void CDomainNameCodec::DecodeL(TPtr8& aInDes)
{
TDomainName domainName;
TUint8* pChar = const_cast<TUint8*>(aInDes.Ptr());
TUint listLength = aInDes.Length();
TUint8 labelLength = 0;
// Walk the list of domain names
while(pChar < aInDes.Ptr() + listLength)
{
domainName.Zero();
while(*pChar++ != NULL)
{
if(domainName.Length() > 0)
{
domainName.Append('.');
}
labelLength = *(pChar - 1);
// The two highest order bits must be clear
User::LeaveIfError(labelLength & 0xC0 ? KErrArgument : KErrNone);
// Add in the label data
domainName.Append(pChar, labelLength);
// Advance the pointer to the next length value
pChar += labelLength;
}
iDomainList.Append(domainName);
}
}
// ---------------------------------------------------------------------------
// CFepUiLayout::SendEditorTextAndCursorPosL
// handle layout command
// ---------------------------------------------------------------------------
//
void CFepUiLayout::SendEditorTextAndCursorPosL(TUint8* aData)
{
RDesReadStream readStream;
TPtr8 countPtr( aData, 2*sizeof(TInt), 2*sizeof(TInt) );
readStream.Open(countPtr);
CleanupClosePushL(readStream);
const TInt dataCount = readStream.ReadInt32L();
const TInt textCount = readStream.ReadInt32L();
CleanupStack::PopAndDestroy(&readStream);
TPtr8 ptr( aData+2*sizeof(TInt), dataCount+textCount, dataCount+textCount );
readStream.Open(ptr);
CleanupClosePushL(readStream);
HBufC8* dataBuf = HBufC8::NewLC(dataCount);
TPtr8 dataBufPtr = dataBuf->Des();
readStream.ReadL(dataBufPtr, dataCount);
TFepInputContextFieldData* pIcfData =
reinterpret_cast<TFepInputContextFieldData*>(const_cast<TUint8*>(dataBufPtr.Ptr()));
HBufC8* textBuf = HBufC8::NewLC(textCount);
TPtr8 textBufPtr = textBuf->Des();
readStream.ReadL(textBufPtr, textCount);
pIcfData->iText.Set( reinterpret_cast<const TUint16*>(textBufPtr.Ptr()),
textCount/2);
OnAppEditorTextComing(*pIcfData);
CleanupStack::PopAndDestroy(textBuf);
CleanupStack::PopAndDestroy(dataBuf);
CleanupStack::PopAndDestroy(&readStream);
}
EXPORT_C TInt CDosExtensionBase::ExecuteMessageL(const RMessage2& aMessage)
{
API_TRACE_( "[DOSSERVER] CDosExtensionBase::ExecuteMessageL(...)" );
__ASSERT_DEBUG(aMessage.Function() == ECallFunction,
PanicClient(aMessage,EPanicIllegalFunction));
TInt retVal(KErrNone);
TBool parameterModifiedByDSY(EFalse);
// Get data from RMessage
TExtensionParPckg extPars;
aMessage.ReadL(0, extPars);
TInt dataLength(extPars().iParLength);
if (dataLength >= 0)
{
HBufC8* dataBuffer = HBufC8::NewMaxLC( dataLength );
TPtr8 dataPtr = dataBuffer->Des();
aMessage.ReadL( 1, dataPtr );
// Check autocomplete flag
TUint autoCompl(aMessage.Int2());
if (autoCompl == KAutoComplete)
{
COM_TRACE_4( "[DOSSERVER] MDosExtensionBaseDSY::CallFunctionL(0x%x,0x%x,0x%x,0x%x)"
,extPars().iFunc
,dataPtr.Ptr()
,dataPtr.Length()
,autoCompl );
retVal = CallFunctionL(extPars().iFunc, const_cast<TUint8*>(dataPtr.Ptr()), dataPtr.Length(), parameterModifiedByDSY);
if((retVal == KErrNone) && parameterModifiedByDSY)
{
// Write over client's parameters
retVal = aMessage.Write(1, dataPtr);
}
}
else
{
COM_TRACE_3( "[DOSSERVER] MDosExtensionBaseDSY::CallFunctionAndCompleteL(0x%x,0x%x,0x%x)"
,extPars().iFunc
,dataPtr.Ptr()
,dataPtr.Length() );
CallFunctionAndCompleteL(extPars().iFunc, const_cast<TUint8*>(dataPtr.Ptr()), dataPtr.Length(), aMessage);
}
CleanupStack::PopAndDestroy(); // dataBuffer
}
else
{
// Client passed negative parameter length
retVal = KErrGeneral;
}
return retVal;
}
void CProtocolExadump::DoPacket(const RMBufPacketBase &aPacket, const RMBufPktInfo &aInfo)
/**
* Dump the packet.
*
* This is called for both incoming and outgoing packets, from the
* respective ApplyL methods.
*
* @param aPacket The packet data
* @param aInfo The packet inforrmation
*/
{
/** @code */
// Open the dump file, if not already opened (or attempted).
if (iOpen == 0)
DoOpen(1500);
if (iOpen < 0)
return; // cannot open output file.
//
// Build PCAP frame into iBuffer (pcap_pkthdr + snapped portion of the packet)
//
TPtr8 buf = iBuffer->Des();
struct pcap_pkthdr *const hdr = (struct pcap_pkthdr *)buf.Ptr();
TPtr8 ptr((TUint8 *)buf.Ptr() + sizeof(*hdr), buf.MaxLength() - sizeof(*hdr));
const TInt snap = aInfo.iLength > ptr.MaxLength() ? ptr.MaxLength() : aInfo.iLength;
ptr.SetLength(snap);
aPacket.CopyOut(ptr);
hdr->caplen = snap;
hdr->len = aInfo.iLength;
TTime stamp;
stamp.UniversalTime();
const TTimeIntervalMicroSeconds elapsed = stamp.MicroSecondsFrom(iBase);
#ifdef I64INT
hdr->ts.tv_usec = I64INT(elapsed.Int64() % 1000000);
hdr->ts.tv_sec = I64INT(elapsed.Int64() / 1000000);
#else
hdr->ts.tv_usec = (elapsed.Int64() % 1000000).GetTInt();
hdr->ts.tv_sec = (elapsed.Int64() / 1000000).GetTInt();
#endif
//
// Write frame out.
//
iDumpFile.Write(buf, snap+sizeof(*hdr));
/** @endcode */
}
int main()
{
__UHEAP_MARK;
int retval =ESuccess;
wchar_t* mywcharstring = L"Hello Widechar String";
int wchar_length= wcslen(mywcharstring);
TBufC8<30> buf;
TPtr8 myTptr = buf.Des();
char* temp=new char[30];
retval = WcharpToTptr8(mywcharstring,temp, myTptr);
int buf_len = myTptr.Length();
if (retval ==ESuccess &&\
wchar_length == buf_len &&\
strncmp("Hello Widechar String",(char*)myTptr.Ptr() , 21) ==0 )
{
printf("wcharptotptr8 content check Passed\n");
}
else
{
assert_failed = true;
printf("wcharptotptr8 content check Failed\n");
}
delete []temp;
__UHEAP_MARKEND;
testResultXml("test_wcharptotptr8_content_check");
return 0;
}
EXPORT_C int Tptr8ToWcharp(const TPtr8& aSrc, wchar_t* aDes, int& n_size)
{
int retval = ESuccess;
unsigned int ilen = aSrc.Length();
int minusone = -1;
if (0 == ilen)
{
return EDescriptorNoData;
}
else if(!aDes)
{
return EInvalidPointer;
}
else if(n_size < ilen+1)
{
n_size = ilen+1 ;
return EInvalidSize;
}
if(minusone != mbstowcs(aDes, (const char*)aSrc.Ptr(), ilen))
{
aDes[ilen] = L'\0';
}
else
{
retval = EInvalidMBSSequence;
}
return retval;
}
TReal CGpsDataHandler::ParseCoordinateData() {
TPtr8 pBuffer = iBuffer->Des();
TReal aAngle;
TReal aResult = 0.0;
TInt aFindResult;
aFindResult = pBuffer.Find(_L8(","));
if(aFindResult != KErrNotFound) {
HBufC8* aField = HBufC8::NewL(aFindResult);
CleanupStack::PushL(aField);
TPtr8 pField = aField->Des();
pField.Copy(pBuffer.Ptr(), aFindResult);
pBuffer.Delete(0, aFindResult+1);
TLex8 aFieldLex(pField.Ptr());
if(aFieldLex.Val(aAngle, '.') == KErrNone) {
TInt32 aDegrees;
Math::Int(aDegrees, aAngle / 100.0);
TInt32 aMinutes;
Math::Int(aMinutes, aAngle - aDegrees * 100);
TReal aDecimal;
Math::Frac(aDecimal, aAngle);
aResult = aDegrees + (aMinutes + aDecimal) / 60.0;
if(pBuffer[0] == TUint('S') || pBuffer[0] == TUint('W')) {
aResult = -aResult;
}
aFindResult = pBuffer.Find(_L8(","));
if(aFindResult != KErrNotFound) {
pBuffer.Delete(0, aFindResult+1);
}
}
CleanupStack::PopAndDestroy();
}
return aResult;
}
/**
@SYMTestCaseID PDS-STORE-UT-4055
@SYMTestCaseDesc Test for DEF141471 - STORE, new stream performance tests.
PREQ2505 Insturmentation of PDS.
RMemWriteStream & RMemReadStream performance tests.
@SYMTestPriority High
@SYMTestActions Test for DEF141471 - STORE, new stream performance tests.
@SYMTestExpectedResults Test must not fail
@SYMDEF DEF141471
*/
void MemStreamTestL()
{
HBufC8* buf = HBufC8::NewLC(KBufSize);
TPtr8 bufPtr = buf->Des();
//RMemWriteStream::Open()
RMemWriteStream strm1;
TUint32 fc = User::FastCounter();
strm1.Open(const_cast <TUint8*> (bufPtr.Ptr()), KBufSize);
TUint32 openFc = CalcTickDiff(fc, User::FastCounter());
PrintFcDiffAsUs(_L("### RMemWriteStream::Open(), Time=%d us\r\n"), openFc);
strm1.Close();
//RMemWriteStream::RMemWriteStream(TAny*,...)
fc = User::FastCounter();
RMemWriteStream strm2(const_cast <TUint8*> (bufPtr.Ptr()), KBufSize);
TUint32 constrFc = CalcTickDiff(fc, User::FastCounter());
PrintFcDiffAsUs(_L("### RMemWriteStream::RMemWriteStream(TAny*,...), Time=%d us\r\n"), constrFc);
CleanupClosePushL(strm2);
DoStreamWriteTestL(strm2);
CleanupStack::PopAndDestroy(&strm2);
//RMemReadStream::Open()
RMemReadStream strm3;
fc = User::FastCounter();
strm3.Open(bufPtr.Ptr(), KBufSize);
openFc = CalcTickDiff(fc, User::FastCounter());
PrintFcDiffAsUs(_L("### RMemReadStream::Open(), Time=%d us\r\n"), openFc);
strm3.Close();
//RMemReadStream::RMemReadStream(TAny*,...)
fc = User::FastCounter();
RMemReadStream strm4(bufPtr.Ptr(), KBufSize);
constrFc = CalcTickDiff(fc, User::FastCounter());
PrintFcDiffAsUs(_L("### RMemReadStream::RMemReadStream(TAny*,...), Time=%d us\r\n"), openFc);
CleanupClosePushL(strm4);
DoStreamReadTestL(strm4);
CleanupStack::PopAndDestroy(&strm4);
CleanupStack::PopAndDestroy(buf);
}
void CRFC3984Encode::AddSnaluPacketL( TPtr8 aStart, TInt aSize )
{
HBufC8* pBuffer = HBufC8::NewLC( aSize );
TPtr8 pPtr = pBuffer->Des();
pPtr.Copy( aStart.Ptr(), aSize );
// inserting into the payloadized NAL unit buffer for retreival
iPayloadizedBuffers.InsertL( pBuffer, iNalCount );
iNalCount++;
CleanupStack::Pop( pBuffer );
}
void CSecureSocketReader::IssueRead()
{
SUPLLOG(ELogP1, "CSecureSocketReader::IssueRead() Begin\n");
if (!IsActive())
{
TPtr8 ptr = iBuffer.MidTPtr(iReadSoFar);
iPtr.Set(const_cast<TUint8*>(ptr.Ptr()), 0, ptr.MaxLength());
iSocket.RecvOneOrMore(iPtr, iStatus, iBufferRead);
SetActive();
}
SUPLLOG(ELogP1, "CSecureSocketReader::IssueRead() End\n");
}
//------------------------------------------------------------
// CNsmlObexClient::ReceiveDataL( TDes8& aStartPtr, TRequestStatus &aStatus )
//------------------------------------------------------------
void CNsmlObexClient::ReceiveDataL( TPtr8& aStartPtr, TRequestStatus &aStatus )
{
iAgentStatus = &aStatus;
// agent
*iAgentStatus = KRequestPending;
iDataPtr.Set( aStartPtr );
if ( iState != EWaitingToReceive )
{
User::Leave( KErrDisconnected );
}
else if ( IsActive() )
{
User::Leave( KErrInUse );
}
iDataBuf->Reset();
iCurrObject->Reset();
TBuf8<KNameLen> str;
str.Copy( this->iMimeType->Des() );
iCurrObject->SetTypeL( str );
iClient->Get( *iCurrObject, iStatus );
DBG_DUMP((void*)aStartPtr.Ptr(), aStartPtr.Length(),
_S8("ReceiveDataL (WBXML)"));
#ifdef __NSML_DEBUG__
_DBG_FILE("CNsmlObexClient::ReceiveDataL: CWbxml2XmlConverter::ConvertL()\
begin");
CWbxml2XmlConverter* c = CWbxml2XmlConverter::NewLC();
c->ConvertL(aStartPtr.Ptr(), aStartPtr.Length());
DBG_DUMP((void*)c->Document().Ptr(), c->Document().Length(),
_S8("ReceiveDataL (XML)") );
CleanupStack::PopAndDestroy(); // c
_DBG_FILE("CNsmlObexClient::ReceiveDataL: CWbxml2XmlConverter::ConvertL() end");
#endif // __NSML_DEBUG__
SetActive ();
}
/*
** Read data from a file into a buffer. Return SQLITE_OK if all
** bytes were read successfully and SQLITE_IOERR if anything goes
** wrong.
*/
int winRead(
sqlite3_file *id, /* File to read from */
void *pBuf, /* Write content into this buffer */
int amt, /* Number of bytes to read */
sqlite3_int64 offset /* Begin reading at this offset */
){
int rc;
size_t got;
symbianFile *pFile = (symbianFile*)id;
assert( id!=0 );
SimulateIOError(return SQLITE_IOERR_READ);
TInt tOffset = (TInt)offset;
rc = pFile->file.Seek(ESeekStart, tOffset);
if( rc!= KErrNone){
return SQLITE_FULL;
}
HBufC8* buf = HBufC8::NewL(amt) ;
TPtr8 ptr = buf->Des();
if (pFile->file.Read(ptr, amt) != KErrNone)
{
delete buf;
return SQLITE_IOERR_READ;
}
got = buf->Length();
if( got == 0 ){
delete buf;
TInt size = 0;
if (pFile->file.Size(size) != KErrNone)
{
return SQLITE_IOERR_READ;
}
if (size == 0)
{
return SQLITE_IOERR_SHORT_READ;
}
return SQLITE_IOERR_READ;
}
memcpy(pBuf, ptr.Ptr(), got);
delete buf;
if( got == amt ){
return SQLITE_OK;
}else{
memset(&((char*)pBuf)[got], 0, amt-got);
return SQLITE_IOERR_SHORT_READ;
}
}
///////////////////////////////////////////////////////////////////
// CopyPackedFileHeaderToUnpackedObject
// This function copies the packet format log file element to an
// unpacked object.
///////////////////////////////////////////////////////////////////
void CEventViewer::CopyPackedLogElemToUnpackedObject(TUint32 aPositionOfCurrLogElem)
{
// Build the log element pointer
TPtr8 logFileBuf (iLogFileBuf->Des()); // Log file in memory
TPtr8 logElem (const_cast<TUint8*>(logFileBuf.Ptr())+ aPositionOfCurrLogElem, // Data ptr
iUnpackedLogElem.iEventLength, // Data length
iUnpackedLogElem.iEventLength); // Max length
// Convert the TPtr8 parameter to TUint8* format
TLogElem* logElemPtr = (TLogElem*) logElem.Ptr();
// Copy the packet format header parameters to unpacked object
iUnpackedLogElem.iMsgId = logElemPtr->GetMsgId();
iUnpackedLogElem.iTimeStamp = logElemPtr->GetTimeStamp();
iUnpackedLogElem.iSourceComponent = logElemPtr->GetSourceComponent();
iUnpackedLogElem.iCategory = logElemPtr->GetCategory();
iUnpackedLogElem.iDescrCount = logElemPtr->GetDescrCount();
}
/**
EncodeToL()
Encode a populated outgoing message to the specified buffer.
@param aBuf buffer pointer
@return error indication, KErrNone otherwise
*/
EXPORT_C TInt CSuplMessageBase::EncodeToL(TPtr8& aBuf)
{
SUPLLOG(ELogP1, "CSuplMessageBase::EncodeToL() Begin\n");
__ASSERT_DEBUG(iIsOutgoingMessage, User::Invariant());
TInt retval = KErrNone;
// buffer pointer, fixed max length
TUint8* msgBuf = (TUint8*)aBuf.Ptr();
TInt maxLength = aBuf.MaxLength();
// Log the un-encoded SUPL values
SUPLLOG(ELogP9, "-> ENCODING SUPL MESSAGE FOR SENDING\n");
//LogMessageContent();
// if the message is a SUPL POS, encode the payload
if (iData->message.t == T_UlpMessage_msSUPLPOS)
{
CSuplPos* suplPos = reinterpret_cast <CSuplPos*>(this);
retval = suplPos->EncodePosPayloadL();
if (retval != KErrNone)
{
SUPLLOG(ELogP1, "CSuplMessageBase::EncodeToL() Error encoding Positioning Payload\n");
return retval;
}
}
// construct the encode buffer control object
iEncodeBuffer = new (ELeave) ASN1PEREncodeBuffer (msgBuf, (unsigned int)maxLength, FALSE, (OSRTContext*)iControl->getContext());
// Encode the message to the buffer
TInt stat = iControl->EncodeTo(*iEncodeBuffer);
if (stat == 0)
{
// Set the length according to reported buffer length
TInt len = iEncodeBuffer->getMsgLen ();
iData->length = len;
aBuf.SetLength(len);
// clear the encoded length field
msgBuf[0] = 0;
msgBuf[1] = 0;
// set the encoded length field
msgBuf[0] |= (TUint8)( len >> 8 );
msgBuf[1] |= (TUint8)( len );
}
//
// Get interface number
//
TInt CNcmCommunicationInterface::GetInterfaceNumber()
{
OstTraceFunctionEntry1( CNCMCOMMUNICATIONINTERFACE_GETINTERFACENUMBER_ENTRY, this );
TInt interfaceSize = 0;
// 2 is where the interface number is, according to the LDD API
const TInt intNumOffsetInDes = 2;
// 0 means the main interface in the LDD API
TInt res = iPort.GetInterfaceDescriptorSize(0, interfaceSize);
if ( res )
{
OstTraceFunctionExit1( CNCMCOMMUNICATIONINTERFACE_GETINTERFACENUMBER_EXIT, this );
return res;
}
HBufC8* interfaceBuf = HBufC8::New(interfaceSize);
if ( !interfaceBuf )
{
OstTraceFunctionExit1( CNCMCOMMUNICATIONINTERFACE_GETINTERFACENUMBER_EXIT_DUP1, this );
return KErrNoMemory;
}
TPtr8 interfacePtr = interfaceBuf->Des();
interfacePtr.SetLength(0);
// 0 means the main interface in the LDD API
res = iPort.GetInterfaceDescriptor(0, interfacePtr);
if ( res )
{
delete interfaceBuf;
OstTraceFunctionExit1( CNCMCOMMUNICATIONINTERFACE_GETINTERFACENUMBER_EXIT_DUP2, this );
return res;
}
const TUint8* buffer = reinterpret_cast<const TUint8*>(interfacePtr.Ptr());
iInterfaceNumber = buffer[intNumOffsetInDes];
delete interfaceBuf;
OstTraceFunctionExit1( CNCMCOMMUNICATIONINTERFACE_GETINTERFACENUMBER_EXIT_DUP3, this );
return KErrNone;
}
/**
Encode CBW into the supplied buffer. The command is also encoded using the
supplied encoding method of MClientCommandServiceReq.
@param aBuffer The buffer to copy the encoded stream in to
@param aCommand The command to be encoded into the Command Block field
*/
void TBotCbw::EncodeL(TPtr8 &aBuffer, const MClientCommandServiceReq* aCommand) const
{
__MSFNSLOG
aBuffer.SetLength(KCbwLength);
TPtr8 commandBlock = aBuffer.MidTPtr(TBotCbw::KCbwCbOffset);
aBuffer.FillZ();
TInt cbLength = aCommand->EncodeRequestL(commandBlock);
TUint8* ptr = (TUint8 *) aBuffer.Ptr();
LittleEndian::Put32(&ptr[KCbwSignatureOffset], 0x43425355);
LittleEndian::Put32(&ptr[KCbwTagOffset], iTag);
LittleEndian::Put32(&ptr[KCbwDataTransferLengthOffset], iDataTransferLength);
aBuffer[KCbwFlagOffset] = (iDirection == EDataOut) ? 0x00 : 0x80;
aBuffer[KCbwLunOffset] = iLun;
aBuffer[KCbwCbLengthOffset] = cbLength;
__BOTPRINT1(_L("BOT TBotCbw::Encode Lun=%d"), iLun);
}
void COptionList::ParseL(TPtr8& aDes8)
/**
* Parse message to set pointers into descriptor buffer
* at locations of each option supplied in a response msg
*
* @internalTechnology
*/
{
ASSERT(!iRecord.iFirst);
COptionNode** ppNode = reinterpret_cast<COptionNode**>(&iRecord.iFirst);
while(aDes8.Length())
{
User::LeaveIfError(aDes8.Length() < KOptionHeaderLength ? KErrBadDescriptor : KErrNone);
TUint nOptCode = TBigEndian::GetValue(aDes8.Ptr(), KOptionLengthOffset);
*ppNode = CreateNodeL(nOptCode);
(*ppNode)->ParseL(aDes8);
ppNode = reinterpret_cast<COptionNode**>(&(*ppNode)->iNext);
}
}
/**
Draws a VerticalGradient onto a CFbsBitmap from top/color aLo to bottom/aHi
*/
void CTe_graphicsperformanceSuiteStepBase::VerticalGradientAlphaL(CFbsBitmap* aBitmap, TRgb aLo, TRgb aHi)
{
const TSize size = aBitmap->SizeInPixels();
const TDisplayMode mode = aBitmap->DisplayMode();
const TInt scanLineLength = CFbsBitmap::ScanLineLength(size.iWidth, mode);
HBufC8* buffer = HBufC8::NewL(scanLineLength);
CleanupStack::PushL(buffer);
TPtr8 des = buffer->Des();
des.SetLength(scanLineLength);
for(TInt i=0; i<size.iHeight; i++)
{
TRgb color = InterpolateColour(aLo, aHi, i, size.iHeight);
switch(mode)
{
case EGray256:
{
TUint8 g = color.Gray256();
TUint8* p = (TUint8*)des.Ptr();
for(TInt j=0; j<size.iWidth; j++)
{
p[j] = g;
}
}
break;
case EColor64K:
{
TUint16 g = color._Color64K();
TUint16* p = (TUint16*)des.Ptr();
for(TInt j=0; j<size.iWidth/2; j++)
{
p[j] = g;
}
}
break;
case EColor16MU:
{
TUint32 rgba = color._Color16MU();
TUint32* p = (TUint32*)des.Ptr();
for(TInt j=0; j<(size.iWidth/4); j++)
{
p[j] = rgba;
}
}
break;
case EColor16MA:
{
TUint32 rgba = color._Color16MA();
TUint32* p = (TUint32*)des.Ptr();
for(TInt j=0; j<(size.iWidth/4); j++)
{
p[j] = rgba;
}
}
break;
case EColor16MAP:
{
TUint32 rgba = color._Color16MAP();
TUint32* p = (TUint32*)des.Ptr();
for(TInt j=0; j<(size.iWidth/4); j++)
{
p[j] = rgba;
}
}
break;
default:
ASSERT(EFalse);
break;
}
aBitmap->SetScanLine(des, i);
}
CleanupStack::PopAndDestroy(buffer);
}
void CIkev1Dialog::StoreUserNameL(TPtr8 aUserName)
{
/*--------------------------------------------------------------------
*
* Store specified user name into cache file (used as init value in
* the next user name specific dialog).
* User name shall be encrypted (DES) before stored into cache file.
*
*---------------------------------------------------------------------*/
if (aUserName.Length() == 0)
{
User::Leave(KErrArgument);
}
//
// Allocate buffer for file header and encrypted key
//
HBufC8* HeaderBfr = HBufC8::NewLC(aUserName.Length() + sizeof(TUserNameFileHdr) + 32);
TUserNameFileHdr* FileHeader = (TUserNameFileHdr*)HeaderBfr->Ptr();
//
// Get random data values for salt and IV.
//
TPtr8 ptr((TUint8*)FileHeader, sizeof(TUserNameFileHdr));
ptr.SetLength(sizeof(TUserNameFileHdr));
TRandom::RandomL(ptr);
FileHeader->iFileId = USER_NAME_FILE_ID;
//
// Build encryption key from just created salt data and fixed
// secret passphrase using MD5 hash
//
TBuf8<16> EncryptionKey;
TPtr8 SaltPtr((TUint8*)FileHeader->iSalt, 8, 8);
User::LeaveIfError(CIkev1Dialog::BuildEncryptionKey(SaltPtr, EncryptionKey));
//
// Encrypt user name data with just created key.
// Because DES is used as encryption algorithm, the eight first
// octets of created encryption octets is used as encryption key.
//
TInt EncrLth = 0;
EncrLth = SymmetricCipherL((TUint8*)aUserName.Ptr(),
((TUint8*)FileHeader + sizeof(TUserNameFileHdr)),
aUserName.Length(), FileHeader->iIV, (TUint8*)EncryptionKey.Ptr(), ETrue);
if ( EncrLth )
{
//
// Write encrypted data into user name file
//
RFile NameFile;
TBuf<128> Ppath;
User::LeaveIfError(iFs.PrivatePath(Ppath));
Ppath.Append(USER_NAME_CACHE_FILE);
TInt err = iFs.CreatePrivatePath(EDriveC);
if (err != KErrNone &&
err != KErrAlreadyExists)
{
User::Leave(err);
}
User::LeaveIfError(NameFile.Replace(iFs, Ppath, EFileShareAny|EFileWrite));
TPtrC8 EncryptedData((TUint8*)FileHeader, sizeof(TUserNameFileHdr) + EncrLth);
NameFile.Write(EncryptedData);
NameFile.Close();
}
CleanupStack::PopAndDestroy(); // Delete encryption buffer
}
/**
@SYMTestCaseID PDS-SQL-UT-4151
@SYMTestCaseDesc Measures the performance of inserting multiple records
into the Music Player MPX database. This test is based on
a real Music Player Harvesting use case
@SYMTestPriority Medium
@SYMTestActions Reads SQL transactions from a file and executes them.
Records the time for executing each statement
@SYMTestExpectedResults All statements should be executed without error and
performance measurements logged
@SYMDEF DEF142306
*/
void RunTest()
{
//Open the file with the sql statements
_LIT(KSqlFileName,"z:\\test\\t_sqlperformance4.sql");
RFile sqlFile;
TInt err = sqlFile.Open(TheFs, KSqlFileName, EFileRead);
TEST2(err, KErrNone);
TInt fileLen = 0;
err = sqlFile.Size(fileLen);
TEST2(err, KErrNone);
HBufC8* sqlBuf = HBufC8::New(fileLen);
TEST(sqlBuf != NULL);
TPtr8 sql = sqlBuf->Des();
err = sqlFile.Read(sql);
sqlFile.Close();
TEST2(err, KErrNone);
TEST2(sql.Length(), fileLen);
//Open main database
err = TheDbC.Open(TheDbFileName, &TheSqlConfigString);
TEST2(err, KErrNone);
TheTest.Printf(_L("Beginning INSERTS...\n"));
const TInt KRecordCount = 6544;
TInt recordCount = 0;
TInt insertCnt = 0;
TInt updateCnt = 0;
TInt selectCnt = 0;
TInt trnCnt = 0;
TInt totalTime = 0;
TInt insertTrnCnt = 0;
TInt updateTrnCnt = 0;
TInt selectTrnCnt = 0;
for(;sql.Length()>0;)
{
TInt eolPos = sql.Locate(TChar('\n'));
if(eolPos < 0)
{
break;//No more SQL statements
}
TInt stmtLength = eolPos;
while (stmtLength > 0 && (sql[stmtLength-1] == '\r'))
{
--stmtLength; //Reduce length to remove carriage return characters from the end of the statement string
}
TPtrC8 sqlStmt8(sql.Ptr(), stmtLength);
TPtrC8 ptr = sql.Mid(eolPos + 1);//"eolPos + 1" - first character after '\n'
sql.Set(const_cast <TUint8*> (ptr.Ptr()), ptr.Length(), ptr.Length());
++recordCount;
//Convert to 16 bit query string
TBuf<1024> query;
query.Copy(sqlStmt8);
//Execute the statement
TInt start = User::FastCounter();
err = TheDbC.Exec(query);
TInt end = User::FastCounter();
TEST(err >= 0);
//Get the execution time for that statement
TInt duration = GetDuration(start, end);
totalTime += duration;
if(query == KBeginTransaction)
{
TheTest.Printf(_L("Execute Statement - BEGIN: %d us\n"), duration);
}
else if(query == KCommitTransaction)
{
++trnCnt;
TheTest.Printf(_L("Execute Statement - COMMIT: %d us, Trn#%d, \"INSERT\" count: %d, \"UPDATE\" count: %d, \"SELECT\" count: %d\n"),
duration, trnCnt, insertTrnCnt, updateTrnCnt, selectTrnCnt);
insertTrnCnt = updateTrnCnt = selectTrnCnt = 0;
}
else
{
TPtrC queryType(query.Ptr(), 6);
TheTest.Printf(_L("Execute Statement - %S: %d us\n"),&queryType, duration);
if(queryType.FindF(_L("INSERT")) >= 0)
{
++insertCnt;
++insertTrnCnt;
}
else if(queryType.FindF(_L("UPDATE")) >= 0)
{
++updateCnt;
++updateTrnCnt;
}
else if(queryType.FindF(_L("SELECT")) >= 0)
{
++selectCnt;
++selectTrnCnt;
}
}
}
delete sqlBuf;
TheDbC.Close();
TheTest.Printf(_L("Total time to process Songs: %d us\n"), totalTime);
TheTest.Printf(_L("Transactions count: %d, \"INSERT\" count: %d, \"UPDATE\" count: %d, \"SELECT\" count: %d\n"),
trnCnt, insertCnt, updateCnt, selectCnt);
TEST2(recordCount, KRecordCount);
}
void eapol_am_wlan_authentication_symbian_c::read_configureL(
const TDesC& aDbName,
const TDesC& aTableName,
eap_config_string field,
const u32_t /*field_length*/,
eap_variable_data_c * const data)
{
EAP_TRACE_BEGIN(m_am_tools, TRACE_FLAGS_DEFAULT);
EAP_TRACE_DEBUG(
m_am_tools,
TRACE_FLAGS_DEFAULT,
(EAPL("eapol_am_wlan_authentication_symbian_c::read_configureL(): %s, this = 0x%08x => 0x%08x\n"),
(m_is_client == true) ? "client": "server",
this,
dynamic_cast<abs_eap_base_timer_c *>(this)));
EAP_TRACE_RETURN_STRING_FLAGS(m_am_tools, TRACE_FLAGS_DEFAULT, "returns: eapol_am_wlan_authentication_symbian_c::read_configureL()");
// Open database
RDbNamedDatabase db;
TInt error = db.Open(m_session, aDbName);
EAP_TRACE_DEBUG(
m_am_tools,
TRACE_FLAGS_DEFAULT,
(EAPL("eapol_am_wlan_authentication_symbian_c::read_configureL(): db.Open(), error = %d\n"),
error));
User::LeaveIfError(error);
CleanupClosePushL(db);
// Create a buffer for the ascii strings - initialised with the argument
HBufC8* asciibuf = HBufC8::NewLC(128);
TPtr8 asciiString = asciibuf->Des();
asciiString.Copy(reinterpret_cast<const unsigned char *>(field));
// Buffer for unicode parameter
HBufC* unicodebuf = HBufC::NewLC(128);
TPtr unicodeString = unicodebuf->Des();
// Convert to unicode
unicodeString.Copy(asciiString);
// Now do the database query
HBufC* buf = HBufC::NewLC(KMaxSqlQueryLength);
TPtr sqlStatement = buf->Des();
_LIT(KSQLQueryRow, "SELECT %S FROM %S");
sqlStatement.Format( KSQLQueryRow, &unicodeString, &aTableName );
RDbView view;
User::LeaveIfError(view.Prepare(db, TDbQuery(sqlStatement), TDbWindow::EUnlimited));
CleanupClosePushL(view);
User::LeaveIfError(view.EvaluateAll());
if (view.FirstL())
{
eap_status_e status(eap_status_process_general_error);
view.GetL();
switch (view.ColType(1))
{
case EDbColText:
{
unicodeString = view.ColDes(1);
// Convert to 8-bit
asciiString.Copy(unicodeString);
if (asciiString.Size() > 0)
{
status = data->set_copy_of_buffer(asciiString.Ptr(), asciiString.Size());
if (status != eap_status_ok)
{
User::Leave(m_am_tools->convert_eapol_error_to_am_error(
EAP_STATUS_RETURN(m_am_tools, status)));
}
}
else
{
// Empty field. Do nothing...data remains invalid and the stack knows what to do hopefully.
break;
}
}
break;
case EDbColUint32:
{
TUint value;
value = view.ColUint32(1);
status = data->set_copy_of_buffer((const unsigned char *) &value, sizeof(value));
if (status != eap_status_ok)
{
User::Leave(m_am_tools->convert_eapol_error_to_am_error(
EAP_STATUS_RETURN(m_am_tools, status)));
}
}
break;
default:
EAP_TRACE_DEBUG(
m_am_tools,
TRACE_FLAGS_DEFAULT,
(EAPL("ERROR: read_configureL: Unexpected column type.\n")));
User::Panic(_L("EAPOL"), 1);
}
}
else
{
// Could not find parameter
EAP_TRACE_DEBUG(
m_am_tools,
TRACE_FLAGS_DEFAULT,
(EAPL("ERROR: read_configureL: Could not find configuration parameter.\n")));
User::Leave(m_am_tools->convert_eapol_error_to_am_error(
EAP_STATUS_RETURN(m_am_tools, eap_status_not_found)));
}
// Close database
CleanupStack::PopAndDestroy(&view);
CleanupStack::PopAndDestroy(buf);
CleanupStack::PopAndDestroy(unicodebuf);
CleanupStack::PopAndDestroy(asciibuf);
CleanupStack::PopAndDestroy(&db);
EAP_TRACE_END(m_am_tools, TRACE_FLAGS_DEFAULT);
}
/*
-------------------------------------------------------------------------------
Class: CStifParser
Method: NextSectionMemoryL
Description: Parses sections from configuration files.
Open and read configuration source and parses a required section.
If start tag is empty the parsing starts beginning of the configuration
file. If end tag is empty the parsing goes end of configuration file.
This method will parse next section after the earlier section if aSeeked
parameter is not given.
If configuration file includes several sections with both start and end
tags so aSeeked parameter seeks the required section. The aSeeked
parameters indicates section that will be parsed.
Parameters: const TDesC& aStartTag: in: Indicates a start tag for parsing
const TDesC& aEndTag: in: Indicates an end tag for parsing
TInt aSeeked: in: a seeked section which will be parsed
Return Values: CStifSectionParser* : pointer to CStifSectionParser object
NULL will return if file size or aSeeked is not positive
NULL will return if start tag is not found
NULL will return if end tag is not found
NULL will return if parsed section length is not positive
Errors/Exceptions: Leaves if called Size method fails
Leaves if HBufC::NewLC method leaves
Leaves if called Read method fails
Leaves if CStifSectionParser::NewL methods leaves
Status: Proposal
-------------------------------------------------------------------------------
*/
CStifSectionParser* CStifParser::NextSectionMemoryL( const TDesC& aStartTag,
const TDesC& aEndTag,
TInt aSeeked )
{
TInt size( 0 );
// Parser is created straight with data
if( iParsingMode == EBufferParsing )
{
size = iBuffer.Length();
}
// Parser is created with path and file informations
else
{
User::LeaveIfError( iFile.Size( size ) );
}
// size or aSeeked cannot be 0 or negetive
if( size <= 0 || aSeeked <= 0)
{
__TRACE(
KInfo, ( _L( "STIFPARSER: NextSectionL method returns a NULL" ) ) );
return NULL;
}
const TInt tmpSize = 128;//--UNICODE-- KMaxName; // 128 - set to even value, because KMaxName may change in the future
TInt offset( 0 ); // Offset value to parts reading
// Construct modifiable heap-based descriptor. tmp to CleanupStack
HBufC* tmp = HBufC::NewLC( size );
TPtr wholeSection = tmp->Des();
// Construct modifiable heap-based descriptor. tmp2 to CleanupStack
HBufC8* tmp2 = HBufC8::NewLC( tmpSize ); // 128
TPtr8 buf = tmp2->Des();
// Construct modifiable heap-based descriptor. tmp3 to CleanupStack
HBufC* tmp3 = HBufC::NewLC( tmpSize ); // 128
TPtr currentSection = tmp3->Des();
// Parser is created straight with data
if( iParsingMode == EBufferParsing )
{
// If 8 bit copy changes to 16
wholeSection.Copy( iBuffer );
}
// Parser is created with path and file informations
else
{
TPtrC16 currentSectionUnicode;
do // Read data in parts(Maximum part size is KMaxName)
{
// Read data
User::LeaveIfError( iFile.Read( offset, buf, tmpSize ) );
// If file is unicode convert differently
if(iIsUnicode)
{
// 8 bit to 16 with unicode conversion - simply point to byte array as to double-byte array
currentSectionUnicode.Set((TUint16 *)(buf.Ptr()), buf.Length() / 2);
// Appends current section to whole section
wholeSection.Append( currentSectionUnicode );
}
else
{
// 8 bit to 16
currentSection.Copy( buf );
// Appends current section to whole section
wholeSection.Append( currentSection );
}
offset += tmpSize;
} while( offset < size );
}
CleanupStack::PopAndDestroy( tmp3 );
CleanupStack::PopAndDestroy( tmp2 );
// User wants section without c-style comments
if( iCommentType == ECStyleComments )
{
ParseCommentsOff( wholeSection );
}
TLex lex( wholeSection );
lex.SkipAndMark( iOffset );
// For the required section length and positions
TInt length( 0 );
TInt lengthStartPos( 0 );
TInt lengthEndPos( 0 );
TBool eos( EFalse );
TInt tagCount( 1 );
// Check is aStartTag given
if ( aStartTag.Length() == 0 )
{
// Skip line break, tabs, spaces etc.
lex.SkipSpace();
lengthStartPos = lex.Offset();
}
else
{
// While end of section
while ( !lex.Eos() )
{
TPtrC ptr = lex.NextToken();
// Start of the section is found and correct section
if ( ptr == aStartTag && tagCount == aSeeked )
{
lengthStartPos = lex.Offset();
break;
}
// Start tag is found but not correct section
else if ( ptr == aStartTag )
{
tagCount++;
}
}
}
// If we are end of section lex.Eos() and eos will be ETrue
eos = lex.Eos();
// Seeked section is not found
if ( tagCount != aSeeked )
{
__TRACE( KInfo, ( _L(
"STIFPARSER: NextSectionL method: Seeked section is not found" ) ) );
CleanupStack::PopAndDestroy( tmp );
User::Leave( KErrNotFound );
}
// Check is aEndTag given
if ( aEndTag.Length() == 0 )
{
lengthEndPos = wholeSection.Length();
}
else
{
// While end of section
while ( !lex.Eos() )
{
TPtrC ptr = lex.NextToken();
// End tag of the section is found
if ( ptr == aEndTag )
{
lengthEndPos = lex.Offset();
// Because Offset() position is after the aEndTag
lengthEndPos -= aEndTag.Length();
break;
}
}
}
// If we are end of section and lengthEndPos is 0
if ( lengthEndPos == 0 )
{
// lex.Eos() and eos will be ETrue
eos = lex.Eos();
}
// The length includes spaces and end of lines
length = ( lengthEndPos - lengthStartPos );
CStifSectionParser* section = NULL;
// If eos is true or length is negative
if ( eos || length <= 0 )
{
__TRACE(
KInfo, ( _L( "STIFPARSER: NextSectionL method returns a NULL" ) ) );
}
else
{
// Make CStifSectionParser object and alloc required length
section = CStifSectionParser::NewL( length );
CleanupStack::PushL( section );
// Copy required data to the section object
section->SetData( wholeSection, lengthStartPos, length );
//iOffset += lengthEndPos + aEndTag.Length();
iOffset = lex.Offset();
CleanupStack::Pop( section );
}
CleanupStack::PopAndDestroy( tmp );
return section;
}
void CRFC3984Encode::PayloadizeNaluL(
TDes8 & aBuffer,
TUint32 /*aTimeStamp*/,
TUint32& /*aMarkerBit*/,
TInt & aNalCount )
{
TInt startIndex = 0;
TInt size = 0;
__ASSERT_ALWAYS( iToPayloadizeCount > 0, User::Leave( KErrArgument ) );
__ASSERT_ALWAYS( iToPayloadizeBuffer.Count() == iToPayloadizeSizeBuffer.Count(),
User::Leave( KErrArgument ) );
if ( iToPayloadizeCount == 1 ) // SNALU packet
{
startIndex = iToPayloadizeBuffer[0];
size = iToPayloadizeSizeBuffer[0];
TPtr8 start = aBuffer.MidTPtr( startIndex );
AddSnaluPacketL( start, size );
}
else // payloadize STAP-A packet
{
TInt count = 0;
TInt totalSize = 0;
TUint8 headerByte = 0;
for ( count = 0; count < iToPayloadizeCount; count++ )
{
// finding total size of all the NALU's to aggregate
totalSize += iToPayloadizeSizeBuffer[count];
}
// addding the total size fields and STAP-A header size
totalSize += ( iToPayloadizeCount*2 + 1 );
count = 0;
// allocating memory for the total buffer size
HBufC8* pBuffer = HBufC8::NewLC( totalSize );
TUint16 value = 0;
TPtr8 pDes1 = pBuffer->Des();
headerByte = PACKET_STAP_A | ( aBuffer[iToPayloadizeBuffer[count]] & ( 0x7 << 5 ) );
pDes1.Append( &headerByte, 1 );
// Pps and sps are handled as SNALUs,
// if there's nothing else to packetize, stap-a packet is not created
TBool stapPacketCreated( EFalse );
for( count = 0; count < iToPayloadizeCount; count++ )
{
startIndex = iToPayloadizeBuffer[count];
size = iToPayloadizeSizeBuffer[count];
TPtr8 pStart = aBuffer.MidTPtr( startIndex ); // getting start index
if ( TMccCodecInfo::IsAvcPpsOrSpsData( pStart, ETrue ) )
{
AddSnaluPacketL( pStart, size );
}
else
{
// convert to network byte order
value = ByteOrder::Swap16( static_cast<TUint16>( size ) );
TUint8* ptrByte = reinterpret_cast<TUint8*>( &value );
pDes1.Append( ptrByte, 2 );
pDes1.Append( pStart.Ptr(), size );
stapPacketCreated = ETrue;
}
}
if ( stapPacketCreated )
{
// inserting stap-a packet into the payloadized NAL unit buffer for retrieval
iPayloadizedBuffers.InsertL( pBuffer, iNalCount );
iNalCount++;
CleanupStack::Pop(pBuffer);
}
else
{
// stap-a packet not created
CleanupStack::PopAndDestroy(pBuffer);
}
}
//Now cleaning up the buffer
iToPayloadizeBuffer.Reset();
iToPayloadizeSizeBuffer.Reset();
iToPayloadizeCount = 0;
aNalCount = iNalCount;
}
void CRFC3984Encode::FragmentNaluL(
TDes8 & aBuffer,
TUint32 /*aTimeStamp*/,
TUint32 & aMarkerBit,
TInt & aNalCount,
TInt aStartIndex,
TInt aSize,
TUint16 aDON )
{
TInt index = 0;
TInt fragsPacketized = 0;
TUint8 headerByte = 0; // FU-A packet header byte (contains F, NRI, Type Fields)
TUint8 fragHeaderByte = 0;
TInt length = 0;
// maximum size of fragment, 4 is to cater for DON field in FU-B
TInt fragMaxSize = iMaxPacketSize - 4;
TInt fragSize = 0; // size of fragment
HBufC8 * pBuffer = NULL;
// index keeps track of indexes in the buffer
index = aStartIndex;
// length of data packetized, the code decrements this after each fragment is made
length = aSize;
while ( length > 0 )
{
// Actually should be based on (PacketizationMode == INTERLEAVED && fragsPacketized == 0)
TBool fuB = EFalse;
headerByte = aBuffer[aStartIndex] & ( 0x07 << 5 ); // Extracting F and NRI bits
// taking lower 5 type bits and putting into fragHeader
fragHeaderByte = aBuffer[aStartIndex] & 0x1f;
if ( fragsPacketized == 0 )
{
fragHeaderByte |= (0x1 << 7); // setting start bit
}
if ( length <= fragMaxSize )
{
fragHeaderByte |= ( 0x1 << 6 ); // setting end byte
aMarkerBit = 1;
}
else
{
aMarkerBit = 0;
}
if ( fragsPacketized == 0 ) // skipping payload header byte for FU packets
{
index += 1;
length -= 1;
}
fragSize = ( length > fragMaxSize ) ? fragMaxSize+2 : length+2; // 2 bytes for headers
if( !fuB )
{
headerByte |= PACKET_FU_A;
}
else
{
fragSize += 2; // for additional DON field
headerByte |= PACKET_FU_B;
}
// allocating memory for fragmented NAL unit
pBuffer = HBufC8::NewLC(fragSize);
TPtr8 pDes = pBuffer->Des(); //new (ELeave) TBuf8<size>;
pDes.Append( &headerByte, 1 ); // appending FU-A packet header byte
pDes.Append( &fragHeaderByte, 1 ); // appending Fragment header
if ( fuB )
{
// writing DON in network byte order
TUint16 val = ByteOrder::Swap16( aDON );
TUint8* ptrByte = reinterpret_cast<TUint8*>( &val );
pDes.Append( ptrByte, 2 );
}
TPtr8 pStart = aBuffer.MidTPtr( index ); // pStart contains the data pointer
if ( !fuB )
{
pDes.Append( pStart.Ptr(), fragSize-2 ); // copying data
index += Min( length, fragMaxSize );
length -= ( fragSize-2 );
}
else
{
// copying data, subtracting DON and header size from total size to copy
pDes.Append( pStart.Ptr( ), fragSize-4 );
index += Min( length, fragMaxSize );
length -= ( fragSize-4 );
}
// inserting into the payloadized NAL unit buffer for retreival
iPayloadizedBuffers.InsertL( pBuffer, iNalCount );
iNalCount++;
CleanupStack::Pop( pBuffer );
pBuffer = NULL; // ownership transferred
fragsPacketized++; // to count the number of fragments
} // end while()
aNalCount = iNalCount;
}
/*!
\internal
RunL from CActive.
*/
void CHbDeviceDialogSymbianPrivate::RunL()
{
TInt completionCode = iStatus.Int();
int errorCode = SymToDeviceDialogError(completionCode);
if (completionCode < KErrNone) {
// Any Symbian error, stop requesting, sycnhoronous requests are stopped
// in the end of the RunL
iRequesting = EFalse;
SetError(errorCode);
if (CallDialogClosedObserver(errorCode)) {
return; // observed deleted this object, do not touch it
}
}
else {
// Check that event is for latest device dialog. iDeviceDialogId was updated by server
// during show()
THbDeviceDialogSrvUpdateInfo &updateInfo = iUpdateInfo();
if (updateInfo.iDeviceDialogId == iDeviceDialogId()) {
switch(updateInfo.iUpdateType) {
case EHbDeviceDialogUpdateData: {
if (completionCode == KErrNone &&
updateInfo.iInfo.iDataInfo.iDataSize > 0) {
// Resize buffer and get new data synchronously
delete iBuffer;
iBuffer = NULL;
iBuffer = HBufC8::NewL(updateInfo.iInfo.iDataInfo.iDataSize);
iDataPtr.Set(iBuffer->Des());
completionCode = iHbSession.SendSyncRequest(EHbSrvUpdateData, iDataPtr);
errorCode = SymToDeviceDialogError(completionCode);
// data request failed
if (completionCode < KErrNone) {
iRequesting = EFalse;
SetError(errorCode);
if (CallDialogClosedObserver(errorCode)) {
return; // observed deleted this object, do not touch it
}
}
}
if (completionCode == KErrNone) {
// Signal data if there are connections. Otherwise keep a copy.
QByteArray resArray((const char*)iDataPtr.Ptr(), iDataPtr.Size());
QDataStream stream(&resArray, QIODevice::ReadOnly);
iDataReceived.clear();
QVariant var;
stream >> var;
QVariantMap varMap = var.toMap();
if (iObserver) {
CHbSymbianVariantMap* symbianMap =
HbSymbianVariantConverter::fromQVariantMapL(varMap);
bool thisIsDeleted = CallDataReceivedObserver(*symbianMap);
delete symbianMap;
symbianMap = 0;
if (thisIsDeleted) { // observer deleted this, do not touch anymore
return;
}
}
else {
iDataReceived = varMap;
}
}
break;
}
case EHbDeviceDialogUpdateClosed:
// Signal possible cancelled error
if (completionCode != KErrNone) {
SetError(errorCode);
}
iRequesting = EFalse;
if (CallDialogClosedObserver(errorCode)) {
return; // observed deleted this object, do not touch it
}
break;
default:
break;
}
}
}
/*
-----------------------------------------------------------------------------
ProcessL
Process image referenced by aImage (modify aImage).
May leave with KErrNoMemory if no memory available
Return Values: none
-----------------------------------------------------------------------------
*/
void CDCDithering::ProcessL(CFbsBitmap& aImage)
{
TUint r, g, b; // Color components
TUint8* dataPtr; // Pointer to data
//Dithering variables, init to 0
TInt count=0;
TInt16 dither=0;
//EColor16M image is needed
if (aImage.DisplayMode() != EColor16M || aImage.DisplayMode() != EColor16M)
return;
// Line Buffer and pointer to the data
TUint imageWidth = aImage.SizeInPixels().iWidth;
TUint scanLineLengthInBytes = aImage.ScanLineLength(imageWidth, aImage.DisplayMode());
//Allocate buffer for scanline
iScanLineBuffer = HBufC8::NewMaxL(scanLineLengthInBytes);
//Pointer to scanline
TPtr8 linePtr = iScanLineBuffer->Des();
//Step through image lines
for (TInt lineNo=0; lineNo<aImage.SizeInPixels().iHeight; ++lineNo)
{
//Get line
aImage.GetScanLine(linePtr, TPoint(0, lineNo), imageWidth, aImage.DisplayMode());
//CHECK! CONST_CAST not used in every algorithm which way is better?
dataPtr = CONST_CAST(TUint8*, linePtr.Ptr());
//Step through image pixels
for (TUint x=0; x < imageWidth; ++x)
{
// Get original values
b = *dataPtr++;
g = *dataPtr++;
r = *dataPtr++;
//Compute DCDithering factor from base count
switch (count&1)
{
case 0:
dither = (TInt16)(dither*0x7ffd);
break;
case 1:
dither = (TInt16)(dither+0x7f21);
break;
}
//Add DCDithering factor, adjust gain according to quantization factors.
r = Limit255((TInt)r + (dither>>13));
g = Limit255((TInt)g - (dither>>14));
b = Limit255((TInt)b + (dither>>13));
//Move to the previous pixel
dataPtr -= 3;
/* Set the result */
*dataPtr++ = (TUint8)b;
*dataPtr++ = (TUint8)g;
*dataPtr++ = (TUint8)r;
//Increase bae count
count++;
}
//Set scan line
aImage.SetScanLine(linePtr, lineNo);
}
//Free allocated memory
delete(iScanLineBuffer);
iScanLineBuffer = 0;
}
void COptionList::ParseL(TPtr8& aDes8)
/**
* Parse message to set pointers into descriptor buffer
* at locations of each option supplied in a response msg
*
* @internalTechnology
*/
{
__CFLOG_VAR((KLogSubSysDHCP, KLogCode, _L8("COptionList::ParseL")));
ASSERT(!iRecord.iFirst);
COptionNode** ppNode = reinterpret_cast<COptionNode**>(&iRecord.iFirst);
TUint8 nCode = *aDes8.Ptr();
COptionNode* pNode;
TInt i, nItemLen, nHeaderLength;
while (nCode != EDHCPEnd && aDes8.Length() > 0)
{
for (i = 0; KOptions[i].iCode != nCode && ++i < KNumberOfSupportedOptions;) {}
nHeaderLength = (nCode == EDHCPPad) ? KEDHCPPadLength : KOptionHeaderLength;
pNode = new(ELeave) COptionNode(nHeaderLength);
/* ppNode is a pointer to a pointer. It has not got assigned any dynamically allocated memory. But coverity has misinterpreted it an issue.*/
// coverity [SYMBIAN.CLEANUP STACK]
// coverity [leave_without_push]
CleanupStack::PushL(pNode);
/* pNode can not be Null here as the memmory assignment is done using new(ELeave). Thus, there is no need of checking for Null, explicitly .*/
// coverity[deref_ptr_in_call]
pNode->ParseL(aDes8);
nItemLen = pNode->GetItemLength();
if (aDes8.Length() > 0)
{
nCode = *aDes8.Ptr();
}
else
{
__CFLOG_VAR((KLogSubSysDHCP, KLogCode, _L8("COptionList::ParseL Option list ended without EDHCPEnd flag")));
}
if (i < KNumberOfSupportedOptions)
{
// now do some sanity checks and leave if bad results
TInt nPayloadLength = nItemLen - nHeaderLength;
*ppNode = pNode;
if (nItemLen < KOptions[i].iMinLength) // min length check
{
__CFLOG_VAR((KLogSubSysDHCP, KLogCode, _L8("COptionList::ParseL BadDescriptor 2")));
*ppNode = NULL;
User::Leave(KErrBadDescriptor);
}
if (nPayloadLength % KOptions[i].iAlignment != 0) // alignment check
{
__CFLOG_VAR((KLogSubSysDHCP, KLogCode, _L8("COptionList::ParseL BadDescriptor 3")));
*ppNode = NULL;
User::Leave(KErrBadDescriptor);
}
if (KOptions[i].iExpLength > 0 && nPayloadLength != KOptions[i].iExpLength) //expected length check
{
__CFLOG_VAR((KLogSubSysDHCP, KLogCode, _L8("COptionList::ParseL BadDescriptor 4")));
*ppNode = NULL;
User::Leave(KErrBadDescriptor);
}
ppNode = reinterpret_cast<COptionNode**>(&(pNode->iNext));
CleanupStack::Pop(pNode);
}
else
{
#ifdef SYMBIAN_NETWORKING_DHCP_MSG_HEADERS
//make sure we parse everything becz we support every option now
if (pNode)
{
*ppNode = pNode;
ppNode = reinterpret_cast<COptionNode**>(&(pNode->iNext));
CleanupStack::Pop(pNode);
}
else
{
#endif // SYMBIAN_NETWORKING_DHCP_MSG_HEADERS
__CFLOG_VAR((KLogSubSysDHCP, KLogCode, _L8("COptionList::ParseL Code Not Found")));
/* ppNode is a pointer to a pointer. It has not got assigned any dynamically allocated memory. But coverity has misinterpreted it an issue.*/
// coverity [SYMBIAN.CLEANUP STACK]
// coverity [memory_leak]
CleanupStack::PopAndDestroy(pNode);
pNode=NULL;
#ifdef SYMBIAN_NETWORKING_DHCP_MSG_HEADERS
}
#endif // SYMBIAN_NETWORKING_DHCP_MSG_HEADERS
}
}
}
TInt CMP4Demux::ReadAndSendFrames()
{
DASSERT( iGotFrame );
// Find the correct channel. If there is no channel open for this
// type of frames, we'll simply ignore it
TOutputChannel *chan = 0;
TUint i;
for ( i = 0; i < iNumOutputChannels; i++ )
{
if ( iOutputChannels[i].iDataType == iFrameType )
chan = &iOutputChannels[i];
}
if ( chan )
{
// OK, we have a target channel. Get a block from its queue
TPtr8 *block = 0;
// NOTE: if output block does not need to be saved in any case, make it a local variable
//PRINT((_L("framelen = %d, bytesdemuxed = %d\n"), iFrameLen, iBytesDemuxed));
TUint blockLen = iFrameLen;
TPtr8 readDes(0,0);
TInt error;
if ( iFrameType == EDataVideo )
{
// make room for timestamp
blockLen += 4;
}
TRAP( error, (block = chan->iTargetQueue->GetFreeBlockL(blockLen)) );
if ( error != KErrNone )
return error;
if ( iFrameType == EDataVideo )
{
TUint8 *p = (TUint8 *)(block->Ptr()) + 4;
readDes.Set( p, 0, TInt(iFrameLen) );
}
else
{
readDes.Set( *block );
}
TUint32 numReadFrames = 0;
TUint32 timeStamp;
// read frame(s) from parser
error = iParser->ReadFrames(readDes, CMP4Parser::TFrameType(iFrameType),
numReadFrames, timeStamp);
if ( error != KErrNone )
return error;
DASSERT( numReadFrames > 0 );
if ( iFrameType == EDataAudio )
{
block->SetLength(readDes.Length());
}
else
{
block->SetLength(readDes.Length() + 4);
// put timestamp in the output block before the actual frame data
TUint* d = (TUint *)(block->Ptr());
Mem::Copy(d, &timeStamp, 4);
}
iBytesDemuxed += TUint( readDes.Length() );
// Send the block
chan->iTargetQueue->WriteBlock(block);
iFrameLen = 0;
iFrameType = EDataNone;
iGotFrame = EFalse;
}
else
{
PRINT((_L("Unknown channel\n")));
}
return KErrNone;
}
///////////////////////////////////////////////////////////////////
// GetStartPositionOfLogElem
// This function calculates the start position of a log element.
// As input parameter it has the position of the first byte
// after the element.
///////////////////////////////////////////////////////////////////
TInt CEventViewer::GetStartPositionOfLogElem(TUint32 aPositionOfLogElemEnd,
TUint32* aPositionOfLogElem)
{
// Set base for the most recent log element trailer
TPtr8 logFileBuf (iLogFileBuf->Des()); // Log file in memory
TUint32 logElemTrailerPos = aPositionOfLogElemEnd - LOG_ELEM_TRAILER_LTH;
if (iWrappingOccured && logElemTrailerPos <= iCurrFileHeader.iPositionOfNextFree)
{
return KErrNotFound;
}
TPtr8 elemTrailer (const_cast<TUint8*>(logFileBuf.Ptr())+ logElemTrailerPos, // Data ptr
LOG_ELEM_TRAILER_LTH, // Data length
LOG_ELEM_TRAILER_LTH); // Max length
// Convert the TPtr8 parameter to TUint8* format
TLogElemTrailer* elemTrailerPtr = (TLogElemTrailer*) elemTrailer.Ptr();
// Copy the packet format trailer parameters to unpacked object
iLogElemTrailer.iEndMark1 = elemTrailerPtr->GetEndMark1();
iLogElemTrailer.iEndMark2 = elemTrailerPtr->GetEndMark2();
iLogElemTrailer.iEventLength = elemTrailerPtr->GetEventLength();
// Check the validity of trailer
if (iLogElemTrailer.iEndMark1 != END_MARK_1
||
iLogElemTrailer.iEndMark2 != END_MARK_2
||
iLogElemTrailer.iEventLength > aPositionOfLogElemEnd +
EVENTLOG_FILE_HEADER_LTH)
{
return KErrGeneral;
}
// Set position for the current log element
TUint32 logElemPos = aPositionOfLogElemEnd - iLogElemTrailer.iEventLength;
if (iWrappingOccured && logElemPos < iCurrFileHeader.iPositionOfNextFree)
{
return KErrNotFound;
}
TPtr8 logElem (const_cast<TUint8*>(logFileBuf.Ptr())+ logElemPos, // Data ptr
iLogElemTrailer.iEventLength, // Data length
iLogElemTrailer.iEventLength);
// Convert the TPtr8 parameter to TUint8* format
TLogElem* logElemPtr = (TLogElem*) logElem.Ptr();
// Copy the event number and event length parameters
// from packed format log element to unpacked object
iUnpackedLogElem.iEventLength = logElemPtr->GetEventLength();
iUnpackedLogElem.iEventNumber = logElemPtr->GetEventNumber();
// Verify the extracted data
if (iUnpackedLogElem.iEventNumber > iCurrFileHeader.iCurrEventNumber
||
iUnpackedLogElem.iEventLength != iLogElemTrailer.iEventLength)
{
return KErrGeneral;
}
*aPositionOfLogElem = logElemPos;
return KErrNone;
}
