void tst_QMailMessagePart::removeHeaderField()
{
    QString addr1("*****@*****.**");
    QString addr2("*****@*****.**");

    QMailMessage m;
    QCOMPARE(m.headerFieldText("Resent-From"), QString());
    QCOMPARE(m.headerField("Resent-From"), QMailMessageHeaderField());
    QCOMPARE(m.headerFieldsText("Resent-From"), QStringList());
    QCOMPARE(m.headerFields("Resent-From"), QList<QMailMessageHeaderField>());

    m.appendHeaderField("Resent-From", addr1);
    m.appendHeaderField("Resent-From", addr2);
    QCOMPARE(m.headerFieldText("Resent-From"), addr1);
    QCOMPARE(m.headerField("Resent-From").content(), addr1.toLatin1());
    QCOMPARE(m.headerFieldsText("Resent-From"), (QStringList() << addr1 << addr2));
    QCOMPARE(m.headerFields("Resent-From"), ( QList<QMailMessageHeaderField>() 
                                                 << QMailMessageHeaderField("Resent-From", addr1.toLatin1())
                                                 << QMailMessageHeaderField("Resent-From", addr2.toLatin1()) ) );

    m.removeHeaderField("X-Unused-Header");
    QCOMPARE(m.headerFieldText("Resent-From"), addr1);
    QCOMPARE(m.headerField("Resent-From").content(), addr1.toLatin1());
    QCOMPARE(m.headerFieldsText("Resent-From"), (QStringList() << addr1 << addr2));
    QCOMPARE(m.headerFields("Resent-From"), ( QList<QMailMessageHeaderField>() 
                                                 << QMailMessageHeaderField("Resent-From", addr1.toLatin1())
                                                 << QMailMessageHeaderField("Resent-From", addr2.toLatin1()) ) );

    m.removeHeaderField("Resent-From");
    QCOMPARE(m.headerFieldText("Resent-From"), QString());
    QCOMPARE(m.headerField("Resent-From"), QMailMessageHeaderField());
    QCOMPARE(m.headerFieldsText("Resent-From"), QStringList());
    QCOMPARE(m.headerFields("Resent-From"), QList<QMailMessageHeaderField>());
}
Beispiel #2
0
BOOLEAN Disasoc(Signal_t *signal)
{
	FrmDesc_t *pfrmDesc;
	Frame_t *rdu;
	MacAddr_t Sta;
	ReasonCode Rsn;
	U8 vapId = 0;
	
	ZDEBUG("Disasoc");
	pfrmDesc	= signal->frmInfo.frmDesc;
	rdu = pfrmDesc->mpdu;
	memcpy((U8 *)&Sta, (U8 *)(addr2(rdu)), 6);
	Rsn = (ReasonCode)(reason(rdu));

	if(memcmp(addr1(rdu), (U8*)&mBssId, 6)){ //Not for this BSSID
		freeFdesc(pfrmDesc);
		return TRUE;
	}

	UpdateStaStatus(&Sta, STATION_STATE_DIS_ASOC, vapId);
	freeFdesc(pfrmDesc);
	
	//here to handle disassoc ind.
	pdot11Obj->StatusNotify(STA_DISASSOCIATED, (U8 *)&Sta);
	return TRUE;
}
Beispiel #3
0
Dot11Data::Dot11Data(const address_type &dst_hw_addr, 
  const address_type &src_hw_addr) 
: Dot11(dst_hw_addr) 
{
    type(Dot11::DATA);
    memset(&_ext_header, 0, sizeof(_ext_header));
    addr2(src_hw_addr);
}
Beispiel #4
0
  bool SocketFd::Connect(const SocketAddress& addr) {
    CheckValidity_();

    SocketAddress addr2(addr);
    if (addr2.IsUnresolved()) {
      if(!addr2.Resolve()) {
        base_throw(IOException, "Cannot resolve address");
      }
    }

    sockaddr_in saddr;
    addr2.ToSockAddr(&saddr);
    return ::connect(fd_, reinterpret_cast<sockaddr*>(&saddr), sizeof(saddr)) == 0;
  }
void tst_QMailMessagePart::setHeaderField()
{
    QString addr1("*****@*****.**");
    QString addr2("*****@*****.**");
    QString ownHdr("hello");

    QMailMessage m;
    m.setHeaderField("To", addr2);
    QCOMPARE(m.headerFieldText("to"), addr2);
    QCOMPARE(m.headerField("to").content(), addr2.toLatin1());

    // Ensure overwrite
    m.setHeaderField("To", addr1);
    m.setHeaderField("X-My-Own-Header", ownHdr);
    QCOMPARE(m.headerFieldText("to"), addr1);
    QCOMPARE(m.headerField("to").content(), addr1.toLatin1());
    QCOMPARE(m.headerFieldText("X-My-Own-Header"), ownHdr);
    QCOMPARE(m.headerField("X-My-Own-Header").content(), ownHdr.toLatin1());
    QCOMPARE(m.to(), (QList<QMailAddress>() << QMailAddress(addr1)));

    QCOMPARE(m.recipients(), (QList<QMailAddress>() << QMailAddress(addr1)));
    QMailMessageMetaData mtdata = *static_cast<QMailMessageMetaData*>(&m);
    QCOMPARE(mtdata.recipients(), (QList<QMailAddress>() << QMailAddress(addr1)));
    m.setHeaderField("Cc", addr2);
    QCOMPARE(m.recipients(), (QList<QMailAddress>() << QMailAddress(addr1) << QMailAddress(addr2)));
    mtdata = *static_cast<QMailMessageMetaData*>(&m);
    QCOMPARE(mtdata.recipients(), (QList<QMailAddress>() << QMailAddress(addr1) << QMailAddress(addr2)));
    QCOMPARE(m.cc(), (QList<QMailAddress>()  << QMailAddress(addr2)));
    QString addr3("*****@*****.**");
    m.setHeaderField("Bcc", addr3);
    QCOMPARE(m.recipients(), (QList<QMailAddress>() << QMailAddress(addr1) << QMailAddress(addr2) << QMailAddress(addr3)));
    mtdata = *static_cast<QMailMessageMetaData*>(&m);
    QCOMPARE(mtdata.recipients(), (QList<QMailAddress>() << QMailAddress(addr1) << QMailAddress(addr2) << QMailAddress(addr3)));
    QCOMPARE(m.bcc(), (QList<QMailAddress>()  << QMailAddress(addr3)));

    QString rfc822 = m.toRfc2822();

    QMailMessage m2 = QMailMessage::fromRfc2822(rfc822.toLatin1());
    QCOMPARE(m2.headerFieldText("to"), addr1);
    QCOMPARE(m2.headerField("to").content(), addr1.toLatin1());
    QCOMPARE(m2.headerFieldText("X-My-Own-Header"), ownHdr);
    QCOMPARE(m2.headerField("X-My-Own-Header").content(), ownHdr.toLatin1());
    QCOMPARE(m2.to(), (QList<QMailAddress>() << QMailAddress(addr1)));

    m2.setTo(QList<QMailAddress>() << QMailAddress(addr2));
    QCOMPARE(m2.headerFieldText("to"), addr2);
    QCOMPARE(m2.headerField("to").content(), addr2.toLatin1());
    QCOMPARE(m2.to(), (QList<QMailAddress>() << QMailAddress(addr2)));
}
Beispiel #6
0
int main(int argc, char **argv)
{
  struct in_addr localhost;

  localhost.s_addr = htonl(0x7f000001);

  msrp::Ipv4Address addr1("192.168.0.12:5060");
  msrp::Ipv4Address addr2("192.168.0.20",1234);
  msrp::Ipv4Address addr3(localhost,2);

  std::ostringstream buf;

  std::cout << addr1 << std::endl;
  buf << addr1;
  if (buf.str() != "192.168.0.12:5060")
  {
    std::cerr << "Failed at line " << __LINE__ << std::endl;
    exit (-1);
  }
  buf.str("");
  
  std::cout << addr2 << std::endl;
  buf << addr2;
  if (buf.str() != "192.168.0.20:1234")
  {
    std::cerr << "Failed at line " << __LINE__ << std::endl;
    exit (-1);
  }
  buf.str("");
 
  std::cout << addr3 << std::endl;
  buf << addr3;
  if (buf.str() != "127.0.0.1:2")
  {
    std::cerr << "Failed at line " << __LINE__ << std::endl;
    exit (-1);
  }
  buf.str("");

  assert(addr1.getAddressType() == msrp::Address::IPV4);
  assert(addr2.getAddressType() == msrp::Address::IPV4);
  assert(addr3.getAddressType() == msrp::Address::IPV4);

  assert(addr1.getPort() == 5060);
  assert(addr2.getPort() == 1234);
  assert(addr3.getPort() == 2);

  return 0;
}
//Encode UNSAF message with two attributes
void UT_CNATFWUNSAFMessage::TestEncode3L()
    {
    const TUint8 KExpectedResult[] =
        {
        0, 1, //UNSAF message type: Binding Request
        0, 24, //Message length
        0x21, 0x12, 0xa4, 0x42, //Magic cookie
        0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 0xa, 0xb, //TransactionID

        //RESPONSE-ADDRESS attribute
        0, 2, //type
        0, 8, //length of value element
        0, //undefined
        1, //family
        0xab, 0xcd, //port
        5, 6, 7, 8, //address

        //MAPPED-ADDRESS attribute
        0, 1, //type
        0, 8, //length of value element
        0, //undefined
        1, //family
        0x12, 0x34, //port
        0x50, 0x40, 0xff, 0xaa //address
        };

    TInetAddr addr(INET_ADDR(5,6,7,8), 0xabcd);
    CNATFWUNSAFAttribute* attr =
        CNATFWUNSAFResponseAddressAttribute::NewLC(addr);
    iMsg->AddAttributeL(attr);
    CleanupStack::Pop(attr);
    attr = NULL;


    TInetAddr addr2(0x5040ffaa, 0x1234);
    attr = CNATFWUNSAFMappedAddressAttribute::NewLC(addr2);
    iMsg->AddAttributeL(attr);
    CleanupStack::Pop(attr);


    CBufBase* msg = iMsg->EncodeL();

    CleanupStack::PushL(msg);
    EUNIT_ASSERT(CNATFWUNSAFMessage::EHeaderSize + 24 == msg->Size());
    CompareEncodedUNSAFMessageL(KExpectedResult, *msg);

    CleanupStack::PopAndDestroy(msg);
    }
Beispiel #8
0
BOOLEAN ProbeReq(Signal_t *signal)
{
	FrmDesc_t *pfrmDesc;
	Frame_t *rdu;
	MacAddr_t sta;
	Element rSsid;
	Element *pWPA = NULL;
	U8 vapId = 0;

	ZDEBUG("ProbeReq");
	pfrmDesc = signal->frmInfo.frmDesc;
	rdu = pfrmDesc->mpdu;
	
	if (!getElem(rdu, EID_SSID, &rSsid))
		goto release;
	
	if (mHiddenSSID){ //discard broadcast ssid
		if (eLen(&rSsid) == 0){
			goto release;
		}
	}	
	memcpy((U8*)&sta, (U8*)addr2(rdu), 6);
	
	if (eLen(&rSsid) == 0){
		
		//WPA
		if (mDynKeyMode == DYN_KEY_TKIP)	
			pWPA = &mWPAIe;
		mkProbeRspFrm(pfrmDesc, &sta, mBeaconPeriod, mCap, &dot11DesiredSsid, &mBrates, &mPhpm, NULL, (Element *)pWPA, vapId);		
		return sendMgtFrame(signal, pfrmDesc);	
	}
	else{
	 	if (memcmp(&rSsid, &dot11DesiredSsid, eLen(&dot11DesiredSsid)+2) == 0){
			//WPA
			if (mDynKeyMode == DYN_KEY_TKIP)	
				pWPA = &mWPAIe;
			
			mkProbeRspFrm(pfrmDesc, &sta, mBeaconPeriod, mCap, &dot11DesiredSsid, &mBrates, &mPhpm, NULL, (Element *)pWPA, vapId);		
			return sendMgtFrame(signal, pfrmDesc);
		}	
	}
	
release:
   	ZDEBUG("goto release");
	freeFdesc(pfrmDesc);
	return TRUE;
}
/**
* This routine was taken from the benchmark manager, to create Dataobjects in code.
* It is used for the self test.    Depending on compile options, benchmark manager
* may not be included, so the relevant code is copied here to be always available.
*
* @see BenchmarkManager::createDataObject
*
*/
DataObjectRef CacheStrategyUtility::createDataObject(unsigned int numAttr)
{
	char name[128];
	char value[128];
	unsigned int r;

	unsigned char macaddr[6];
	macaddr[0] = (unsigned char) RANDOM_INT(255);
	macaddr[1] = (unsigned char) RANDOM_INT(255);
	macaddr[2] = (unsigned char) RANDOM_INT(255);
	macaddr[3] = (unsigned char) RANDOM_INT(255);
	macaddr[4] = (unsigned char) RANDOM_INT(255);
	macaddr[5] = (unsigned char) RANDOM_INT(255);
	
	unsigned char macaddr2[6];
	macaddr2[0] = (unsigned char) RANDOM_INT(255);
	macaddr2[1] = (unsigned char) RANDOM_INT(255);
	macaddr2[2] = (unsigned char) RANDOM_INT(255);
	macaddr2[3] = (unsigned char) RANDOM_INT(255);
	macaddr2[4] = (unsigned char) RANDOM_INT(255);
	macaddr2[5] = (unsigned char) RANDOM_INT(255);
	
	EthernetAddress addr(macaddr);
	EthernetAddress addr2(macaddr2);
	InterfaceRef localIface = Interface::create<EthernetInterface>(macaddr, "eth", addr, 0);		
	InterfaceRef remoteIface = Interface::create<EthernetInterface>(macaddr2, "eth2", addr2, 0);		
	DataObjectRef dObj = DataObject::create(NULL, 0, localIface, remoteIface);

	for (unsigned int i = 0; i < numAttr; i++) {
		int tries = 0;
		do {
			r = RANDOM_INT(32000);
			sprintf(name, "name");
			sprintf(value, "value %d", r);
			if (tries++ > 10) {
				HAGGLE_ERR("WARNING: Cannot generate unique attributes in data object... check attribute pool size!\n");
				break;
			}
		} while (dObj->getAttribute(name, value));

		dObj->addAttribute(name, value, 1); //r);
	}

	return dObj;
}
enum TVerdict CEsockTest19_9::easyTestStepL()
	{
	TInetAddr addr, addrOut;
	TBuf<39> buf;
	
	// getting the IP address
	
	// set an IPv6 address
	const TIp6Addr KInet6Addr19_3 = {{{0xff,0xff,0,0,0,0,0,0,0,0,0,0,0x1,0x78,0,0x1}}};
	addr.SetAddress(KInet6Addr19_3);
	
	// get the address - check the return value is 0
	TESTL(addr.Address()==0);
	
	// set up an IPv4 compatible address
	TInetAddr addr2(INET_ADDR(140, 179, 229, 12), 23);
	addr2.ConvertToV4Compat();
	
	// check conversion
	addr2.OutputWithScope(buf);
	TESTL(buf==_L("::140.179.229.12"));
	
	// get the address - check it is returned as an IPv4 address
	addrOut.SetAddress(addr2.Address());
	addrOut.OutputWithScope(buf);
	TESTL(buf==_L("140.179.229.12"));
	
	// set up an IPv4 mapped address
	TInetAddr addr3(INET_ADDR(140, 179, 193, 121), 24);
	addr3.ConvertToV4Mapped();
	
	// check conversion
	addr3.OutputWithScope(buf);
	
	TESTL(buf==_L("140.179.193.121"));
	
	// get the address - check it is returned as an IPv4 address
	addrOut.SetAddress(addr3.Address());
	addrOut.OutputWithScope(buf);
	TESTL(buf==_L("140.179.193.121"));
	
	return EPass;
	}
Beispiel #11
0
BOOLEAN Re_AsocReq(Signal_t *signal)
{
	FrmDesc_t *pfrmDesc;
	Frame_t *rdu;
	MacAddr_t Sta;
	U16 aid = 0;
	StatusCode asStatus;
	U8 lsInterval;
	Element WPA;
	Element asSsid;
	Element asRates;
	//Element extRates;
	U16 cap;
	U8 ZydasMode = 0;
	int i;
	U8 tmpMaxRate = 0x02;
	U8 MaxRate;
	U16 notifyStatus = STA_ASOC_REQ;
	U16 notifyStatus1 = STA_ASSOCIATED;
	TypeSubtype type = ST_ASOC_RSP;
	U8	Preamble = 0;
	U8	HigestBasicRate = 0;
	U8	vapId = 0;
	U8	Len;
	BOOLEAN bErpSta = FALSE;

	ZDEBUG("Re_AsocReq");
	pfrmDesc = signal->frmInfo.frmDesc;
	rdu = pfrmDesc->mpdu;
	lsInterval = listenInt(pfrmDesc->mpdu);
	//FPRINT_V("lsInterval", lsInterval);
	cap = cap(pfrmDesc->mpdu);
	memcpy((U8 *)&Sta, (U8 *)addr2(rdu), 6);
	
	if ((isGroup(addr2(rdu))) ||  (!getElem(rdu, EID_SSID, &asSsid))
		|| (!getElem(rdu, EID_SUPRATES, &asRates))){
		freeFdesc(pfrmDesc);
		return TRUE;
	}
	
	if ((eLen(&asSsid) != eLen(&dot11DesiredSsid) || 
		memcmp(&asSsid, &dot11DesiredSsid, eLen(&dot11DesiredSsid)+2) != 0)){
		freeFdesc(pfrmDesc);
		return TRUE;
	}		
	//chaeck capability
	if (cap & CAP_SHORT_PREAMBLE)
		Preamble = 1;
	else
		Preamble = 0;
		
	// Privacy not match
	if (cap & CAP_PRIVACY){
		if (!mPrivacyInvoked){
			freeFdesc(pfrmDesc);
			return TRUE;
		}	
	}
	else {
		if (mPrivacyInvoked){
			freeFdesc(pfrmDesc);
			return TRUE;
		}	
	}		
	Len = eLen(&asRates);	
	for (i=0; i<Len; i++){
		if ( (asRates.buf[2+i] & 0x7f) > tmpMaxRate ){
			tmpMaxRate = (asRates.buf[2+i] & 0x7f);
			if (asRates.buf[2+i] & 0x80)
				HigestBasicRate = asRates.buf[2+i];
		}	
				
		if (((asRates.buf[2+i] & 0x7f) == 0x21) && (!(cap & CAP_PBCC_ENABLE))){ //Zydas 16.5M
			void *reg = pdot11Obj->reg;
			
			ZydasMode = 1;
			mZyDasModeClient = TRUE;
			//FPRINT("ZydasMode");
		}	
	}	
	
	MaxRate = RateConvert((tmpMaxRate & 0x7f), cap);			
	
	if (signal->id == SIG_REASSOC_REQ)	
		notifyStatus = STA_REASOC_REQ;
		
	if (!pdot11Obj->StatusNotify(notifyStatus, (U8 *)&Sta)){ //Accept it
		if (mDynKeyMode == DYN_KEY_TKIP){	
			if (getElem(rdu, EID_WPA, &WPA)){
				//zd1205_OctetDump("AssocRequest = ", asRdu->body, asRdu->bodyLen);
				//zd1205_OctetDump("AssocRequest WPA_IE = ", &WPA.buf[2], WPA.buf[1]);
				
				if (pdot11Obj->AssocRequest((U8 *)&Sta, rdu->body, rdu->bodyLen)){ //reject
					asStatus = SC_UNSPEC_FAILURE;
					goto check_failed;
					//we need reason code here
				}	
			}
			else{
				asStatus = SC_UNSPEC_FAILURE;
				goto wpa_check_failed;		
		}		
		}		

wpa_check_ok:			
		if (!UpdateStaStatus(&Sta, STATION_STATE_ASOC, vapId)){
			asStatus = SC_AP_FULL;
		}
		else{
			AssocInfoUpdate(&Sta, MaxRate, lsInterval, ZydasMode, Preamble, bErpSta, vapId);
			aid = AIdLookup(&Sta);
			asStatus = SC_SUCCESSFUL;
			if (signal->id == SIG_REASSOC_REQ)	
				notifyStatus1 = STA_REASSOCIATED;
			pdot11Obj->StatusNotify(notifyStatus1, (U8 *)&Sta);
		}
	}
	else{
wpa_check_failed:	
		asStatus = SC_UNSPEC_FAILURE;
	}	
	
	aid |= 0xC000;
	if (aid != 0xC000){
		#ifdef B500_DEBUG
			FPRINT_V("Aid", aid);
			FPRINT_V("MaxRate", MaxRate);
		#endif

	}	
	
check_failed:
	if (signal->id == SIG_REASSOC_REQ)	
		type = ST_REASOC_RSP;	
	mkRe_AsocRspFrm(pfrmDesc, type, &Sta, mCap, asStatus, aid, &mBrates, NULL, vapId);
	sendMgtFrame(signal, pfrmDesc);

	return FALSE;
}
Beispiel #12
0
void test()
{
  namespace ip = std::net::ip;

  try
  {
    std::error_code ec;

    // address_v6 constructors.

    ip::address_v6 addr1;
    const ip::address_v6::bytes_type const_bytes_value = { { 0 } };
    ip::address_v6 addr2(const_bytes_value);

    // address_v6 functions.

    unsigned long scope_id = addr1.scope_id();
    addr1.scope_id(scope_id);

    bool b = addr1.is_unspecified();
    (void)b;

    b = addr1.is_loopback();
    (void)b;

    b = addr1.is_multicast();
    (void)b;

    b = addr1.is_link_local();
    (void)b;

    b = addr1.is_site_local();
    (void)b;

    b = addr1.is_v4_mapped();
    (void)b;

    b = addr1.is_v4_compatible();
    (void)b;

    b = addr1.is_multicast_node_local();
    (void)b;

    b = addr1.is_multicast_link_local();
    (void)b;

    b = addr1.is_multicast_site_local();
    (void)b;

    b = addr1.is_multicast_org_local();
    (void)b;

    b = addr1.is_multicast_global();
    (void)b;

    ip::address_v6::bytes_type bytes_value = addr1.to_bytes();
    (void)bytes_value;

    std::string string_value = addr1.to_string();
    string_value = addr1.to_string(ec);

    ip::address_v4 addr3 = addr1.to_v4();

    // address_v6 static functions.

    addr1 = ip::address_v6::from_string("0::0");
    addr1 = ip::address_v6::from_string("0::0", ec);
    addr1 = ip::address_v6::from_string(string_value);
    addr1 = ip::address_v6::from_string(string_value, ec);

    addr1 = ip::address_v6::any();

    addr1 = ip::address_v6::loopback();

    addr1 = ip::address_v6::v4_mapped(addr3);

    addr1 = ip::address_v6::v4_compatible(addr3);

    // address_v6 comparisons.

    b = (addr1 == addr2);
    (void)b;

    b = (addr1 != addr2);
    (void)b;

    b = (addr1 < addr2);
    (void)b;

    b = (addr1 > addr2);
    (void)b;

    b = (addr1 <= addr2);
    (void)b;

    b = (addr1 >= addr2);
    (void)b;

    // address_v6 I/O.

    std::ostringstream os;
    os << addr1;

    std::wostringstream wos;
    wos << addr1;
  }
  catch (std::exception&)
  {
  }
}
// ---------------------------------------------------------------------------
// CStunTurnTests::TestSetSendingStatusTCPL
// ---------------------------------------------------------------------------
//
void CStunTurnTests::TestSetSendingStatusTCPL()
    {
    TInetAddr inetAddr;
    TBuf<40> buffer;
    
    CTestClient* client = CTestClient::NewLC( this );

    // testserver to wrapper
    CTestServer* server = CTestServer::NewLC( this );
    
    TInetAddr addr( KInetAddrAny, KTestServerPort );
    
    // stop scheduler when server timer runs out
    server->OpenL( addr, KTimeoutTime );

    iNotificationIsOn = EFalse;
    
    TInetAddr testServerAddr;
    client->ResolveLocalAddrL( testServerAddr, iTestIapId );
    testServerAddr.SetPort( KTestServerPort );

    iWrapper->SetIncomingAddrL( testServerAddr );
	
	iIfStub.StartActiveSchedulerL( KRunningTime );

    iNotificationIsOn = ETrue;

	// testserver to natfw 
	CTestServer* server2 = CTestServer::NewLC( this );
 
    TInetAddr addr2( KInetAddrAny, KTestServer2Port );
    	
	server2->OpenL( addr2, KTimeoutTime );
	
	TInetAddr destination;
	client->ResolveLocalAddrL( destination, iTestIapId );
	destination.SetPort( KTestServer2Port );
    destination.Output( buffer );
    
    RDebug::Print( _L( "CStunTurnTests::TestSetSendingStatusTCPL; ADDR: %S PORT: %d" ),
        &buffer, destination.Port() );
    
    // set sending status active
    RDebug::Print( _L( "\nTEST CASE: Set Sending Status Active" ) );
    
	iNat.SetSendingStateL( iIfStub.LocalCandidateL(), EStreamingStateActive,
        destination );
    	
	iIfStub.StartActiveSchedulerL( KRunningTime );
	
	server2->Cancel();

	// set sending status passive
	RDebug::Print( _L( "\nTEST CASE: Set Sending Status Passive" ) );
	
    iNat.SetSendingStateL( iIfStub.LocalCandidateL(), EStreamingStatePassive,
        destination );
    	
    iIfStub.StartActiveSchedulerL( KRunningTime );

    CleanupStack::PopAndDestroy( server2 );
    CleanupStack::PopAndDestroy( server );
    CleanupStack::PopAndDestroy( client );
    }
Beispiel #14
0
void test()
{
  namespace ip = std::experimental::net::ip;

  try
  {
    std::error_code ec;
    std::string string_value;

    // address constructors.

    ip::address addr1;
    const ip::address_v4 const_addr_v4;
    ip::address addr2(const_addr_v4);
    const ip::address_v6 const_addr_v6;
    ip::address addr3(const_addr_v6);
    ip::address addr4("127.0.0.1");
    ip::address addr5("127.0.0.1", ec);
    ip::address addr6(string_value);
    ip::address addr7(string_value, ec);

    // address functions.

    bool b = addr1.is_v4();
    (void)b;

    b = addr1.is_v6();
    (void)b;

    b = addr1.is_loopback();
    (void)b;

    b = addr1.is_unspecified();
    (void)b;

    b = addr1.is_multicast();
    (void)b;

    ip::address_v4 addr_v4_value = ip::address_cast<ip::address_v4>(addr1);
    (void)addr_v4_value;

    ip::address_v6 addr_v6_value = ip::address_cast<ip::address_v6>(addr1);
    (void)addr_v6_value;

    string_value = addr1.to_string();
    string_value = addr1.to_string(ec);

    // address comparisons.

    b = (addr1 == addr2);
    (void)b;

    b = (addr1 != addr2);
    (void)b;

    b = (addr1 < addr2);
    (void)b;

    b = (addr1 > addr2);
    (void)b;

    b = (addr1 <= addr2);
    (void)b;

    b = (addr1 >= addr2);
    (void)b;

    // address creation functions.

    addr1 = ip::make_address("127.0.0.1");
    addr1 = ip::make_address("127.0.0.1", ec);
    addr1 = ip::make_address(string_value);
    addr1 = ip::make_address(string_value, ec);

    // address I/O.

    std::ostringstream os;
    os << addr1;

    std::wostringstream wos;
    wos << addr1;
  }
  catch (std::exception&)
  {
  }
}
TVerdict CresolvertpcollisionorlooplStep::doTestStepL()
	{
    SetTestStepResult(EFail);
    CRtpCollisionMng *collMgr = NULL;
    CRtpSourceEntry *entry = NULL;
    
    INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL()"));
    
    /* Normal Call */
    TRAPD(res,collMgr = CRtpCollisionMng::NewL(iRtpController,iSSRC1,iCname1));
    if(KErrNone != res)
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() (iRtpController,iSSRC1,iCname1) Failed"));
    	return TestStepResult();
    }
    
    entry = collMgr->FindEntry(iSSRC1);
    /* Set the RTP and RTCP Source address */
    TInetAddr addrLocal(iLocalIpAddr,iPort1);
    entry->SetRtpSourceAddr(addrLocal);
    addrLocal.SetPort(iPort1 + 1);
    entry->SetRtcpSourceAddr(addrLocal);

    
    
    //A dummy SSRC is given and a New Source is Created */
    TRAP(res,entry = collMgr->CreateNewSourceL(iSSRC2));
    if(res != KErrNone)
    {
    	/* Failed .. Return */
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed"));
    	delete collMgr;
    	return TestStepResult();
    }
    
    
    /* Set the RTP and RTCP Source address */
    TInetAddr addr(iIpAddr1,iPort1);
    entry->SetRtpSourceAddr(addr);
    addr.SetPort(iPort1+1);
    entry->SetRtcpSourceAddr(addr);
    
    //A dummy SSRC is given and a New Source is Created */
    TRAP(res,entry = collMgr->CreateNewSourceL(iSSRC3));
    if(res != KErrNone)
    {
    	/* Failed .. Return */
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed"));
    	delete collMgr;
    	return TestStepResult();
    }
    
    /* Set the RTP and RTCP Source address */
    TInetAddr addr2(iIpAddr2,iPort2);
    entry->SetRtpSourceAddr(addr2);
    addr2.SetPort(iPort2+1);
    entry->SetRtcpSourceAddr(addr2);
    
    /* Now check a Normal recv from BABE2 */
    entry = collMgr->FindEntry(iSSRC2);
    if(collMgr->IsCollisionOrLoopback(entry,addr,ERtcp))
    {
    	/* This was not a Collision and was flagged as a Collision.*/
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed-Normal Rec Flagged as Collision"));
    	delete collMgr;
    	return TestStepResult();
    	
    }
    
    
    entry = collMgr->FindEntry(iSSRC2);
    /* Simulating a Collision. Make a Dummy IP Address */
    TInetAddr addr3(iIpAddr3,iPort1);
    
    if(!collMgr->IsCollisionOrLoopback(entry,addr3,ERtp))
    {
    	/* This was a Collision and was flagged as not a Collision.*/
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Collision Not Detected"));
    	delete collMgr;
    	return TestStepResult();
    	
    }
    
    entry = collMgr->FindEntry(iSSRC2);
    /* Simulating a Collision. Make a Dummy IP Address */
    TInetAddr addr_rtcp(iIpAddr3,iPort1+1);
    
    if(!collMgr->IsCollisionOrLoopback(entry,addr_rtcp,ERtcp))
    {
    	/* This was a Collision and was flagged as not a Collision.*/
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Collision Not Detected"));
    	delete collMgr;
    	return TestStepResult();
    	
    }
    
    /* Calling Resolve Collision */
    if(collMgr->ResolveRtpCollisionOrLoopL(iSSRC2,addr3,ERtp))
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Collision TRUE for processing :("));
    	delete collMgr;
    	return TestStepResult();
    }
    
    /* Calling Resolve Collision ..Our Address Given*/
    if(!collMgr->ResolveRtpCollisionOrLoopL(iSSRC1,addr3,ERtp))
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Local Collision FALSE for processing :("));
    	delete collMgr;
    	return TestStepResult();
    }
    
    if(collMgr->GetLocalEntry()->SRC() == iSSRC1)
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Local SSRC not Changed :("));
    	delete collMgr;
    	return TestStepResult();
    }
 
	TInt changedSSRC = collMgr->GetLocalEntry()->SRC();
	
    /* Calling Resolve Collision ..Our Address Given*/
    if(!collMgr->ResolveRtpCollisionOrLoopL(collMgr->GetLocalEntry()->SRC(),addr3,ERtp|KIsAlreadySending))
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Local Collision FALSE for processing :("));
    	delete collMgr;
    	return TestStepResult();
    }
    
    if(collMgr->GetLocalEntry()->SRC() == changedSSRC)
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Local SSRC not Changed :("));
    	delete collMgr;
    	return TestStepResult();
    }
    
   
    /* Try a Loop Test .. Now */
    
    /* Calling Resolve Collision ..Give the new SSRC and Old Addresss */
    if(collMgr->ResolveRtpCollisionOrLoopL(collMgr->GetLocalEntry()->SRC(),addr3,ERtp))
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Loop Detection 1 :("));
    	delete collMgr;
    	return TestStepResult();
    }
    
    if(collMgr->ResolveRtpCollisionOrLoopL(collMgr->GetLocalEntry()->SRC(),addr3,ERtp|KIsAlreadySending))
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Loop Detection 2 :("));
    	delete collMgr;
    	return TestStepResult();
    }
    
    /* Calling again */
    
    /* Calling Resolve Collision ..Give the new SSRC and Old Addresss */
    if(collMgr->ResolveRtpCollisionOrLoopL(collMgr->GetLocalEntry()->SRC(),addr3,ERtp|KIsAlreadySending))
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Loop Detection 3 :("));
    	delete collMgr;
    	return TestStepResult();
    }
    
    /* Calling Resolve Collision ..Give the new SSRC and Old Addresss */
    if(collMgr->ResolveRtpCollisionOrLoopL(collMgr->GetLocalEntry()->SRC(),addr3,ERtp))
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Loop Detection 4 :("));
    	delete collMgr;
    	return TestStepResult();
    }
    
    if(collMgr->ResolveRtpCollisionOrLoopL(collMgr->GetLocalEntry()->SRC(),addr3,ERtcp))
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Loop Detection 5 :("));
    	delete collMgr;
    	return TestStepResult();
    }

    /* We have received only one RTP from the colliding Source. What if we receive an RTCP from a 
       Different source With the same SSRC ?  */ 
	
	/*This condition tickles an old issue. So lets keep it that way */
#if 0 
    TInetAddr addr4(iIpAddr4,iPort4);
    entry = collMgr->FindEntry(iSSRC1);
    if(!collMgr->IsCollisionOrLoopback(entry,addr4,ERtcp))
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Incorrect Collision Detection"));
    	delete collMgr;
    	return TestStepResult();
    	
    }
       
    /* Now receiving an RTCP from the same Source.. See it that is not flagged as a Collision */
    addr3.SetPort(iPort1+1);
    entry = collMgr->FindEntry(iSSRC1);
    if(collMgr->IsCollisionOrLoopback(entry,addr3,ERtcp))
    {
    	INFO_PRINTF1(_L("CresolvertpcollisionorlooplStep::doStepL() - Failed - Incorrect Collision Dectection"));
    	delete collMgr;
    	return TestStepResult();
    	
    }
#endif
    
    SetTestStepResult(EPass);
    delete collMgr;
    
	return TestStepResult();
	}