/*

  This class allows for jrtp to process packets without sending them out 
  anywhere.
  The incoming messages are handed in to jrtp through the TransmissionParams 
  and can be retreived from jrtp through the normal polling mecanisms.
  The outgoing RTP/RTCP packets are given to jrtp through the normal
  session->SendPacket() and those packets are handed back out to the
  client through a callback function (packet_ready_cb).
  
  example usage : Allows for integration of RTP into gstreamer.

  THIS HAS NOT BEEN TESTED WITH THREADS SO DON'T TRY

  Copyright (c) 2005 Philippe Khalaf <burger@speedy.org>
  
  This file is a part of JRTPLIB
  Copyright (c) 1999-2004 Jori Liesenborgs

  Contact: jori.liesenborgs@gmail.com

  This library was developed at the "Expertisecentrum Digitale Media"
  (http://www.edm.luc.ac.be), a research center of the "Limburgs Universitair
  Centrum" (http://www.luc.ac.be). The library is based upon work done for 
  my thesis at the School for Knowledge Technology (Belgium/The Netherlands).

  Permission is hereby granted, free of charge, to any person obtaining a
  copy of this software and associated documentation files (the "Software"),
  to deal in the Software without restriction, including without limitation
  the rights to use, copy, modify, merge, publish, distribute, sublicense,
  and/or sell copies of the Software, and to permit persons to whom the
  Software is furnished to do so, subject to the following conditions:

  The above copyright notice and this permission notice shall be included
  in all copies or substantial portions of the Software.

  THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS
  OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
  FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT.  IN NO EVENT SHALL
  THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
  LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING
  FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS
  IN THE SOFTWARE.

*/

#include "rtpfaketransmitter.h"

#include "rtprawpacket.h"
#include "rtpipv4address.h"
#include "rtptimeutilities.h"
#include <stdio.h>

#include <sys/socket.h>
#include <net/if.h>
#include <string.h>
#include <netdb.h>
#include <unistd.h>

#ifdef RTP_HAVE_SYS_FILIO
#include <sys/filio.h>
#endif // RTP_HAVE_SYS_FILIO

#define RTPIOCTL								ioctl

#ifdef RTPDEBUG
	#include <iostream>
#endif // RTPDEBUG

#include "rtpdebug.h"

#define RTPFAKETRANS_MAXPACKSIZE							65535
#define RTPFAKETRANS_IFREQBUFSIZE							8192

//#define RTPFAKETRANS_IS_MCASTADDR(x)							(((x)&0xF0000000) == 0xE0000000)

/*#define RTPFAKETRANS_MCASTMEMBERSHIP(socket,type,mcastip,status)	{\
										struct ip_mreq mreq;\
										\
										mreq.imr_multiaddr.s_addr = htonl(mcastip);\
										mreq.imr_interface.s_addr = htonl(bindIP);\
										status = setsockopt(socket,IPPROTO_IP,type,(const char *)&mreq,sizeof(struct ip_mreq));\
									}*/
#ifdef RTP_SUPPORT_THREAD
	#define MAINMUTEX_LOCK 		{ if (threadsafe) mainmutex.Lock(); }
	#define MAINMUTEX_UNLOCK	{ if (threadsafe) mainmutex.Unlock(); }
	#define WAITMUTEX_LOCK		{ if (threadsafe) waitmutex.Lock(); }
	#define WAITMUTEX_UNLOCK	{ if (threadsafe) waitmutex.Unlock(); }
#else
	#define MAINMUTEX_LOCK
	#define MAINMUTEX_UNLOCK
	#define WAITMUTEX_LOCK
	#define WAITMUTEX_UNLOCK
#endif // RTP_SUPPORT_THREAD

namespace jrtplib
{

RTPFakeTransmitter::RTPFakeTransmitter(RTPMemoryManager *mgr ) : RTPTransmitter(mgr), destinations(mgr,RTPMEM_TYPE_CLASS_DESTINATIONLISTHASHELEMENT),acceptignoreinfo(mgr,RTPMEM_TYPE_CLASS_ACCEPTIGNOREHASHELEMENT)
{
	created = false;
	init = false;
}

RTPFakeTransmitter::~RTPFakeTransmitter()
{
	Destroy();
}

int RTPFakeTransmitter::Init(bool tsafe)
{
	if (init)
		return ERR_RTP_FAKETRANS_ALREADYINIT;

    // bomb out if trying to use threads
    if (tsafe)
        return ERR_RTP_NOTHREADSUPPORT;
	
#ifdef RTP_SUPPORT_THREAD
	threadsafe = tsafe;
	if (threadsafe)
	{
		int status;
		
		status = mainmutex.Init();
		if (status < 0)
			return ERR_RTP_FAKETRANS_CANTINITMUTEX;
		status = waitmutex.Init();
		if (status < 0)
			return ERR_RTP_FAKETRANS_CANTINITMUTEX;
	}
#else
	if (tsafe)
		return ERR_RTP_NOTHREADSUPPORT;
#endif // RTP_SUPPORT_THREAD

	init = true;
	return 0;
}

int RTPFakeTransmitter::Create(size_t maximumpacketsize,const RTPTransmissionParams *transparams)
{
//	struct sockaddr_in addr;
//	int status;

	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;
	
	MAINMUTEX_LOCK

	if (created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_ALREADYCREATED;
	}
	
	// Obtain transmission parameters
	
	if (transparams == 0)
		params = RTPNew(GetMemoryManager(),RTPMEM_TYPE_OTHER) RTPFakeTransmissionParams;
	else
	{
		if (transparams->GetTransmissionProtocol() != RTPTransmitter::UserDefinedProto)
			return ERR_RTP_FAKETRANS_ILLEGALPARAMETERS;
		params = (RTPFakeTransmissionParams *)transparams;
	}

	// Check if portbase is even
	//if (params->GetPortbase()%2 != 0)
	//{
	//	MAINMUTEX_UNLOCK
	//	return ERR_RTP_FAKETRANS_PORTBASENOTEVEN;
	//}

	// Try to obtain local IP addresses

	localIPs = params->GetLocalIPList();
	if (localIPs.empty()) // User did not provide list of local IP addresses, calculate them
	{
		int status;
		
		if ((status = CreateLocalIPList()) < 0)
		{
			MAINMUTEX_UNLOCK
			return status;
		}
#ifdef RTPDEBUG
		std::cout << "Found these local IP addresses:" << std::endl;
		
		std::list<uint32_t>::const_iterator it;

		for (it = localIPs.begin() ; it != localIPs.end() ; it++)
		{
			RTPIPv4Address a(*it);

			std::cout << a.GetAddressString() << std::endl;
		}
#endif // RTPDEBUG
	}

//#ifdef RTP_SUPPORT_IPV4MULTICAST
//	if (SetMulticastTTL(params->GetMulticastTTL()))
//		supportsmulticasting = true;
//	else
//		supportsmulticasting = false;
//#else // no multicast support enabled
	supportsmulticasting = false;
//#endif // RTP_SUPPORT_IPV4MULTICAST

	if (maximumpacketsize > RTPFAKETRANS_MAXPACKSIZE)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_SPECIFIEDSIZETOOBIG;
	}
	
	maxpacksize = maximumpacketsize;
	portbase = params->GetPortbase();
	multicastTTL = params->GetMulticastTTL();
	receivemode = RTPTransmitter::AcceptAll;

	localhostname = 0;
	localhostnamelength = 0;

	waitingfordata = false;
	created = true;

	MAINMUTEX_UNLOCK
	return 0;
}

void RTPFakeTransmitter::Destroy()
{
	if (!init)
		return;

	MAINMUTEX_LOCK
	if (!created)
	{
		MAINMUTEX_UNLOCK;
		return;
	}

	if (localhostname)
	{
		RTPDeleteByteArray(localhostname,GetMemoryManager());
		localhostname = 0;
		localhostnamelength = 0;
	}
	
	destinations.Clear();
#ifdef RTP_SUPPORT_IPV4MULTICAST
//	multicastgroups.Clear();
#endif // RTP_SUPPORT_IPV4MULTICAST
	FlushPackets();
	ClearAcceptIgnoreInfo();
	localIPs.clear();
	created = false;
    	RTPDelete(params,GetMemoryManager());
	
	MAINMUTEX_UNLOCK
}

RTPTransmissionInfo *RTPFakeTransmitter::GetTransmissionInfo()
{
	if (!init)
		return 0;

	MAINMUTEX_LOCK
	RTPTransmissionInfo *tinf = RTPNew(GetMemoryManager(),RTPMEM_TYPE_CLASS_RTPTRANSMISSIONINFO) RTPFakeTransmissionInfo(localIPs, params);
	MAINMUTEX_UNLOCK
	return tinf;
}

void RTPFakeTransmitter::DeleteTransmissionInfo(RTPTransmissionInfo *inf)
{
	if (!init)
		return;
	RTPDelete(inf,GetMemoryManager());
}

int RTPFakeTransmitter::GetLocalHostName(uint8_t *buffer,size_t *bufferlength)
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;

	MAINMUTEX_LOCK
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}

	if (localhostname == 0)
	{
		if (localIPs.empty())
		{
			MAINMUTEX_UNLOCK
			return ERR_RTP_FAKETRANS_NOLOCALIPS;
		}
		
		std::list<uint32_t>::const_iterator it;
		std::list<std::string> hostnames;
	
		for (it = localIPs.begin() ; it != localIPs.end() ; it++)
		{
			struct hostent *he;
			uint8_t addr[4];
			uint32_t ip = (*it);
	
			addr[0] = (uint8_t)((ip>>24)&0xFF);
			addr[1] = (uint8_t)((ip>>16)&0xFF);
			addr[2] = (uint8_t)((ip>>8)&0xFF);
			addr[3] = (uint8_t)(ip&0xFF);
			he = gethostbyaddr((char *)addr,4,AF_INET);
			if (he != 0)
			{
				std::string hname = std::string(he->h_name);
				hostnames.push_back(hname);
			}
		}
	
		bool found  = false;
		
		if (!hostnames.empty())	// try to select the most appropriate hostname
		{
			std::list<std::string>::const_iterator it;
			
			for (it = hostnames.begin() ; !found && it != hostnames.end() ; it++)
			{
				if ((*it).find('.') != std::string::npos)
				{
					found = true;
					localhostnamelength = (*it).length();
					localhostname = RTPNew(GetMemoryManager(),RTPMEM_TYPE_OTHER) uint8_t [localhostnamelength+1];
					if (localhostname == 0)
					{
						MAINMUTEX_UNLOCK
						return ERR_RTP_OUTOFMEM;
					}
					memcpy(localhostname,(*it).c_str(),localhostnamelength);
					localhostname[localhostnamelength] = 0;
				}
			}
		}
	
		if (!found) // use an IP address
		{
			uint32_t ip;
			int len;
			char str[16];
			
			it = localIPs.begin();
			ip = (*it);
			
			snprintf(str,16,"%d.%d.%d.%d",(int)((ip>>24)&0xFF),(int)((ip>>16)&0xFF),(int)((ip>>8)&0xFF),(int)(ip&0xFF));
			len = strlen(str);
	
			localhostnamelength = len;
			localhostname = RTPNew(GetMemoryManager(),RTPMEM_TYPE_OTHER) uint8_t [localhostnamelength + 1];
			if (localhostname == 0)
			{
				MAINMUTEX_UNLOCK
				return ERR_RTP_OUTOFMEM;
			}
			memcpy(localhostname,str,localhostnamelength);
			localhostname[localhostnamelength] = 0;
		}
	}
	
	if ((*bufferlength) < localhostnamelength)
	{
		*bufferlength = localhostnamelength; // tell the application the required size of the buffer
		MAINMUTEX_UNLOCK
		return ERR_RTP_TRANS_BUFFERLENGTHTOOSMALL;
	}

	memcpy(buffer,localhostname,localhostnamelength);
	*bufferlength = localhostnamelength;
	
	MAINMUTEX_UNLOCK
	return 0;
}

bool RTPFakeTransmitter::ComesFromThisTransmitter(const RTPAddress *addr)
{
	if (!init)
		return false;

	if (addr == 0)
		return false;
	
	MAINMUTEX_LOCK
	
	bool v;
		
	if (created && addr->GetAddressType() == RTPAddress::IPv4Address)
	{	
		const RTPIPv4Address *addr2 = (const RTPIPv4Address *)addr;
		bool found = false;
		std::list<uint32_t>::const_iterator it;
	
		it = localIPs.begin();
		while (!found && it != localIPs.end())
		{
			if (addr2->GetIP() == *it)
				found = true;
			else
				++it;
		}
	
		if (!found)
			v = false;
		else
		{
			if (addr2->GetPort() == params->GetPortbase()) // check for RTP port
				v = true;
			else if (addr2->GetPort() == (params->GetPortbase()+1)) // check for RTCP port
				v = true;
			else 
				v = false;
		}
	}
	else
		v = false;

	MAINMUTEX_UNLOCK
	return v;
}

int RTPFakeTransmitter::Poll()
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;

	int status;
	
	MAINMUTEX_LOCK
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	status = FakePoll(); // poll RTP socket
    params->SetCurrentData(NULL);
	MAINMUTEX_UNLOCK
	return status;
}

int RTPFakeTransmitter::WaitForIncomingData(const RTPTime &delay,bool *dataavailable)
{
/*	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;
	
	MAINMUTEX_LOCK
	
	fd_set fdset;
	struct timeval tv;
	
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (waitingfordata)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_ALREADYWAITING;
	}
	
	FD_ZERO(&fdset);
	FD_SET(rtpsock,&fdset);
	FD_SET(rtcpsock,&fdset);
	FD_SET(abortdesc[0],&fdset);
	tv.tv_sec = delay.GetSeconds();
	tv.tv_usec = delay.GetMicroSeconds();
	
	waitingfordata = true;
	
	WAITMUTEX_LOCK
	MAINMUTEX_UNLOCK

	if (select(FD_SETSIZE,&fdset,0,0,&tv) < 0)
	{
		MAINMUTEX_LOCK
		waitingfordata = false;
		MAINMUTEX_UNLOCK
		WAITMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_ERRORINSELECT;
	}
	
	MAINMUTEX_LOCK
	waitingfordata = false;
	if (!created) // destroy called
	{
		MAINMUTEX_UNLOCK;
		WAITMUTEX_UNLOCK
		return 0;
	}
		
	// if aborted, read from abort buffer
	if (FD_ISSET(abortdesc[0],&fdset))
	{
#ifdef WIN32
		char buf[1];
		
		recv(abortdesc[0],buf,1,0);
#else 
		unsigned char buf[1];

		read(abortdesc[0],buf,1);
#endif // WIN32
	}
	
	MAINMUTEX_UNLOCK
	WAITMUTEX_UNLOCK
	return 0;*/
	return ERR_RTP_FAKETRANS_WAITNOTIMPLEMENTED;
}

int RTPFakeTransmitter::AbortWait()
{
/*	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;
	
	MAINMUTEX_LOCK
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (!waitingfordata)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTWAITING;
	}

	AbortWaitInternal();
	
	MAINMUTEX_UNLOCK
	return 0;*/
	return 0;
}

int RTPFakeTransmitter::SendRTPData(const void *data,size_t len)	
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;

	MAINMUTEX_LOCK
	
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (len > maxpacksize)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_SPECIFIEDSIZETOOBIG;
	}


	destinations.GotoFirstElement();
    // send to each destination
	while (destinations.HasCurrentElement())
	{
        (*params->GetPacketReadyCB())(params->GetPacketReadyCBData(), (uint8_t*)data, len,
        destinations.GetCurrentElement().GetIP_NBO(),
        destinations.GetCurrentElement().GetRTPPort_NBO(),
        1);
		destinations.GotoNextElement();
	}
	
	MAINMUTEX_UNLOCK
	return 0;
}

int RTPFakeTransmitter::SendRTCPData(const void *data,size_t len)
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;

	MAINMUTEX_LOCK

	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (len > maxpacksize)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_SPECIFIEDSIZETOOBIG;
	}

	destinations.GotoFirstElement();
    // send to each destination
	while (destinations.HasCurrentElement())
	{
        (*params->GetPacketReadyCB())(params->GetPacketReadyCBData(), (uint8_t*)data, len,
        destinations.GetCurrentElement().GetIP_NBO(),
        destinations.GetCurrentElement().GetRTCPPort_NBO(), 
        0);
		destinations.GotoNextElement();
	}
	
	MAINMUTEX_UNLOCK
	return 0;
}

int RTPFakeTransmitter::AddDestination(const RTPAddress &addr)
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;
	
	MAINMUTEX_LOCK

	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (addr.GetAddressType() != RTPAddress::IPv4Address)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_INVALIDADDRESSTYPE;
	}
	
	RTPIPv4Address &address = (RTPIPv4Address &)addr;
	RTPIPv4Destination dest(address.GetIP(),address.GetPort());
	int status = destinations.AddElement(dest);

	MAINMUTEX_UNLOCK
	return status;
}

int RTPFakeTransmitter::DeleteDestination(const RTPAddress &addr)
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;
	
	MAINMUTEX_LOCK
	
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (addr.GetAddressType() != RTPAddress::IPv4Address)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_INVALIDADDRESSTYPE;
	}
	
	RTPIPv4Address &address = (RTPIPv4Address &)addr;	
	RTPIPv4Destination dest(address.GetIP(),address.GetPort());
	int status = destinations.DeleteElement(dest);
	
	MAINMUTEX_UNLOCK
	return status;
}

void RTPFakeTransmitter::ClearDestinations()
{
	if (!init)
		return;
	
	MAINMUTEX_LOCK
	if (created)
		destinations.Clear();
	MAINMUTEX_UNLOCK
}

bool RTPFakeTransmitter::SupportsMulticasting()
{
	if (!init)
		return false;
	
	MAINMUTEX_LOCK
	
	bool v;
		
	if (!created)
		v = false;
	else
		v = supportsmulticasting;

	MAINMUTEX_UNLOCK
	return v;
}

#ifdef RTP_SUPPORT_IPV4MULTICAST

int RTPFakeTransmitter::JoinMulticastGroup(const RTPAddress &addr)
{
// hrrm wonder how will manage to get multicast info thru to the UDPSINK
/*	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;

	MAINMUTEX_LOCK
	
	int status;
	
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (addr.GetAddressType() != RTPAddress::IPv4Address)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_INVALIDADDRESSTYPE;
	}
	
	const RTPIPv4Address &address = (const RTPIPv4Address &)addr;
	uint32_t mcastIP = address.GetIP();
	
	if (!RTPFakeTRANS_IS_MCASTADDR(mcastIP))
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTAMULTICASTADDRESS;
	}
	
	status = multicastgroups.AddElement(mcastIP);
	if (status >= 0)
	{
		RTPFakeTRANS_MCASTMEMBERSHIP(rtpsock,IP_ADD_MEMBERSHIP,mcastIP,status);
		if (status != 0)
		{
			multicastgroups.DeleteElement(mcastIP);
			MAINMUTEX_UNLOCK
			return ERR_RTP_FAKETRANS_COULDNTJOINMULTICASTGROUP;
		}
		RTPFakeTRANS_MCASTMEMBERSHIP(rtcpsock,IP_ADD_MEMBERSHIP,mcastIP,status);
		if (status != 0)
		{
			RTPFakeTRANS_MCASTMEMBERSHIP(rtpsock,IP_DROP_MEMBERSHIP,mcastIP,status);
			multicastgroups.DeleteElement(mcastIP);
			MAINMUTEX_UNLOCK
			return ERR_RTP_FAKETRANS_COULDNTJOINMULTICASTGROUP;
		}
	}
	MAINMUTEX_UNLOCK	
	return status;*/
	return ERR_RTP_FAKETRANS_NOMULTICASTSUPPORT;
}

int RTPFakeTransmitter::LeaveMulticastGroup(const RTPAddress &addr)
{
    /*
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;

	MAINMUTEX_LOCK
	
	int status;
	
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (addr.GetAddressType() != RTPAddress::IPv4Address)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_INVALIDADDRESSTYPE;
	}
	
	const RTPIPv4Address &address = (const RTPIPv4Address &)addr;
	uint32_t mcastIP = address.GetIP();
	
	if (!RTPFakeTRANS_IS_MCASTADDR(mcastIP))
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTAMULTICASTADDRESS;
	}
	
	status = multicastgroups.DeleteElement(mcastIP);
	if (status >= 0)
	{	
		RTPFakeTRANS_MCASTMEMBERSHIP(rtpsock,IP_DROP_MEMBERSHIP,mcastIP,status);
		RTPFakeTRANS_MCASTMEMBERSHIP(rtcpsock,IP_DROP_MEMBERSHIP,mcastIP,status);
		status = 0;
	}
	
	MAINMUTEX_UNLOCK
	return status;
    */
	return ERR_RTP_FAKETRANS_NOMULTICASTSUPPORT;
}

void RTPFakeTransmitter::LeaveAllMulticastGroups()
{
/*	if (!init)
		return;
	
	MAINMUTEX_LOCK
	if (created)
	{
		multicastgroups.GotoFirstElement();
		while (multicastgroups.HasCurrentElement())
		{
			uint32_t mcastIP;
			int status = 0;

			mcastIP = multicastgroups.GetCurrentElement();
			RTPFakeTRANS_MCASTMEMBERSHIP(rtpsock,IP_DROP_MEMBERSHIP,mcastIP,status);
			RTPFakeTRANS_MCASTMEMBERSHIP(rtcpsock,IP_DROP_MEMBERSHIP,mcastIP,status);
			multicastgroups.GotoNextElement();
		}
		multicastgroups.Clear();
	}
	MAINMUTEX_UNLOCK*/
}

#else // no multicast support

int RTPFakeTransmitter::JoinMulticastGroup(const RTPAddress &addr)
{
	return ERR_RTP_FAKETRANS_NOMULTICASTSUPPORT;
}

int RTPFakeTransmitter::LeaveMulticastGroup(const RTPAddress &addr)
{
	return ERR_RTP_FAKETRANS_NOMULTICASTSUPPORT;
}

void RTPFakeTransmitter::LeaveAllMulticastGroups()
{
}

#endif // RTP_SUPPORT_IPV4MULTICAST

int RTPFakeTransmitter::SetReceiveMode(RTPTransmitter::ReceiveMode m)
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;
	
	MAINMUTEX_LOCK
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (m != receivemode)
	{
		receivemode = m;
		acceptignoreinfo.Clear();
	}
	MAINMUTEX_UNLOCK
	return 0;
}

int RTPFakeTransmitter::AddToIgnoreList(const RTPAddress &addr)
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;

	MAINMUTEX_LOCK
	
	int status;

	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (addr.GetAddressType() != RTPAddress::IPv4Address)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_INVALIDADDRESSTYPE;
	}
	if (receivemode != RTPTransmitter::IgnoreSome)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_DIFFERENTRECEIVEMODE;
	}
	
	const RTPIPv4Address &address = (const RTPIPv4Address &)addr;
	status = ProcessAddAcceptIgnoreEntry(address.GetIP(),address.GetPort());
	
	MAINMUTEX_UNLOCK
	return status;
}

int RTPFakeTransmitter::DeleteFromIgnoreList(const RTPAddress &addr)
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;
	
	MAINMUTEX_LOCK
	
	int status;
	
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (addr.GetAddressType() != RTPAddress::IPv4Address)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_INVALIDADDRESSTYPE;
	}
	if (receivemode != RTPTransmitter::IgnoreSome)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_DIFFERENTRECEIVEMODE;
	}
	
	const RTPIPv4Address &address = (const RTPIPv4Address &)addr;	
	status = ProcessDeleteAcceptIgnoreEntry(address.GetIP(),address.GetPort());

	MAINMUTEX_UNLOCK
	return status;
}

void RTPFakeTransmitter::ClearIgnoreList()
{
	if (!init)
		return;
	
	MAINMUTEX_LOCK
	if (created && receivemode == RTPTransmitter::IgnoreSome)
		ClearAcceptIgnoreInfo();
	MAINMUTEX_UNLOCK
}

int RTPFakeTransmitter::AddToAcceptList(const RTPAddress &addr)
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;
	
	MAINMUTEX_LOCK
	
	int status;
	
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (addr.GetAddressType() != RTPAddress::IPv4Address)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_INVALIDADDRESSTYPE;
	}
	if (receivemode != RTPTransmitter::AcceptSome)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_DIFFERENTRECEIVEMODE;
	}
	
	const RTPIPv4Address &address = (const RTPIPv4Address &)addr;
	status = ProcessAddAcceptIgnoreEntry(address.GetIP(),address.GetPort());

	MAINMUTEX_UNLOCK
	return status;
}

int RTPFakeTransmitter::DeleteFromAcceptList(const RTPAddress &addr)
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;
	
	MAINMUTEX_LOCK
	
	int status;
	
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (addr.GetAddressType() != RTPAddress::IPv4Address)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_INVALIDADDRESSTYPE;
	}
	if (receivemode != RTPTransmitter::AcceptSome)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_DIFFERENTRECEIVEMODE;
	}
	
	const RTPIPv4Address &address = (const RTPIPv4Address &)addr;
	status = ProcessDeleteAcceptIgnoreEntry(address.GetIP(),address.GetPort());

	MAINMUTEX_UNLOCK
	return status;
}

void RTPFakeTransmitter::ClearAcceptList()
{
	if (!init)
		return;
	
	MAINMUTEX_LOCK
	if (created && receivemode == RTPTransmitter::AcceptSome)
		ClearAcceptIgnoreInfo();
	MAINMUTEX_UNLOCK
}

int RTPFakeTransmitter::SetMaximumPacketSize(size_t s)	
{
	if (!init)
		return ERR_RTP_FAKETRANS_NOTINIT;
	
	MAINMUTEX_LOCK
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_NOTCREATED;
	}
	if (s > RTPFAKETRANS_MAXPACKSIZE)
	{
		MAINMUTEX_UNLOCK
		return ERR_RTP_FAKETRANS_SPECIFIEDSIZETOOBIG;
	}
	maxpacksize = s;
	MAINMUTEX_UNLOCK
	return 0;
}

bool RTPFakeTransmitter::NewDataAvailable()
{
	if (!init)
		return false;
	
	MAINMUTEX_LOCK
	
	bool v;
		
	if (!created)
		v = false;
	else
	{
		if (rawpacketlist.empty())
			v = false;
		else
			v = true;
	}
	
	MAINMUTEX_UNLOCK
	return v;
}

RTPRawPacket *RTPFakeTransmitter::GetNextPacket()
{
	if (!init)
		return 0;
	
	MAINMUTEX_LOCK
	
	RTPRawPacket *p;
	
	if (!created)
	{
		MAINMUTEX_UNLOCK
		return 0;
	}
	if (rawpacketlist.empty())
	{
		MAINMUTEX_UNLOCK
		return 0;
	}

	p = *(rawpacketlist.begin());
	rawpacketlist.pop_front();

	MAINMUTEX_UNLOCK
	return p;
}

// Here the private functions start...

#ifdef RTP_SUPPORT_IPV4MULTICAST
bool RTPFakeTransmitter::SetMulticastTTL(uint8_t ttl)
{
/*	int ttl2,status;

	ttl2 = (int)ttl;
	status = setsockopt(rtpsock,IPPROTO_IP,IP_MULTICAST_TTL,(const char *)&ttl2,sizeof(int));
	if (status != 0)
		return false;
	status = setsockopt(rtcpsock,IPPROTO_IP,IP_MULTICAST_TTL,(const char *)&ttl2,sizeof(int));
	if (status != 0)
		return false;
	return true;*/
	return true;
}
#endif // RTP_SUPPORT_IPV4MULTICAST

void RTPFakeTransmitter::FlushPackets()
{
	std::list<RTPRawPacket*>::const_iterator it;

	for (it = rawpacketlist.begin() ; it != rawpacketlist.end() ; ++it)
		RTPDelete(*it,GetMemoryManager());
	rawpacketlist.clear();
}

int RTPFakeTransmitter::FakePoll()
{
    uint8_t *data = NULL;
    int data_len = 0;
    uint32_t sourceaddr;
    uint16_t sourceport;
    bool rtp;
    bool acceptdata;

    RTPTime curtime = RTPTime::CurrentTime();

    data = params->GetCurrentData();
    data_len = params->GetCurrentDataLen();
    rtp = params->GetCurrentDataType();
    sourceaddr = params->GetCurrentDataAddr();
    sourceport = params->GetCurrentDataPort();
    // lets make sure we got something
    if (data == NULL || data_len <= 0)
    {
        return 0;
    }

    // let's make a RTPIPv4Address
    RTPIPv4Address *addr = RTPNew(GetMemoryManager(),RTPMEM_TYPE_CLASS_RTPADDRESS) RTPIPv4Address(sourceaddr, sourceport);
    if (addr == 0)
    {
        return ERR_RTP_OUTOFMEM;
    }

    // ok we got the src addr, now this should be the actual packet
    uint8_t *datacopy;
    datacopy = RTPNew(GetMemoryManager(),(rtp)?RTPMEM_TYPE_BUFFER_RECEIVEDRTPPACKET:RTPMEM_TYPE_BUFFER_RECEIVEDRTCPPACKET) uint8_t[data_len];
    if (datacopy == 0)
    {
        RTPDelete(addr,GetMemoryManager());
        return ERR_RTP_OUTOFMEM;
    }
    memcpy(datacopy, data, data_len);

    // got data, process it
    if (receivemode == RTPTransmitter::AcceptAll)
        acceptdata = true;
    else
        acceptdata = ShouldAcceptData(addr->GetIP(),addr->GetPort());

    if (acceptdata)
    {
        // adding packet to queue
        RTPRawPacket *pack;

        pack = RTPNew(GetMemoryManager(),RTPMEM_TYPE_CLASS_RTPRAWPACKET) RTPRawPacket(datacopy,data_len,addr,curtime,rtp,GetMemoryManager());

        if (pack == 0)
        {
            RTPDelete(addr,GetMemoryManager());
            return ERR_RTP_OUTOFMEM;
        }
        rawpacketlist.push_back(pack);	
    }
    return 0;
}

int RTPFakeTransmitter::ProcessAddAcceptIgnoreEntry(uint32_t ip,uint16_t port)
{
	acceptignoreinfo.GotoElement(ip);
	if (acceptignoreinfo.HasCurrentElement()) // An entry for this IP address already exists
	{
		PortInfo *portinf = acceptignoreinfo.GetCurrentElement();
		
		if (port == 0) // select all ports
		{
			portinf->all = true;
			portinf->portlist.clear();
		}
		else if (!portinf->all)
		{
			std::list<uint16_t>::const_iterator it,begin,end;

			begin = portinf->portlist.begin();
			end = portinf->portlist.end();
			for (it = begin ; it != end ; it++)
			{
				if (*it == port) // already in list
					return 0;
			}
			portinf->portlist.push_front(port);
		}
	}
	else // got to create an entry for this IP address
	{
		PortInfo *portinf;
		int status;
		
		portinf = RTPNew(GetMemoryManager(),RTPMEM_TYPE_CLASS_ACCEPTIGNOREPORTINFO) PortInfo();
		if (port == 0) // select all ports
			portinf->all = true;
		else
			portinf->portlist.push_front(port);
		
		status = acceptignoreinfo.AddElement(ip,portinf);
		if (status < 0)
		{
			RTPDelete(portinf,GetMemoryManager());
			return status;
		}
	}

	return 0;
}

void RTPFakeTransmitter::ClearAcceptIgnoreInfo()
{
	acceptignoreinfo.GotoFirstElement();
	while (acceptignoreinfo.HasCurrentElement())
	{
		PortInfo *inf;

		inf = acceptignoreinfo.GetCurrentElement();
		RTPDelete(inf,GetMemoryManager());
		acceptignoreinfo.GotoNextElement();
	}
	acceptignoreinfo.Clear();
}
	
int RTPFakeTransmitter::ProcessDeleteAcceptIgnoreEntry(uint32_t ip,uint16_t port)
{
	acceptignoreinfo.GotoElement(ip);
	if (!acceptignoreinfo.HasCurrentElement())
		return ERR_RTP_FAKETRANS_NOSUCHENTRY;
	
	PortInfo *inf;

	inf = acceptignoreinfo.GetCurrentElement();
	if (port == 0) // delete all entries
	{
		inf->all = false;
		inf->portlist.clear();
	}
	else // a specific port was selected
	{
		if (inf->all) // currently, all ports are selected. Add the one to remove to the list
		{
			// we have to check if the list doesn't contain the port already
			std::list<uint16_t>::const_iterator it,begin,end;

			begin = inf->portlist.begin();
			end = inf->portlist.end();
			for (it = begin ; it != end ; it++)
			{
				if (*it == port) // already in list: this means we already deleted the entry
					return ERR_RTP_FAKETRANS_NOSUCHENTRY;
			}
			inf->portlist.push_front(port);
		}
		else // check if we can find the port in the list
		{
			std::list<uint16_t>::iterator it,begin,end;
			
			begin = inf->portlist.begin();
			end = inf->portlist.end();
			for (it = begin ; it != end ; ++it)
			{
				if (*it == port) // found it!
				{
					inf->portlist.erase(it);
					return 0;
				}
			}
			// didn't find it
			return ERR_RTP_FAKETRANS_NOSUCHENTRY;			
		}
	}
	return 0;
}

bool RTPFakeTransmitter::ShouldAcceptData(uint32_t srcip,uint16_t srcport)
{
	if (receivemode == RTPTransmitter::AcceptSome)
	{
		PortInfo *inf;

		acceptignoreinfo.GotoElement(srcip);
		if (!acceptignoreinfo.HasCurrentElement())
			return false;
		
		inf = acceptignoreinfo.GetCurrentElement();
		if (!inf->all) // only accept the ones in the list
		{
			std::list<uint16_t>::const_iterator it,begin,end;

			begin = inf->portlist.begin();
			end = inf->portlist.end();
			for (it = begin ; it != end ; it++)
			{
				if (*it == srcport)
					return true;
			}
			return false;
		}
		else // accept all, except the ones in the list
		{
			std::list<uint16_t>::const_iterator it,begin,end;

			begin = inf->portlist.begin();
			end = inf->portlist.end();
			for (it = begin ; it != end ; it++)
			{
				if (*it == srcport)
					return false;
			}
			return true;
		}
	}
	else // IgnoreSome
	{
		PortInfo *inf;

		acceptignoreinfo.GotoElement(srcip);
		if (!acceptignoreinfo.HasCurrentElement())
			return true;
		
		inf = acceptignoreinfo.GetCurrentElement();
		if (!inf->all) // ignore the ports in the list
		{
			std::list<uint16_t>::const_iterator it,begin,end;

			begin = inf->portlist.begin();
			end = inf->portlist.end();
			for (it = begin ; it != end ; it++)
			{
				if (*it == srcport)
					return false;
			}
			return true;
		}
		else // ignore all, except the ones in the list
		{
			std::list<uint16_t>::const_iterator it,begin,end;

			begin = inf->portlist.begin();
			end = inf->portlist.end();
			for (it = begin ; it != end ; it++)
			{
				if (*it == srcport)
					return true;
			}
			return false;
		}
	}
	return true;
}

#ifdef WIN32

int RTPFakeTransmitter::CreateAbortDescriptors()
{
    // no need for these no more
/*
	SOCKET listensock;
	int size;
	struct sockaddr_in addr;

	listensock = socket(PF_INET,SOCK_STREAM,0);
	if (listensock == RTPSOCKERR)
		return ERR_RTP_FAKETRANS_CANTCREATEABORTDESCRIPTORS;
	
	memset(&addr,0,sizeof(struct sockaddr_in));
	addr.sin_family = AF_INET;
	if (bind(listensock,(struct sockaddr *)&addr,sizeof(struct sockaddr_in)) != 0)
	{
		RTPCLOSE(listensock);
		return ERR_RTP_FAKETRANS_CANTCREATEABORTDESCRIPTORS;
	}

	memset(&addr,0,sizeof(struct sockaddr_in));
	size = sizeof(struct sockaddr_in);
	if (getsockname(listensock,(struct sockaddr*)&addr,&size) != 0)
	{
		RTPCLOSE(listensock);
		return ERR_RTP_FAKETRANS_CANTCREATEABORTDESCRIPTORS;
	}

	unsigned short connectport = ntohs(addr.sin_port);

	abortdesc[0] = socket(PF_INET,SOCK_STREAM,0);
	if (abortdesc[0] == RTPSOCKERR)
	{
		RTPCLOSE(listensock);
		return ERR_RTP_FAKETRANS_CANTCREATEABORTDESCRIPTORS;
	}

	memset(&addr,0,sizeof(struct sockaddr_in));
	addr.sin_family = AF_INET;
	if (bind(abortdesc[0],(struct sockaddr *)&addr,sizeof(struct sockaddr_in)) != 0)
	{
		RTPCLOSE(listensock);
		RTPCLOSE(abortdesc[0]);
		return ERR_RTP_FAKETRANS_CANTCREATEABORTDESCRIPTORS;
	}

	if (listen(listensock,1) != 0)
	{
		RTPCLOSE(listensock);
		RTPCLOSE(abortdesc[0]);
		return ERR_RTP_FAKETRANS_CANTCREATEABORTDESCRIPTORS;
	}

	memset(&addr,0,sizeof(struct sockaddr_in));
	addr.sin_family = AF_INET;
	addr.sin_addr.s_addr = inet_addr("127.0.0.1");
	addr.sin_port = htons(connectport);
	
	if (connect(abortdesc[0],(struct sockaddr *)&addr,sizeof(struct sockaddr_in)) != 0)
	{
		RTPCLOSE(listensock);
		RTPCLOSE(abortdesc[0]);
		return ERR_RTP_FAKETRANS_CANTCREATEABORTDESCRIPTORS;
	}

	memset(&addr,0,sizeof(struct sockaddr_in));
	size = sizeof(struct sockaddr_in);
	abortdesc[1] = accept(listensock,(struct sockaddr *)&addr,&size);
	if (abortdesc[1] == RTPSOCKERR)
	{
		RTPCLOSE(listensock);
		RTPCLOSE(abortdesc[0]);
		return ERR_RTP_FAKETRANS_CANTCREATEABORTDESCRIPTORS;
	}

	// okay, got the connection, close the listening socket

	RTPCLOSE(listensock);
	return 0;*/
}

void RTPFakeTransmitter::DestroyAbortDescriptors()
{
//	RTPCLOSE(abortdesc[0]);
//	RTPCLOSE(abortdesc[1]);
}

#else // in a non winsock environment we can use pipes

int RTPFakeTransmitter::CreateAbortDescriptors()
{
//	if (pipe(abortdesc) < 0)
//		return ERR_RTP_FAKETRANS_CANTCREATEPIPE;
//	return 0;
	return 0;
}

void RTPFakeTransmitter::DestroyAbortDescriptors()
{
//	close(abortdesc[0]);
//	close(abortdesc[1]);
}

#endif // WIN32

int RTPFakeTransmitter::CreateLocalIPList()
{
	 // first try to obtain the list from the network interface info

	if (!GetLocalIPList_Interfaces())
	{
		// If this fails, we'll have to depend on DNS info
		GetLocalIPList_DNS();
	}
	AddLoopbackAddress();
	return 0;
}

//#ifdef WIN32

bool RTPFakeTransmitter::GetLocalIPList_Interfaces()
{
	// REMINDER: got to find out how to do this
	return false;
}
/*
#else // use ioctl

bool RTPFakeTransmitter::GetLocalIPList_Interfaces()
{
	int status;
	char buffer[RTPFakeTRANS_IFREQBUFSIZE];
	struct ifconf ifc;
	struct ifreq *ifr;
	struct sockaddr *sa;
	char *startptr,*endptr;
	int remlen;
	
	ifc.ifc_len = RTPFakeTRANS_IFREQBUFSIZE;
	ifc.ifc_buf = buffer;
	status = ioctl(rtpsock,SIOCGIFCONF,&ifc);
	if (status < 0)
		return false;
	
	startptr = (char *)ifc.ifc_req;
	endptr = startptr + ifc.ifc_len;
	remlen = ifc.ifc_len;
	while((startptr < endptr) && remlen >= (int)sizeof(struct ifreq))
	{
		ifr = (struct ifreq *)startptr;
		sa = &(ifr->ifr_addr);
#ifdef RTP_HAVE_SOCKADDR_LEN
		if (sa->sa_len <= sizeof(struct sockaddr))
		{
			if (sa->sa_len == sizeof(struct sockaddr_in) && sa->sa_family == PF_INET)
			{
				uint32_t ip;
				struct sockaddr_in *addr = (struct sockaddr_in *)sa;
				
				ip = ntohl(addr->sin_addr.s_addr);
				localIPs.push_back(ip);
			}
			remlen -= sizeof(struct ifreq);
			startptr += sizeof(struct ifreq);
		}
		else
		{
			int l = sa->sa_len-sizeof(struct sockaddr)+sizeof(struct ifreq);
			
			remlen -= l;
			startptr += l;
		}
#else // don't have sa_len in struct sockaddr
		if (sa->sa_family == PF_INET)
		{
			uint32_t ip;
			struct sockaddr_in *addr = (struct sockaddr_in *)sa;
		
			ip = ntohl(addr->sin_addr.s_addr);
			localIPs.push_back(ip);
		}
		remlen -= sizeof(struct ifreq);
		startptr += sizeof(struct ifreq);
	
#endif // RTP_HAVE_SOCKADDR_LEN
	}

	if (localIPs.empty())
		return false;
	return true;
}

#endif // WIN32
*/
void RTPFakeTransmitter::GetLocalIPList_DNS()
{
	struct hostent *he;
	char name[1024];
	uint32_t ip;
	bool done;
	int i,j;

	gethostname(name,1023);
	name[1023] = 0;
	he = gethostbyname(name);
	if (he == 0)
		return;
	
	ip = 0;
	i = 0;
	done = false;
	while (!done)
	{
		if (he->h_addr_list[i] == NULL)
			done = true;
		else
		{
			ip = 0;
			for (j = 0 ; j < 4 ; j++)
				ip |= ((uint32_t)((unsigned char)he->h_addr_list[i][j])<<((3-j)*8));
			localIPs.push_back(ip);
			i++;
		}
	}
}

void RTPFakeTransmitter::AbortWaitInternal()
{
/*#ifdef WIN32
	send(abortdesc[1],"*",1,0);
#else
	write(abortdesc[1],"*",1);
#endif // WIN32*/
}

void RTPFakeTransmitter::AddLoopbackAddress()
{
	uint32_t loopbackaddr = (((uint32_t)127)<<24)|((uint32_t)1);
	std::list<uint32_t>::const_iterator it;
	bool found = false;
	
	for (it = localIPs.begin() ; !found && it != localIPs.end() ; it++)
	{
		if (*it == loopbackaddr)
			found = true;
	}

	if (!found)
		localIPs.push_back(loopbackaddr);
}

#ifdef RTPDEBUG
void RTPFakeTransmitter::Dump()
{
	if (!init)
		std::cout << "Not initialized" << std::endl;
	else
	{
		MAINMUTEX_LOCK
	
		if (!created)
			std::cout << "Not created" << std::endl;
		else
		{
			char str[16];
			uint32_t ip;
			std::list<uint32_t>::const_iterator it;
			
			std::cout << "Portbase:                       " << params->GetPortbase() << std::endl;
			std::cout << "Local IP addresses:" << std::endl;
			for (it = localIPs.begin() ; it != localIPs.end() ; it++)
			{
				ip = (*it);
				snprintf(str,16,"%d.%d.%d.%d",(int)((ip>>24)&0xFF),(int)((ip>>16)&0xFF),(int)((ip>>8)&0xFF),(int)(ip&0xFF));
				std::cout << "    " << str << std::endl;
			}
//			std::cout << "Multicast TTL:                  " << (int)multicastTTL << std::endl;
			std::cout << "Receive mode:                   ";
			switch (receivemode)
			{
			case RTPTransmitter::AcceptAll:
				std::cout << "Accept all";
				break;
			case RTPTransmitter::AcceptSome:
				std::cout << "Accept some";
				break;
			case RTPTransmitter::IgnoreSome:
				std::cout << "Ignore some";
			}
			std::cout << std::endl;
			if (receivemode != RTPTransmitter::AcceptAll)
			{
				acceptignoreinfo.GotoFirstElement();
				while(acceptignoreinfo.HasCurrentElement())
				{
					ip = acceptignoreinfo.GetCurrentKey();
					snprintf(str,16,"%d.%d.%d.%d",(int)((ip>>24)&0xFF),(int)((ip>>16)&0xFF),(int)((ip>>8)&0xFF),(int)(ip&0xFF));
					PortInfo *pinfo = acceptignoreinfo.GetCurrentElement();
					std::cout << "    " << str << ": ";
					if (pinfo->all)
					{
						std::cout << "All ports";
						if (!pinfo->portlist.empty())
							std::cout << ", except ";
					}
					
					std::list<uint16_t>::const_iterator it;
					
					for (it = pinfo->portlist.begin() ; it != pinfo->portlist.end() ; )
					{
						std::cout << (*it);
						it++;
						if (it != pinfo->portlist.end())
							std::cout << ", ";
					}
					std::cout << std::endl;
				}
			}
			
			std::cout << "Local host name:                ";
			if (localhostname == 0)
				std::cout << "Not set";
			else
				std::cout << localhostname;
			std::cout << std::endl;

			std::cout << "List of destinations:           ";
			destinations.GotoFirstElement();
			if (destinations.HasCurrentElement())
			{
				std::cout << std::endl;
				do
				{
					std::cout << "    " << destinations.GetCurrentElement().GetDestinationString() << std::endl;
					destinations.GotoNextElement();
				} while (destinations.HasCurrentElement());
			}
			else
				std::cout << "Empty" << std::endl;
		
			std::cout << "Supports multicasting:          " << ((supportsmulticasting)?"Yes":"No") << std::endl;
#ifdef RTP_SUPPORT_IPV4MULTICAST
/*			std::cout << "List of multicast groups:       ";
			multicastgroups.GotoFirstElement();
			if (multicastgroups.HasCurrentElement())
			{
				std::cout << std::endl;
				do
				{
					ip = multicastgroups.GetCurrentElement();
					snprintf(str,16,"%d.%d.%d.%d",(int)((ip>>24)&0xFF),(int)((ip>>16)&0xFF),(int)((ip>>8)&0xFF),(int)(ip&0xFF));
					std::cout << "    " << str << std::endl;
					multicastgroups.GotoNextElement();
				} while (multicastgroups.HasCurrentElement());
			}
			else
				std::cout << "Empty" << std::endl;*/
#endif // RTP_SUPPORT_IPV4MULTICAST
			
			std::cout << "Number of raw packets in queue: " << rawpacketlist.size() << std::endl;
			std::cout << "Maximum allowed packet size:    " << maxpacksize << std::endl;
		}
		
		MAINMUTEX_UNLOCK
	}
}
#endif // RTPDEBUG

} // end namespace

