size_t AOS_Bitstream_PDU::addFill(const size_t fillIdx, const ACE_UINT8 fillVal /* = 0xE0 */) {
long fillCount = getDataLength() - fillIdx;
if ( fillCount > 0 ) {
ACE_OS::memset(ptrData() + fillIdx, fillVal, fillCount);
return fillCount;
}
return 0;
}
/**
"Erase" a region of the media. Effectively just fills the selected region with the specified pattern.
@param aPos media position start
@param aLength length of the media region to fill
@param aFill filler byte.
@return EPOC error code.
*/
TInt CWinMediaDeviceBase::Erase(TInt64 aPos, TUint32 aLength, TUint8 aFill)
{
//-- this method is called to "format" media.
//-- Because Windows is absolute sux on everythins that concerns formattin the media (IOCTL_DISK_FORMAT_TRACKS seems to be applicable only
//-- to floppy disks) we have to perform formatting by just filling media region with a given byte.
//-- This can be very slow for flash - based removable media (e.g. usb flash drives) so, there is a possibility to check
//-- if the given media region is already filled with the pattern and write only if not. See bCheckReadBeforeErase switch.
Mem::Fill(ipScratchBuf, KScratchBufSz, aFill);
TUint32 rem = aLength;
TInt nRes = KErrNone;
//-- if True, we firstly will read media region and check if it is already filled with the given byte.
//-- this is useful for slow - write media or sparse files on NTFS.
//TBool bCheckReadBeforeErase = EFalse;
TBool bCheckReadBeforeErase = ETrue;
while(rem)
{
const TUint32 bytesToWrite = Min(KScratchBufSz, rem);
TPtr8 ptrData(ipScratchBuf, bytesToWrite, bytesToWrite);
if(bCheckReadBeforeErase)
{//-- try to read data first and check if we need to write anything
ptrData.SetLength(0);
nRes = Read(aPos, bytesToWrite, ptrData);
if(nRes != KErrNone)
break;
if(!CheckBufFill(ptrData, aFill))
{
Mem::Fill(ipScratchBuf, KScratchBufSz, aFill);
nRes = Write(aPos, bytesToWrite, ptrData);
if(nRes != KErrNone)
break;
}
}
else
{//-- no need to read first
nRes = Write(aPos, bytesToWrite, ptrData);
if(nRes != KErrNone)
break;
}
rem-=bytesToWrite;
aPos+=bytesToWrite;
}
return nRes;
}
void CIAUpdateNodeDetails::SetDetailsL( const MNcdNodeMetadata* aData )
{
ClearAll();
// Get information from metadata.
// Notice, ownership of the aData is not transferred here.
if( aData )
{
// Get the reference to the key value pair array
// that contains all the details of the metadata.
const RPointerArray< CNcdKeyValuePair >& details( aData->Details() );
for( TInt i = 0; i < details.Count(); ++i )
{
// Get the first key value pair from the list.
CNcdKeyValuePair* pair( details[ i ] );
if( pair->Key() == IAUpdateProtocolConsts::KImportanceKey() )
{
// The pair describes the importance of the node.
// Check and set the correct importance.
if( pair->Value().CompareF(
IAUpdateProtocolConsts::KImportanceMandatory() ) == 0 )
{
iImportance = MIAUpdateBaseNode::EMandatory;
}
else if( pair->Value().CompareF(
IAUpdateProtocolConsts::KImportanceCritical() ) == 0 )
{
iImportance = MIAUpdateBaseNode::ECritical;
}
else if( pair->Value().CompareF(
IAUpdateProtocolConsts::KImportanceRecommended() ) == 0 )
{
iImportance = MIAUpdateBaseNode::ERecommended;
}
else if( pair->Value().CompareF(
IAUpdateProtocolConsts::KImportanceHidden() ) == 0 )
{
iImportance = MIAUpdateBaseNode::EHidden;
}
else
{
iImportance = MIAUpdateBaseNode::ENormal;
}
}
else if( pair->Key() == IAUpdateProtocolConsts::KPackageTypeKey() )
{
// The pair describes the content package type.
// Check and set the correct type.
if( pair->Value().CompareF( IAUpdateProtocolConsts::KPackageTypeSP() ) == 0 )
{
iType = MIAUpdateNode::EPackageTypeSP;
}
else if( pair->Value().CompareF(
IAUpdateProtocolConsts::KPackageTypePU() ) == 0 )
{
iType = MIAUpdateNode::EPackageTypePU;
}
else
{
iType = MIAUpdateNode::EPackageTypeSA;
}
}
else if ( pair->Key() == IAUpdateProtocolConsts::KSearchCriteriaKey() )
{
// The pair describes the search criteria.
// Get the criteria.
delete iSearchCriteria;
iSearchCriteria = NULL;
iSearchCriteria = pair->Value().AllocL();
}
else if ( pair->Key() == IAUpdateProtocolConsts::KDependencyKey() )
{
// Create the descriptor for the dependencies data.
// In order to make the data to be inside one root XML element,
// insert required XML element tags to the beginning and to the end.
const TDesC& dependenciesXmlData( pair->Value() );
HBufC* data( HBufC::NewLC(
IAUpdateProtocolConsts::KDependenciesPrefix().Length()
+ dependenciesXmlData.Length()
+ IAUpdateProtocolConsts::KDependenciesPostfix().Length() ) );
TPtr ptrData( data->Des() );
ptrData.Copy( IAUpdateProtocolConsts::KDependenciesPrefix() );
ptrData.Append( dependenciesXmlData );
ptrData.Append( IAUpdateProtocolConsts::KDependenciesPostfix() );
// Create parser that will insert dependency information to the
// given parameter objects.
// Notice, that ClearAll() was called in the beginning of this function.
// So, now dependency array and platform dependency contain their defaults.
CIAUpdateDependencyXmlParser* parser(
CIAUpdateDependencyXmlParser::NewLC( iDependencies,
*iPlatformDependency ) );
parser->ParseL( ptrData );
CleanupStack::PopAndDestroy( parser );
CleanupStack::PopAndDestroy( data );
}
else if ( pair->Key() == IAUpdateProtocolConsts::KFirmwareVersion1Key )
{
// The pair describes the firmware version 1.
// Get the value.
delete iFwVersion1;
iFwVersion1 = NULL;
iFwVersion1 = pair->Value().AllocL();
}
else if ( pair->Key() == IAUpdateProtocolConsts::KFirmwareVersion2Key )
{
// The pair describes the firmware version 2.
// Get the value.
delete iFwVersion2;
iFwVersion2 = NULL;
iFwVersion2 = pair->Value().AllocL();
}
else if ( pair->Key() == IAUpdateProtocolConsts::KFirmwareVersion3Key )
{
// The pair describes the firmware version 3.
// Get the value.
delete iFwVersion3;
iFwVersion3 = NULL;
iFwVersion3 = pair->Value().AllocL();
}
else if ( pair->Key ()== IAUpdateProtocolConsts::KRebootAfterInstallKey )
{
if( pair->Value() == IAUpdateProtocolConsts::KRebootAfterInstallNeeded )
{
iRebootAfterInstall = ETrue;
}
}
}
}
}
