void loop() {
char tmp[3];
int charPosition = 0;
// While there is data in the buffer, lets read it.
while(client.available()) {
char c = client.read();
// Check if we reached the end of the data
if(c == ',') {
// use the accumulated value
pData(tmp);
// Reset
tmp[0];
charPosition = 0;
} else {
// Save char in to the temp array
tmp[charPosition] = c;
// Increment the position of the array
charPosition++;
}
}
}
//-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~
void
GameObjectType::addChild(Zen::Studio::Workbench::I_ExplorerNode& _selectedNode)
{
Zen::Studio::Workbench::I_ExplorerNode::pUserData_type pData(new GameObjectType(m_project, "NewObjectType"));
m_project.getController().createChildNode(*getNode(), pData);
}
//-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~
void
Project::onCreated()
{
/// Create the default child node
Zen::Studio::Workbench::I_ExplorerNode::pUserData_type pData(new Folder(*this, "Game Object Types"));
getController().createChildNode(*getNode(), pData);
}
//-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~
void
Folder::newTerrainGroup(Zen::Studio::Workbench::I_ExplorerNode& _selectedNode)
{
Zen::Studio::Workbench::I_ExplorerNode::pUserData_type pData(
new TerrainGroupNode(m_parent, "NewTerrainGroup")
);
m_parent.getController().createChildNode(*getNode(), pData);
}
void SBVAR::SetupSBVAR(void)
{
TData_predetermined *data=(TData_predetermined*)pData();
YY=lambda*TransposeMultiply(data->Data(),data->Data());
XX=lambda*TransposeMultiply(data->PredeterminedData(),data->PredeterminedData());
XY=lambda*TransposeMultiply(data->PredeterminedData(),data->Data());
log_likelihood_constant=-lambda_T*n_vars*0.918938533204673; // 0.918938533204673 = 0.5*ln(2*pi)
delete data;
}
void KbIntCallback(
const char* name, int name_len,
const char* instruction, int instruction_len,
int num_prompts,
const LIBSSH2_USERAUTH_KBDINT_PROMPT* prompts,
LIBSSH2_USERAUTH_KBDINT_RESPONSE* responses,
void** anstract )
{
if ( num_prompts <= 0 ) { return; }
if ( !kbdIntInfo ) { return; }
try
{
std::vector<FSPromptData> pData( num_prompts );
int i;
for ( i = 0; i < num_prompts; i++ )
{
pData[i].visible = prompts[i].echo != 0;
pData[i].prompt = utf8_to_unicode( CopyToStrZ( prompts[i].text, prompts[i].length ).data() ).data();
}
static unicode_t userSymbol = '@';
if ( !kbdIntInfo->Prompt(
utf8_to_unicode( "SFTP" ).data(),
carray_cat<unicode_t>( kbdIntParam->user.Data(), &userSymbol, kbdIntParam->server.Data() ).data(),
pData.data(), num_prompts ) ) { return; }
for ( i = 0; i < num_prompts; i++ )
{
std::vector<char> str = new_char_str( ( char* )FSString( pData[i].prompt.Data() ).Get( kbdIntParam->charset ) );
if ( str.data() )
{
int l = strlen( str.data() );
responses[i].length = l;
responses[i].text = ( char* ) malloc( l + 1 );
if ( responses[i].text ) { strcpy( responses[i].text, str.data() ); }
}
}
}
catch ( cexception* ex )
{
fprintf( stderr, "exception in kbdint callback used with libssh2: %s\n", ex->message() );
ex->destroy();
}
catch ( ... )
{
fprintf( stderr, "excention (...) in kbdint callback used with libssh2\n" );
}
}
int CRealControlSocket::ContinueConnect()
{
wxString host;
unsigned int port = 0;
const int proxy_type = m_pEngine->GetOptions()->GetOptionVal(OPTION_PROXY_TYPE);
if (proxy_type > CProxySocket::unknown && proxy_type < CProxySocket::proxytype_count && !m_pCurrentServer->GetBypassProxy())
{
LogMessage(::Status, _("Connecting to %s through proxy"), m_pCurrentServer->FormatHost().c_str());
host = m_pEngine->GetOptions()->GetOption(OPTION_PROXY_HOST);
port = m_pEngine->GetOptions()->GetOptionVal(OPTION_PROXY_PORT);
delete m_pBackend;
m_pProxyBackend = new CProxySocket(this, m_pSocket, this);
m_pBackend = m_pProxyBackend;
int res = m_pProxyBackend->Handshake((enum CProxySocket::ProxyType)proxy_type,
m_pCurrentServer->GetHost(), m_pCurrentServer->GetPort(),
m_pEngine->GetOptions()->GetOption(OPTION_PROXY_USER),
m_pEngine->GetOptions()->GetOption(OPTION_PROXY_PASS));
if (res != EINPROGRESS)
{
LogMessage(::Error, _("Could not start proxy handshake: %s"), CSocket::GetErrorDescription(res).c_str());
DoClose();
return FZ_REPLY_ERROR;
}
}
else
{
if (m_pCurOpData && m_pCurOpData->opId == cmd_connect)
{
CConnectOpData* pData(static_cast<CConnectOpData*>(m_pCurOpData));
host = ConvertDomainName(pData->host);
port = pData->port;
}
if (host == _T(""))
{
host = m_pCurrentServer->GetHost();
port = m_pCurrentServer->GetPort();
}
}
if (!IsIpAddress(host))
LogMessage(Status, _("Resolving address of %s"), host.c_str());
int res = m_pSocket->Connect(host, port);
// Treat success same as EINPROGRESS, we wait for connect notification in any case
if (res && res != EINPROGRESS)
{
LogMessage(::Error, _("Could not connect to server: %s"), CSocket::GetErrorDescription(res).c_str());
DoClose();
return FZ_REPLY_ERROR;
}
return FZ_REPLY_WOULDBLOCK;
}
void QEnginioOperationShared::dumpDebugInfo(QDebug &d) const
{
QRestOperationShared::dumpDebugInfo(d);
#if 0
QByteArray json = _client->_requestData.value(_nreply);
if (!json.isEmpty()) {
if (request.url().toString(QUrl::None).endsWith(QString::fromUtf8("account/auth/identity"))) {
qDebug() << "Request Data hidden because it contains password";
} else {
qDebug() << "Request Data:" << json;
}
}
if (!pData().isEmpty()) {
qDebug() << "Reply Data:" << pData();
}
#endif
}
void tGauge::SetCaptions()
{
if( m_Indicators.size() > 0 )
{
//Get everything we need from tDigitalData
tDigitalData pData( m_Indicators.at( 0 ).dataId );
//Captions and units
m_ShortCaption = pData.Caption( true ).toUpper();
m_Caption = pData.Caption( false ).toUpper();
m_UnitsStr = pData.UnitStr();
}
}
void tGauge::UnitsChanged( tUnitsType type, int unitsValue )
{
if( ( m_Indicators.size() > 0 ) && ( m_UnitsType == type ) )
{
tDigitalData pData( m_Indicators.at( 0 ).dataId );
tConvert* pConverter = tConvert::Instance();
//special case for UNITS_ECONOMY. They can be inverted by the user, and we need
//to retrieve the new limits from tDigitalData, which handles this.
if( type == UNITS_ECONOMY )
{
RealLimits.max = pData.MaxConverted();
RealLimits.min = pData.MinConverted();
RealWarnings.max = pData.WarningHighConverted();
RealWarnings.min = pData.WarningLowConverted();
AbsoluteLimits.max = pData.AbsoluteMaxConverted();
AbsoluteLimits.min = pData.AbsoluteMinConverted();
}
else
{
tFloatLimits limits;
limits.max = pConverter->ToUser( m_UnitsType, m_UnitsValue, RealLimits.max );
limits.min = pConverter->ToUser( m_UnitsType, m_UnitsValue, RealLimits.min );
tFloatLimits warnings;
warnings.max = pConverter->ToUser( m_UnitsType, m_UnitsValue, RealWarnings.max );
warnings.min = pConverter->ToUser( m_UnitsType, m_UnitsValue, RealWarnings.min );
tFloatLimits absLimits;
absLimits.max = pConverter->ToUser( m_UnitsType, m_UnitsValue, AbsoluteLimits.max );
absLimits.min = pConverter->ToUser( m_UnitsType, m_UnitsValue, AbsoluteLimits.min );
AbsoluteLimits = absLimits;
SetLimits( limits, warnings );
}
m_UnitsType = type;
m_UnitsValue = unitsValue;
int limitIndex = GetCustomHobartLimits();
SetCustomHobartLimits( limitIndex );
OnLimitsChanged();
m_UnitsStr = pData.UnitStr();
ReconfigureGauge();
InvalidateBackground();
}
}
size_t BinaryData::ReadFromResource(LPCTSTR lpName, LPCTSTR lpType, HMODULE hModule /* = NULL */)
{
SetData();
HRSRC hRSRC(FindResource(hModule, lpName, lpType));
if (hRSRC != NULL) {
HGLOBAL hRes(LoadResource(hModule, hRSRC));
if (hRes != NULL) {
LPVOID pData(LockResource(hRes));
if (pData != NULL) {
SetData(pData, SizeofResource(hModule, hRSRC), true);
}
}
}
return Size();
}
TDenseMatrix SBVAR::SimulateData(const TDenseVector ¶meters, int n_obs)
{
TData_predetermined *data=(TData_predetermined*)pData();
int n_exogenous=data->NumberPredeterminedVariables() - data->NumberLags()*data->NumberVariables();
if ((n_exogenous > 1) || ((n_exogenous == 1) && !(data->IsConstant())))
throw dw_exception("SBVAR::SimulateData() - the only exogenous variable permissible is a constant");
if (parameters.dim != NumberParameters())
throw dw_exception("SBVAR::SimulationData() - invalid number of parameters");
SetParameters(parameters.vector);
TDenseMatrix A0=GetA0(), Aplus=GetAplus();
return ::SimulateData(n_obs+n_lags,A0,Aplus,data->IsConstant(),n_obs);
}
void* FX_OpenFolder(const FX_WCHAR* path) {
#if _FXM_PLATFORM_ == _FXM_PLATFORM_WINDOWS_
std::unique_ptr<CFindFileDataW> pData(new CFindFileDataW);
pData->m_Handle = FindFirstFileExW((CFX_WideString(path) + L"/*.*").c_str(),
FindExInfoStandard, &pData->m_FindData,
FindExSearchNameMatch, nullptr, 0);
if (pData->m_Handle == INVALID_HANDLE_VALUE)
return nullptr;
pData->m_bEnd = FALSE;
return pData.release();
#else
DIR* dir = opendir(CFX_ByteString::FromUnicode(path).c_str());
return dir;
#endif
}
HBufC8* CMemSpyEngineHelperActiveObject::SchedulerHeapCellDataLC( TAny*& aCellAddress, TThreadId aThreadId )
{
//RDebug::Printf("CMemSpyEngineHelperActiveObject::SchedulerHeapCellDataLC() - START - aCellAddress: 0x%08x, aThread: %d", aCellAddress, I64INT(aThreadId.Id()));
// This is what we'll return, if we find it...
HBufC8* heapCellData = NULL;
// Now walk the heap!
TInt err = iEngine.Driver().WalkHeapInit( aThreadId );
User::LeaveIfError( err );
// Now we can try to find the cell's info
TMemSpyDriverCellType cellType;
TInt cellLength;
TInt cellNestingLevel;
TInt cellAllocationNumber;
TInt cellHeaderSize;
TAny* cellPayloadAddress;
//
err = iEngine.Driver().WalkHeapGetCellInfo( aCellAddress, cellType, cellLength, cellNestingLevel, cellAllocationNumber, cellHeaderSize, cellPayloadAddress );
//RDebug::Printf("CMemSpyEngineHelperActiveObject::SchedulerHeapCellDataLC() - err: %d, cellLength: %d, cellAllocationNumber: %d, cellType: %d", err, cellLength, cellAllocationNumber, cellType);
User::LeaveIfError( err );
if (cellType & EMemSpyDriverAllocatedCellMask)
{
const TInt payloadLength = cellLength;
HBufC8* data = HBufC8::NewLC( payloadLength );
TPtr8 pData( data->Des() );
//
err = iEngine.Driver().WalkHeapReadCellData( aCellAddress, pData, payloadLength );
//RDebug::Printf("CMemSpyEngineHelperActiveObject::SchedulerHeapCellDataLC() - data fetch returned error: %d", err);
User::LeaveIfError( err );
heapCellData = data;
CleanupStack::Pop( data );
}
//
if ( heapCellData == NULL )
{
//RDebug::Printf("CMemSpyEngineHelperActiveObject::SchedulerHeapCellDataLC() - END - didn't find the right cell => KErrNotFound");
User::Leave( KErrNotFound );
}
//
CleanupStack::PushL( heapCellData );
//RDebug::Printf("CMemSpyEngineHelperActiveObject::SchedulerHeapCellDataLC() - END - everything okay, cell is: 0x%08x", aCellAddress);
return heapCellData;
}
void tGauge::ChangeDataType( const tDataId& dataId )
{
m_SaveLimits = false;
if( dataId == DATA_TYPE_INVALID )
{
return;
}
//clear existing indicators
m_Indicators.clear();
m_Indicators << tIndicator( dataId );
//set captions and limits
tDigitalData pData( dataId );
AbsoluteLimits = pData.AbsoluteLimitsConverted();
tFloatLimits limits( pData.MinConverted(), pData.MaxConverted() );
tFloatLimits warnings( pData.WarningLowConverted(), pData.WarningHighConverted() );
m_UnitsType = pData.Units();
m_UnitsValue = tUnitsSettings::Instance()->Units( m_UnitsType );
//set update timer and update immediately
UpdateValues();
//autoconfigure if applicable
if( CanAutoConfigure() && AutoConfigure() )
{
DoAutoConfigure();
}
SetLimits( limits, warnings );
SetCaptions();
//does any type specific config
ReconfigureGauge();
m_BackIsCached = false;
m_ForeIsCached = false;
update();
m_Modified = true;
if( m_UnitsType != UNITS_ECONOMY )
{
// m_SaveLimits = true;
}
}
void ListProcessInfo::decapsulate(std::string &message, int id){
namespace bpt = boost::property_tree;
std::stringstream ss(message);
bpt::ptree pt;
bpt::read_json(ss, pt);
lock_.lock();
lProcesses.clear();
// std::cout << "--- message ("<< id << ") [" << strip(message)<<"]"<<std::endl;
BOOST_FOREACH(const bpt::ptree::value_type& child, pt.get_child("data") ) {
std::shared_ptr<ProcessInfo> pData(new ProcessInfo);
pData->name = child.second.get<std::string>("name");
// std::cout << "--- name:\t\t\t" << pData->name << std::endl;
pData->username = child.second.get<std::string>("username");
// std::cout << "--- username:\t\t" << pData->username << std::endl;
pData->status = child.second.get<std::string>("status");
// std::cout << "--- status:\t\t\t" << pData->status << std::endl;
pData->cpu_times = child.second.get<std::string>("cpu_times");
// std::cout << "--- cpu_times:\t\t" << pData->cpu_times << std::endl;
pData->memory_vms_label = child.second.get<std::string>("memory_vms_label");
// std::cout << "--- memory_vms_label:\t" << pData->memory_vms_label << std::endl;
pData->memory_rss_label = child.second.get<std::string>("memory_rss_label");
// std::cout << "--- memory_rss_label:\t" << pData->memory_rss_label << std::endl;
pData->memory_vms_info = child.second.get<long>("memory_vms_info");
// std::cout << "--- memory_vms_info:\t\t" << pData->memory_vms_info << std::endl;
pData->memory_rss_info = child.second.get<long>("memory_rss_info");
// std::cout << "--- memory_rss_info:\t\t" << pData->memory_rss_info << std::endl;
pData->nice = child.second.get<int>("nice");
// std::cout << "--- nice:\t\t\t" << pData->nice << std::endl;
pData->pid = child.second.get<int>("pid");
// std::cout << "--- pid:\t" << pData->pid << std::endl;
pData->cpu_percent = child.second.get<double>("cpu_percent");
// std::cout << "--- cpu_percent:\t\t" << pData->cpu_percent << std::endl;
pData->memory_percent = child.second.get<double>("memory_percent");
// std::cout << "--- memory_percent:\t\t" << pData->memory_percent << std::endl;
// cout << " *** name: " << pData->name << endl;
lProcesses.push_back ( std::move(pData) );
}
processSize = lProcesses.size();
lock_.unlock();
// cout << " *** processSize: " << processSize << endl;
}
//-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~
ExplorerNodeFactory::pUserData_type
ExplorerNodeFactory::createTerrainChunk(Zen::Studio::Workbench::I_ExplorerNode& _node)
{
Zen::Studio::Workbench::I_ExplorerNode::UserData* pParentUserData =
_node.getUserData().get();
TerrainGroupNode* pParentNode = dynamic_cast<TerrainGroupNode*>(pParentUserData);
if (pParentNode != NULL)
{
// The TerrainGroupNode will get the name from the database later, so
// just pass an empty string for now.
pUserData_type pData(new TerrainChunkNode(pParentNode->getProject(), ""));
return pData;
}
else
{
throw Zen::Utility::runtime_exception("Error, invalid parent type.");
}
}
//*************************************************************************************
void CConsoleAlarmAlertSession::SetAlarmL(const RMessage2& aMessage)
{
TPckg<TASShdAlarm> pA(iAlarm);
aMessage.ReadL(KSlot0, pA);
if (iAlarm.HasAssociatedData())
{
iAlarmAssociatedDataSize = aMessage.GetDesLength(2);
TPckg<TAgnAlarmInfo> pB(iAlarmData);
aMessage.ReadL(KSlot2, pB);
//Storing the data in the server for the test session to read..
HBufC8* data = HBufC8::NewLC(iAlarmAssociatedDataSize);
TPtr8 pData(data->Des());
aMessage.ReadL(KSlot2, pData);
iServer->SetAttachment(data); //Server takes an ownership
CleanupStack::Pop(data);
}
else
iAlarmAssociatedDataSize = 0;
}
void CTreSubfile::ParseLevels()
{
if (m_fLevelsParsed || !m_pSubFile)
return;
// Levels
// Read levels data
std::auto_ptr<Byte> pData(new Byte[m_uiMapLevelsLen]);
m_pSubFile->Read(pData.get(), m_uiMapLevelsOffset, m_uiMapLevelsLen);
// Parse the data from the beginning
UInt uiLevelOffset;
for (uiLevelOffset = 0; uiLevelOffset < m_uiMapLevelsLen; uiLevelOffset += CMapLevel::cnSize)
{
// Add level & make it read its data
m_Levels.push_back(CMapLevel());
m_Levels.back().Read(pData.get() + uiLevelOffset);
}
// Tell the last level it's last
m_Levels.back().SetLast();
m_fLevelsParsed = true;
}
void VJSXMLHttpRequest::Construct(XBOX::VJSParms_construct& ioParms)
{
XMLHttpRequest* xhr=new XMLHttpRequest();
if(!xhr)
{
XBOX::vThrowError(VE_XHRQ_IMPL_FAIL_ERROR);
return;
}
XBOX::VJSObject pData(ioParms.GetContext());
bool resData;
resData=ioParms.GetParamObject(1, pData);
if(resData)
{
XBOX::VJSValue hostValue=pData.GetProperty("host", NULL);
XBOX::VString hostString;
bool hostRes=hostValue.GetString(hostString, NULL);
if(hostRes) //we have a proxy
{
XBOX::VJSValue portValue=pData.GetProperty("port", NULL);
sLONG portLong=0;
bool portRes=portValue.GetLong(&portLong, NULL);
portLong=(portRes && portLong>0) ? portLong : 80;
//todo : user and passwd
XBOX::VError res=xhr->SetProxy(hostString, portLong);
if(res!=XBOX::VE_OK)
XBOX::vThrowError(res);
}
}
ioParms.ReturnConstructedObject(VJSXMLHttpRequest::CreateInstance(ioParms.GetContextRef(), xhr));
}
tGaugeParams tGauge::GetGaugeParams()
{
tGaugeParams params;
if( m_Indicators.size() > 0 )
{
params.m_Limits = tFloatLimits();
tDigitalData pData( tDataId( m_Indicators.at( 0 ).dataId ) );
if( ( tFloatLimits( pData.MinConverted(), pData.MaxConverted() ) != RealLimits ) /*|| m_SaveLimits*/ )
{
//the user has set their own limits - save them in base units.
params.m_Limits = pData.UnconvertLimits( RealLimits );
}
params.m_Warnings = tFloatLimits();
if( ( tFloatLimits( pData.WarningLowConverted(), pData.WarningHighConverted() ) != RealWarnings ) /*|| m_SaveLimits*/ )
{
//the user has set their own warnings - save them in base units
params.m_Warnings = pData.UnconvertLimits( RealWarnings );
}
params.m_DataList = GetDataSources();
params.m_UsesGauge = objectName();
params.m_Geometry = QRect();
params.m_GaugeFlags = GaugeFlags();
if( m_IsOverlay )
{
params.m_Geometry = QRect( pos(), size() );
params.m_GaugeType = GaugeType();
}
}
m_Modified = false;
m_SaveLimits = false;
return params;
}
//-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~
ExplorerNodeFactory::pUserData_type
ExplorerNodeFactory::createFolder(Zen::Studio::Workbench::I_ExplorerNode& _node)
{
Zen::Studio::Workbench::I_ExplorerNode::UserData* pParentUserData =
_node.getUserData().get();
// This is a folder, so quite likely (always?) the parent's user data is
// a project.
Project* pParentProject = dynamic_cast<Project*>(pParentUserData);
if (pParentProject != NULL)
{
// The Folder will get the name from the database, so just
// pass an empty string for now.
pUserData_type pData(new Folder(*pParentProject, ""));
return pData;
}
else
{
throw Zen::Utility::runtime_exception("Error, invalid parent type.");
}
}
static void TestUtcAlarmDataFunctionalityL()
{
TheAlarmTest.Test().Next(_L("Test alarm data functionality"));
time.HomeTime();
time += TTimeIntervalMinutes(1);
id = AddUtcAlarm(time);
_LIT8(KAlarmData, "some 8-bit data to attach to the alarm");
ret = TheAlarmTest.Session().AlarmDataAttachL(id, KAlarmData());
TheAlarmTest(ret == KErrNone, __LINE__);
ret = TheAlarmTest.Session().AlarmDataSize(id);
TheAlarmTest(ret > 0, __LINE__);
HBufC8* temp = HBufC8::NewLC(KAlarmData().Size());
TPtr8 pData(temp->Des());
ret = TheAlarmTest.Session().GetAlarmData(id, pData);
TheAlarmTest(ret == KErrNone, __LINE__);
TheAlarmTest(pData.CompareC(KAlarmData()) == 0, __LINE__);
CleanupStack::PopAndDestroy(temp);
}
void tGauge::InitialiseLimits()
{
tDigitalData pData( GetDataId() );
m_UnitsType = pData.Units( GetDataId().DataType() );
m_UnitsValue = tUnitsSettings::Instance()->Units( m_UnitsType );
AbsoluteLimits = pData.AbsoluteLimitsConverted();
//Check for user specified limits, else get from tDigitalData.
tFloatLimits limits;
if( m_GaugeParams.m_Limits.IsValid() && m_UnitsType != UNITS_ECONOMY )
{
limits = pData.ConvertLimits( m_GaugeParams.m_Limits );
}
else
{
limits = tFloatLimits( pData.MinConverted(), pData.MaxConverted() );
}
//Check for user specified warnings, else get from tDigitalData.
tFloatLimits warnings;
if( m_GaugeParams.m_Warnings.IsValid() && m_UnitsType != UNITS_ECONOMY )
{
warnings = pData.ConvertLimits( m_GaugeParams.m_Warnings );
}
else
{
warnings = tFloatLimits( pData.WarningLowConverted(), pData.WarningHighConverted() );
}
SetCaptions();
//mildly bad form when called from the constructor as SetLimits is virtual.. but base implementation is desired in this case, so all good.
tGauge::SetLimits( limits, warnings );
// We may have dynamically changing custom limits.
OnLimitsChanged();
}
bool tGauge::UpdateValues()
{
bool changed = false;
for( int i = 0; i < m_Indicators.size(); ++i )
{
tDigitalData pData( m_Indicators[ i ].dataId );
float value = 0.0f;
if( pData.DampedValueConverted( value ) )
{
if( m_Indicators[ i ].value != value || m_Indicators[ i ].isValid == false )
{
m_Indicators[ i ].isValid = true;
m_Indicators[ i ].value = value;
changed = true;
}
}
else
{
if( m_Indicators[ i ].isValid != false )
{
m_Indicators[ i ].isValid = false;
changed = true;
}
}
}
if( GaugeType() == AnalogGauge )
{
setEnabled( AnyValidIndicators() );
}
if( changed )
{
InvalidateForeground();
}
return changed;
}
bool CGeppetto::BuildFromInputScript(const tstring& sScript)
{
FILE* fp = tfopen_asset(GetPath(sScript), "r");
if (!fp)
{
TError("Could not read input script '" + sScript + "'\n");
return false;
}
std::shared_ptr<CData> pData(new CData());
CDataSerializer::Read(fp, pData.get());
CData* pOutput = pData->FindChild("Output");
if (!pOutput)
{
TError("Could not find Output section in input script '" + sScript + "'\n");
return false;
}
CData* pGame = pData->FindChild("Game");
if (!pGame)
{
TError("Could not find Game section in input script '" + sScript + "'\n");
return false;
}
t.SetGameDirectory(FindAbsolutePath(GetPath(pGame->GetValueString())));
tstring sOutputDir = ToForwardSlashes(pOutput->GetValueString());
t.SetOutputDirectory(GetDirectory(sOutputDir));
t.SetOutputFile(GetFilename(sOutputDir));
t.SetScriptDirectory(GetDirectory((GetPath(sScript))));
m_sOutput = FindAbsolutePath(t.GetGameDirectory() + T_DIR_SEP + pOutput->GetValueString());
CData* pSceneAreas = pData->FindChild("SceneAreas");
CData* pMesh = pData->FindChild("Mesh");
CData* pPhysics = pData->FindChild("Physics");
CData* pPhysicsShapes = pData->FindChild("PhysicsShapes");
// Find all file modification times.
time_t iScriptModificationTime = GetFileModificationTime(sScript.c_str());
time_t iOutputModificationTime = GetFileModificationTime(m_sOutput.c_str());
tmap<tstring, time_t> aiSceneModificationTimes;
if (pSceneAreas)
{
for (size_t i = 0; i < pSceneAreas->GetNumChildren(); i++)
{
CData* pArea = pSceneAreas->GetChild(i);
if (pArea->GetKey() != "Area")
continue;
tstring sFile = pArea->FindChildValueString("File");
TAssert(sFile.length());
if (!sFile.length())
continue;
auto it = aiSceneModificationTimes.find(sFile);
if (it == aiSceneModificationTimes.end())
aiSceneModificationTimes[sFile] = GetFileModificationTime(sFile.c_str());
}
}
time_t iInputModificationTime = 0;
if (pMesh)
iInputModificationTime = GetFileModificationTime(pMesh->GetValueString().c_str());
time_t iPhysicsModificationTime = 0;
if (pPhysics)
iPhysicsModificationTime = GetFileModificationTime(pPhysics->GetValueString().c_str());
bool bRecompile = false;
if (iScriptModificationTime > iOutputModificationTime)
bRecompile = true;
else if (iInputModificationTime > iOutputModificationTime)
bRecompile = true;
else if (iPhysicsModificationTime > iOutputModificationTime)
bRecompile = true;
else if (m_iBinaryModificationTime > iOutputModificationTime)
bRecompile = true;
else
{
for (auto it = aiSceneModificationTimes.begin(); it != aiSceneModificationTimes.end(); it++)
{
if (it->second > iOutputModificationTime)
{
bRecompile = true;
break;
}
}
}
if (!bRecompile)
{
if (m_bForceCompile)
{
TMsg("Forcing rebuild even though no changes detected.\n");
}
else
{
TMsg("No changes detected. Skipping '" + m_sOutput + "'.\n\n");
return true;
}
}
CData* pGlobalTransforms = pData->FindChild("UseGlobalTransforms");
if (pGlobalTransforms)
t.UseGlobalTransformations();
else
t.UseLocalTransformations();
t.UseUV();
t.UseNormals();
if (pMesh)
{
tstring sExtension = pMesh->GetValueString().substr(pMesh->GetValueString().length()-4);
if (sExtension == ".png")
{
TUnimplemented(); // Not updated since the switch to materials.
int x, y, n;
unsigned char* pData = stbi_load((GetPath(pMesh->GetValueString())).c_str(), &x, &y, &n, 0);
if (!pData)
{
TError("Couldn't load '" + pMesh->GetValueString() + "', reason: " + stbi_failure_reason() + "\n");
return false;
}
stbi_image_free(pData); // Don't need it, just need the dimensions.
Vector vecUp = Vector(0, 0, 0.5f) * ((float)y/100);
Vector vecLeft = Vector(0, 0.5f, 0) * ((float)x/100);
t.UseNormals(false);
if (IsAbsolutePath(pMesh->GetValueString()))
t.AddMaterial(GetPath(pMesh->GetValueString()));
else
t.AddMaterial(t.GetOutputDirectory() + "/" + pMesh->GetValueString(), GetPath(pMesh->GetValueString()));
t.AddVertex(0, -vecLeft + vecUp, Vector2D(0.0f, 1.0f));
t.AddVertex(0, -vecLeft - vecUp, Vector2D(0.0f, 0.0f));
t.AddVertex(0, vecLeft - vecUp, Vector2D(1.0f, 0.0f));
t.AddVertex(0, -vecLeft + vecUp, Vector2D(0.0f, 1.0f));
t.AddVertex(0, vecLeft - vecUp, Vector2D(1.0f, 0.0f));
t.AddVertex(0, vecLeft + vecUp, Vector2D(1.0f, 1.0f));
}
else if (sExtension == ".mat")
{
CMaterialHandle hMaterial(pMesh->GetValueString());
if (!hMaterial.IsValid())
{
TError("Input material '" + pMesh->GetValueString() + "' does not exist or is invalid.\n");
return false;
}
if (!hMaterial->m_ahTextures.size())
{
TError("Input material '" + pMesh->GetValueString() + "' has no textures.\n");
return false;
}
float w = (float)hMaterial->m_ahTextures[0]->m_iWidth;
float h = (float)hMaterial->m_ahTextures[0]->m_iHeight;
Vector vecUp = Vector(0, 0.5f, 0) * (h/hMaterial->m_iTexelsPerMeter);
Vector vecRight = Vector(0, 0, 0.5f) * (w/hMaterial->m_iTexelsPerMeter);
t.UseNormals(false);
t.AddMaterial(pMesh->GetValueString());
t.AddVertex(0, -vecRight + vecUp, Vector2D(0.0f, 1.0f));
t.AddVertex(0, -vecRight - vecUp, Vector2D(0.0f, 0.0f));
t.AddVertex(0, vecRight - vecUp, Vector2D(1.0f, 0.0f));
t.AddVertex(0, -vecRight + vecUp, Vector2D(0.0f, 1.0f));
t.AddVertex(0, vecRight - vecUp, Vector2D(1.0f, 0.0f));
t.AddVertex(0, vecRight + vecUp, Vector2D(1.0f, 1.0f));
}
else
{
TMsg("Reading model '" + GetPath(pMesh->GetValueString()) + "' ...");
std::shared_ptr<CConversionScene> pScene(new CConversionScene());
CModelConverter c(pScene.get());
if (!c.ReadModel(GetPath(pMesh->GetValueString())))
{
TError("Couldn't read '" + GetPath(pMesh->GetValueString()) + "'.\n");
return false;
}
TMsg(" Done.\n");
TMsg("Building toy mesh ...");
LoadSceneIntoToy(pScene.get(), &t);
TMsg(" Done.\n");
}
}
if (pPhysics)
{
TMsg("Reading physics model '" + GetPath(pPhysics->GetValueString()) + "' ...");
std::shared_ptr<CConversionScene> pScene(new CConversionScene());
CModelConverter c(pScene.get());
if (!c.ReadModel(GetPath(pPhysics->GetValueString())))
{
TError("Couldn't read '" + GetPath(pPhysics->GetValueString()) + "'.\n");
return false;
}
TMsg(" Done.\n");
TMsg("Building toy physics model ...");
LoadSceneIntoToyPhysics(pScene.get(), &t);
TMsg(" Done.\n");
}
if (pPhysicsShapes)
{
for (size_t i = 0; i < pPhysicsShapes->GetNumChildren(); i++)
{
CData* pShape = pPhysicsShapes->GetChild(i);
TAssert(pShape->GetKey() == "Box");
if (pShape->GetKey() != "Box")
continue;
TRS trs = pShape->GetValueTRS();
t.AddPhysBox(trs);
}
}
if (pSceneAreas)
LoadSceneAreas(pSceneAreas);
return Compile();
}
void CMemSpyEngineHelperHeap::OutputHeapDataKernelL(const TMemSpyHeapInfo& aHeapInfo,
TBool aCreateDataStream,
const RArray<TMemSpyDriverCell>* aCells)
{
TFullName threadName;
MemSpyEngineUtils::GetKernelHeapThreadName( threadName, EFalse );
// Begin a new data stream
if ( aCreateDataStream )
{
_LIT( KMemSpyFolder, "Heap\\Data" );
_LIT( KMemSpyContext, "Heap Data - %S" );
HBufC* context = HBufC::NewLC( KMaxFileName );
TPtr pContext( context->Des() );
pContext.Format( KMemSpyContext, &threadName );
iEngine.Sink().DataStreamBeginL( pContext, KMemSpyFolder );
CleanupStack::PopAndDestroy( context );
}
TBuf<KMaxFullName + 100> printFormat;
// Start marker
iEngine.Sink().OutputLineFormattedL( KMemSpyMarkerHeapData, &KNullDesC, aHeapInfo.Tid() );
// Set overall prefix
iEngine.Sink().OutputPrefixSetFormattedLC( KMemSpyPrefixHeapData, &threadName );
// Info section
OutputHeapInfoL( aHeapInfo, threadName, aCells );
// Code segments (needed for map file reading...)
_LIT(KCellListCodeSegInfoFormat, "CodeSegs - ");
iEngine.HelperCodeSegment().OutputCodeSegmentsL( aHeapInfo.Pid(), printFormat, KCellListCodeSegInfoFormat, '-', ETrue );
// Dump section
_LIT(KHeaderDump, "Heap Data");
iEngine.Sink().OutputSectionHeadingL( KHeaderDump, '-' );
HBufC8* data = HBufC8::NewLC( 4096 * 12 );
TPtr8 pData(data->Des());
TUint remaining = 0;
TUint readAddress = 0;
TInt r = iEngine.Driver().GetHeapDataKernel(aHeapInfo.Tid(), pData, readAddress, remaining);
TUint prevEndAddress = readAddress + pData.Length();
if (r == KErrNone)
{
while (r == KErrNone)
{
if (readAddress > prevEndAddress)
{
// We've hit a discontinuity, ie one or more unmapped pages
_LIT(KBreak, "........");
iEngine.Sink().OutputLineL(KBreak);
}
_LIT(KHeapDumpDataFormat, "%S");
iEngine.Sink().OutputBinaryDataL(KHeapDumpDataFormat, pData.Ptr(), (const TUint8*) readAddress, pData.Length());
readAddress += pData.Length();
if (remaining > 0)
{
prevEndAddress = readAddress;
r = iEngine.Driver().GetHeapDataKernelNext(aHeapInfo.Tid(), pData, readAddress, remaining);
}
else
break;
}
}
else
{
_LIT( KHeapFetchError, "Heap error: %d");
iEngine.Sink().OutputLineFormattedL( KHeapFetchError, r );
}
CleanupStack::PopAndDestroy( data );
CleanupStack::PopAndDestroy(); // clear prefix
// End marker
iEngine.Sink().OutputLineFormattedL( KMemSpyMarkerHeapData, &KMemSpySinkTagClose, aHeapInfo.Tid() );
if ( aCreateDataStream )
{
iEngine.Sink().DataStreamEndL();
}
}
TAny* CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL( TAny* aCellAddress, CMemSpyEngineActiveObjectArray& aArray )
{
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - START");
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - AO.cellAddress: 0x%08x", aCellAddress);
TAny* nextCellAddress = NULL;
TMemSpyDriverCellType cellType;
TInt cellLength;
TInt cellNestingLevel;
TInt cellAllocationNumber;
TInt cellHeaderSize;
TAny* cellPayloadAddress;
// Make a separate copy of the cell address - calling GetCellInfo may well result in the address being
// changed in order to match the real starting address of a *heap cell*.
TAny* requestedCellAddress = aCellAddress;
TInt err = iEngine.Driver().WalkHeapGetCellInfo( requestedCellAddress, cellType, cellLength, cellNestingLevel, cellAllocationNumber, cellHeaderSize, cellPayloadAddress );
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - err: %d, cellLength: %d, cellAllocationNumber: %d, cellType: %d", err, cellLength, cellAllocationNumber, cellType);
User::LeaveIfError( err );
if (cellType & EMemSpyDriverAllocatedCellMask)
{
const TInt payloadLength = cellLength;
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - payloadLength: %d", payloadLength);
// const TInt payloadLength = Max( 512, cellLength - iHeapInfo.iHeapCellHeaderLengthAllocated ); // Prevent negative payload lengths?
CBufFlat* data = CBufFlat::NewL( payloadLength );
CleanupStack::PushL( data );
data->ResizeL( payloadLength );
TPtr8 pData( data->Ptr( 0 ) );
//
err = iEngine.Driver().WalkHeapReadCellData( requestedCellAddress, pData, payloadLength );
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - AO.heapCellAddress: 0x%08x (err: %d)", requestedCellAddress, err);
User::LeaveIfError( err );
// If an object is embedded directly within a class, for example
//
// class CSomething : public CBase
// {
// CIdle iEmbeddedIdler;
// }
//
// then aCellAddress actually points to somewhere *within* a heap cell, not to the actual starting address of
// the heap cell itself. We must take this into account when parsing the heap cell data (i.e. the bit of the cell we
// are interested in starts part way through the cell data).
TInt cellOffset = TUint32( aCellAddress ) - TUint32( requestedCellAddress );
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - AO.cellOffset: %d (ignoring cell header)", cellOffset);
cellOffset -= cellHeaderSize;
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - AO.cellOffset: %d (adjusted for cell header)", cellOffset);
// Got the cell data for the active object. Let's parse it.
RBufReadStream stream( *data, cellOffset );
CleanupClosePushL( stream );
// First item should be vTable
TAny* vTable = (TAny*) stream.ReadUint32L();
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - AO.vTable: 0x%08x", vTable );
// Next item should be the request status. First the iStatus, then the iFlags
const TInt requestStatusValue = stream.ReadInt32L();
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - AO.rsVal: %10d", requestStatusValue );
const TUint requestStatusFlags = stream.ReadUint32L();
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - AO.rsFlags: 0x%02x", requestStatusFlags );
// Next comes the baseclass for the link - TDblQueLinkBase
TAny* nextEntryAddress = (TAny*) stream.ReadUint32L();
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - AO.iLink.Next: 0x%08x", nextEntryAddress );
TAny* prevEntryAddress = (TAny*) stream.ReadUint32L();
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - AO.iLink.Prev: 0x%08x", prevEntryAddress );
// Next comes the TPriQueueLink itself
const TInt priority = stream.ReadInt32L();
//RDebug::Printf("CMemSpyEngineHelperActiveObject::ReadActiveObjectDataL() - AO.iLink.Pri: %d", priority );
// Done - save object & tidy up
CMemSpyEngineActiveObject* object = CMemSpyEngineActiveObject::NewLC( aCellAddress, vTable, priority, requestStatusValue, requestStatusFlags, nextEntryAddress, prevEntryAddress, iEngine );
aArray.AddItemL( object );
CleanupStack::Pop( object );
CleanupStack::PopAndDestroy( 2, data ); // stream & data
nextCellAddress = (TAny*) nextEntryAddress;
//RDebug::Printf(" ");
}
return nextCellAddress;
}
UIAbout::UIAbout( QWidget* parent )
: QDialog( parent )
{
const QString tabString = " ";
const QString teamatesMask =
"\t<tr>"
"\t\t<td>%1 aka %2 (%3)<br />" +tabString +"<a href=\"mailto:%4\">%4</a><br />" +tabString +"%5</td>"
"\t</tr>";
const QString linksMask =
"\t<tr>"
"\t\t<td>%1<br />" +tabString +"<a href=\"%2\">%2</a></td>"
"\t</tr>";
const QString donationsMask =
"\t<tr>"
"\t\t<td>%1 aka %2 (%3)<br />" +tabString +"<a href=\"mailto:%4\">%4</a><br />" +tabString +"%5</td>"
"\t</tr>";
const QList<pData> teamates = QList<pData>()
<< pData( "Filipe Azevedo", "Nox P@sNox", QObject::tr( "France" ), "*****@*****.**", QObject::tr( "Creator & Principal Developer" ) )
<< pData( "Kopats Andrei", "hlamer", QObject::tr( "Belarus" ), "*****@*****.**", QObject::tr( "Principal Developer, Class Browser, Beloruss translator" ) )
<< pData( "Yannick", "xiantia", QObject::tr( "France" ), "*****@*****.**", QObject::tr( "GNU Debugger Plugin" ) )
<< pData( "Roper Alexander", "Minirop", QObject::tr( "France" ), "*****@*****.**", QObject::tr( "Qt Pro Parser, Some Features/Help" ) )
<< pData( "Mashin Evgeniy", "evgenM", QObject::tr( "Russia" ), "*****@*****.**", QObject::tr( "Many shared code between our IDEs" ) )
<< pData( "Manuel Schmidt", "oversize", QObject::tr( "Germany" ), "*****@*****.**", QObject::tr( "Web Developer & Web Designer" ) )
<< pData( "Julien Decologne", "Judd", QObject::tr( "France" ), "*****@*****.**", QObject::tr( "Splashscreen & Icons Designer" ) )
<< pData( "Plano Marc", "Marc31", QObject::tr( "France" ), "*****@*****.**", QObject::tr( "French Translator" ) )
<< pData( "Lukic Djordje", "rumpl", QObject::tr( "Serbia" ), "*****@*****.**", QObject::tr( "SDK Script Generator" ) )
<< pData( QString::fromUtf8( "Aurélien MICHON" ), "aurelien", QObject::tr( "France" ), "*****@*****.**", QObject::tr( "Winter Splashscreen Designer" ) )
;
const QList<pData> links = QList<pData>()
<< pData( QString::null, QString::null, QString::null, QString( "http://%1" ).arg( PACKAGE_DOMAIN ), QObject::tr( "%1 homepage" ).arg( PACKAGE_NAME ) )
<< pData( QString::null, QString::null, QString::null, "https://launchpad.net/monkeystudio", QObject::tr( "Bug tracker" ) )
<< pData( QString::null, QString::null, QString::null, "http://monkeystudio.org/forum", QObject::tr( "Forums" ) )
<< pData( QString::null, QString::null, QString::null, "http://monkeystudio.org/rss.xml", QObject::tr( "News feed" ) )
<< pData( QString::null, QString::null, QString::null, "http://monkeystudio.org/team", QObject::tr( "MkS Team" ) )
<< pData( QString::null, QString::null, QString::null, "http://qt.nokia.com", QObject::tr( "Nokia's Qt homepage" ) )
<< pData( QString::null, QString::null, QString::null, "http://webissues.mimec.org", QObject::tr( "WebIssues" ) )
<< pData( QString::null, QString::null, QString::null, "http://webissues.monkeystudio.org", QObject::tr( "Our WebIssues Server (login/password: anonymous)" ) )
;
const QList<pData> donations = QList<pData>()
<< pData( "Filipe Azevedo", "Nox P@sNox", QObject::tr( "France" ), "*****@*****.**", QObject::tr( "You can use this <a href=\"%1\">link</a> to make donation. Donations will help paying host/domain, and relatives things about the project." ).arg( PACKAGE_DONATION_LINK ) )
<< pData( "Viosoft Corporation", "Viosoft Corporation", QObject::tr( "U.S.A." ), "*****@*****.**", QObject::tr( "<a href=\"http://www.viosoft.com\">Homepage</a>" ) )
;
setAttribute( Qt::WA_DeleteOnClose );
setWindowTitle( tr( "About : %1" ).arg( PACKAGE_NAME ) );
ui = new Ui::UIAbout;
ui->setupUi( this );
foreach ( QWidget* widget, findChildren<QWidget*>() ) {
widget->setAttribute( Qt::WA_MacSmallSize );
}
void CMemSpyEngineHelperHeap::OutputHeapDataUserL(const TProcessId& aPid,
const TThreadId& aTid,
const TDesC& aThreadName,
const TMemSpyHeapInfo& aInfo,
TBool aCreateDataStream,
const RArray<TMemSpyDriverCell>* aCells )
{
TBuf<KMaxFullName + 100> printFormat;
// Begin a new data stream
if ( aCreateDataStream )
{
_LIT( KMemSpyFolder, "Heap\\Data" );
_LIT( KMemSpyContext, "Heap Data - %S" );
HBufC* context = HBufC::NewLC( KMaxFileName );
TPtr pContext( context->Des() );
pContext.Format( KMemSpyContext, &aThreadName );
iEngine.Sink().DataStreamBeginL( pContext, KMemSpyFolder );
CleanupStack::PopAndDestroy( context );
}
// Get the heap info first of all
iEngine.ProcessSuspendLC( aPid );
// Start marker
iEngine.Sink().OutputLineFormattedL( KMemSpyMarkerHeapData, &KNullDesC, (TUint) aTid );
// Set overall prefix
iEngine.Sink().OutputPrefixSetFormattedLC( KMemSpyPrefixHeapData, &aThreadName );
// Info section
OutputHeapInfoL( aInfo, aThreadName, aCells );
// Code segments (needed for map file reading...)
_LIT(KCellListCodeSegInfoFormat, "CodeSegs - ");
iEngine.HelperCodeSegment().OutputCodeSegmentsL( aPid, printFormat, KCellListCodeSegInfoFormat, '-', ETrue );
// Dump section
_LIT(KHeaderDump, "Heap Data");
iEngine.Sink().OutputSectionHeadingL( KHeaderDump, '-' );
HBufC8* data = HBufC8::NewLC( 4096 * 12 );
TPtr8 pData(data->Des());
TUint remaining = 0;
TUint readAddress = 0;
// When we obtained the heap info, we also obtained a checksum of all the free cells
// within the specified heap. We validate that this hasn't changed at the time we
// request the heap data for paranoia purposes (There have been "Issues" with MemSpy
// not actually suspending a process between fetching heap info & heap data, causing
// a mismatch in free cell information).
const TUint32 checksum = aInfo.AsRHeap().Statistics().StatsFree().Checksum();
TRACE( RDebug::Printf( "CMemSpyEngineHelperHeap::OutputHeapDataUserL() - checksum: 0x%08x", checksum ) );
TInt r = iEngine.Driver().GetHeapData( aTid, checksum, pData, readAddress, remaining );
TUint prevEndAddress = readAddress + pData.Length();
if (r == KErrNone)
{
while (r == KErrNone)
{
if (readAddress > prevEndAddress)
{
// We've hit a discontinuity, ie one or more unmapped pages
_LIT(KBreak, "........");
iEngine.Sink().OutputLineL(KBreak);
}
_LIT(KHeapDumpDataFormat, "%S");
iEngine.Sink().OutputBinaryDataL(KHeapDumpDataFormat, pData.Ptr(), (const TUint8*) readAddress, pData.Length());
readAddress += pData.Length();
if (remaining > 0)
{
prevEndAddress = readAddress;
r = iEngine.Driver().GetHeapDataNext(aTid, pData, readAddress, remaining);
}
else
break;
}
}
else
{
_LIT( KHeapFetchError, "Heap error: %d");
iEngine.Sink().OutputLineFormattedL( KHeapFetchError, r );
}
CleanupStack::PopAndDestroy( data );
CleanupStack::PopAndDestroy(); // clear prefix
CleanupStack::PopAndDestroy(); // resume process
// End marker
iEngine.Sink().OutputLineFormattedL( KMemSpyMarkerHeapData, &KMemSpySinkTagClose, (TUint) aTid );
if ( aCreateDataStream )
{
iEngine.Sink().DataStreamEndL();
}
}