EXPORT_C void CSenWsSecurityHeader2::BaseConstructL(const TDesC8& aData,
RSenDocument aDocument,
TXmlEngElement aElement)
{
BaseConstructL(aDocument, aElement);
if ( aData.Length() )
{
TXmlEngElement element = AsElementL();
TPtrC8 content = element.Text();
if ( content.Length() > 0 )
{
HBufC8* pContent = HBufC8::NewLC( content.Length() + aData.Length() );
TXmlEngElement element = AsElementL();
TPtr8 ptrContent = pContent->Des();
ptrContent.Append(content);
ptrContent.Append(aData);
element.SetTextNoEncL(*pContent);
CleanupStack::PopAndDestroy(pContent);
}
else
{
element.SetTextNoEncL(aData);
}
}
}
CSenElement* CSenPropertiesElement::CreateElementL(const TDesC8& aNsPrefix,
const TDesC8& aLocalName)
{
CSenElement* pNewElement = NULL;
if (aNsPrefix.Length() > 0)
{
CSenNamespace* pNamespace = (CSenNamespace*)Namespace(aNsPrefix);
if (pNamespace)
{
HBufC8 *pQName =
HBufC8::NewLC(aNsPrefix.Length() + aLocalName.Length() +5);
TPtr8 ptr = pQName->Des();
ptr.Append(aNsPrefix);
ptr.Append(':');
ptr.Append(aLocalName);
pNewElement = CSenPropertiesElement::NewL(pNamespace->URI(),
aLocalName,
*pQName,
ipStringPool);
CleanupStack::PopAndDestroy(); // pQName
}
}
else
{
pNewElement = CSenPropertiesElement::NewL(aLocalName, ipStringPool);
}
return pNewElement; // Returns NULL if required namespace can not be found!
}
// -----------------------------------------------------------------------------
// CSIPHeaderBase::ToTextL
// -----------------------------------------------------------------------------
//
EXPORT_C HBufC8* CSIPHeaderBase::ToTextL() const
{
TPtrC8 fullname(Name().DesC());
// Because SIP Codec's string table has entry "expires" before "Expires",
// and entry "require" before "Require",
// literal "Expires" and "Require" must be used here.
// Changing the order of string table entries would have caused a SC break.
if (Name() == SIPStrings::StringF(SipStrConsts::EExpiresHeader))
{
fullname.Set(KExpiresHeaderNameDes);
}
else if (Name() == SIPStrings::StringF(SipStrConsts::ERequireHeader))
{
fullname.Set(KRequireHeaderNameDes);
}
else
{
}
TUint headerLength = fullname.Length();
headerLength += KColonAndSpace().Length();
HBufC8* encodedHeaderValue = ToTextValueL();
headerLength += encodedHeaderValue->Length();
CleanupStack::PushL (encodedHeaderValue);
HBufC8* encodedHeader = HBufC8::NewL(headerLength);
TPtr8 encodedHeaderPtr = encodedHeader->Des();
encodedHeaderPtr.Append(fullname);
encodedHeaderPtr.Append(KColonAndSpace);
encodedHeaderPtr.Append(*encodedHeaderValue);
CleanupStack::PopAndDestroy(encodedHeaderValue);
return encodedHeader;
}
// -----------------------------------------------------------------------------
// CWPPushMessage::ConvertIMSIL
// -----------------------------------------------------------------------------
//
void CWPPushMessage::ConvertIMSIL( const TDesC& aIMSI, TPtr8& aKey ) const
{
TUint8 parity( TUint8((aIMSI.Length() % 2) << KParityBitNum) );
if( aIMSI.Length() == 0 )
{
aKey.Append( (KPadNibble<<KNumBitsInNibble) + KFirstNibble + parity );
return;
}
// First byte contains just a header and one digit
TInt first( aIMSI[0] - KZero );
aKey.Append( (first<<KNumBitsInNibble) | KFirstNibble | parity );
// Use semi-octet or BCD packing of IMSI. It means that one byte contains
// two decimal numbers, each in its own nibble.
for( TInt i( 1 ); i < aIMSI.Length(); i += KNumDigitsInByte )
{
first = aIMSI[i] - KZero;
TInt second( 0 );
if( aIMSI.Length() == i+1 )
{
second = KPadNibble;
}
else
{
second = aIMSI[i+1] - KZero;
}
aKey.Append( (second<<KNumBitsInNibble) + first );
}
}
EXPORT_C void CSenWsSecurityHeader2::BaseConstructL(const TDesC8& aData,
const TDesC8& aSecurityNs,
RSenDocument aDocument,
TXmlEngElement aElement)
{
RAttributeArray attrArray;
CSenFragmentBase::BaseConstructL(aSecurityNs, KSecurityName, XmlNsPrefix(),
attrArray, aElement, aDocument);
if ( aData.Length() )
{
TXmlEngElement element = AsElementL();
TPtrC8 content = element.Text();
if ( content.Length() > 0 )
{
HBufC8* pContent = HBufC8::NewLC( content.Length() + aData.Length() );
TXmlEngElement element = AsElementL();
TPtr8 ptrContent = pContent->Des();
ptrContent.Append(content);
ptrContent.Append(aData);
element.SetTextNoEncL(*pContent);
CleanupStack::PopAndDestroy(pContent);
}
else
{
element.SetTextNoEncL(aData);
}
}
}
EXPORT_C CWritePropPipe& CWritePropPipe::operator<<(const TDesC16& aSrc)
//
// Write the string to the buffer. If there is insufficient space, then leave with
// KErrOverflow
//
{
__ASSERT_DEBUG(iBuf, User::Invariant());
TPtr8 p = iBuf->Des();
if(p.MaxSize() < (p.Size() + aSrc.Size() + sizeof(TInt32)))
{
User::Leave(KErrOverflow);
}
TPckgBuf<TInt32> size(aSrc.Size());
p.Append(size);
TUint8* pTgt = new(ELeave)TUint8[aSrc.Size()+8];
const TAny* pSrc = &aSrc[0];
Mem::Copy(pTgt, pSrc, aSrc.Size());
TPtr8 p2(pTgt, aSrc.Size(), aSrc.Size());
p.Append(p2);
delete pTgt;
return *this;
}
// -----------------------------------------------------------------------------
// CNATFWUNSAFErrorCodeAttribute::EncodeValueL
// -----------------------------------------------------------------------------
//
HBufC8* CNATFWUNSAFErrorCodeAttribute::EncodeValueL() const
{
__TEST_INVARIANT;
TInt encodedReasonPhraseLength = EncodedReasonPhraseLength();
HBufC8* encodedValue =
HBufC8::NewLC(EReasonPhraseOffset + encodedReasonPhraseLength);
TPtr8 ptr = encodedValue->Des();
ptr.FillZ(EReasonPhraseOffset);
ptr[EClassOffset] = (iResponseCode / E100) & EClassMask;
ptr[ENumberOffset] = iResponseCode % E100;
ptr.Append(*iReasonPhrase);
TInt spacesToAppend = encodedReasonPhraseLength - iReasonPhrase->Length();
const TChar KSpace(' ');
for (TInt i = 0; i < spacesToAppend; ++i)
{
ptr.Append(KSpace);
}
CleanupStack::Pop(encodedValue);
return encodedValue;
}
// -----------------------------------------------------------------------------
// CSIPParamContainerBase::ToTextLC
// -----------------------------------------------------------------------------
//
HBufC8* CSIPParamContainerBase::ToTextLC () const
{
TUint encodedLength = 0;
RPointerArray<HBufC8> paramsAsText;
CleanupStack::PushL (TCleanupItem(ResetAndDestroy,¶msAsText));
for (TInt i=0; i < iParams.Count(); i++)
{
HBufC8* paramAsText = iParams[i]->ToTextLC();
encodedLength += paramAsText->Length();
if (i < iParams.Count()-1)
{
encodedLength += 1; // param separator
}
paramsAsText.AppendL(paramAsText);
CleanupStack::Pop(paramAsText);
}
HBufC8* encodedParams = HBufC8::NewL (encodedLength);
TPtr8 encodedParamsPtr = encodedParams->Des();
for (TInt j=0; j < paramsAsText.Count(); j++)
{
encodedParamsPtr.Append (*paramsAsText[j]);
if (j < paramsAsText.Count()-1)
{
encodedParamsPtr.Append(iParamSeparator);
}
}
CleanupStack::PopAndDestroy(1); // paramsAsText
CleanupStack::PushL(encodedParams);
return encodedParams;
}
// send a request and resend any continuations - use SDP_DEBUG to dump
TUint testSdpContL(RTest& test, TUint8* aReqData, TUint aReqLen, TUint8 aReqId, /*TUint8* aRespData,*/ TUint aMtu)
{
TUint8 pduId = aReqId;
HBufC8* requestHBuf = HBufC8::New(aReqLen + 10 /*KSdpContinuationStateLength*/);
HBufC8* responseHBuf;
TPtr8 request = requestHBuf->Des();
TPtr8 buf(0,0);
TInt continuationLen = 0;
TInt partial = 0;
TInt continutations = 0;
request.SetLength(0);
request.Append(aReqData, aReqLen);
do
{
pduId = aReqId;
responseHBuf = InjectLC(pduId, request, aMtu);
buf.Set(responseHBuf->Des());
switch(pduId)
{
case 0x03:
test.Printf(_L("Got SDP_ServiceSearchResponse\n"));
partial = BigEndian::Get16(&buf[2]);
partial *= 4;
partial += 4;
continuationLen = buf[partial];
break;
case 0x05:
test.Printf(_L("Got SDP_ServiceAttributeResponse\n"));
partial = BigEndian::Get16(&buf[0]);
partial += 2;
continuationLen = buf[partial];
break;
case 0x07:
test.Printf(_L("Got SDP_ServiceSearchAttributeResponse\n"));
partial = BigEndian::Get16(&buf[0]);
partial += 2;
continuationLen = buf[partial];
break;
default:
test.Printf(_L("Got UnknownResponse (0x%x)\n"), buf[0]);
continuationLen = 0; // create a dummy non-continuation
break;
}
continutations++;
request.Zero();
request.Append(aReqData, aReqLen-1);
request.Append(&buf[partial], continuationLen+1); //1 for continuation len
CleanupStack::PopAndDestroy(/*responseHBuf*/);
} while (continuationLen != 0);
delete requestHBuf;
return continutations;
}
DMAD_EXPORT_C HBufC8* TDmAdUtil::BuildUriL(const TDesC8& aUriPath, const TDesC8& aUriSeg)
{
HBufC8* uri = HBufC8::NewL(aUriPath.Length() + 1 + aUriSeg.Length());
TPtr8 uriDesc = uri->Des();
uriDesc.Copy(aUriPath);
uriDesc.Append(KDmAdSeparator);
uriDesc.Append(aUriSeg);
return uri;
}
// ----------------------------------------------------------------------------
// TTCPCompMsgEnd::DataReceivedL
// ----------------------------------------------------------------------------
//
void TTCPCompMsgEnd::DataReceivedL( TPtr8 aData, TUint& aNextLength )
{
// panic if sigcomp is not supported in debug mode.leaves in release mode.
__SIP_ASSERT_LEAVE( iMsgAssembler.SigComp().IsSupported(), KErrGeneral );
// panic if received data is not compressed in debug mode.
// leaves in release mode.
__SIP_ASSERT_LEAVE( iMsgAssembler.SigComp().IsSigCompMsg( aData ),
KErrGeneral );
// panic if received data is not completed compressed msg in debug mode.
// leaves in release mode.
__SIP_ASSERT_LEAVE(
iMsgAssembler.SigComp().IsCompleteSigCompMessageL( aData ),
KErrGeneral );
TUint bytesConsumed( 0 );
CBufBase* decompressedData = iMsgAssembler.SigComp().DecompressL(
aData, bytesConsumed, ETrue);
TUint dataLen( static_cast<TUint>( aData.Length() ) );
// Whole data was not decompressed and non-decompressed data might
// be part of next sigcomp message, remember amount of non-decompressed
// data
iMsgAssembler.SetUnConsumedBytes( dataLen - bytesConsumed );
if ( bytesConsumed < dataLen )
{
CleanupStack::PushL(decompressedData);
aData.Delete(0, bytesConsumed);
HBufC8* newData =
HBufC8::NewL( decompressedData->Size() + aData.Length() );
// copy the msg buffer data and the received data to new data buffer
TPtr8 newDataPtr = newData->Des();
newDataPtr.Append(decompressedData->Ptr(0));
CleanupStack::PopAndDestroy(decompressedData);
newDataPtr.Append(aData);
// delete all content of received data
aData.Delete( 0, aData.Length() );
CleanupStack::PushL(newData);
DecideNextStateL( newDataPtr, aNextLength );
CleanupStack::PopAndDestroy(newData);
}
else if ( bytesConsumed == dataLen )
{
CleanupStack::PushL( decompressedData );
aData.Delete(0, bytesConsumed);
TPtr8 decompressedDataPtr = decompressedData->Ptr(0);
DecideNextStateL( decompressedDataPtr, aNextLength );
CleanupStack::PopAndDestroy( decompressedData );
}
else // bytesConsumed > dataLen error happens, reset the state
{
delete decompressedData;
iMsgAssembler.ChangeState( MMsgAssemblerContext::EMsgInit );
}
}
// ----------------------------------------------------------------------------
// CSIPProfileSIMRecord::AddSIPPrefixLC
// ----------------------------------------------------------------------------
//
HBufC8* CSIPProfileSIMRecord::AddSIPPrefixLC( const TDesC8& aValue )
{
_LIT8(KSIPprefix, "sip:");
TUint length = KSIPprefix().Length() + aValue.Length();
HBufC8* temp = HBufC8::NewLC(length);
TPtr8 appendtemp = temp->Des();
appendtemp.Append(KSIPprefix);
appendtemp.Append(aValue);
return temp;
}
EXPORT_C TInt CSenSoapMessage2::AddSecurityTokenL(const TDesC8& aNewToken)
{
TLSLOG_L(KSenMessagesLogChannel, KMinLogLevel, "CSenSoapMessage2::AddSecurityTokenL(aNewToken)");
TXmlEngElement element = AsElementL();
RSenDocument document = AsDocumentL();
TXmlEngElement soapHeader = HeaderL();
TXmlEngElement wsSecurityHeader;
// Create <wsse:Security> element into wrong place
// <=> into a root element = Envelope.
// <S:Envelope>
// ...
// <wsse:Security>
// That's because we don't want following search to find
// this new header inside <S:Header> element.
CSenWsSecurityHeader2* pHeader = NewSecurityHeaderLC(NULL, document, element);
RXmlEngNodeList<TXmlEngElement> list;
CleanupClosePushL(list);
soapHeader.GetElementsByTagNameL(list, KSecurityName,
pHeader->XmlNs());
if ( !list.HasNext() )
{
// <wsse:Security> element was not found from <S:Header> element.
// => Add new header by moving header from (root) <S:Envelope>
// element into <S:Header> element.
wsSecurityHeader = pHeader->ExtractElement();
wsSecurityHeader.MoveTo(soapHeader);
}
else
{
// <wsse:Security> element was found from <S:Header> element.
// => Delete new header element from SoapMessage DOM tree by
// removing header from (root) <S:Envelope> element.
wsSecurityHeader = pHeader->ExtractElement();
wsSecurityHeader.Remove();
// Select found <wsse:Security> element to be edited
wsSecurityHeader = list.Next();
}
CleanupStack::PopAndDestroy(&list);
CleanupStack::PopAndDestroy(); // pHeader // safe to delete
TPtrC8 content = wsSecurityHeader.Text();
HBufC8* pContent = HBufC8::NewLC( content.Length() + aNewToken.Length() );
TPtr8 ptrContent = pContent->Des();
ptrContent.Append(content);
ptrContent.Append(aNewToken);
wsSecurityHeader.SetTextNoEncL(*pContent);
CleanupStack::PopAndDestroy(pContent);
return KErrNone;
}
void XQAccessPointManagerPrivate::asciiToHex(const TDesC8& aSource,
HBufC8*& aDest)
{
_LIT(hex, "0123456789ABCDEF");
TInt size = aSource.Size();
TPtr8 ptr = aDest->Des();
for (TInt ii = 0; ii < size; ii++) {
TText8 ch = aSource[ii];
ptr.Append( hex()[(ch/16)&0x0f] );
ptr.Append( hex()[ch&0x0f] );
}
}
void CQName::ConstructL(TDesC8& aName, TDesC8& aPrefix, TDesC8& aUri)
{
_LIT8(KColon, ":");
iName = aName.AllocL();
iPrefix = aPrefix.AllocL();
iUri = aUri.AllocL();
iQName = HBufC8::NewL( aPrefix.Length() + KColon().Length() + aName.Length() );
TPtr8 qname = iQName->Des();
qname.Append( aPrefix );
qname.Append( KColon );
qname.Append( aName );
}
// -----------------------------------------------------------------------------
// ConvertAsciiToHex
// -----------------------------------------------------------------------------
//
void CHssIapHandler::ConvertAsciiToHex( const TDes8& aSource,
HBufC8*& aDest )
{
DEBUG("CHssIapHandler::ConvertAsciiToHex");
_LIT( hex, "0123456789ABCDEF" );
TInt size = aSource.Size();
TPtr8 ptr = aDest->Des();
for ( TInt ii = 0; ii < size; ii++ )
{
TText8 ch = aSource[ii];
ptr.Append( hex()[(ch/16)&0x0f] );
ptr.Append( hex()[ch&0x0f] );
}
}
// ==========================================================================
// METHOD: HexDump
//
// DESIGN:
// ==========================================================================
void CLogFileHandler::HexDump( const TDesC8& /*aClassName*/,
const TDesC8& /*aFuncName*/,
const TDesC8& aBuffer )
{
TInt remainingLength = aBuffer.Length();
TInt i = 0;
while( remainingLength > 0 )
{
const TInt KHexDumpWidth=32;
TInt n = Min( KHexDumpWidth, remainingLength );
// Add the starting byte number.
_LIT8(KFirstFormatString,"%04x : ");
iFormatBuffer8.Format(KFirstFormatString, i);
// Add hex values.
TInt j;
for (j=0; j<n; j++)
{
_LIT8(KSecondFormatString,"%02x ");
iFormatBuffer8.AppendFormat(KSecondFormatString, aBuffer[i+j]);
} // end for
// Fill in incomplete lines.
while (j<KHexDumpWidth)
{
_LIT8(KThreeSpaces," ");
iFormatBuffer8.Append(KThreeSpaces);
j++;
} // end while
// Add text representation.
_LIT8(KTwoSpaces," ");
iFormatBuffer8.Append(KTwoSpaces);
for (j=0; j<n; j++)
{
_LIT8(KThirdFormatString,"%c");
iFormatBuffer8.AppendFormat( KThirdFormatString, aBuffer[i+j] );
} // end for
iOutputBuffer.SetLength( 0 );
TRAP_IGNORE( WriteLineL( iFormatBuffer8 ) );
remainingLength -= n;
i += n;
} // end while
} // END HexDump
void CObexAuthenticator::GenerateResponseL(const TDesC8& aPasswd, const TNonce& aNonce, TRequestDigest& aRequestDigest)
{
//work out the length of buffer we need
TInt buflen = aNonce.Length() + KColonCharacter().Length() + aPasswd.Length();
HBufC8* buf = HBufC8::NewLC(buflen);
TPtr8 ptr = buf->Des();
ptr.Zero();
ptr.Append(aNonce);
ptr.Append(KColonCharacter);
ptr.Append(aPasswd);
iMD5->Reset();
aRequestDigest.Append(iMD5->Hash(*buf));
CleanupStack::PopAndDestroy();//buf
}
EXPORT_C void CSenWsSecurityHeader::BaseConstructL()
{
// create and push pQualifiedName
HBufC8 *pQualifiedName = HBufC8::NewLC(XmlNsPrefix().Length()+
KColon().Length() +
KSecurityName().Length());
TPtr8 qualified = pQualifiedName->Des();
qualified.Append(XmlNsPrefix());
qualified.Append(KColon);
qualified.Append(KSecurityName);
CSenBaseFragment::BaseConstructL(XmlNs(), KSecurityName, qualified);
CleanupStack::PopAndDestroy(); // pQualifiedName
}
// -----------------------------------------------------------------------------
// CMccCodecRed::SetRedCodecs
// Set the payload types used in redundancy
// -----------------------------------------------------------------------------
//
void CMccCodecRed::SetRedPayloadsL( RArray<TUint>& aRedPayloads )
{
iRedPayloads.Reset();
TInt i;
for( i = 0; i < aRedPayloads.Count(); i++ )
{
iRedPayloads.AppendL( aRedPayloads[ i ] );
}
// Convert parsed payload formats back to string and set
// the iFmtpAttr variable
const TInt KCharsPerPayload( 4 );
delete iFmtpAttr;
iFmtpAttr = NULL;
iFmtpAttr = HBufC8::NewL( iRedPayloads.Count() * KCharsPerPayload );
TPtr8 descPtr = iFmtpAttr->Des();
for( i = 0; i < iRedPayloads.Count(); i++ )
{
descPtr.AppendNum( static_cast<TUint64>( iRedPayloads[i] ), EDecimal );
descPtr.Append( KCharSlash );
}
// Remove the last slash character
descPtr.SetLength( descPtr.Length() - 1 );
}
HBufC8* CValidateTest::ReadFilesLC(CDesCArray& aServerCerts)
{
TInt count = aServerCerts.MdcaCount();
TInt totalSize = 0;
TInt i;
for (i = 0; i < count; i++)
{
TPtrC filename = aServerCerts.MdcaPoint(i);
RFile file;
TRAPD(err, file.Open(iFs, filename, EFileRead));
if(err != KErrNone)
{
HBufC *failedToLoad = filename.AllocLC();
SetScriptError(EFileNotFound, failedToLoad->Des());
CleanupStack::PopAndDestroy(2);//fsclose, fileClose
return(NULL);
};
CleanupClosePushL(file);
TInt size;
file.Size(size);
CleanupStack::PopAndDestroy(1); // fileClose
totalSize += size;
}
HBufC8* res = HBufC8::NewLC(totalSize);
TPtr8 pRes = res->Des();
for (i = 0; i < count; i++)
{
HBufC8* cert = ReadFileLC(aServerCerts.MdcaPoint(i));
pRes.Append(cert->Des());
CleanupStack::PopAndDestroy();//cert
}
return res;
}
// ---------------------------------------------------------------------------
//Provides implementation required for aborting testing
// ---------------------------------------------------------------------------
//
void COMASuplPositionVelocityTest::TestingAborted(const TDesC8& /*aInfo*/)
{
if(iCallBack)
{
HBufC8* infoBuf = NULL;
TRAPD(err, infoBuf = HBufC8::NewL(KPositionVelocityTestAborted().Length() + KExtraBuffer));
if(err != KErrNone)
{
iCallBack->TestingAborted(KPositionVelocityTestAborted);
}
else
{
TPtr8 info = infoBuf->Des();
info.Copy(KPositionVelocityTestAborted);
info.Append(KSessionId);
info.AppendNum(iTestNo);
iCallBack->TestingAborted(info);
}
delete infoBuf;
iCallBack->UpdateSessionTestSummary(iInfo, iWarning, iError);
}
else
{
Cancel();
iTestHandler->Cancel();
iTestingStatus = ETestAborted;
CActiveScheduler::Stop();
iError++;
iLogger->WriteLine(KPositionVelocityTestAborted, iTestNo);
}
}
// ---------------------------------------------------------------------------
// Provides default implementation required for cancellation of testing
// ---------------------------------------------------------------------------
//
void COMASuplPosTesterCategory::TestingCancelled(const TDesC8& aInfo)
{
if(iCallBack)
{
HBufC8* infoBuf = NULL;
TRAPD(err, infoBuf = HBufC8::NewL(aInfo.Length() + KExtraBuffer));
if(err != KErrNone)
{
iCallBack->TestingCancelled(aInfo);
}
else
{
TPtr8 info = infoBuf->Des();
info.Copy(aInfo);
info.Append(KSessionId);
info.AppendNum(iTestNo);
iCallBack->TestingComplete(info);
}
delete infoBuf;
iCallBack->UpdateSessionTestSummary(iInfo, iWarning, iError);
}
else
{
Cancel();
iTestHandler->Cancel();
iTestingStatus = ETestCancelled;
CActiveScheduler::Stop();
iInfo++;
iLogger->WriteLine(aInfo, iTestNo);
}
}
// -----------------------------------------------------------------------------
// CCapInfo::WriteL(const TDesC& aText)
// Writes one element to capability buffer.
// -----------------------------------------------------------------------------
//
void CCapInfo::WriteL(const TDesC& aText)
{
if (aText.Length() > iBuf.MaxLength())
{
User::Leave(KErrTooBig);
}
iBuf=aText;
iBuf.Trim();
FormatElement(iBuf);
TPtr8 ptr = iHeapBuf->Des();
if ( iBuf.Length()+2 > ptr.MaxLength() )
{
User::Leave(KErrTooBig);
}
//unicode conversion
HBufC8* convBuf = HBufC8::NewLC( iBuf.Size() );
TPtr8 convPtr = convBuf->Des();
CnvUtfConverter::ConvertFromUnicodeToUtf8(convPtr, iBuf);
ptr.Copy(convPtr);
ptr.Append( KLineFeed ); // linefeed
CleanupStack::PopAndDestroy( convBuf );
TInt pos=iCapabilityBuf->Size();
iCapabilityBuf->InsertL(pos, ptr);
iBuf=KNullDesC;
}
// -----------------------------------------------------------------------------
// CSeiForwardPlugin::ReceiveMessageL
//
//
// -----------------------------------------------------------------------------
//
void CSeiForwardPlugin::ReceiveMessageL( TInt aChannel, TPtrC8 aMessage )
{
RDebug::Print( _L( "EcmtSeiForwardPlugin::ReceiveMessageL: channel = %d" ), aChannel );
HBufC8* buf = HBufC8::NewLC( KMaxMsgPrefixLen + 1 + aMessage.Length() );
TPtr8 message = buf->Des();
message.Format( KMsg, aChannel );
message.Append( KBlanco );
message.Append( aMessage );
CEcmtMessageEvent* m = iMessaging->NewMessageEvent( TUid::Uid( KSEIFORWARDPLUGIN_IMPL_UID ), message );
User::LeaveIfNull( m );
iMessaging->GetMessageSender()->SendMessage( m );
}
void CABDataOwnerCallbackImplementation::GetSnapshotDataL(TDriveNumber /*aDrive*/, TPtr8& aBuffer, TBool& aFinished)
{
__LOG1("[0x%08x]: CABDataOwnerCallbackImplementation::GetSnapshotDataL()", iID.iId);
aBuffer.Append(KABTestSnapshot());
aFinished = ETrue;
}
// -----------------------------------------------------------------------------
// Get value for given id.
// -----------------------------------------------------------------------------
//
HBufC8* CConfigurationHandler::GetTokenValue( const TDesC8& aData,
const TDesC8& aKey )
{
if( aData.Find(aKey)==KErrNotFound )
{
return NULL;
}
// id is in the string
TLex8 lex(aData);
while( !lex.Eos() )
{
TPtrC8 token = lex.NextToken();
TInt spos = token.Find(aKey);
if( spos==KErrNotFound )
{
continue;
}
// key was found return value
TPtrC8 value = token.Right(token.Length()-aKey.Length());
HBufC8* retval = HBufC8::NewL(value.Length());
TPtr8 des = retval->Des();
des.Append(value);
return retval;
}
return NULL;
}
// -----------------------------------------------------------------------------
// CSTSPinConverter::ConvertToBCDL
// Converts gived value to BCD (Binary Coded Desimal) format. In normal case,
// sets each upper nibble to 0. If halfBCD is used, sets each upper nibble to F.
// Returns: aConvertedPIN: Puts converted data into this pointer
// -----------------------------------------------------------------------------
void CSTSPinConverter::ConvertToBCDL(const TDesC& aPinValue,
TPtr8& aConvertedPIN, TBool aHalfBCD)
{
//verify that each character is a digit
if (!IsAllDigits(aPinValue))
{
User::Leave(KErrCorrupt);
}
//encode the characters as BCD (see Section 2) digits: x = BCD(PIN)
//BCD=Binary Coded Decimal
TUint8 mask = 0x00;
if (aHalfBCD)
{
//upper nibble
mask = 0xF0;//IIII0000
}
TInt length = aPinValue.Length();
for (TInt i = 0; i < length; i++)
{
TUint8 currentNumber = (TUint8) aPinValue[i];
//ignore first nibble
TUint8 firstNibleMask = 0x0F;
TUint8 firstNibleIgnored = (TUint8)(currentNumber & firstNibleMask);
TUint8 result = (TUint8)(firstNibleIgnored | mask);
aConvertedPIN.Append(result);
}
}
HBufC8* AlfGcExternalizeL( const RArray<T>& aArray )
{
const TInt itemCount = aArray.Count();
if ( !itemCount)
{
return HBufC8::NewL(0);
}
const T* firstItem = &aArray[0];
TPtrC8 arrayPtr( (TUint8*)firstItem, itemCount*sizeof(T) );
HBufC8* buffer = HBufC8::NewL( sizeof(TInt) + arrayPtr.Length() );
TPtr8 ptr = buffer->Des();
ptr.Append( (const TUint8*)&itemCount, sizeof(TInt) );
ptr.Append( arrayPtr );
return buffer;
}
static void GenerateInput(TInt aBytes, TPtr8& in)
{
for (TInt j = 0; j < aBytes; j++)
{
TInt text('a'+j%25);
in.Append(text);
}
}
