int CClosableTabCtrl::OnCreate(LPCREATESTRUCT lpCreateStruct)
{
if (CTabCtrl::OnCreate(lpCreateStruct) == -1)
return -1;
InternalInit();
return 0;
}
/*****************************************************************************
* CKsFilter::CKsFilter()
*****************************************************************************
*//*!
* @brief
* Constructor.
*/
CKsFilter::
CKsFilter
(
IN LPCTSTR SymbolicLink,
IN LPCTSTR FriendlyName,
OUT HRESULT * OutHResult
)
: CKsIrpTarget(INVALID_HANDLE_VALUE)
{
HRESULT hr = InternalInit();
if (NULL == SymbolicLink)
{
hr = E_INVALIDARG;
_DbgPrintF(DEBUGLVL_ERROR,("SymbolicLink cannot be NULL"));
}
if (SUCCEEDED(hr))
{
_tcsncpy(m_SymbolicLink, SymbolicLink, MAX_PATH);
_tcsncpy(m_FriendlyName, FriendlyName, MAX_PATH);
}
*OutHResult = hr;
}
void ProgramClick::Init(const Vec2i &_ScreenCoord)
{
InternalInit();
ScreenCoord = _ScreenCoord;
RightClick = false;
Name = String("Click <") + ScreenCoord.CommaSeparatedString() + String(">");
}
void StackFrameIterator::InternalInitForStackTrace()
{
STRESS_LOG0(LF_STACKWALK, LL_INFO10000, "----Init---- [ StackTrace ]\n");
Thread * pThreadToWalk = ThreadStore::GetCurrentThread();
PTR_VOID pFrame = pThreadToWalk->GetTransitionFrameForStackTrace();
InternalInit(pThreadToWalk, GetPInvokeTransitionFrame(pFrame));
}
RNamedObject::RNamedObject(LPCTSTR prefix, const GUID& guid):name_(NULL){
//RASSERT1(prefix);
TCHAR guid_str[40] = {0};
::StringFromGUID2(guid, guid_str, 40);
::CharUpper(guid_str);
InternalInit(prefix, guid_str);
}
void CHeaderInfoEnum::AddHeaderInfo(IUOLFoneClientHeaderInfo* pHeaderInfo)
{
pHeaderInfo->AddRef();
m_collHeaderInfo.push_back(pHeaderInfo);
InternalInit();
}
void ProgramClick::Init(WORD _PreKey, const Vec2i &_ScreenCoord)
{
InternalInit();
ScreenCoord = _ScreenCoord;
RightClick = false;
PreKey = _PreKey;
Name = String("Click <") + ScreenCoord.CommaSeparatedString() + String("PreKey: ") + String(PreKey) + String(">");
}
void ProgramClick::Init(const String &_PreStatement, const Vec2i &_ScreenCoord)
{
InternalInit();
ScreenCoord = _ScreenCoord;
RightClick = false;
PreStatement = _PreStatement;
Name = String("Click <") + ScreenCoord.CommaSeparatedString() + String("PreStatement: ") + PreStatement + String(">");
}
void ProgramClick::Init(const Vec2i &_ScreenCoord, bool _RightClick)
{
InternalInit();
ScreenCoord = _ScreenCoord;
RightClick = _RightClick;
if(RightClick)
{
Name = String("Right Click <") + ScreenCoord.CommaSeparatedString() + String(">");
}
else
{
Name = String("Click <") + ScreenCoord.CommaSeparatedString() + String(">");
}
}
void cFMTimeLineAnimationRule::Init()
{
m_fCurrentProgress = 0.f;
m_bInitCalled = true;
m_bStart = false;
m_fPastTime = 0.f;
m_iCurrentPlayCount = 0;
if( m_fTotalPlayTime == 0.f )
{
m_fTotalPlayTime = this->GetEndTime();
}
if( m_fTotalPlayTime == 0.f )
m_iCurrentPlayCount = 0;
InternalInit();
//if( e_fElpaseTime !=0.f )
// Update(e_fElpaseTime);
}
void ScrollBar::OnSetterChanged(suic::SetterChangedEventArg& e)
{
if (e.GetName().Equals(_T("ShowFirstButton")))
{
_decreaseBtn.SetVisible(e.GetSetter()->ToBool());
}
else if (e.GetName().Equals(_T("ShowSecondButton")))
{
_increaseBtn.SetVisible(e.GetSetter()->ToBool());
}
else
{
__super::OnSetterChanged(e);
if (e.GetName().Equals(suic::WIDTH) || e.GetName().Equals(suic::HEIGHT))
{
InternalInit();
}
}
}
//initializes the command line parser given a series of multiple
//strings
//(dos style)
bool CCommandLineParser::Init(uint32 nArgCount, char** ppszArgStrings, char nDesignator)
{
//clean up old stuff
Free();
//we need to run through all the strings, and build up the size
//of the total string we will need
uint32 nTotalSize = 0;
uint32 nCurrStr = 0;
for(; nCurrStr < nArgCount; nCurrStr++)
{
//add an extra character to insert a space on the end
nTotalSize += strlen(ppszArgStrings[nCurrStr]) + 1;
}
//allocate the string
m_pszCommandLine = new char[nTotalSize + 1];
//make sure the memory was allocated ok
if(m_pszCommandLine == NULL)
{
return false;
}
//init the string to be empty
m_pszCommandLine[0] = '\0';
//now copy over all the strings
uint32 nCurrPos = 0;
for(nCurrStr = 0; nCurrStr < nArgCount; nCurrStr++)
{
strcat(m_pszCommandLine, ppszArgStrings[nCurrStr]);
strcat(m_pszCommandLine, " ");
}
//now pass it on to the internal constructor
return InternalInit(nDesignator);
}
//initializes the command line parser given an entire string
//(windows style)
bool CCommandLineParser::Init(const char* pszCommandLine, char nDesignator)
{
//clean up the old stuff
Free();
//first off, we need to create our own internal copy of the string
uint32 nStrLen = strlen(pszCommandLine);
//allocate the memory
m_pszCommandLine = new char[nStrLen + 1];
//make sure the memory was allocated ok
if(m_pszCommandLine == NULL)
{
return false;
}
//copy the string over
strcpy(m_pszCommandLine, pszCommandLine);
//now pass along to our internal initializer
return InternalInit(nDesignator);
}
FTP_Request::FTP_Request(MessageHandler* msg_handler)
: ProtocolComm(msg_handler, NULL, NULL)
{
InternalInit();
}
PTR_VOID StackFrameIterator::HandleExCollide(PTR_ExInfo pExInfo, PTR_VOID collapsingTargetFrame)
{
STRESS_LOG3(LF_STACKWALK, LL_INFO10000, " [ ex collide ] kind = %d, pass = %d, idxCurClause = %d\n",
pExInfo->m_kind, pExInfo->m_passNumber, pExInfo->m_idxCurClause);
UInt32 curFlags = m_dwFlags;
// If we aren't invoking a funclet (i.e. idxCurClause == -1), and we're doing a GC stackwalk, we don't
// want the 2nd-pass collided behavior because that behavior assumes that the previous frame was a
// funclet, which isn't the case when taking a GC at some points in the EH dispatch code. So we treat it
// as if the 2nd pass hasn't actually started yet.
if ((pExInfo->m_passNumber == 1) ||
(pExInfo->m_idxCurClause == 0xFFFFFFFF))
{
ASSERT_MSG(!(curFlags & ApplyReturnAddressAdjustment),
"did not expect to collide with a 1st-pass ExInfo during a EH stackwalk");
InternalInit(m_pThread, pExInfo->m_pExContext, curFlags);
m_pNextExInfo = pExInfo->m_pPrevExInfo;
CalculateCurrentMethodState();
ASSERT(IsValid());
if ((pExInfo->m_kind == EK_HardwareFault) && (curFlags & RemapHardwareFaultsToSafePoint))
GetCodeManager()->RemapHardwareFaultToGCSafePoint(&m_methodInfo, &m_codeOffset);
}
else
{
//
// Copy our state from the previous StackFrameIterator
//
this->UpdateFromExceptionDispatch((PTR_StackFrameIterator)&pExInfo->m_frameIter);
// Sync our 'current' ExInfo with the updated state (we may have skipped other dispatches)
ResetNextExInfoForSP(m_RegDisplay.GetSP());
if ((m_dwFlags & ApplyReturnAddressAdjustment) && (curFlags & ApplyReturnAddressAdjustment))
{
// Counteract our pre-adjusted m_ControlPC, since the caller of this routine will apply the
// adjustment again once we return.
m_ControlPC = AdjustReturnAddressForward(m_ControlPC);
}
m_dwFlags = curFlags;
if ((m_ControlPC != 0) && // the dispatch in ExInfo could have gone unhandled
(m_dwFlags & CollapseFunclets))
{
CalculateCurrentMethodState();
ASSERT(IsValid());
if (GetCodeManager()->IsFunclet(&m_methodInfo))
{
// We just unwound out of a funclet, now we need to keep unwinding until we find the 'main
// body' associated with this funclet and then unwind out of that.
collapsingTargetFrame = m_FramePointer;
}
else
{
// We found the main body, now unwind out of that and we're done.
// In the case where the caller *was* the main body, we didn't need to set
// collapsingTargetFrame, so it is zero in that case.
ASSERT(!collapsingTargetFrame || (collapsingTargetFrame == m_FramePointer));
NextInternal();
collapsingTargetFrame = 0;
}
}
}
return collapsingTargetFrame;
}
void CClosableTabCtrl::PreSubclassWindow()
{
CTabCtrl::PreSubclassWindow();
InternalInit();
}
SSL_Record_Base::SSL_Record_Base()
{
InternalInit();
}
CDuiAutoComplete::CDuiAutoComplete()
{
InternalInit();
}
IMU::IMU( SerialPort *pport, uint8_t update_rate_hz )
{
InternalInit(pport,update_rate_hz,STREAM_CMD_STREAM_TYPE_YPR);
}
IMU::IMU( SerialPort *pport, uint8_t update_rate_hz, char stream_type ) {
InternalInit(pport,update_rate_hz,stream_type);
}
namespace Wifi {
String CWifiInfo::TAG("WifiInfo");
HashMap<SupplicantState, NetworkInfoDetailedState> CWifiInfo::mStateMap;
String CWifiInfo::LINK_SPEED_UNITS = String("Mbps");
Int32 CWifiInfo::mInitFlag = InternalInit();
CWifiInfo::CWifiInfo()
: mNetworkId(0)
, mHiddenSSID(FALSE)
, mRssi(0)
, mLinkSpeed(0)
, mMeteredHint(FALSE)
{}
ECode CWifiInfo::constructor()
{
mWifiSsid = NULL;
mBSSID = NULL;
mNetworkId = -1;
mSupplicantState = SupplicantState_UNINITIALIZED;
mRssi = -9999;
mLinkSpeed = -1;
mHiddenSSID = FALSE;
return NOERROR;
}
ECode CWifiInfo::constructor(
/* [in] */ Boolean fake)
{
mNetworkId = (-1);
mHiddenSSID = (FALSE);
mRssi = (-9999);
mLinkSpeed = (-1);
mMeteredHint = (FALSE);
AutoPtr<IWifiSsidHelper> helper;
CWifiSsidHelper::AcquireSingleton((IWifiSsidHelper**)&helper);
helper->CreateFromAsciiEncoded(String(""), (IWifiSsid**)&mWifiSsid);
mBSSID = String("");
mSupplicantState = SupplicantState_UNINITIALIZED;
return NOERROR;
}
ECode CWifiInfo::constructor(
/* [in] */ IWifiInfo* source)
{
if (source != NULL) {
source->GetSupplicantState(&mSupplicantState);
source->GetBSSID(&mBSSID);
source->GetWifiSsid((IWifiSsid**)&mWifiSsid);
source->GetNetworkId(&mNetworkId);
source->GetHiddenSSID(&mHiddenSSID);
source->GetRssi(&mRssi);
source->GetLinkSpeed(&mLinkSpeed);
Int32 ipAddres;
source->GetIpAddress(&ipAddres);
if (ipAddres != 0) {
NetworkUtils::Int32ToInetAddress(ipAddres, (IInetAddress**)&mIpAddress);
}
source->GetMacAddress(&mMacAddress);
source->GetMeteredHint(&mMeteredHint);
}
return NOERROR;
}
ECode CWifiInfo::SetSSID(
/* [in] */ IWifiSsid* wifiSsid)
{
mWifiSsid = wifiSsid;
// network is considered not hidden by default
mHiddenSSID = FALSE;
return NOERROR;
}
ECode CWifiInfo::GetSSID(
/* [out] */ String* ssid)
{
VALIDATE_NOT_NULL(ssid);
if (mWifiSsid != NULL) {
String unicode;
mWifiSsid->ToString(&unicode);
AutoPtr<ICharSequence> tmp;
CString::New(unicode, (ICharSequence**)&tmp);
if (!TextUtils::IsEmpty(tmp)) {
*ssid = String("\"") + unicode + String("\"");
return NOERROR;
} else {
return mWifiSsid->GetHexString(ssid);
}
}
*ssid = IWifiSsid::NONE;
return NOERROR;
}
ECode CWifiInfo::GetWifiSsid(
/* [in] */ IWifiSsid** ssid)
{
VALIDATE_NOT_NULL(ssid);
*ssid = mWifiSsid;
REFCOUNT_ADD(*ssid);
return NOERROR;
}
ECode CWifiInfo::SetBSSID(
/* [in] */ const String& BSSID)
{
mBSSID = BSSID;
return NOERROR;
}
ECode CWifiInfo::GetBSSID(
/* [out] */ String* bssid)
{
VALIDATE_NOT_NULL(bssid);
*bssid = mBSSID;
return NOERROR;
}
ECode CWifiInfo::GetRssi(
/* [out] */ Int32* rssi)
{
VALIDATE_NOT_NULL(rssi);
*rssi = mRssi;
return NOERROR;
}
ECode CWifiInfo::SetRssi(
/* [in] */ Int32 rssi)
{
mRssi = rssi;
return NOERROR;
}
ECode CWifiInfo::GetLinkSpeed(
/* [out] */ Int32* speed)
{
VALIDATE_NOT_NULL(speed);
*speed = mLinkSpeed;
return NOERROR;
}
ECode CWifiInfo::SetLinkSpeed(
/* [in] */ Int32 linkSpeed)
{
mLinkSpeed = linkSpeed;
return NOERROR;
}
ECode CWifiInfo::SetMacAddress(
/* [in] */ const String& macAddress)
{
mMacAddress = macAddress;
return NOERROR;
}
ECode CWifiInfo::GetMacAddress(
/* [in] */ String* address)
{
VALIDATE_NOT_NULL(address);
*address = mMacAddress;
return NOERROR;
}
ECode CWifiInfo::SetMeteredHint(
/* [in] */ Boolean meteredHint)
{
mMeteredHint = meteredHint;
return NOERROR;
}
ECode CWifiInfo::GetMeteredHint(
/* [out] */ Boolean* hint)
{
VALIDATE_NOT_NULL(hint);
*hint = mMeteredHint;
return NOERROR;
}
ECode CWifiInfo::SetNetworkId(
/* [in] */ Int32 id)
{
mNetworkId = id;
return NOERROR;
}
ECode CWifiInfo::GetNetworkId(
/* [out] */ Int32* id)
{
VALIDATE_NOT_NULL(id);
*id = mNetworkId;
return NOERROR;
}
ECode CWifiInfo::GetSupplicantState(
/* [out] */ SupplicantState* state)
{
VALIDATE_NOT_NULL(state);
*state = mSupplicantState;
return NOERROR;
}
ECode CWifiInfo::SetSupplicantState(
/* [in] */ SupplicantState state)
{
mSupplicantState = state;
return NOERROR;
}
ECode CWifiInfo::SetInetAddress(
/* [in] */ IInetAddress* address)
{
mIpAddress = address;
return NOERROR;
}
ECode CWifiInfo::GetIpAddress(
/* [out] */ Int32* address)
{
VALIDATE_NOT_NULL(address);
if (mIpAddress == NULL || IInet6Address::Probe(mIpAddress) != NULL) {
*address = 0;
return NOERROR;
}
return NetworkUtils::InetAddressToInt32(mIpAddress, address);
}
ECode CWifiInfo::GetHiddenSSID(
/* [out] */ Boolean* ssid)
{
VALIDATE_NOT_NULL(ssid);
*ssid = mHiddenSSID;
return NOERROR;
}
ECode CWifiInfo::SetHiddenSSID(
/* [in] */ Boolean hiddenSSID)
{
mHiddenSSID = hiddenSSID;
return NOERROR;
}
NetworkInfoDetailedState CWifiInfo::GetDetailedStateOf(
/* [in] */ SupplicantState suppState)
{
return mStateMap[suppState];
}
void CWifiInfo::SetSupplicantState(
/* [in] */ const String& stateName)
{
mSupplicantState = ValueOf(stateName);
}
SupplicantState CWifiInfo::ValueOf(
/* [in] */ const String& stateName)
{
if (String("4WAY_HANDSHAKE").EqualsIgnoreCase(stateName) == 0)
return SupplicantState_FOUR_WAY_HANDSHAKE;
else {
// try {
/* SupplicantState.valueOf(stateName.ToUpperCase())*/
String tmp = stateName.ToUpperCase();
return StringUtils::ParseInt32(tmp);
// } catch (IllegalArgumentException e) {
// return SupplicantState.INVALID;
// }
}
}
ECode CWifiInfo::RemoveDoubleQuotes(
/* [in] */ const String& str,
/* [out] */ String* value)
{
VALIDATE_NOT_NULL(value);
if (str.IsNull()) return NOERROR;
AutoPtr<ArrayOf<Char32> > charArray = str.GetChars();
const Int32 length = charArray->GetLength();
if ((length > 1) && ((*charArray)[0] == '"') && ((*charArray)[length - 1] == '"')) {
*value = str.Substring(1, length - 1);
return NOERROR;
}
*value = str;
return NOERROR;
}
// @Override
ECode CWifiInfo::ToString(
/* [out] */ String* str)
{
StringBuffer sb;
String none("<none>");
sb.Append("SSID: ");
String sidStr;
mWifiSsid->ToString(&sidStr);
sb.Append(mWifiSsid == NULL ? IWifiSsid::NONE : sidStr);
sb.Append(", BSSID: ");
sb.Append(mBSSID.IsNull() ? none : mBSSID);
sb.Append(", MAC: ");
sb.Append(mMacAddress.IsNull() ? none : mMacAddress);
sb.Append(", Supplicant state: ");
if (mSupplicantState == NULL) sb.Append(none);
sb.Append(mSupplicantState);
sb.Append(", RSSI: ");
sb.Append(mRssi);
sb.Append(", Link speed: ");
sb.Append(mLinkSpeed);
sb.Append(", Net ID: ");
sb.Append(mNetworkId);
sb.Append(", Metered hint: ");
sb.AppendBoolean(mMeteredHint);
*str = sb.ToString();
return NOERROR;
}
/** Implement the Parcelable interface {@hide} */
Int32 CWifiInfo::DescribeContents()
{
return 0;
}
/** Implement the Parcelable interface {@hide} */
ECode CWifiInfo::WriteToParcel(
/* [in] */ IParcel* dest)
{
dest->WriteInt32(mNetworkId);
dest->WriteInt32(mRssi);
dest->WriteInt32(mLinkSpeed);
if (mIpAddress != NULL) {
dest->WriteByte((byte)1);
AutoPtr<ArrayOf<Byte> > address;
mIpAddress->GetAddress((ArrayOf<Byte>**)&address);
dest->WriteArrayOf((Handle32)address.Get());
}
else {
dest->WriteByte((byte)0);
}
if (mWifiSsid != NULL) {
dest->WriteInt32(1);
IParcelable::Probe(mWifiSsid.Get())->WriteToParcel(dest);
}
else {
dest->WriteInt32(0);
}
dest->WriteString(mBSSID);
dest->WriteString(mMacAddress);
dest->WriteBoolean(mMeteredHint);
dest->WriteInt32(mSupplicantState);
return NOERROR;
}
ECode CWifiInfo::ReadFromParcel(
/* [in] */ IParcel* source)
{
source->ReadInt32(&mNetworkId);
source->ReadInt32(&mRssi);
source->ReadInt32(&mLinkSpeed);
Byte b;
source->ReadByte(&b);
if (b == (byte)1) {
AutoPtr<ArrayOf<Byte> > address;
source->ReadArrayOf((Handle32*)&address);
AutoPtr<IInetAddressHelper> helpler;
CInetAddressHelper::AcquireSingleton((IInetAddressHelper**)&helpler);
helpler->GetByAddress(address, (IInetAddress**)&mIpAddress);
}
Int32 value;
source->ReadInt32(&value);
mWifiSsid = NULL;
if (value == 1) {
CWifiSsid::New((IWifiSsid**)&mWifiSsid);
IParcelable::Probe(mWifiSsid.Get())->ReadFromParcel(source);
}
source->ReadString(&mBSSID);
source->ReadString(&mMacAddress);
source->ReadBoolean(&mMeteredHint);
source->ReadInt32(&mSupplicantState);
return NOERROR;
}
Int32 CWifiInfo::InternalInit()
{
mStateMap[SupplicantState_DISCONNECTED] = NetworkInfoDetailedState_DISCONNECTED;
mStateMap[SupplicantState_INTERFACE_DISABLED] = NetworkInfoDetailedState_DISCONNECTED;
mStateMap[SupplicantState_INACTIVE] = NetworkInfoDetailedState_IDLE;
mStateMap[SupplicantState_SCANNING] = NetworkInfoDetailedState_SCANNING;
mStateMap[SupplicantState_AUTHENTICATING] = NetworkInfoDetailedState_CONNECTING;
mStateMap[SupplicantState_ASSOCIATING] = NetworkInfoDetailedState_CONNECTING;
mStateMap[SupplicantState_ASSOCIATED] = NetworkInfoDetailedState_CONNECTING;
mStateMap[SupplicantState_FOUR_WAY_HANDSHAKE] = NetworkInfoDetailedState_AUTHENTICATING;
mStateMap[SupplicantState_GROUP_HANDSHAKE] = NetworkInfoDetailedState_AUTHENTICATING;
mStateMap[SupplicantState_COMPLETED] = NetworkInfoDetailedState_OBTAINING_IPADDR;
mStateMap[SupplicantState_DORMANT] = NetworkInfoDetailedState_DISCONNECTED;
mStateMap[SupplicantState_UNINITIALIZED] = NetworkInfoDetailedState_IDLE;
mStateMap[SupplicantState_INVALID] = NetworkInfoDetailedState_FAILED;
return 0;
}
} // namespace Wifi
StackFrameIterator::StackFrameIterator(Thread * pThreadToWalk, PTR_VOID pInitialTransitionFrame)
{
STRESS_LOG0(LF_STACKWALK, LL_INFO10000, "----Init---- [ GC ]\n");
ASSERT(!pThreadToWalk->DangerousCrossThreadIsHijacked());
InternalInit(pThreadToWalk, GetPInvokeTransitionFrame(pInitialTransitionFrame));
}
StackFrameIterator::StackFrameIterator(Thread * pThreadToWalk, PTR_PAL_LIMITED_CONTEXT pCtx)
{
STRESS_LOG0(LF_STACKWALK, LL_INFO10000, "----Init---- [ hijack ]\n");
InternalInit(pThreadToWalk, pCtx, 0);
}
RNamedObject::RNamedObject(LPCTSTR prefix, LPCTSTR name):name_(NULL){
//RASSERT1(prefix);
//RASSERT1(name);
InternalInit(prefix, name);
}
CCustomAutoComplete::CCustomAutoComplete(const CStringArray &astrItemList)
{
InternalInit();
SetList(astrItemList);
}
CCustomAutoComplete::CCustomAutoComplete()
{
InternalInit();
}