Example #1
0
// Initialize the control device
void NeoInitControlDevice()
{
	char name_kernel[MAX_SIZE];
	char name_win32[MAX_SIZE];
	UNICODE *unicode_kernel, *unicode_win32;
	DEVICE_OBJECT *control_device_object;
	NDIS_HANDLE ndis_control_handle;
	NDIS_DEVICE_OBJECT_ATTRIBUTES t;

	if (ctx == NULL)
	{
		return;
	}

	// Initialize the dispatch table
	NeoZero(ctx->DispatchTable, sizeof(PDRIVER_DISPATCH) * IRP_MJ_MAXIMUM_FUNCTION);

	// Register the handler
	ctx->DispatchTable[IRP_MJ_CREATE] =
		ctx->DispatchTable[IRP_MJ_CLOSE] =
		ctx->DispatchTable[IRP_MJ_READ] =
		ctx->DispatchTable[IRP_MJ_WRITE] =
		ctx->DispatchTable[IRP_MJ_DEVICE_CONTROL] = NeoNdisDispatch;
	ctx->Opened = FALSE;

	// Generate the device name
	sprintf(name_kernel, NDIS_NEO_DEVICE_NAME, ctx->HardwareID);
	unicode_kernel = NewUnicode(name_kernel);
	sprintf(name_win32, NDIS_NEO_DEVICE_NAME_WIN32, ctx->HardwareID);
	unicode_win32 = NewUnicode(name_win32);

	// Register the device
	NeoZero(&t, sizeof(t));
	t.Header.Type = NDIS_OBJECT_TYPE_DEVICE_OBJECT_ATTRIBUTES;
	t.Header.Revision = NDIS_DEVICE_OBJECT_ATTRIBUTES_REVISION_1;
	t.Header.Size = NDIS_SIZEOF_DEVICE_OBJECT_ATTRIBUTES_REVISION_1;
	t.DeviceName = GetUnicode(unicode_kernel);
	t.SymbolicName = GetUnicode(unicode_win32);
	t.MajorFunctions = ctx->DispatchTable;

	NdisRegisterDeviceEx(ndis_miniport_driver_handle, &t,
		&control_device_object,
		&ndis_control_handle);

	ctx->NdisControlDevice = control_device_object;
	ctx->NdisControl = ndis_control_handle;

	// Initialize the display name
	if (strlen(ctx->HardwareID) > 11)
	{
		sprintf(ctx->HardwarePrintableID, NDIS_NEO_HARDWARE_ID, ctx->HardwareID_Raw + 11);
	}
	else
	{
		sprintf(ctx->HardwarePrintableID, NDIS_NEO_HARDWARE_ID, ctx->HardwareID_Raw);
	}
}
Example #2
0
// Initialize the control device
void NeoInitControlDevice()
{
	char name_kernel[MAX_SIZE];
	char name_win32[MAX_SIZE];
	UNICODE *unicode_kernel, *unicode_win32;
	DEVICE_OBJECT *control_device_object;
	NDIS_HANDLE ndis_control_handle;

	if (ctx == NULL)
	{
		return;
	}

	// Initialize the dispatch table
	NeoZero(ctx->DispatchTable, sizeof(PDRIVER_DISPATCH) * IRP_MJ_MAXIMUM_FUNCTION);

	// Register the handler
	ctx->DispatchTable[IRP_MJ_CREATE] =
		ctx->DispatchTable[IRP_MJ_CLOSE] =
		ctx->DispatchTable[IRP_MJ_READ] =
		ctx->DispatchTable[IRP_MJ_WRITE] =
		ctx->DispatchTable[IRP_MJ_DEVICE_CONTROL] = NeoNdisDispatch;
	ctx->Opened = FALSE;

	// Generate the device name
	sprintf(name_kernel, NDIS_NEO_DEVICE_NAME, ctx->HardwareID);
	unicode_kernel = NewUnicode(name_kernel);
	sprintf(name_win32, NDIS_NEO_DEVICE_NAME_WIN32, ctx->HardwareID);
	unicode_win32 = NewUnicode(name_win32);

	// Register the Device
	NdisMRegisterDevice(ctx->NdisWrapper, GetUnicode(unicode_kernel),
		GetUnicode(unicode_win32), ctx->DispatchTable,
		&control_device_object,
		&ndis_control_handle);

	ctx->NdisControlDevice = control_device_object;
	ctx->NdisControl = ndis_control_handle;

	// Initialize the display name
	if (strlen(ctx->HardwareID) > 11)
	{
		sprintf(ctx->HardwarePrintableID, NDIS_NEO_HARDWARE_ID, ctx->HardwareID_Raw + 11);
	}
	else
	{
		sprintf(ctx->HardwarePrintableID, NDIS_NEO_HARDWARE_ID, ctx->HardwareID_Raw);
	}
}
Example #3
0
int FSString::Cmp( FSString& a )
{
	if ( !_primary.str() ) { return ( !a._primary.str() ) ? 0 : -1; }

	if ( !a._primary.str() ) { return 1; }

	return CmpStr<const unicode_t>( GetUnicode(), a.GetUnicode() );
}
Example #4
0
WCHAR* GetString_PE(const CHAR* pText, INT pos)
{
	INT i = 0, j= 0;
	for (i=0; j<pos; i++)
	{
		if (pText[i] == '\0')
		{
			j++;
		}
	}
	return GetUnicode(&pText[i]);
}
Example #5
0
NEO_EVENT *NeoNewEvent(char *name)
{
	UNICODE *unicode_name;
	NEO_EVENT *event;
	// Validate arguments
	if (name == NULL)
	{
		return NULL;
	}

	// Convert the name to Unicode
	unicode_name = NewUnicode(name);
	if (unicode_name == NULL)
	{
		return NULL;
	}

	// Memory allocation
	event = NeoZeroMalloc(sizeof(NEO_EVENT));
	if (event == NULL)
	{
		FreeUnicode(unicode_name);
		return NULL;
	}

	// Create an Event
	event->event = IoCreateNotificationEvent(GetUnicode(unicode_name), &event->event_handle);
	if (event->event == NULL)
	{
		NeoFree(event);
		FreeUnicode(unicode_name);
		return NULL;
	}

	// Initialize the event
	KeInitializeEvent(event->event, NotificationEvent, FALSE);
	KeClearEvent(event->event);

	// Release a string
	FreeUnicode(unicode_name);

	return event;
}
Example #6
0
char CKeyboard::GetAscii()
{
  char lowLevelAscii = CLowLevelKeyboard::GetAscii();
  int translatedAscii = GetUnicode();

#ifdef DEBUG_KEYBOARD_GETCHAR
  CLog::Log(LOGDEBUG, "low level ascii: %c ", lowLevelAscii);
  CLog::Log(LOGDEBUG, "low level ascii code: %d ", lowLevelAscii);
  CLog::Log(LOGDEBUG, "result char: %c ", translatedAscii);
  CLog::Log(LOGDEBUG, "result char code: %d ", translatedAscii);
  CLog::Log(LOGDEBUG, "ralt is pressed bool: %d ", GetRAlt());
  CLog::Log(LOGDEBUG, "shift is pressed bool: %d ", GetShift());
#endif

  if (translatedAscii >= 0 && translatedAscii < 128) // only TRUE ASCII! Otherwise XBMC crashes! No unicode not even latin 1!
    return translatedAscii; // mapping to ASCII is supported only if the result is TRUE ASCII
  else
    return lowLevelAscii; // old style
}
Example #7
0
int FSString::CmpNoCase( FSString& par )
{
	if ( !_primary.str() ) { return ( !par._primary.str() ) ? 0 : -1; }

	if ( !par._primary.str() ) { return 1; }

	const unicode_t* a = GetUnicode();
	const unicode_t* b = par.GetUnicode();
	unicode_t au = 0;
	unicode_t bu = 0;

	for ( ; *a; a++, b++ )
	{
		au = UnicodeLC( *a );
		bu = UnicodeLC( *b );

		if ( au != bu ) { break; }
	};

	return ( *a ? ( *b ? ( au < bu ? -1 : ( au == bu ? 0 : 1 ) ) : 1 ) : ( *b ? -1 : 0 ) );
}
Example #8
0
void CTWScriptEdit::FormatTextRange(int nStart, int nEnd)
{
	if (nStart >= nEnd)
		return;

	m_bInForcedChange = TRUE;

	CHARRANGE crOldSel;

	GetSel(crOldSel);
	LockWindowUpdate();
	HideSelection(TRUE, FALSE);

	WCHAR *pBuffer = NULL;
	try {
		SetSel(nStart, nEnd);
		//pBuffer = new WCHAR[nEnd - nStart + 1];
		CHAR* pBuffer2 = new CHAR[nEnd - nStart + 1];
		long nLen = GetSelText(pBuffer2);
		pBuffer = GetUnicode(pBuffer2);
		ASSERT(nLen <= nEnd - nStart);

		pBuffer[nLen] = 0;

		WCHAR *pStart, *pPtr;
		pStart = pPtr = pBuffer;

		WCHAR* pSymbolStart = NULL;
		SymbolColor ic;

		while (*pPtr != 0) {
			WCHAR ch = *pPtr;

			if (ch == m_chComment && (m_chComment2 == 0 || pPtr[1] == m_chComment2)) {
				pSymbolStart = pPtr;
				do {
					ch = *(++pPtr);
				} while (ch != 0 && ch != '\r');
				ic = m_icComment;
			} else if (IsStringQuote(ch)) { // Process strings
				pSymbolStart = pPtr;
				WCHAR ch1 = ch;
				do {
					ch = *(++pPtr);
				} while (ch != 0 && ch != ch1 && ch != '\r');
				if (ch == ch1) pPtr++;
				ic = m_icString;
			} else if (_istdigit(ch)) { // Process numbers
				pSymbolStart = pPtr;
				wcstod(pSymbolStart, &pPtr);
				ic = m_icNumber;
			} else if (_istalpha(ch) || ch == '_') { // Process keywords
				pSymbolStart = pPtr;
				do {
					ch = *(++pPtr);
				} while (_istalnum(ch) || ch == '_');
				*pPtr = 0;
				int nPos = IsKeyword(pSymbolStart);
				if (nPos >= 0) {
					ChangeCase(nStart + pSymbolStart - pBuffer, nStart + pPtr - pBuffer, 
								m_strKeywords.Mid(nPos+1, pPtr - pSymbolStart));
					if (wcsicmp(m_strComment, pSymbolStart) == 0) {
						*pPtr = ch;
						*pSymbolStart = m_chComment;
						if (pSymbolStart[1] != 0 && m_chComment2 != 0)
							pSymbolStart[1] = m_chComment2;
						pPtr = pSymbolStart;
						pSymbolStart = NULL;
						continue;
					}
					ic = m_icKeyword;
				} else {
					nPos = IsConstant(pSymbolStart);
					if (nPos >= 0) {
							ChangeCase(nStart + pSymbolStart - pBuffer, nStart + pPtr - pBuffer, 
										m_strConstants.Mid(nPos+1, pPtr - pSymbolStart));
						ic = m_icConstant;
					} else {
						pSymbolStart = NULL;
					}
				}
				*pPtr = ch;
			} else {
				pPtr++;
			}

			if (pSymbolStart != NULL) {
				ASSERT(pSymbolStart < pPtr);
				SetFormatRange(nStart + pStart - pBuffer, nStart + pSymbolStart - pBuffer, FALSE, RGB(0,0,0));
				SetFormatRange(nStart + pSymbolStart - pBuffer, nStart + pPtr - pBuffer, ic.bBold, ic.clrColor);
				pStart = pPtr;
				pSymbolStart = 0;
			} else if (*pPtr == 0)
				SetFormatRange(nStart + pStart - pBuffer, nStart + pPtr - pBuffer, FALSE, RGB(0,0,0));
		}

	} catch(...){}

	//delete [] pBuffer;

	SetSel(crOldSel);
	HideSelection(FALSE, FALSE);
	UnlockWindowUpdate();

	m_bInForcedChange = FALSE;
}
Example #9
0
// Read the information from the registry
BOOL NeoLoadRegistory()
{
	void *buf;
	NDIS_STATUS ret;
	UINT size;
	NDIS_HANDLE config;
	NDIS_CONFIGURATION_PARAMETER *param;
	UNICODE *name;
	ANSI_STRING ansi;
	UNICODE_STRING *unicode;
	UINT speed;
	BOOL keep;

	// Get the config handle
	NdisOpenConfiguration(&ret, &config, ctx->NdisConfig);
	if (NG(ret))
	{
		// Failure
		return FALSE;
	}

	// Read the MAC address
	NdisReadNetworkAddress(&ret, &buf, &size, config);
	if (NG(ret))
	{
		// Failure
		NdisCloseConfiguration(config);
		return FALSE;
	}

	// Copy the MAC address
	if (size != NEO_MAC_ADDRESS_SIZE)
	{
		// Invalid size
		NdisCloseConfiguration(config);
		return FALSE;
	}
	NeoCopy(ctx->MacAddress, buf, NEO_MAC_ADDRESS_SIZE);

	if (ctx->MacAddress[0] == 0x00 &&
		ctx->MacAddress[1] == 0x00 &&
		ctx->MacAddress[2] == 0x01 &&
		ctx->MacAddress[3] == 0x00 &&
		ctx->MacAddress[4] == 0x00 &&
		ctx->MacAddress[5] == 0x01)
	{
		// Special MAC address
		UINT ptr32 = (UINT)((UINT64)ctx);

		ctx->MacAddress[0] = 0x00;
		ctx->MacAddress[1] = 0xAD;
		ctx->MacAddress[2] = ((UCHAR *)(&ptr32))[0];
		ctx->MacAddress[3] = ((UCHAR *)(&ptr32))[1];
		ctx->MacAddress[4] = ((UCHAR *)(&ptr32))[2];
		ctx->MacAddress[5] = ((UCHAR *)(&ptr32))[3];
	}

	// Initialize the key name of the device name
	name = NewUnicode("MatchingDeviceId");

	// Read the hardware ID
	NdisReadConfiguration(&ret, &param, config, GetUnicode(name), NdisParameterString);
	FreeUnicode(name);
	if (NG(ret))
	{
		// Failure
		NdisCloseConfiguration(config);
		return FALSE;
	}
	// Type checking
	if (param->ParameterType != NdisParameterString)
	{
		// Failure
		NdisCloseConfiguration(config);
		return FALSE;
	}
	unicode = &param->ParameterData.StringData;

	// Prepare a buffer for ANSI string
	NeoZero(&ansi, sizeof(ANSI_STRING));
	ansi.MaximumLength = MAX_SIZE - 1;
	ansi.Buffer = NeoZeroMalloc(MAX_SIZE);

	// Convert to ANSI string
	NdisUnicodeStringToAnsiString(&ansi, unicode);
	// Copy
	strcpy(ctx->HardwareID, ansi.Buffer);
	strcpy(ctx->HardwareID_Raw, ctx->HardwareID);
	// Convert to upper case
	_strupr(ctx->HardwareID);
	// Release the memory
	NeoFree(ansi.Buffer);

	// Read the bit rate
	name = NewUnicode("MaxSpeed");
	NdisReadConfiguration(&ret, &param, config, GetUnicode(name), NdisParameterInteger);
	FreeUnicode(name);

	if (NG(ret) || param->ParameterType != NdisParameterInteger)
	{
		speed = NEO_MAX_SPEED_DEFAULT;
	}
	else
	{
		speed = param->ParameterData.IntegerData * 10000;
	}

	max_speed = speed;

	// Read the link keeping flag
	name = NewUnicode("KeepLink");
	NdisReadConfiguration(&ret, &param, config, GetUnicode(name), NdisParameterInteger);
	FreeUnicode(name);

	if (NG(ret) || param->ParameterType != NdisParameterInteger)
	{
		keep = false;
	}
	else
	{
		keep = (param->ParameterData.IntegerData == 0 ? false : true);
	}

	keep_link = keep;

	// Close the Config handle
	NdisCloseConfiguration(config);

	return TRUE;
}