debug.c

PNX系列设备驱动 PNX系列设备驱动

/*
	debug.c	- for debugging
	960925	TR	Organized and added all three types of debugging.
*/
#define WANTVXDWRAPS
#include <basedef.h>
#include <vmm.h>
#include <vmmreg.h>
#include <vxdwraps.h>
#include <vpicd.h>
#include <configmg.h>
#include <vwin32.h>

#include "vxstd.h"
#include "vxwin.h"

#include "tmmanlib.h"
#include "platform.h"

void	debugOutput (  UInt8* pString );
void	debugTrace ( UInt8* szString );


Bool	debugInit ( debugParameters* Parameters  )
{
	DebugObject*	Debug = &TMManGlobal->Debug;

	Debug->DBGLevelBitmap = ((debugParameters*)Parameters)->LevelBitmap;
	Debug->DBGType = ((debugParameters*)Parameters)->Type;
	Debug->TraceLength = ((debugParameters*)Parameters)->TraceBufferSize ;
	Debug->TraceBuffer = Debug->TraceBufferData;
	Debug->TracePosition = 0;
	Debug->TraceWrapped = False;
	return statusSuccess;
}



Bool	debugExit ( void )
{
	return statusSuccess;
}

Bool	debugCheckLevel ( UInt32 Level )
{
	DebugObject*	Debug = &TMManGlobal->Debug;
	if( (( Level) & Debug->DBGLevelBitmap)  )
	{
		return True;
	}
	return False;
}

UInt32	debugLevel ( UInt32 OptionBits )
{
	DebugObject*	Debug = &TMManGlobal->Debug;
	UInt32	TempOptionBits;
	TempOptionBits = Debug->DBGLevelBitmap;
	Debug->DBGLevelBitmap = OptionBits;
	return TempOptionBits;
}

	

void	debugPrintf( 
	Int8* FormatString, 
	... )
{
	PVOID	pArgument = &FormatString;
	USHORT	Idx, StrIdx = 0, BufIdx = 0;
	UCHAR	Char;
	DebugObject*	Debug = &TMManGlobal->Debug;

	// this function is ment for a 32 bit environment.
	// modify pointer increment values for 32 bit stack.
	((PVOID *)pArgument)++;

	for( Idx = 0 ; FormatString[Idx] ; Idx ++ )
	{
		if( FormatString[Idx] == '%')
		{
			Char = FormatString[++Idx];
			switch( Char )
			{

				case 'd':
				{
					ULONG	Value = *((ULONG*)pArgument);
					ULONG	Divisor;
					for( Divisor = 1 ; (Value / Divisor) >= 10 ;
						Divisor *= 10);
					do
					//for( ; Value ; Divisor /= 10)
					{
						Debug->DBGBuffer[StrIdx++] = (UCHAR)
							( (Value / Divisor) + '0');

						Value = (ULONG)(Value % Divisor);
						Divisor /= 10;
					} while ( Divisor > 0);

					((ULONG*)pArgument)++;
				}
				break;

				case 's':
				for ( BufIdx = 0 ;
					((UCHAR*)(*((UCHAR**)pArgument)))[BufIdx];
					BufIdx++ )
					Debug->DBGBuffer[StrIdx++] = 
					(((UCHAR*)(*((UCHAR**)pArgument)))[BufIdx]);

				((PVOID *)pArgument)++;
				break;

				case 'c':
				Debug->DBGBuffer[StrIdx++] = (*((UCHAR*)pArgument));
				((ULONG*)pArgument)++;
				break;

				case 'x':
				{
					ULONG	Value = *((ULONG*)pArgument);
					UCHAR	Hex[] = "0123456789ABCDEF";
					ULONG	Divisor;
					for( Divisor = 1 ; (Value / Divisor) >= 16 ;
						Divisor *= 16);

					do
					{
						Debug->DBGBuffer[StrIdx++] = 
							(Hex[(Value / Divisor)]);

						Value = (ULONG)(Value % Divisor);

						Divisor /= 16;

					} while ( Divisor > 0);

					((ULONG*)pArgument)++;
				}
				break;

				default :
				Debug->DBGBuffer[StrIdx++] = ('%');
				Debug->DBGBuffer[StrIdx++] = (Char);
				break;
			}
		}
		else
		{
			Debug->DBGBuffer[StrIdx++] = FormatString[Idx];
			continue;
		}
	}

	Debug->DBGBuffer[StrIdx] = 0;

	
	switch ( Debug->DBGType )
	{
		case constTMManDebugTypeTrace :
		debugTrace ( Debug->DBGBuffer );
		break;

		case constTMManDebugTypeOutput :
		debugOutput ( Debug->DBGBuffer );
		break;

		case constTMManDebugTypeNULL :	
		case constTMManDebugTypeCOM :	
		case constTMManDebugTypeLPT :	
		default :
		break;
	}
}

void	debugOutput ( UInt8* szString )
{
	// It can dump the output both to monochrone and write it
	// to the debug buffer - for offline retrieval
	vxdTraceString( szString );
}

void	debugTrace ( UInt8* szString )
{
	DebugObject*	Debug = &TMManGlobal->Debug;
	// It can dump the output both to monochrone and write it
	// to the debug buffer - for offline retrieval
}

// get the debug buffers on the target(other)processor
Bool	debugDPBuffers (
	UInt32	HalHandle,
	UInt8 **ppFirstHalfPtr, 
	UInt32 *pFirstHalfSize, 
	UInt8 **ppSecondHalfPtr, 
	UInt32 *pSecondHalfSize )
{
	UInt8*			SDRAMPtr;
	UInt32			SDRAMMapped;
	UInt32			SDRAMLength;
	UInt32			SDRAMPhysical;
	DebugControl*	DebugPtr;
	UInt8*			BufferPtr;
	UInt32			Idx;
	UInt8			MagicString[constDebugMagicSize];
	

	/* initialize them to NULL in case we don't find the MAGIC header */

	*ppFirstHalfPtr = NULL;
	*ppSecondHalfPtr = NULL;
	*pFirstHalfSize = 0;
	*pSecondHalfSize = 0;

	halGetSDRAMInfo ( 
		HalHandle,
		(Pointer*)&SDRAMPhysical, 
		(Pointer*)&SDRAMMapped, 
		&SDRAMLength );

	SDRAMPtr = (UInt8*)SDRAMMapped;

	strcpy ( MagicString, constDebugMagic );

	MagicString[0] = 'T';
	MagicString[1] = 'M';
	MagicString[2] = '-';
	MagicString[3] = 'S';
	MagicString[4] = 'o';
	MagicString[5] = 'f';
	MagicString[6] = 't';

	// search the entire SDRAM for the magic string 
	for ( Idx = 0 ; 
		Idx < SDRAMLength ;
		Idx += constDebugMagicSize, SDRAMPtr += constDebugMagicSize )
	{
		if ( strcmp ( SDRAMPtr, MagicString ) == 0 )
		{
			break;
		}
	}

	if ( Idx >= SDRAMLength )
	{
		return False;
	}


	DebugPtr = (DebugControl*)SDRAMPtr;

	/* conver the physical address to mapped address */
	BufferPtr = (UInt8*)
		( ( halAccess32(HalHandle , (volatile UInt32)DebugPtr->Buffer ) - SDRAMPhysical ) + 
		SDRAMMapped );

	if ( halAccess32( HalHandle, DebugPtr->Wrapped ) ) // wrap around has occured 
	{
		*pFirstHalfSize = 
			halAccess32( HalHandle, DebugPtr->BufLen ) - 
			halAccess32( HalHandle, DebugPtr->BufPos );

		*ppFirstHalfPtr = BufferPtr + halAccess32( HalHandle, DebugPtr->BufPos );
	}

	*ppSecondHalfPtr = BufferPtr;
	*pSecondHalfSize = halAccess32( HalHandle, DebugPtr->BufPos );

	return True;
}

// get the debug TMMan internal buffers on the target(other)processor
Bool	debugTargetBuffers (
	UInt32	HalHandle,
	UInt8 **ppFirstHalfPtr, 
	UInt32 *pFirstHalfSize, 
	UInt8 **ppSecondHalfPtr, 
	UInt32 *pSecondHalfSize )
{
	UInt8*			SDRAMPtr;
	UInt32			SDRAMMapped;
	UInt32			SDRAMLength;
	UInt32			SDRAMPhysical;
	DebugControl*	DebugPtr;
	UInt8*			BufferPtr;
	UInt32			Idx;
	UInt8			MagicString[constDebugMagicSize];
	

	/* initialize them to NULL in case we don't find the MAGIC header */

	*ppFirstHalfPtr = NULL;
	*ppSecondHalfPtr = NULL;
	*pFirstHalfSize = 0;
	*pSecondHalfSize = 0;

	halGetSDRAMInfo ( 
		HalHandle,
		(Pointer*)&SDRAMPhysical, 
		(Pointer*)&SDRAMMapped, 
		&SDRAMLength );

	SDRAMPtr = (UInt8*)SDRAMMapped;

	strcpy ( MagicString, constDebugTMManMagic );

	MagicString[0] = 'T';
	MagicString[1] = 'i';
	MagicString[2] = 'l';
	MagicString[3] = 'a';
	MagicString[4] = 'k';
	MagicString[5] = 'r';
	MagicString[6] = 'a';
	MagicString[7] = 'j';

	// search the entire SDRAM for the magic string 
	for ( Idx = 0 ; 
		Idx < SDRAMLength ;
		Idx += constDebugMagicSize, SDRAMPtr += constDebugMagicSize )
	{
		if ( strcmp ( SDRAMPtr, MagicString ) == 0 )
		{
			break;
		}
	}

	if ( Idx >= SDRAMLength )
	{
		return False;
	}


	DebugPtr = (DebugControl*)SDRAMPtr;

	/* conver the physical address to mapped address */
	BufferPtr = (UInt8*)
		( ( halAccess32(HalHandle , (volatile UInt32)DebugPtr->Buffer ) - SDRAMPhysical ) + 
		SDRAMMapped );

	if ( halAccess32( HalHandle, DebugPtr->Wrapped ) ) // wrap around has occured 
	{
		*pFirstHalfSize = 
			halAccess32( HalHandle, DebugPtr->BufLen ) - 
			halAccess32( HalHandle, DebugPtr->BufPos );

		*ppFirstHalfPtr = BufferPtr + halAccess32( HalHandle, DebugPtr->BufPos );
	}

	*ppSecondHalfPtr = BufferPtr;
	*pSecondHalfSize = halAccess32( HalHandle, DebugPtr->BufPos );

	return True;
}


// get the debug buffer on the host(this)processor
Bool	debugHostBuffers (
	UInt8 **ppFirstHalfPtr, 
	UInt32 *pFirstHalfSize, 
	UInt8 **ppSecondHalfPtr, 
	UInt32 *pSecondHalfSize )
{

	*ppFirstHalfPtr = NULL;
	*ppSecondHalfPtr = NULL;
	*pFirstHalfSize = 0;
	*pSecondHalfSize = 0;
	return statusSuccess;

}