called from the constructor. Implements a message loop - * reading the tcp connection and processing messages until we are done or the other end has * closed. */ public void run() { Pipeline hispipe = null; // Create a pipeline to connect to our message parser. hispipe = new Pipeline( myClientInputStream, sipStack.readTimeout, ((SIPTransactionStack) sipStack).getTimer()); // Create a pipelined message parser to read and parse // messages that we write out to him. myParser = new PipelinedMsgParser(sipStack, this, hispipe, this.sipStack.getMaxMessageSize()); // Start running the parser thread. myParser.processInput(); // bug fix by Emmanuel Proulx int bufferSize = 4096; ((ConnectionOrientedMessageProcessor) this.messageProcessor).useCount++; this.isRunning = true; try { while (true) { try { byte[] msg = new byte[bufferSize]; int nbytes = myClientInputStream.read(msg, 0, bufferSize); // no more bytes to read... if (nbytes == -1) { hispipe.write("\r\n\r\n".getBytes("UTF-8")); try { if (sipStack.maxConnections != -1) { synchronized (messageProcessor) { ((ConnectionOrientedMessageProcessor) this.messageProcessor).nConnections--; messageProcessor.notify(); } } hispipe.close(); close(); } catch (IOException ioex) { } return; } hispipe.write(msg, 0, nbytes); } catch (IOException ex) { // Terminate the message. try { hispipe.write("\r\n\r\n".getBytes("UTF-8")); } catch (Exception e) { // InternalErrorHandler.handleException(e); } try { if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) logger.logDebug("IOException closing sock " + ex); try { if (sipStack.maxConnections != -1) { synchronized (messageProcessor) { ((ConnectionOrientedMessageProcessor) this.messageProcessor).nConnections--; messageProcessor.notify(); } } close(); hispipe.close(); } catch (IOException ioex) { } } catch (Exception ex1) { // Do nothing. } return; } catch (Exception ex) { InternalErrorHandler.handleException(ex, logger); } } } finally { this.isRunning = false; ((ConnectionOrientedMessageProcessor) this.messageProcessor).remove(this); ((ConnectionOrientedMessageProcessor) this.messageProcessor).useCount--; // parser could be null if the socket was closed by the remote end already if (myParser != null) { myParser.close(); } } } protected void uncache() { if (isCached && !isRunning) { ((ConnectionOrientedMessageProcessor) this.messageProcessor).remove(this); } } /** * Get an identifying key. This key is used to cache the connection and re-use it if necessary. */ public String getKey() { if (this.key != null) { return this.key; } else { this.key = MessageChannel.getKey(this.peerAddress, this.peerPort, getTransport()); return this.key; } } /** * Get the host to assign to outgoing messages. * * @return the host to assign to the via header. */ public String getViaHost() { return myAddress; } /** * Get the port for outgoing messages sent from the channel. * * @return the port to assign to the via header. */ public int getViaPort() { return myPort; } /** * Get the port of the peer to whom we are sending messages. * * @return the peer port. */ public int getPeerPort() { return peerPort; } public int getPeerPacketSourcePort() { return this.peerPort; } public InetAddress getPeerPacketSourceAddress() { return this.peerAddress; } /* * (non-Javadoc) * @see gov.nist.javax.sip.parser.SIPMessageListener#sendSingleCLRF() */ public void sendSingleCLRF() throws Exception { lastKeepAliveReceivedTime = System.currentTimeMillis(); if (mySock != null && !mySock.isClosed()) { sendMessage("\r\n".getBytes("UTF-8"), false); } synchronized (this) { if (isRunning) { if (keepAliveTimeout > 0) { rescheduleKeepAliveTimeout(keepAliveTimeout); } } } } public void cancelPingKeepAliveTimeoutTaskIfStarted() { if (pingKeepAliveTimeoutTask != null && pingKeepAliveTimeoutTask.getSipTimerTask() != null) { try { keepAliveSemaphore.acquire(); } catch (InterruptedException e) { logger.logError("Couldn't acquire keepAliveSemaphore"); return; } try { if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { logger.logDebug( "~~~ cancelPingKeepAliveTimeoutTaskIfStarted for MessageChannel(key=" + key + "), clientAddress=" + peerAddress + ", clientPort=" + peerPort + ", timeout=" + keepAliveTimeout + ")"); } sipStack.getTimer().cancel(pingKeepAliveTimeoutTask); } finally { keepAliveSemaphore.release(); } } } public void setKeepAliveTimeout(long keepAliveTimeout) { if (keepAliveTimeout < 0) { cancelPingKeepAliveTimeoutTaskIfStarted(); } if (keepAliveTimeout == 0) { keepAliveTimeout = messageProcessor.getSIPStack().getReliableConnectionKeepAliveTimeout(); } if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { logger.logDebug( "~~~ setKeepAliveTimeout for MessageChannel(key=" + key + "), clientAddress=" + peerAddress + ", clientPort=" + peerPort + ", timeout=" + keepAliveTimeout + ")"); } this.keepAliveTimeout = keepAliveTimeout; if (keepAliveSemaphore == null) { keepAliveSemaphore = new Semaphore(1); } boolean isKeepAliveTimeoutTaskScheduled = pingKeepAliveTimeoutTask != null; if (isKeepAliveTimeoutTaskScheduled && keepAliveTimeout > 0) { rescheduleKeepAliveTimeout(keepAliveTimeout); } } public long getKeepAliveTimeout() { return keepAliveTimeout; } public void rescheduleKeepAliveTimeout(long newKeepAliveTimeout) { // long now = System.currentTimeMillis(); // long lastKeepAliveReceivedTimeOrNow = lastKeepAliveReceivedTime == 0 ? now : // lastKeepAliveReceivedTime; // // long newScheduledTime = lastKeepAliveReceivedTimeOrNow + newKeepAliveTimeout; StringBuilder methodLog = new StringBuilder(); if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { methodLog.append( "~~~ rescheduleKeepAliveTimeout for MessageChannel(key=" + key + "), clientAddress=" + peerAddress + ", clientPort=" + peerPort + ", timeout=" + keepAliveTimeout + "): newKeepAliveTimeout="); if (newKeepAliveTimeout == Long.MAX_VALUE) { methodLog.append("Long.MAX_VALUE"); } else { methodLog.append(newKeepAliveTimeout); } // methodLog.append(", lastKeepAliveReceivedTimeOrNow="); // methodLog.append(lastKeepAliveReceivedTimeOrNow); // methodLog.append(", newScheduledTime="); // methodLog.append(newScheduledTime); } // long delay = newScheduledTime > now ? newScheduledTime - now : 1; try { keepAliveSemaphore.acquire(); } catch (InterruptedException e) { logger.logWarning("Couldn't acquire keepAliveSemaphore"); return; } try { if (pingKeepAliveTimeoutTask == null) { pingKeepAliveTimeoutTask = new KeepAliveTimeoutTimerTask(); if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { methodLog.append(", scheduling pingKeepAliveTimeoutTask to execute after "); methodLog.append(keepAliveTimeout / 1000); methodLog.append(" seconds"); logger.logDebug(methodLog.toString()); } sipStack.getTimer().schedule(pingKeepAliveTimeoutTask, keepAliveTimeout); } else { if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { logger.logDebug( "~~~ cancelPingKeepAliveTimeout for MessageChannel(key=" + key + "), clientAddress=" + peerAddress + ", clientPort=" + peerPort + ", timeout=" + keepAliveTimeout + ")"); } sipStack.getTimer().cancel(pingKeepAliveTimeoutTask); pingKeepAliveTimeoutTask = new KeepAliveTimeoutTimerTask(); if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { methodLog.append(", scheduling pingKeepAliveTimeoutTask to execute after "); methodLog.append(keepAliveTimeout / 1000); methodLog.append(" seconds"); logger.logDebug(methodLog.toString()); } sipStack.getTimer().schedule(pingKeepAliveTimeoutTask, keepAliveTimeout); } } finally { keepAliveSemaphore.release(); } } class KeepAliveTimeoutTimerTask extends SIPStackTimerTask { public void runTask() { if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) { logger.logDebug( "~~~ Starting processing of KeepAliveTimeoutEvent( " + peerAddress.getHostAddress() + "," + peerPort + ")..."); } close(true, true); if (sipStack instanceof SipStackImpl) { for (Iterator<SipProviderImpl> it = ((SipStackImpl) sipStack).getSipProviders(); it.hasNext(); ) { SipProviderImpl nextProvider = (SipProviderImpl) it.next(); SipListener sipListener = nextProvider.getSipListener(); ListeningPoint[] listeningPoints = nextProvider.getListeningPoints(); for (ListeningPoint listeningPoint : listeningPoints) { if (sipListener != null && sipListener instanceof SipListenerExt // making sure that we don't notify each listening point but only the one on which // the timeout happened && listeningPoint.getIPAddress().equalsIgnoreCase(myAddress) && listeningPoint.getPort() == myPort && listeningPoint.getTransport().equalsIgnoreCase(getTransport())) { ((SipListenerExt) sipListener) .processIOException( new IOExceptionEventExt( nextProvider, Reason.KeepAliveTimeout, myAddress, myPort, peerAddress.getHostAddress(), peerPort, getTransport())); } } } } else { SipListener sipListener = sipStack.getSipListener(); if (sipListener instanceof SipListenerExt) { ((SipListenerExt) sipListener) .processIOException( new IOExceptionEventExt( this, Reason.KeepAliveTimeout, myAddress, myPort, peerAddress.getHostAddress(), peerPort, getTransport())); } } } } }
/**
* This is a stack abstraction for TCP connections. This abstracts a stream of parsed messages. The
* SIP sipStack starts this from the main SIPStack class for each connection that it accepts. It
* starts a message parser in its own thread and talks to the message parser via a pipe. The message
* parser calls back via the parseError or processMessage functions that are defined as part of the
* SIPMessageListener interface.
*
* @see gov.nist.javax.sip.parser.PipelinedMsgParser
* @author M. Ranganathan <br>
* @version 1.2 $Revision: 1.83 $ $Date: 2010-12-02 22:44:53 $
*/
public class TCPMessageChannel extends ConnectionOrientedMessageChannel {
private static StackLogger logger = CommonLogger.getLogger(TCPMessageChannel.class);
protected OutputStream myClientOutputStream;
protected TCPMessageChannel(SIPTransactionStack sipStack) {
super(sipStack);
}
/**
* Constructor - gets called from the SIPStack class with a socket on accepting a new client. All
* the processing of the message is done here with the sipStack being freed up to handle new
* connections. The sock input is the socket that is returned from the accept. Global data that is
* shared by all threads is accessible in the Server structure.
*
* @param sock Socket from which to read and write messages. The socket is already connected (was
* created as a result of an accept).
* @param sipStack Ptr to SIP Stack
*/
protected TCPMessageChannel(
Socket sock,
SIPTransactionStack sipStack,
TCPMessageProcessor msgProcessor,
String threadName)
throws IOException {
super(sipStack);
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("creating new TCPMessageChannel ");
logger.logStackTrace();
}
mySock = sock;
peerAddress = mySock.getInetAddress();
myAddress = msgProcessor.getIpAddress().getHostAddress();
myClientInputStream = mySock.getInputStream();
myClientOutputStream = mySock.getOutputStream();
mythread = new Thread(this);
mythread.setDaemon(true);
mythread.setName(threadName);
this.peerPort = mySock.getPort();
this.key = MessageChannel.getKey(peerAddress, peerPort, "TCP");
this.myPort = msgProcessor.getPort();
// Bug report by Vishwashanti Raj Kadiayl
super.messageProcessor = msgProcessor;
// Can drop this after response is sent potentially.
mythread.start();
}
/**
* Constructor - connects to the given inet address. Acknowledgement -- Lamine Brahimi (IBM
* Zurich) sent in a bug fix for this method. A thread was being uncessarily created.
*
* @param inetAddr inet address to connect to.
* @param sipStack is the sip sipStack from which we are created.
* @throws IOException if we cannot connect.
*/
protected TCPMessageChannel(
InetAddress inetAddr,
int port,
SIPTransactionStack sipStack,
TCPMessageProcessor messageProcessor)
throws IOException {
super(sipStack);
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("creating new TCPMessageChannel ");
logger.logStackTrace();
}
this.peerAddress = inetAddr;
this.peerPort = port;
this.myPort = messageProcessor.getPort();
this.peerProtocol = "TCP";
this.myAddress = messageProcessor.getIpAddress().getHostAddress();
// Bug report by Vishwashanti Raj Kadiayl
this.key = MessageChannel.getKey(peerAddress, peerPort, "TCP");
super.messageProcessor = messageProcessor;
}
/** Close the message channel. */
public void close(boolean removeSocket, boolean stopKeepAliveTask) {
isRunning = false;
// we need to close everything because the socket may be closed by the other end
// like in LB scenarios sending OPTIONS and killing the socket after it gets the response
if (mySock != null) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) logger.logDebug("Closing socket " + key);
try {
mySock.close();
mySock = null;
} catch (IOException ex) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG))
logger.logDebug("Error closing socket " + ex);
}
}
if (myParser != null) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG))
logger.logDebug("Closing my parser " + myParser);
myParser.close();
}
// no need to close myClientInputStream since myParser.close() above will do it
if (myClientOutputStream != null) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG))
logger.logDebug("Closing client output stream " + myClientOutputStream);
try {
myClientOutputStream.close();
} catch (IOException ex) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG))
logger.logDebug("Error closing client output stream" + ex);
}
}
if (removeSocket) {
// remove the "tcp:" part of the key to cleanup the ioHandler hashmap
String ioHandlerKey = key.substring(4);
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG))
logger.logDebug("Closing TCP socket " + ioHandlerKey);
// Issue 358 : remove socket and semaphore on close to avoid leaking
sipStack.ioHandler.removeSocket(ioHandlerKey);
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("Closing message Channel (key = " + key + ")" + this);
}
cancelPingKeepAliveTimeoutTaskIfStarted();
} else {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
String ioHandlerKey = key.substring(4);
logger.logDebug(
"not removing socket key from the cached map since it has already been updated by the iohandler.sendBytes "
+ ioHandlerKey);
}
}
}
/**
* get the transport string.
*
* @return "tcp" in this case.
*/
public String getTransport() {
return "TCP";
}
/**
* Send message to whoever is connected to us. Uses the topmost via address to send to.
*
* @param msg is the message to send.
* @param isClient
*/
protected synchronized void sendMessage(byte[] msg, boolean isClient) throws IOException {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("sendMessage isClient = " + isClient);
}
Socket sock = null;
IOException problem = null;
try {
sock =
this.sipStack.ioHandler.sendBytes(
this.messageProcessor.getIpAddress(),
this.peerAddress,
this.peerPort,
this.peerProtocol,
msg,
isClient,
this);
} catch (IOException any) {
problem = any;
logger.logWarning(
"Failed to connect "
+ this.peerAddress
+ ":"
+ this.peerPort
+ " but trying the advertised port="
+ this.peerPortAdvertisedInHeaders
+ " if it's different than the port we just failed on");
}
if (sock
== null) { // http://java.net/jira/browse/JSIP-362 If we couldn't connect to the host, try
// the advertised host and port as failsafe
if (peerAddressAdvertisedInHeaders != null && peerPortAdvertisedInHeaders > 0) {
if (logger.isLoggingEnabled(LogWriter.TRACE_WARN)) {
logger.logWarning(
"Couldn't connect to peerAddress = "
+ peerAddress
+ " peerPort = "
+ peerPort
+ " key = "
+ key
+ " retrying on peerPortAdvertisedInHeaders "
+ peerPortAdvertisedInHeaders);
}
InetAddress address = InetAddress.getByName(peerAddressAdvertisedInHeaders);
sock =
this.sipStack.ioHandler.sendBytes(
this.messageProcessor.getIpAddress(),
address,
this.peerPortAdvertisedInHeaders,
this.peerProtocol,
msg,
isClient,
this);
this.peerPort = this.peerPortAdvertisedInHeaders;
this.peerAddress = address;
this.key = MessageChannel.getKey(peerAddress, peerPort, "TCP");
if (logger.isLoggingEnabled(LogWriter.TRACE_WARN)) {
logger.logWarning(
"retry suceeded to peerAddress = "
+ peerAddress
+ " peerPortAdvertisedInHeaders = "
+ peerPortAdvertisedInHeaders
+ " key = "
+ key);
}
} else {
throw problem; // throw the original excpetion we had from the first attempt
}
}
// Created a new socket so close the old one and stick the new
// one in its place but dont do this if it is a datagram socket.
// (could have replied via udp but received via tcp!).
// if (mySock == null && s != null) {
// this.uncache();
// } else
if (sock != mySock && sock != null) {
if (mySock != null) {
if (logger.isLoggingEnabled(LogWriter.TRACE_WARN)) {
logger.logWarning("Old socket different than new socket on channel " + key);
logger.logStackTrace();
logger.logWarning("Old socket local ip address " + mySock.getLocalSocketAddress());
logger.logWarning("Old socket remote ip address " + mySock.getRemoteSocketAddress());
logger.logWarning("New socket local ip address " + sock.getLocalSocketAddress());
logger.logWarning("New socket remote ip address " + sock.getRemoteSocketAddress());
}
close(false, false);
}
if (problem == null) {
if (mySock != null) {
if (logger.isLoggingEnabled(LogWriter.TRACE_WARN)) {
logger.logWarning(
"There was no exception for the retry mechanism so creating a new thread based on the new socket for incoming "
+ key);
}
}
mySock = sock;
this.myClientInputStream = mySock.getInputStream();
this.myClientOutputStream = mySock.getOutputStream();
Thread thread = new Thread(this);
thread.setDaemon(true);
thread.setName("TCPMessageChannelThread");
thread.start();
} else {
if (logger.isLoggingEnabled(LogWriter.TRACE_WARN)) {
logger.logWarning(
"There was an exception for the retry mechanism so not creating a new thread based on the new socket for incoming "
+ key);
}
mySock = sock;
}
}
}
/**
* Send a message to a specified address.
*
* @param message Pre-formatted message to send.
* @param receiverAddress Address to send it to.
* @param receiverPort Receiver port.
* @throws IOException If there is a problem connecting or sending.
*/
public synchronized void sendMessage(
byte message[], InetAddress receiverAddress, int receiverPort, boolean retry)
throws IOException {
if (message == null || receiverAddress == null)
throw new IllegalArgumentException("Null argument");
if (peerPortAdvertisedInHeaders <= 0) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug(
"receiver port = " + receiverPort + " for this channel " + this + " key " + key);
}
if (receiverPort <= 0) {
// if port is 0 we assume the default port for TCP
this.peerPortAdvertisedInHeaders = 5060;
} else {
this.peerPortAdvertisedInHeaders = receiverPort;
}
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug(
"2.Storing peerPortAdvertisedInHeaders = "
+ peerPortAdvertisedInHeaders
+ " for this channel "
+ this
+ " key "
+ key);
}
}
Socket sock = null;
IOException problem = null;
try {
sock =
this.sipStack.ioHandler.sendBytes(
this.messageProcessor.getIpAddress(),
receiverAddress,
receiverPort,
"TCP",
message,
retry,
this);
} catch (IOException any) {
problem = any;
logger.logWarning(
"Failed to connect "
+ this.peerAddress
+ ":"
+ receiverPort
+ " but trying the advertised port="
+ this.peerPortAdvertisedInHeaders
+ " if it's different than the port we just failed on");
logger.logError("Error is ", any);
}
if (sock
== null) { // http://java.net/jira/browse/JSIP-362 If we couldn't connect to the host, try
// the advertised host:port as failsafe
if (peerAddressAdvertisedInHeaders != null && peerPortAdvertisedInHeaders > 0) {
if (logger.isLoggingEnabled(LogWriter.TRACE_WARN)) {
logger.logWarning(
"Couldn't connect to receiverAddress = "
+ receiverAddress
+ " receiverPort = "
+ receiverPort
+ " key = "
+ key
+ " retrying on peerPortAdvertisedInHeaders "
+ peerPortAdvertisedInHeaders);
}
InetAddress address = InetAddress.getByName(peerAddressAdvertisedInHeaders);
sock =
this.sipStack.ioHandler.sendBytes(
this.messageProcessor.getIpAddress(),
address,
this.peerPortAdvertisedInHeaders,
"TCP",
message,
retry,
this);
this.peerPort = this.peerPortAdvertisedInHeaders;
this.peerAddress = address;
this.key = MessageChannel.getKey(peerAddress, peerPort, "TCP");
if (logger.isLoggingEnabled(LogWriter.TRACE_WARN)) {
logger.logWarning(
"retry suceeded to peerAddress = "
+ peerAddress
+ " peerPort = "
+ peerPort
+ " key = "
+ key);
}
} else {
throw problem; // throw the original excpetion we had from the first attempt
}
}
if (sock != mySock && sock != null) {
if (mySock != null) {
if (logger.isLoggingEnabled(LogWriter.TRACE_WARN)) {
logger.logWarning("Old socket different than new socket on channel " + key);
logger.logStackTrace();
logger.logWarning("Old socket local ip address " + mySock.getLocalSocketAddress());
logger.logWarning("Old socket remote ip address " + mySock.getRemoteSocketAddress());
logger.logWarning("New socket local ip address " + sock.getLocalSocketAddress());
logger.logWarning("New socket remote ip address " + sock.getRemoteSocketAddress());
}
close(false, false);
}
if (problem == null) {
if (mySock != null) {
if (logger.isLoggingEnabled(LogWriter.TRACE_WARN)) {
logger.logWarning(
"There was no exception for the retry mechanism so creating a new thread based on the new socket for incoming "
+ key);
}
}
mySock = sock;
this.myClientInputStream = mySock.getInputStream();
this.myClientOutputStream = mySock.getOutputStream();
// start a new reader on this end of the pipe.
Thread mythread = new Thread(this);
mythread.setDaemon(true);
mythread.setName("TCPMessageChannelThread");
mythread.start();
} else {
if (logger.isLoggingEnabled(LogWriter.TRACE_WARN)) {
logger.logWarning(
"There was an exception for the retry mechanism so not creating a new thread based on the new socket for incoming "
+ key);
}
mySock = sock;
}
}
}
/**
* Exception processor for exceptions detected from the parser. (This is invoked by the parser
* when an error is detected).
*
* @param sipMessage -- the message that incurred the error.
* @param ex -- parse exception detected by the parser.
* @param header -- header that caused the error.
* @throws ParseException Thrown if we want to reject the message.
*/
public void handleException(
ParseException ex, SIPMessage sipMessage, Class hdrClass, String header, String message)
throws ParseException {
if (logger.isLoggingEnabled()) logger.logException(ex);
// Log the bad message for later reference.
if ((hdrClass != null)
&& (hdrClass.equals(From.class)
|| hdrClass.equals(To.class)
|| hdrClass.equals(CSeq.class)
|| hdrClass.equals(Via.class)
|| hdrClass.equals(CallID.class)
|| hdrClass.equals(ContentLength.class)
|| hdrClass.equals(RequestLine.class)
|| hdrClass.equals(StatusLine.class))) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("Encountered Bad Message \n" + sipMessage.toString());
}
// JvB: send a 400 response for requests (except ACK)
// Currently only UDP, @todo also other transports
String msgString = sipMessage.toString();
if (!msgString.startsWith("SIP/") && !msgString.startsWith("ACK ")) {
if (mySock != null) {
if (logger.isLoggingEnabled(LogWriter.TRACE_ERROR)) {
logger.logError("Malformed mandatory headers: closing socket! :" + mySock.toString());
}
try {
mySock.close();
} catch (IOException ie) {
if (logger.isLoggingEnabled(LogWriter.TRACE_ERROR)) {
logger.logError(
"Exception while closing socket! :" + mySock.toString() + ":" + ie.toString());
}
}
}
}
throw ex;
} else {
sipMessage.addUnparsed(header);
}
}
/**
* Equals predicate.
*
* @param other is the other object to compare ourselves to for equals
*/
public boolean equals(Object other) {
if (!this.getClass().equals(other.getClass())) return false;
else {
TCPMessageChannel that = (TCPMessageChannel) other;
if (this.mySock != that.mySock) return false;
else return true;
}
}
/** TCP Is not a secure protocol. */
public boolean isSecure() {
return false;
}
}
public class NioTlsMessageProcessor extends NioTcpMessageProcessor {
private static StackLogger logger = CommonLogger.getLogger(NioTlsMessageProcessor.class);
// Create a trust manager that does not validate certificate chains
TrustManager[] trustAllCerts =
new TrustManager[] {
new X509TrustManager() {
public java.security.cert.X509Certificate[] getAcceptedIssuers() {
return new X509Certificate[0];
}
public void checkClientTrusted(X509Certificate[] certs, String authType) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug(
"checkClientTrusted : Not validating certs " + certs + " authType " + authType);
}
}
public void checkServerTrusted(X509Certificate[] certs, String authType) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug(
"checkServerTrusted : Not validating certs " + certs + " authType " + authType);
}
}
}
};
SSLContext sslServerCtx;
SSLContext sslClientCtx;
public NioTlsMessageProcessor(InetAddress ipAddress, SIPTransactionStack sipStack, int port) {
super(ipAddress, sipStack, port);
transport = "TLS";
try {
init();
} catch (Exception e) {
throw new RuntimeException(e);
}
}
@Override
public NioTcpMessageChannel createMessageChannel(
NioTcpMessageProcessor nioTcpMessageProcessor, SocketChannel client) throws IOException {
return NioTlsMessageChannel.create(NioTlsMessageProcessor.this, client);
}
@Override
public MessageChannel createMessageChannel(HostPort targetHostPort) throws IOException {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("NioTlsMessageProcessor::createMessageChannel: " + targetHostPort);
}
NioTlsMessageChannel retval = null;
try {
String key = MessageChannel.getKey(targetHostPort, "TLS");
if (messageChannels.get(key) != null) {
retval = (NioTlsMessageChannel) this.messageChannels.get(key);
return retval;
} else {
retval =
new NioTlsMessageChannel(
targetHostPort.getInetAddress(), targetHostPort.getPort(), sipStack, this);
// retval.getSocketChannel().register(selector, SelectionKey.OP_READ);
synchronized (messageChannels) {
this.messageChannels.put(key, retval);
}
retval.isCached = true;
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("key " + key);
logger.logDebug("Creating " + retval);
}
selector.wakeup();
return retval;
}
} finally {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("MessageChannel::createMessageChannel - exit " + retval);
}
}
}
@Override
public MessageChannel createMessageChannel(InetAddress targetHost, int port) throws IOException {
String key = MessageChannel.getKey(targetHost, port, "TLS");
if (messageChannels.get(key) != null) {
return this.messageChannels.get(key);
} else {
NioTlsMessageChannel retval = new NioTlsMessageChannel(targetHost, port, sipStack, this);
selector.wakeup();
// retval.getSocketChannel().register(selector, SelectionKey.OP_READ);
this.messageChannels.put(key, retval);
retval.isCached = true;
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("key " + key);
logger.logDebug("Creating " + retval);
}
return retval;
}
}
public void init() throws Exception, CertificateException, FileNotFoundException, IOException {
if (sipStack.securityManagerProvider.getKeyManagers(false) == null
|| sipStack.securityManagerProvider.getTrustManagers(false) == null
|| sipStack.securityManagerProvider.getTrustManagers(true) == null) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("TLS initialization failed due to NULL security config");
}
return; // The settings
}
sslServerCtx = SSLContext.getInstance("TLS");
sslClientCtx = SSLContext.getInstance("TLS");
if (sipStack.getClientAuth() == ClientAuthType.DisabledAll) {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug(
"ClientAuth " + sipStack.getClientAuth() + " bypassing all cert validations");
}
sslServerCtx.init(
sipStack.securityManagerProvider.getKeyManagers(false), trustAllCerts, null);
sslClientCtx.init(sipStack.securityManagerProvider.getKeyManagers(true), trustAllCerts, null);
} else {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("ClientAuth " + sipStack.getClientAuth());
}
sslServerCtx.init(
sipStack.securityManagerProvider.getKeyManagers(false),
sipStack.securityManagerProvider.getTrustManagers(false),
null);
sslClientCtx.init(
sipStack.securityManagerProvider.getKeyManagers(true),
sipStack.securityManagerProvider.getTrustManagers(true),
null);
}
}
}
public class NioTlsWebSocketMessageChannel extends NioWebSocketMessageChannel
implements NioTlsChannelInterface {
private static StackLogger logger = CommonLogger.getLogger(NioTlsWebSocketMessageChannel.class);
SSLStateMachine sslStateMachine;
private int appBufferMax;
private int netBufferMax;
public static NioTlsWebSocketMessageChannel create(
NioTlsWebSocketMessageProcessor nioTcpMessageProcessor, SocketChannel socketChannel)
throws IOException {
NioTlsWebSocketMessageChannel retval =
(NioTlsWebSocketMessageChannel) channelMap.get(socketChannel);
if (retval == null) {
retval = new NioTlsWebSocketMessageChannel(nioTcpMessageProcessor, socketChannel);
channelMap.put(socketChannel, retval);
}
return retval;
}
protected NioTlsWebSocketMessageChannel(
NioTcpMessageProcessor nioTcpMessageProcessor, SocketChannel socketChannel)
throws IOException {
super(nioTcpMessageProcessor, socketChannel);
messageProcessor = nioTcpMessageProcessor;
myClientInputStream = socketChannel.socket().getInputStream();
try {
this.init(false);
createBuffers();
} catch (Exception e) {
throw new IOException("Can't do TLS init", e);
}
}
public void init(boolean clientMode)
throws Exception, CertificateException, FileNotFoundException, IOException {
SSLContext ctx = ((NioTlsWebSocketMessageProcessor) messageProcessor).sslServerCtx;
sslStateMachine = new SSLStateMachine(ctx.createSSLEngine(), this);
sslStateMachine.sslEngine.setUseClientMode(false);
String auth =
((SipStackImpl) super.sipStack)
.getConfigurationProperties()
.getProperty("gov.nist.javax.sip.TLS_CLIENT_AUTH_TYPE");
sslStateMachine.sslEngine.setNeedClientAuth(false);
sslStateMachine.sslEngine.setWantClientAuth(false);
String clientProtocols =
((SipStackImpl) super.sipStack)
.getConfigurationProperties()
.getProperty("gov.nist.javax.sip.TLS_CLIENT_PROTOCOLS");
if (clientProtocols != null) {
sslStateMachine.sslEngine.setEnabledProtocols(clientProtocols.split(","));
}
}
public ByteBuffer prepareEncryptedDataBuffer() {
return ByteBufferFactory.getInstance().allocateDirect(netBufferMax);
}
public ByteBuffer prepareAppDataBuffer() {
return ByteBufferFactory.getInstance().allocateDirect(appBufferMax);
}
public static class SSLReconnectedException extends IOException {
private static final long serialVersionUID = 1L;
}
@Override
protected void sendMessage(final byte[] msg, final boolean isClient) throws IOException {
checkSocketState();
ByteBuffer b = ByteBuffer.wrap(msg);
try {
sslStateMachine.wrap(
b,
ByteBufferFactory.getInstance().allocateDirect(netBufferMax),
new MessageSendCallback() {
@Override
public void doSend(byte[] bytes) throws IOException {
NioTlsWebSocketMessageChannel.super.sendMessage(bytes, isClient);
}
});
} catch (Exception e) {
throw new IOException("Can't send message", e);
}
}
public void sendEncryptedData(byte[] msg) throws IOException {
// bypass the encryption for already encrypted data or TLS metadata
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug(
"sendEncryptedData "
+ " this = "
+ this
+ " peerPort = "
+ peerPort
+ " addr = "
+ peerAddress);
}
lastActivityTimeStamp = System.currentTimeMillis();
NIOHandler nioHandler = ((NioTcpMessageProcessor) messageProcessor).nioHandler;
if (this.socketChannel != null
&& this.socketChannel.isConnected()
&& this.socketChannel.isOpen()) {
nioHandler.putSocket(NIOHandler.makeKey(this.peerAddress, this.peerPort), this.socketChannel);
}
super.sendNonWebSocketMessage(msg, false);
// super.sendMessage(msg, this.peerAddress, this.peerPort, true);
}
@Override
public void sendMessage(
final byte message[],
final InetAddress receiverAddress,
final int receiverPort,
final boolean retry)
throws IOException {
checkSocketState();
ByteBuffer b = ByteBuffer.wrap(message);
try {
sslStateMachine.wrap(
b,
ByteBufferFactory.getInstance().allocateDirect(netBufferMax),
new MessageSendCallback() {
@Override
public void doSend(byte[] bytes) throws IOException {
NioTlsWebSocketMessageChannel.super.sendTCPMessage(
bytes, receiverAddress, receiverPort, retry);
}
});
} catch (IOException e) {
throw e;
}
}
public void sendHttpMessage(
final byte message[],
final InetAddress receiverAddress,
final int receiverPort,
final boolean retry)
throws IOException {
checkSocketState();
ByteBuffer b = ByteBuffer.wrap(message);
try {
sslStateMachine.wrap(
b,
ByteBufferFactory.getInstance().allocateDirect(netBufferMax),
new MessageSendCallback() {
@Override
public void doSend(byte[] bytes) throws IOException {
NioTlsWebSocketMessageChannel.super.sendMessage(
bytes, receiverAddress, receiverPort, retry);
}
});
} catch (IOException e) {
throw e;
}
}
private void createBuffers() {
SSLSession session = sslStateMachine.sslEngine.getSession();
appBufferMax = session.getApplicationBufferSize();
netBufferMax = session.getPacketBufferSize();
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("appBufferMax=" + appBufferMax + " netBufferMax=" + netBufferMax);
}
}
public NioTlsWebSocketMessageChannel(
InetAddress inetAddress,
int port,
SIPTransactionStack sipStack,
NioTcpMessageProcessor nioTcpMessageProcessor)
throws IOException {
super(inetAddress, port, sipStack, nioTcpMessageProcessor);
try {
init(true);
createBuffers();
} catch (Exception e) {
throw new IOException("Can't init the TLS channel", e);
}
}
@Override
protected void addBytes(byte[] bytes) throws Exception {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("Adding WSS bytes for decryption " + bytes.length);
}
if (bytes.length <= 0) return;
ByteBuffer buffer = ByteBuffer.wrap(bytes);
sslStateMachine.unwrap(buffer);
}
@Override
protected void sendNonWebSocketMessage(byte[] msg, boolean isClient) throws IOException {
if (logger.isLoggingEnabled(LogWriter.TRACE_DEBUG)) {
logger.logDebug("sendMessage isClient = " + isClient + " this = " + this);
}
lastActivityTimeStamp = System.currentTimeMillis();
NIOHandler nioHandler = ((NioTcpMessageProcessor) messageProcessor).nioHandler;
if (this.socketChannel != null
&& this.socketChannel.isConnected()
&& this.socketChannel.isOpen()) {
nioHandler.putSocket(NIOHandler.makeKey(this.peerAddress, this.peerPort), this.socketChannel);
}
sendMessage(msg, this.peerAddress, this.peerPort, isClient);
}
@Override
public String getTransport() {
return "WSS";
}
@Override
public void onNewSocket(byte[] message) {
super.onNewSocket(message);
try {
if (logger.isLoggingEnabled(LogLevels.TRACE_DEBUG)) {
String last = null;
if (message != null) {
last = new String(message, "UTF-8");
}
logger.logDebug("New socket for " + this + " last message = " + last);
}
init(true);
createBuffers();
sendMessage(message, false);
} catch (Exception e) {
logger.logError("Cant reinit", e);
}
}
private void checkSocketState() throws IOException {
if (socketChannel != null && (!socketChannel.isConnected() || !socketChannel.isOpen())) {
if (logger.isLoggingEnabled(LogLevels.TRACE_DEBUG))
logger.logDebug("Need to reset SSL engine for socket " + socketChannel);
try {
init(sslStateMachine.sslEngine.getUseClientMode());
} catch (Exception ex) {
logger.logError("Cannot reset SSL engine", ex);
throw new IOException(ex);
}
}
}
@Override
public boolean isSecure() {
return true;
}
@Override
public void addPlaintextBytes(byte[] bytes) throws Exception {
super.addBytes(bytes);
}
}
/** * Implementation of the SipCache interface, backed by an Infinispan Cache * * <p>The configuration of Infinispan Cache can be set through the following Restcomm SIP Stack * property : <b>org.mobicents.ha.javax.sip.INFINISPAN_CACHE_CONFIG_PATH</b> * * <p>If there is an already existing Infinispan CacheManager instance to be used, then it can be * plugged in by specifying its JNDI name through the following property: * <b>org.mobicents.ha.javax.sip.INFINISPAN_CACHEMANAGER_JNDI_NAME</b> * * <p>If neither the Infinispan cache configuration path property, nor the CacheManager JNDI name * are specified, then a default Infinispan config will be used, which can be found at: * <b>META-INF/cache-configuration.xml</b> * * @author <A HREF="mailto:[email protected]">Gergely Posfai</A> * @author <A HREF="mailto:[email protected]">Andras Kokuti</A> */ public class InfinispanCache implements SipCache { public static final String INFINISPAN_CACHE_CONFIG_PATH = "org.mobicents.ha.javax.sip.INFINISPAN_CACHE_CONFIG_PATH"; public static final String DEFAULT_FILE_CONFIG_PATH = "META-INF/cache-configuration.xml"; public static final String INFINISPAN_CACHEMANAGER_JNDI_NAME = "org.mobicents.ha.javax.sip.INFINISPAN_CACHEMANAGER_JNDI_NAME"; private static StackLogger clusteredlogger = CommonLogger.getLogger(InfinispanCache.class); private ScheduledThreadPoolExecutor executor = null; private Properties configProperties = null; private ClusteredSipStack stack; private Cache<String, Object> dialogs; private Cache<String, Object> appDataMap; private Cache<String, Object> serverTransactions; private Cache<String, Object> serverTransactionsApp; private Cache<String, Object> clientTransactions; private Cache<String, Object> clientTransactionsApp; private CacheContainer cm; private SIPDialogCacheData dialogCacheData; private SIPServerTransactionCacheData serverTXCacheData; private SIPClientTransactionCacheData clientTXCacheData; public SIPDialog getDialog(String dialogId) throws SipCacheException { if (dialogId == null) throw new SipCacheException("No dialogId"); if (dialogCacheData != null) return dialogCacheData.getDialog(dialogId); else throw new SipCacheException("No SIPClientTransactionCache"); } public void putDialog(SIPDialog dialog) throws SipCacheException { if (dialog == null) throw new SipCacheException("SipDialog is null"); if (dialogCacheData != null) dialogCacheData.putDialog(dialog); else throw new SipCacheException("No SIPClientTransactionCache"); } public void updateDialog(SIPDialog dialog) throws SipCacheException { if (dialog == null) throw new SipCacheException("SipDialog is null"); if (dialogCacheData != null) dialogCacheData.updateDialog(dialog); else throw new SipCacheException("No SIPClientTransactionCache"); } public void removeDialog(String dialogId) throws SipCacheException { if (dialogId == null) throw new SipCacheException("No dialogId"); if (dialogCacheData != null) { dialogCacheData.removeDialog(dialogId); } else { throw new SipCacheException("No SIPClientTransactionCache"); } } public void evictDialog(String dialogId) { if (dialogCacheData != null) dialogCacheData.evictDialog(dialogId); } public SIPClientTransaction getClientTransaction(String txId) throws SipCacheException { if (clientTXCacheData != null) return clientTXCacheData.getClientTransaction(txId); else throw new SipCacheException("No SIPClientTransactionCache"); } public void putClientTransaction(SIPClientTransaction clientTransaction) throws SipCacheException { if (clientTXCacheData != null) clientTXCacheData.putClientTransaction(clientTransaction); else throw new SipCacheException("No SIPClientTransactionCache"); } public void removeClientTransaction(String txId) throws SipCacheException { if (clientTXCacheData != null) clientTXCacheData.removeClientTransaction(txId); else throw new SipCacheException("No SIPClientTransactionCache"); } public SIPServerTransaction getServerTransaction(String txId) throws SipCacheException { if (serverTXCacheData != null) return serverTXCacheData.getServerTransaction(txId); else throw new SipCacheException("No SIPServerTransactionCache"); } public void putServerTransaction(SIPServerTransaction serverTransaction) throws SipCacheException { if (serverTXCacheData != null) serverTXCacheData.putServerTransaction(serverTransaction); else throw new SipCacheException("No SIPServerTransactionCache"); } public void removeServerTransaction(String txId) throws SipCacheException { if (serverTXCacheData != null) serverTXCacheData.removeServerTransaction(txId); else throw new SipCacheException("No SIPServerTransactionCache"); } public void init() throws SipCacheException { executor = new ScheduledThreadPoolExecutor(1); final String configurationPath = configProperties.getProperty(INFINISPAN_CACHE_CONFIG_PATH, DEFAULT_FILE_CONFIG_PATH); if (configProperties.containsKey(INFINISPAN_CACHEMANAGER_JNDI_NAME)) { if (clusteredlogger.isLoggingEnabled(LogLevels.TRACE_INFO)) { clusteredlogger.logInfo( INFINISPAN_CACHEMANAGER_JNDI_NAME + " specified, trying to load Inifinispan CacheManager from JNDI " + configProperties.getProperty(INFINISPAN_CACHEMANAGER_JNDI_NAME)); } executor.scheduleAtFixedRate( new Runnable() { static final int MAX_ATTEMPTS = 30; int attempts = 0; public void run() { attempts++; // Init Infinispan CacheManager if (configProperties.containsKey(INFINISPAN_CACHEMANAGER_JNDI_NAME)) { try { InitialContext context = new InitialContext(); String cacheManagerJndiName = configProperties.getProperty(INFINISPAN_CACHEMANAGER_JNDI_NAME); cm = (CacheContainer) context.lookup(cacheManagerJndiName); if (clusteredlogger.isLoggingEnabled(LogLevels.TRACE_INFO)) { clusteredlogger.logInfo( "Found Inifinispan CacheManager: cacheManagerJndiName \"" + cacheManagerJndiName + "\" " + cm + " after attempts " + attempts); } executor.remove(this); executor.shutdown(); } catch (NamingException e) { // Inifinispan CacheManager JNDI lookup failed: could not get InitialContext or // lookup failed if (attempts > MAX_ATTEMPTS) { clusteredlogger.logError( "Inifinispan CacheManager JNDI lookup failed: could not get InitialContext or lookup failed after attempts " + attempts + " stopping there", e); executor.remove(this); executor.shutdown(); } else { if (clusteredlogger.isLoggingEnabled(LogLevels.TRACE_INFO)) { clusteredlogger.logInfo( "Inifinispan CacheManager JNDI lookup failed: could not get InitialContext or lookup failed after attempts " + attempts + ", retrying every second"); } } return; } } setupCacheStructures(); if (dialogCacheData != null) { dialogCacheData.setDialogs(dialogs); dialogCacheData.setAppDataMap(appDataMap); } if (serverTXCacheData != null) { serverTXCacheData.setServerTransactions(serverTransactions); serverTXCacheData.setServerTransactionsApp(serverTransactionsApp); } if (clientTXCacheData != null) { clientTXCacheData.setClientTransactions(clientTransactions); clientTXCacheData.setClientTransactionsApp(clientTransactionsApp); } } }, 0, 1, TimeUnit.SECONDS); } else { if (clusteredlogger.isLoggingEnabled(LogLevels.TRACE_INFO)) { clusteredlogger.logInfo( INFINISPAN_CACHEMANAGER_JNDI_NAME + " not specified, trying to load Inifinispan CacheManager from configuration file " + configurationPath); } try { if (cm == null) { cm = CacheManagerHolder.getManager(configurationPath); if (clusteredlogger.isLoggingEnabled(LogLevels.TRACE_INFO)) { clusteredlogger.logInfo( "Found Inifinispan CacheManager: configuration file from path \"" + configurationPath + "\" " + cm); } } setupCacheStructures(); } catch (IOException e) { clusteredlogger.logError( "Failed to init Inifinispan CacheManager: could not read configuration file from path \"" + configurationPath + "\"", e); } if (dialogCacheData != null) { dialogCacheData.setDialogs(dialogs); dialogCacheData.setAppDataMap(appDataMap); } if (serverTXCacheData != null) { serverTXCacheData.setServerTransactions(serverTransactions); serverTXCacheData.setServerTransactionsApp(serverTransactionsApp); } if (clientTXCacheData != null) { clientTXCacheData.setClientTransactions(clientTransactions); clientTXCacheData.setClientTransactionsApp(clientTransactionsApp); } } } private void setupCacheStructures() { InfinispanCacheListener dialogsCacheListener = new InfinispanCacheListener(stack); dialogs = cm.getCache("cache.dialogs"); appDataMap = cm.getCache("cache.appdata"); serverTransactions = cm.getCache("cache.serverTX"); serverTransactionsApp = cm.getCache("cache.serverTXApp"); clientTransactions = cm.getCache("cache.clientTX"); clientTransactionsApp = cm.getCache("cache.clientTXApp"); dialogs.addListener(dialogsCacheListener); } public void start() throws SipCacheException { dialogCacheData = new SIPDialogCacheData(stack, dialogs, appDataMap); serverTXCacheData = new SIPServerTransactionCacheData(stack, serverTransactions, serverTransactionsApp); clientTXCacheData = new SIPClientTransactionCacheData(stack, clientTransactions, clientTransactionsApp); } public void stop() throws SipCacheException { clientTXCacheData = null; serverTXCacheData = null; dialogCacheData = null; } public void setConfigurationProperties(Properties configurationProperties) { this.configProperties = configurationProperties; } public boolean inLocalMode() { return false; } public void setClusteredSipStack(ClusteredSipStack clusteredStack) { stack = clusteredStack; } public CacheContainer getCacheManager() { return cm; } }