String IdeSkin::findResource(String resource, bool httpPath) const
{
if(isValid() == false)
return String::EMPTY;
String res = resource;
// Scatta l'evento. Se risponde, tengo quello.
{
String path = utils::makeFilePath(IdeSystem::instance()->getHtdocsPath(), resource);
if(FileSystem::instance()->exists(path))
{
if(httpPath)
return _S("/") + utils::makeFilePath(OS_HTDOCS_PATH, resource);
else
return path;
}
else
{
/*
// Se è richiesto un path HTTP, e la risorsa richiesta inizia per /,
// allora la considero assoluta.
// Ad esempio, nell'elenco CSS di una skin in una extension.
// E' logico, dato che non ha senso che il nome di una risorsa inizi per /.
if( (httpPath) && (resource.starts_with(_S("/"))) )
return resource;
*/
OS_LOG_WARNING(String::format(_S("Resource '%S' not found.").c_str(), resource.c_str()));
return String::EMPTY;
}
}
}
// Core send message logic.
OsStatus OsMsgQShared::doSendCore(OsMsg* pMsg,
const OsTime& rTimeout,
UtlBoolean isUrgent,
UtlBoolean deleteWhenDone)
{
if (mSendHookFunc != NULL)
{
if (mSendHookFunc(*pMsg))
{
// by returning TRUE, the mSendHookFunc indicates that it has handled
// the message and there is no need to queue the message.
if (deleteWhenDone)
{
// Delete *pMsg, since we are done with it.
delete pMsg;
}
return OS_SUCCESS;
}
}
enqueue(pMsg);
int count = numMsgs();
if (_reportFull && 2 * count > mMaxMsgs)
{
OS_LOG_WARNING(FAC_KERNEL,
"OsMsgQShared::doSendCore message queue '" << mName.data()
<< "' is over half full - count = " << count
<< " max = " << mMaxMsgs);
}
system_tap_queue_enqueue(mName.data(), 0, _queue.size());
return OS_SUCCESS;
}
void onHouseKeepingTimer(const boost::system::error_code& e)
{
static int iteration = 0;
//
// This will fire every hour. We will simply restart the timer
// so io_serice thread does not exit. If the operation is aborted
// it would mean the io service has been terminated.
//
if (e != boost::asio::error::operation_aborted)
{
{
mutex_lock lock(_queueMutex);
OsTimer::Time now = OsTimer::now();
OsTimer::Interval skew = now - _lastTick - (TIMER_SERVICE_TICK * TIMER_TIME_UNIT);
_lastTick = now;
if (iteration++ >= 10)
{
if (skew < TIMER_TIME_UNIT)
{
OS_LOG_DEBUG(FAC_KERNEL, "OsTimer::TimerService timer resolution: " << skew << " microseconds.");
}
else
{
OS_LOG_WARNING(FAC_KERNEL, "OsTimer::TimerService timer resolution: " << skew << " microseconds.");
}
iteration = 0;
}
//
// Destroy timers that are queued back to us.
//
while (_timerQueue.size() > 0)
_timerQueue.pop();
}
_houseKeepingTimer.expires_from_now(boost::posix_time::seconds(TIMER_SERVICE_TICK));
_houseKeepingTimer.async_wait(boost::bind(&TimerService::onHouseKeepingTimer, this, boost::asio::placeholders::error));
}
}
// Thread execution code.
int SipClient::run(void* runArg)
{
OsMsg* pMsg = NULL;
OsStatus res;
// Buffer to hold data read from the socket but not yet parsed
// into incoming SIP messages.
UtlString readBuffer;
bool waitingToReportErr = FALSE; // controls whether to read-select on socket
bool tcpOnErrWaitForSend = TRUE;
int repeatedEOFs = 0;
Os::Logger::instance().log(FAC_SIP, PRI_DEBUG,
"SipClient[%s]::run start "
"tcpOnErrWaitForSend-%d waitingToReportErr-%d mbTcpOnErrWaitForSend-%d repeatedEOFs-%d",
mName.data(), tcpOnErrWaitForSend, waitingToReportErr,
mbTcpOnErrWaitForSend, repeatedEOFs);
// Wait structure:
struct pollfd fds[2];
// Incoming message on the message queue (to be sent on the socket).
fds[0].fd = mPipeReadingFd;
// Socket ready to write (to continue sending message).
// Socket ready to read (message to be received).
do
{
assert(repeatedEOFs < 20);
// The file descriptor for the socket may changemsg->getSendAddress(&fromIpAddress, &fromPort);, as OsSocket's
// can be re-opened.
fds[1].fd = mClientSocket->getSocketDescriptor();
// Initialize the revents members.
// This may not be necessary (the man page is not clear), but
// Valgrind flags 'fds[*].revents' as undefined if they aren't
// initialized.
fds[0].revents = 0;
fds[1].revents = 0;
fds[0].events = POLLIN; // only read-select on pipe
// For non-blocking connect failures, don't read-select on socket if
// the initial read showed an error but we have to wait to report it.
if (!waitingToReportErr)
{
// This is the normal path.
// Read the socket only if the socket is not shared.
// If it is shared, the ancestral SipClient will read it.
// If multiple threads attempt to read the socket, poll() may
// succeed but another may read the data, leaving us to block on
// read.
fds[1].events = mbSharedSocket ? 0 : POLLIN;
// Set wait for writing the socket if there is queued messages to
// send.
if (mWriteQueued)
{
// Wait for output on the socket to not block.
fds[1].events |= POLLOUT;
}
}
else
{
// just waiting to report error, ignore the socket
fds[1].fd =-1;
fds[1].events = 0;
}
// If there is residual data in the read buffer,
// pretend the socket is ready to read.
if (!readBuffer.isNull())
{
fds[1].revents = POLLIN;
}
else
{
// Otherwise, call poll() to wait.
int resPoll = poll(&fds[0], sizeof (fds) / sizeof (fds[0]),
POLL_TIMEOUT);
assert(resPoll >= 0 || (resPoll == -1 && errno == EINTR));
if (resPoll != 0)
{
Os::Logger::instance().log(FAC_SIP, PRI_DEBUG,
"SipClient[%s]::run "
"resPoll= %d revents: fd[0]= %x fd[1]= %x",
mName.data(),
resPoll, fds[0].revents, fds[1].revents );
}
}
if ((fds[1].revents & (POLLERR | POLLHUP)) != 0)
{
Os::Logger::instance().log(FAC_SIP, PRI_DEBUG,
"SipClient[%s]::run "
"SipMessage::poll error(%d) ",
mName.data(), errno);
if (OsSocket::isFramed(mClientSocket->getIpProtocol()))
{
Os::Logger::instance().log(FAC_SIP, PRI_ERR,
"SipClient[%s]::run "
"SipMessage::poll error(%d) got POLLERR | POLLHUP on UDP socket",
mName.data(), errno);
}
else // eg. tcp socket
// This client's socket is a connection-oriented protocol and the
// connection has been terminated (probably by the remote end).
// We must terminate the SipClient.
// We drop the queued messages, but we do not report them to
// SipUserAgent as failed sends. This will cause SipUserAgent to
// retry the send using the same transport (rather than continuing
// to the next transport), which should cause a new connection to
// be made to the remote end.
{
// On non-blocking connect failures, we need to get the first send message
// in order to successfully trigger the protocol fallback mechanism
if (!tcpOnErrWaitForSend)
{
// Return all buffered messages with a transport error indication.
emptyBuffer(TRUE);
clientStopSelf();
}
else
{
fds[1].revents &= ~(POLLERR | POLLHUP); // clear error bit if waiting
waitingToReportErr = TRUE;
}
}
}
// Check for message queue messages (fds[0]) before checking the socket(fds[1]),
// to make sure that we process shutdown messages promptly, even
// if we would be spinning trying to service the socket.
else if ((fds[0].revents & POLLIN) != 0)
{
// Poll finished because the pipe is ready to read.
// (One byte in pipe means message available in queue.)
// Only a SipClient with a derived SipClientWriteBuffer
// uses the pipe in the Sip message send process
// Check to see how many messages are in the queue.
int numberMsgs = (getMessageQueue())->numMsgs();
Os::Logger::instance().log(FAC_SIP, PRI_DEBUG,
"SipClient[%s]::run got pipe-select "
"Number of Messages waiting: %d",
mName.data(),
numberMsgs);
int i;
char buffer[1];
for (i = 0; i < numberMsgs; i++)
{
// Receive the messages.
res = receiveMessage((OsMsg*&) pMsg, OsTime::NO_WAIT);
assert(res == OS_SUCCESS);
// Normally, this is a SIP message for the write buffer. Once we have gotten
// here, we are able to report any initial non-blocking connect error.
mbTcpOnErrWaitForSend = FALSE;
tcpOnErrWaitForSend = FALSE;
Os::Logger::instance().log(FAC_SIP, PRI_DEBUG,
"SipClient[%s]::run got pipe-select "
"mbTcpOnErrWaitForSend-%d waitingToReportErr-%d mbTcpOnErrWaitForSend-%d repeatedEOFs-%d",
mName.data(), mbTcpOnErrWaitForSend, waitingToReportErr,
mbTcpOnErrWaitForSend, repeatedEOFs);
// Read 1 byte from the pipe to clear it for this message. One byte is
// inserted into the pipe for each message.
assert(read(mPipeReadingFd, &buffer, 1) == 1);
if (!handleMessage(*pMsg)) // process the message (from queue)
{
OsServerTask::handleMessage(*pMsg);
}
if (!pMsg->getSentFromISR())
{
pMsg->releaseMsg(); // free the message
}
// In order to report an unframed(eg TCP) socket error to SipUserAgent dispatcher,
// the error must be carried in a sip message from the client's message queue.
// The message holds all the identifying information.
if (waitingToReportErr)
{
// Return all buffered messages with a transport error indication.
emptyBuffer(TRUE);
clientStopSelf();
}
}
} // end reading msg-available-for-output-queue pipe
else if ((fds[1].revents & POLLOUT) != 0)
{
// Poll finished because socket is ready to write.
// Call method to continue writing data.
writeMore();
}
else if ((fds[1].revents & POLLIN) != 0)
{
// Poll finished because socket is ready to read.
// Read message.
// Must allocate a new message because SipUserAgent::dispatch will
// take ownership of it.
SipMessage* msg = new SipMessage;
int res = msg->read(mClientSocket,
HTTP_DEFAULT_SOCKET_BUFFER_SIZE,
&readBuffer);
if (res >= 65536)
{
//
// This is more than the allowable size of a SIP message. Discard!
//
UtlString remoteHostAddress;
int remoteHostPort;
msg->getSendAddress(&remoteHostAddress, &remoteHostPort);
OS_LOG_WARNING(FAC_SIP, "Received a SIP Message ("
<< res << " bytes) beyond the maximum allowable size from host "
<< remoteHostAddress.data() << ":" << remoteHostPort);
delete msg;
readBuffer.remove(0);
continue;
}
// Use readBuffer to hold any unparsed data after the message
// we read.
// Note that if a message was successfully parsed, readBuffer
// still contains as its prefix the characters of that message.
// We save them for logging purposes below and will delete them later.
UtlString remoteHostAddress;
int remoteHostPort;
msg->getSendAddress(&remoteHostAddress, &remoteHostPort);
if (!mClientSocket->isSameHost(remoteHostAddress.data(), mLocalHostAddress.data()))
{
try
{
if (!remoteHostAddress.isNull())
{
boost::asio::ip::address remoteIp = boost::asio::ip::address::from_string(remoteHostAddress.data());
if (rateLimit().isBannedAddress(remoteIp))
{
delete msg;
readBuffer.remove(0);
continue;
}
rateLimit().logPacket(remoteIp, 0);
}
}
catch(const std::exception& e)
{
Os::Logger::instance().log(FAC_SIP_INCOMING, PRI_CRIT,
"SipClient[%s]::run rate limit exception: %s", mName.data(), e.what());
}
}
// Note that input was processed at this time.
touch();
//
// Count the CR/LF to see if this is a keep-alive
//
int crlfCount = 0;
for (int i = 0; i < res; i++)
{
if (readBuffer(i) == '\r' || readBuffer(i) == '\n')
{
crlfCount++;
} else
{
break;
}
}
if (res == crlfCount)
{
repeatedEOFs = 0;
// The 'message' was a keepalive (CR-LF or CR-LF-CR-LF).
UtlString fromIpAddress;
int fromPort;
UtlString buffer;
int bufferLen;
// send one CRLF set in the reply
buffer.append("\r\n");
bufferLen = buffer.length();
// Get the send address for response.
msg->getSendAddress(&fromIpAddress, &fromPort);
if ( !portIsValid(fromPort))
{
fromPort = defaultPort();
}
// Log the message at DEBUG level.
// Only bother processing if the logs are enabled
if ( mpSipUserAgent->isMessageLoggingEnabled()
|| Os::Logger::instance().willLog(FAC_SIP_INCOMING, PRI_DEBUG)
)
{
UtlString logMessage;
logMessage.append("Read keepalive message:\n");
logMessage.append("----Local Host:");
logMessage.append(mLocalHostAddress);
logMessage.append("---- Port: ");
logMessage.appendNumber(
portIsValid(mLocalHostPort) ? mLocalHostPort : defaultPort());
logMessage.append("----\n");
logMessage.append("----Remote Host:");
logMessage.append(fromIpAddress);
logMessage.append("---- Port: ");
logMessage.appendNumber(
portIsValid(fromPort) ? fromPort : defaultPort());
logMessage.append("----\n");
logMessage.append(readBuffer.data(), res);
UtlString messageString;
logMessage.append(messageString);
logMessage.append("====================END====================\n");
// Don't bother to send the message to the SipUserAgent for its internal log.
// Write the message to the syslog.
Os::Logger::instance().log(FAC_SIP_INCOMING, PRI_DEBUG, "%s", logMessage.data());
}
// send the CR-LF response message
switch (mSocketType)
{
case OsSocket::TCP:
{
Os::Logger::instance().log(FAC_SIP, PRI_DEBUG,
"SipClient[%s]::run send TCP keep-alive CR-LF response, ",
mName.data());
SipClientSendMsg sendMsg(OsMsg::OS_EVENT,
SipClientSendMsg::SIP_CLIENT_SEND_KEEP_ALIVE,
fromIpAddress,
fromPort);
handleMessage(sendMsg); // add newly created keep-alive to write buffer
}
break;
case OsSocket::UDP:
{
Os::Logger::instance().log(FAC_SIP, PRI_DEBUG,
"SipClient[%s]::run send UDP keep-alive CR-LF response, ",
mName.data());
(dynamic_cast <OsDatagramSocket*> (mClientSocket))->write(buffer.data(),
bufferLen,
fromIpAddress,
fromPort);
}
break;
default:
break;
}
// Delete the SipMessage allocated above, which is no longer needed.
delete msg;
// Now that logging is done, remove the parsed bytes and
// remember any unparsed input for later use.
readBuffer.remove(0, res);
} // end keep-alive msg
else if (res > 0) // got message, but not keep-alive
{
// Message successfully read.
repeatedEOFs = 0;
// Do preliminary processing of message to log it,
// clean up its data, and extract any needed source address.
preprocessMessage(*msg, readBuffer, res);
// Dispatch the message.
// dispatch() takes ownership of *msg.
mpSipUserAgent->dispatch(msg);
// Now that logging is done, remove the parsed bytes and
// remember any unparsed input for later use.
readBuffer.remove(0, res);
} // end process read of >0 bytes
else
{
// Something went wrong while reading the message.
// (Possibly EOF on a connection-oriented socket.)
repeatedEOFs++;
// Delete the SipMessage allocated above, which is no longer needed.
delete msg;
Os::Logger::instance().log(FAC_SIP, PRI_DEBUG,
"SipClient[%s]::run SipMessage::read returns %d (error(%d) or EOF), "
"readBuffer = '%.1000s'",
mName.data(), res, errno, readBuffer.data());
Os::Logger::instance().log(FAC_SIP, PRI_DEBUG,
"SipClient[%s]::run error wait status "
"tcpOnErrWaitForSend-%d waitingToReportErr-%d "
"mbTcpOnErrWaitForSend-%d repeatedEOFs-%d "
"protocol %d framed %d",
mName.data(),
tcpOnErrWaitForSend, waitingToReportErr,
mbTcpOnErrWaitForSend, repeatedEOFs,
mClientSocket->getIpProtocol(),
OsSocket::isFramed(mClientSocket->getIpProtocol()));
// If the socket is not framed (is connection-oriented),
// we need to abort the connection and post a message
// :TODO: This doesn't work right for framed connection-oriented
// protocols (like SCTP), but OsSocket doesn't have an EOF-query
// method -- we need to close all connection-oriented
// sockets as well in case it was an EOF.
// Define a virtual function that returns the correct bit.
if (!OsSocket::isFramed(mClientSocket->getIpProtocol()))
{
// On non-blocking connect failures, we need to get the first send message
// in order to successfully trigger the protocol fallback mechanism
if (!tcpOnErrWaitForSend)
{
// Return all buffered messages with a transport error indication.
emptyBuffer(TRUE);
clientStopSelf();
}
else
{
fds[1].revents &= ~(POLLERR | POLLHUP); // clear error bit if waiting
waitingToReportErr = TRUE;
}
}
// Delete the data read so far, which will not have been
// deleted by HttpMessage::read.
readBuffer.remove(0);
}
} // end POLLIN reading socket
}
while (isStarted());
return 0; // and then exit
}
void StateQueuePublisher::internal_run()
{
zmq::context_t context(1);
zmq::socket_t socket(context, ZMQ_PUB);
try
{
socket.bind(_zmqBindAddress.c_str());
}
catch(zmq::error_t& error_)
{
return;
}
OS_LOG_NOTICE(FAC_NET, "StateQueuePublisher::internal_run() "
<< "Started accepting subscriptions at " << _zmqBindAddress);
while(!_terminate)
{
StateQueueRecord record;
if (_queue.dequeue(record))
{
//
// exit
//
if (_terminate)
break;
//
// publish
//
std::string eventId = record.id;
if (!record.watcherData && eventId.size() < 7)
{
OS_LOG_ERROR(FAC_NET, "StateQueuePublisher::publish eventId is too short - " << eventId);
continue;
}
try
{
s_sendmore(socket, eventId);
std::string data;
if (!record.watcherData)
{
for (std::vector<std::string>::const_iterator iter = record.exclude.begin();
iter != record.exclude.end(); iter++)
{
data += *iter;
data += " ";
}
if (data.empty())
data = "initial_data";
OS_LOG_DEBUG(FAC_NET, "StateQueuePublisher::publish "
<< " message-id: " << eventId
<< " exclude-app-id: " << data);
}
else
{
data = record.data;
}
//
// Send the address
//
s_sendmore(socket, _zmqBindAddress);
//
// Send the data vector
//
s_sendmore(socket, data);
//
// Send the number of subscribers
//
std::string ev = eventId.substr(0, 7);
int count = countSubscribers(ev);
std::string strcount = boost::lexical_cast<std::string>(count);
s_send(socket, strcount);
OS_LOG_DEBUG(FAC_NET, "StateQueuePublisher::publish ZeroMQ send: " << eventId << ":" << data);
if (!record.watcherData && !count)
{
OS_LOG_WARNING(FAC_NET, "StateQueuePublisher::publish "
<< "ZERO subscribers to handle message-id: " << eventId);
}
}
catch(zmq::error_t& error_)
{
OS_LOG_WARNING(FAC_NET, "StateQueuePublisher::publish "
<< "ZMQ Error sending publish " << eventId << " Error: " << error_.what());
}
}
else
{
OS_LOG_ERROR(FAC_NET, "FAILED TO DEQUEUE!");
}
}
OS_LOG_NOTICE(FAC_NET, "StateQueuePublisher::internal_run() TERMINATED.");
}
bool CallerAlias::getCallerAlias (
const UtlString& identity,
const UtlString& domain,
UtlString& callerAlias_
) const
{
if (!_pEntities)
return false;
EntityRecord userEntity;
EntityRecord gatewayEntity;
bool hasUserEntity = false;
bool hasGatewayEntity = false;
std::string callerAlias;
OS_LOG_INFO(FAC_SIP, "CallerAlias::getCallerAlias - EntityDB::findByIdentity for identity=" << identity.str() << " domain=" << domain.str());
hasUserEntity = _pEntities->collection().findByIdentity(identity.str(), userEntity);
hasGatewayEntity = _pEntities->collection().findByIdentity(domain.str(), gatewayEntity);
if (hasGatewayEntity && gatewayEntity.callerId().transformExtension)
{
size_t loc = identity.str().find("@");
if (loc != std::string::npos)
{
std::string userId = identity.str().substr(0, loc);
//
// Check if we need to truncate the userId to a certain length
//
if (gatewayEntity.callerId().extensionLength > 0 && userId.length() > (size_t)gatewayEntity.callerId().extensionLength)
userId = string_right(userId, gatewayEntity.callerId().extensionLength);
//
// Now check if a prefix is specified
//
if (!gatewayEntity.callerId().extensionPrefix.empty())
{
std::string buff = gatewayEntity.callerId().extensionPrefix;
buff += userId;
userId = userId = buff;
}
callerAlias = "<sip:";
callerAlias += userId;
callerAlias += identity.str().substr(loc);
callerAlias += ">";
}
}
else
{
if (hasUserEntity && !userEntity.callerId().id.empty())
callerAlias = userEntity.callerId().id;
else if (hasGatewayEntity)
gatewayEntity.callerId().ignoreUserCalleId = true;
if (hasGatewayEntity && gatewayEntity.callerId().ignoreUserCalleId)
{
if (gatewayEntity.callerId().enforcePrivacy)
{
callerAlias = "sip:[email protected]";
}
else if (!gatewayEntity.callerId().id.empty())
{
callerAlias = gatewayEntity.callerId().id;
}
}
}
if (!callerAlias.empty())
callerAlias_ = callerAlias.c_str();
else
OS_LOG_WARNING(FAC_SIP, "CallerAlias::getCallerAlias - No caller alias configured for identity=" << identity.str() << " domain=" << domain.str());
return !callerAlias.empty();
}
