/**
* Function that will look at all the devices on the RConnection
* and update the device array accordingly.
*/
TInt CPanConnections::UpdateCurrentConnections()
{
TInt rerr = KErrNone;
HBufC8* buffer=0;
const TInt KAddrLen = sizeof(TBTDevAddr);
TRAP(rerr, buffer = HBufC8::NewL(7*KAddrLen));// create a buffer to house the device address
if(rerr == KErrNone)
{
TPtr8 ptr = buffer->Des();
// use RConnection to enumerate all the devices
rerr = iConnection.Control(KCOLAgent, KCOAgentPanEnumerateDevices, ptr);
if(rerr == KErrNone)
{
iActiveConnections.Reset();
while(ptr.Length()>=KBTDevAddrSize)
{
// inspect the addr's in the descriptor and append them to the array.
TBTDevAddr parsedAddr(ptr.Mid(ptr.Length()-KAddrLen, KBTDevAddrSize));
ptr.SetLength(Max(ptr.Length()-KAddrLen, 0));
iActiveConnections.Append(parsedAddr);
}
}
}
delete buffer;
return rerr;
}
TInt CTlsEncrypt::DecryptAndVerifyL(const TDesC8& aInput,HBufC8*& aOutput,
TInt64& aSeqNumber, TRecordProtocol& aType)
{
if(!aInput.Length())
return KErrBadDescriptor;
TLSPROV_LOG2(_L("Before Decryption...RecordType: %d"),(TInt)aType)
TLSPROV_LOG_HEX(aInput.Ptr(),aInput.Size() )
TInt nAlloc = iCryptos.iDecryptor->MaxFinalOutputLength(aInput.Size()) + 24;
if ( !aOutput || aOutput->Des().MaxLength() < nAlloc )
{
delete aOutput;
aOutput = NULL;
aOutput = HBufC8::NewL( nAlloc );
}
TPtr8 DecOutput = aOutput->Des();
DecOutput.Zero();
TRAP_IGNORE(iCryptos.iDecryptor->ProcessFinalL(aInput,DecOutput));
TUint HashSize = KSetOfTLSCipherSuites[iCipherIndex].iHashSize;
if(DecOutput.Length() < HashSize)
{
return KErrSSLAlertDecryptError;
}
//set ptr to MAC
TPtrC8 ReceivedMac = DecOutput.Mid(DecOutput.Length()-HashSize,HashSize);
//& set length to trim MAC
DecOutput.SetLength( DecOutput.Length()-HashSize );
TBuf8<64> CalculatedMac;
ComputeMacL(CalculatedMac,DecOutput,ETrue,aSeqNumber,aType);
TInt err = KErrBadMAC;
if(ReceivedMac.Compare(CalculatedMac) == 0)
{
err = KErrNone;
}
else
{
TLSPROV_LOG(_L("Decryption: Received MAC error"))
err = KErrSSLAlertBadRecordMac;
}
TLSPROV_LOG(_L("After Decryption , no mac"))
TLSPROV_LOG_HEX(aOutput->Ptr(),aOutput->Size() )
return err;
}
TInt RBTBaseband::Enumerate(RBTDevAddrArray& aBTDevAddrArray, TUint aMaxNumber)
{
if (!SubSessionHandle())
{
return KErrNotReady;
}
__ASSERT_DEBUG(aMaxNumber>=1, Panic(EBadArgument));
if(!aMaxNumber)
{
return KErrArgument;
}
HBufC8* buffer=0;
const TInt KAddrLen = sizeof(TBTDevAddr);
TRAPD(err, buffer = HBufC8::NewL(aMaxNumber*KAddrLen));
if(err)
{
return KErrNoMemory;
}
TPtr8 ptr = buffer->Des();
err = iSocket.GetOpt(EBBEnumeratePhysicalLinks, KSolBtLMProxy, ptr);
if (err)
{
delete buffer;
return err;
}
/**
Parse the supplied descriptor
*/
aBTDevAddrArray.Reset();
while(ptr.Length()>=KBTDevAddrSize)
{
TBTDevAddr parsedAddr(ptr.Mid(ptr.Length()-KAddrLen, KBTDevAddrSize));
ptr.SetLength(Max(ptr.Length()-KAddrLen, 0));
aBTDevAddrArray.Append(parsedAddr);
}
delete buffer;
return KErrNone;
}
/**
CountLinesOfHtmlL()
Counts the number of lines of HTML
@param aEntry
A reference to an object representing the email
@return
Number of lines of HTML
*/
TInt CT_MsgComparePopEmailMsgs::CountLinesOfHtmlL(CMsvEntry& aEntry)
{
TInt lines = 0;
aEntry.SetEntryL(aEntry.EntryId());
CMsvStore* store = aEntry.ReadStoreL();
CleanupStack::PushL(store);
MMsvAttachmentManager& attManager = store->AttachmentManagerL();
RFile htmlFile = attManager.GetAttachmentFileL(0);
CleanupClosePushL(htmlFile);
_LIT8(KFindData, "\r\n");
TInt htmlSize = 0;
User::LeaveIfError(htmlFile.Size(htmlSize));
HBufC8* fBuf = HBufC8::NewLC(htmlSize);
TPtr8 p = fBuf->Des();
htmlFile.Read(p);
TInt pos = 0;
for(;;)
{
pos = p.Find(KFindData);
if(pos < 0)
{
break;
}
p = p.Mid(pos+2);
lines++;
}
CleanupStack::PopAndDestroy(fBuf);
CleanupStack::PopAndDestroy(); // htmlFile
CleanupStack::PopAndDestroy(store);
return lines;
}
/*
-----------------------------------------------------------------------
-----------------------------------------------------------------------
*/
void CZipCompressor::AddFileL(const TDesC8& aFileData,const TDesC& aFileName)
{
if(iDebugFile.SubSessionHandle())
{
iDebugFile.Write(_L8("Add-F, "));
}
TFileEntry fileEntry;
HBufC8* out = HBufC8::New( aFileData.Size() + 100);
if(out)
{
CleanupStack::PushL(out);
if(iDebugFile.SubSessionHandle())
{
iDebugFile.Write(_L8("AF1, "));
}
TEntry entry;
iFs.Entry( aFileName, entry );
TPtr8 outPtr = out->Des();
fileEntry.iVersion = 0x000A;
// we could always make settings to handle different compressions within a file
fileEntry.iCompression = 0x0008;
TInt ErrNo(KErrNone);
TRAP(ErrNo,CEZCompressor::CompressL( outPtr, aFileData, CEZCompressor::EDefaultCompression ));
if(ErrNo != KErrNone)
{
fileEntry.iCompression = 0;
out->Des().Copy(aFileData);
}
if(iDebugFile.SubSessionHandle())
{
iDebugFile.Write(_L8("AF2, "));
}
iFileCounter++;
TParsePtrC NameHelp(aFileName);
fileEntry.iFileName.Copy(NameHelp.NameAndExt());
fileEntry.iCompressedSize = outPtr.Length() - 6;
fileEntry.iUncompressedSize = aFileData.Length();
fileEntry.iRelativeOffset = iStream.Sink()->SizeL();
fileEntry.iAttributes = entry.iAtt;
fileEntry.iDateTime = MsDosDateTime( entry.iModified );
if(iDebugFile.SubSessionHandle())
{
iDebugFile.Write(_L8("AF3, "));
}
iStream.WriteInt32L( 0x04034b50 ); // sign
iStream.WriteInt16L( fileEntry.iVersion ); // version
iStream.WriteInt16L( 0x0000 ); // general purpose bit flag
iStream.WriteInt16L( fileEntry.iCompression ); // compression method
iStream.WriteInt32L( fileEntry.iDateTime ); // time
TUint32 crc = crc32(0L, Z_NULL, 0);
fileEntry.iCrc32 = crc32( crc, aFileData.Ptr(), aFileData.Length() );
iStream.WriteUint32L( fileEntry.iCrc32 ); // crc
iStream.WriteInt32L( fileEntry.iCompressedSize ); // compressed size
iStream.WriteInt32L( fileEntry.iUncompressedSize ); // uncompressed size
iStream.WriteInt16L( fileEntry.iFileName.Length() ); // filename length
iStream.WriteInt16L( 0x0000 ); // extra field length
iStream.WriteL( fileEntry.iFileName );
iStream.WriteL( outPtr.Mid( 2, outPtr.Length() - 6 ) );
iFileEntries.Append( fileEntry );
CleanupStack::PopAndDestroy(out);
if(iDebugFile.SubSessionHandle())
{
iDebugFile.Write(_L8("AF3, "));
}
CYBRecognitionResult* Res = new(ELeave)CYBRecognitionResult();
CleanupStack::PushL(Res);
iObserver.GetFileHandler().GetFileUtils().RecognizeData(*Res,aFileData,NameHelp.NameAndExt());
TInt TypeIdNum(iObserver.GetFileHandler().GetFileUtils().GetGeneralFileItem().iTypeId);
if(Res->iIdString)
{
TypeIdNum = iObserver.GetFileHandler().GetIconUtils().GetIconIndex(*Res->iIdString);
}
CleanupStack::PopAndDestroy(Res);
if(iDebugFile.SubSessionHandle())
{
iDebugFile.Write(_L8("AF4, "));
}
iObserver.AddFileToListL(fileEntry.iCompressedSize,fileEntry.iUncompressedSize,NameHelp.NameAndExt(),TypeIdNum);
}
else
{
iError = KErrNoMemory;
}
if(iDebugFile.SubSessionHandle())
{
iDebugFile.Write(_L8("Add-Done, "));
}
}
void CActionSet::PerformAction(TRequestStatus& aStatus)
{
__UHEAP_MARK;
TRequestStatus* status = &aStatus;
iResult = EFalse;
HBufC8* pkcs12Pwd = 0;
// default value is NULL to avoid RVCT warning
// C2874W: set may be used before being set
CPBEncryptSet* set = 0;
if (iKdf == 0)
{
CleanupStack::PushL(pkcs12Pwd);
set = CPBEncryptSet::NewLC(*iPasswd, iCipher);
}
else
{
// if supply KDF, must also supply salt len and iteration count
ASSERT(iSaltLenBytes != 0 && iIterCount != 0);
CPBEncryptParms* ep = CPBEncryptParms::NewLC();
ep->SetCipher(iCipher);
TInt saltLenBytes;
TInt r = TLex8(*iSaltLenBytes).Val(saltLenBytes);
ASSERT(r == KErrNone);
ep->ResizeSaltL(saltLenBytes);
TInt iterCount;
r = TLex8(*iIterCount).Val(iterCount);
ASSERT(r == KErrNone);
ep->SetIterations(iterCount);
CleanupStack::PushL((CBase*)0);
CleanupStack::Pop((CBase*)0);
if (*iKdf == _L8("PKCS#5"))
{
ep->SetKdf(CPBEncryptParms::EKdfPkcs5);
set = CPBEncryptSet::NewL(*iPasswd, *ep);
}
else if (*iKdf == _L8("PKCS#12"))
{
pkcs12Pwd = PKCS12KDF::GeneratePasswordLC(*iPasswd);
ep->SetKdf(CPBEncryptParms::EKdfPkcs12);
set = CPBEncryptSet::NewL(*pkcs12Pwd, *ep);
CleanupStack::Pop(pkcs12Pwd);
}
else
User::Panic(_L("Unrec KDF"), 0);
CleanupStack::PopAndDestroy(ep);
// encryption could leak here, but for reservation above
CleanupStack::PushL(pkcs12Pwd);
CleanupStack::PushL(set);
}
CPBEncryptor* encryptor = set->NewEncryptLC();
HBufC8* ciphertextTemp = HBufC8::NewLC(encryptor->MaxFinalOutputLength(iInput->Length()));
TPtr8 ciphertext = ciphertextTemp->Des();
encryptor->ProcessFinalL(*iInput, ciphertext);
TBuf<128> newPwdTemp(*iPasswd);
newPwdTemp.Append('a');
TBuf8<128> newPwdTemp8;
TPBPassword newPassword(KNullDesC);
if (pkcs12Pwd == 0)
new(&newPassword) TPBPassword(newPwdTemp);
else
{
HBufC8* newPwd = PKCS12KDF::GeneratePasswordLC(newPwdTemp);
newPwdTemp8.Copy(*newPwd);
new(&newPassword) TPBPassword(newPwdTemp8);
CleanupStack::PopAndDestroy(newPwd);
}
set->ChangePasswordL(newPassword);
//create a mem buffer store
CBufStore* store = CBufStore::NewLC(100);
RStoreWriteStream write;
//write the encrypted master key to a stream
TStreamId keyStreamId = write.CreateLC(*store);
write << set->EncryptedMasterKey();
write.CommitL();
CleanupStack::PopAndDestroy(); //CreateLC()
//write the encryption data to another stream
TStreamId dataStreamId = write.CreateLC(*store);
set->EncryptionData().ExternalizeL(write);
write.CommitL();
CleanupStack::PopAndDestroy(); //CreateLC()
//prepare to read the streams back in, creating a new TPBEncryptionData
RStoreReadStream read;
read.OpenLC(*store, dataStreamId);
//read in Encryption data
CPBEncryptionData* data = CPBEncryptionData::NewL(read);
CleanupStack::PopAndDestroy(); //OpenLC()
CleanupStack::PushL(data);
//read in encrypted master key
read.OpenLC(*store, keyStreamId);
HBufC8* encryptedMasterKey = HBufC8::NewLC(read, 10000); //some large number
//create a new set encryption class
CPBEncryptSet* set2 = CPBEncryptSet::NewLC(*data, *encryptedMasterKey, newPassword);
HBufC8* plaintextTemp = HBufC8::NewLC(ciphertext.Length());
TPtr8 plaintext = plaintextTemp->Des();
CPBDecryptor* decryptor = set2->NewDecryptLC();
decryptor->Process(ciphertext, plaintext);
//this Mid call is due to get rid of the decrypted padding at the end
if(plaintext.Mid(0,iInput->Length()) == *iInput)
{
iResult = ETrue;
}
CleanupStack::PopAndDestroy(decryptor);
CleanupStack::PopAndDestroy(plaintextTemp);
CleanupStack::PopAndDestroy(set2);
CleanupStack::PopAndDestroy(encryptedMasterKey);
CleanupStack::PopAndDestroy(1); //OpenLC
CleanupStack::PopAndDestroy(data);
CleanupStack::PopAndDestroy(store);
CleanupStack::PopAndDestroy(ciphertextTemp);
CleanupStack::PopAndDestroy(encryptor);
CleanupStack::PopAndDestroy(set);
CleanupStack::PopAndDestroy(pkcs12Pwd);
User::RequestComplete(status, KErrNone);
iActionState = CTestAction::EPostrequisite;
__UHEAP_MARKEND;
}
/**
@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);
}
EXPORT_C TInt CHTTPResponse::LocateField(THttpHeaderField aField,
TInt aStartIndex) const
{
// Content-Type is a special case; it appears to always be at the first
// byte of the header, and doesn't have any encoding of the field name -
// just straight into the Field Value at byte 0. This is an assumption
// however, since the WSP spec is not explicit - could it possibly be just
// the NWSS GW's implementation of WSP that does this?
if ( (aStartIndex == 0) && (aField == EHttpContentType) )
{
return aStartIndex; // the content-type field value position - ie. 0
}
// Deal with other Field Names, (Possibly including Content-Type if the
// start index is offset into the header? Note that this is not likely to
// occur though, with the abbreviated encoding.)
TInt respLength = iResponse->Length();
TPtr8 respChars = iResponse->Des();
for (TInt index = aStartIndex; index < respLength; index++)
{
// Examine the byte at this position in the header
TUint8 byteCode = respChars[index];
// Expect byteCode to be a Field Name code (unless the search is at
// position zero, which has a missing content-type field name). Check
// for the search field, remembering to clear the top bit
if ( ( (byteCode & 0x7f) == aField) && (index != 0) )
{
// Got it - return the next position to locate the field value,
// checking for potential overrun
if (index < respLength - 1)
{
// Advance 1 to the header field value
++index;
return index;
}
else
{
return KErrNotFound;
}
}
else
{
// Check that we aren't dealing with the Content-Type field
// (expected at position 0), since it doesn't use a field type
if (index != 0)
{
// WSP Spec Section 8.4.1.1 - Field Names
//
// If the byte is an alphanumeric, then it must be a field name that doesn't have
// a WSP encoding. In this circumstance, we can't handle the field, and must
// therefore skip over it
if ((byteCode >= 32) && (byteCode <= 127))
{
// Hit the start of a Header Name string - this will be assumed
// continuous until the NUL is found or until the end
// of the header is hit (which would be an error)
while ( (respChars[index] != 0) && (index < respLength - 1) )
++index;
}
// WSP Spec Section 8.4.1.2 - Field Values
//
// Now examine the field value by advancing one place. If that advance takes us off
// the end of the buffer, then (a) the WSP is invalid, and (b) the field is not found!
++index;
if (index == respLength)
return KErrNotFound;
}
// Read the next byte at this position in the header
byteCode = respChars[index];
// Codes 0-30 represent that number of following data octets, so
// they should be skipped
if (byteCode == 0) // 0 data octets follow !???? : (Strange but true)
{
// __DEBUGGER();
}
else if (byteCode <= 30)
{
index += byteCode;
}
else
{
// Code 31 indicates that the following bytes make a UIntVar,
// which indicates the number of data octets after it. The
// UIntVar itself could be composed of upto 5 bytes
if (byteCode == 31)
{
// Copy a full 5 bytes from the header - note that actually
// fewer might have been used; the UIntVar to Int
// converter function returns the exact number that were
// used.
TInt value = 0;
TInt consumed = ParseUIntVar(respChars.Mid(index + 1), value);
if( consumed < KErrNone )
return KErrCorrupt;
// Advance to the last byte of data in this header
index += consumed + value;
}
else
// Codes 32-127 are alphanumerics representing a text
// string, up to a NUL termination
if (byteCode <= 127)
// Hit the start of a string - this will be assumed
// continuous until the NUL is found or until the end
// of the header is hit (which would be an error)
while ( (respChars[index] != 0) && (index < respLength - 1) )
++index;
}
}
}
// This return only occurs if the search ran off the end of the header
return KErrNotFound;
}
EXPORT_C TBool CHTTPResponse::CharSet(TPtrC8& aDesc) const
{
// __LOG_ENTER(_L("CHTTPResponse::CharSet"));
// Find the byte index in the header for the content type value
TInt index = LocateField(EHttpContentType);
TUint8 byteCode = 0;
TInt paramByteCode = KErrNotFound;
TInt valueByteCode1 = KErrNotFound;
TInt charsetCode = 0;
// Read the byte code, unless KErrNotFound was returned
if (index != KErrNotFound)
{
TPtr8 respChars = iResponse->Des();
TInt respLength = iResponse->Length();
// If the byteCode is in the range 0-30 then a range of bytes is
// indicated: the following byte gives the content type and the
// remainder are arranged as a series of parameter attribute-value
// pairs. This method checks for the presence of a 'charset' parameter.
byteCode = respChars[index];
// __LOG1(_L("CHTTPResponse::CharSet : found bytecode = %d"), byteCode);
// Check valid range ... note that a range of zero could not contain a charset
// parameter anyway, so exclude it...
if ((byteCode > 0) && (byteCode <= 30))
{
// Check for overrun... if this occurs it should be an error. Note that
// corruption _could_ occur in this response buffer - some gateways, which
// don't return error decks (e.g. AnyTime GW) send a response buffer 1 byte
// long, containing only the value 0x01 - which is invalid WSP.
// Be conservative and safe here - we can't overrun. Use the value of byte-
// -Code (which should be the WSP encoding of how many bytes follow), or the
// total length of the response - whichever is smaller.
if (index + byteCode < respLength)
{
// e,g, header to illustrate use of offsets in this code:
// 03 94 81 84 : Content-Type: application/vnd.wap.wmlc; charset=iso-8859-1
// +0 +1 +2 +3 : 03 = no. bytes in Content-Type header
// : 94 = 14 | 80 = application/vnd.wap.wmlc
// : 81 = 01 | 80 = Charset parameter
// : 84 = 04 | 80 = iso-8859-1
paramByteCode = respChars[index + 2];
if ((paramByteCode & 0x7f) == EHttpCharset)
{
// We have a charset
paramByteCode &= 0x7f;
valueByteCode1 = respChars[index + 3];
if (valueByteCode1 & 0x80)
{
// A short one-byte value
charsetCode = valueByteCode1 & 0x7f;
}
else
{
// A multibyte value
ExtractMultiOctetInteger(charsetCode,
respChars.Mid(index + 3));
}
}
}
else
{
index = KErrNotFound;
}
}
}
// If a parameter-value pair was found, determine whether it encodes a
// charset
if ( (index != KErrNotFound) && (paramByteCode == EHttpCharset) )
{
// Look up the value from the charset table.
const TText8* chset;
chset = CharSet(charsetCode);
// Convert the charset string to the supplied descriptor
if (chset)
aDesc.Set(TPtrC8(chset));
else
index = KErrNotFound; // We've found a charset but we don't recognise it
}
else // Either no content-type header (hence no charset) or a content-type
// header with a parameter other than charset
{
index = KErrNotFound;
}
// __LOG1(_L("CHTTPResponse::CharSet : CharSet = %S"), &aDesc);
// __LOG_RETURN;
return (index !=KErrNotFound);
}
