Example #1
0
/*
=============
RE_EndFrame

Returns the number of msec spent in the back end
=============
*/
void RE_EndFrame( int *frontEndMsec, int *backEndMsec ) {
	swapBuffersCommand_t	*cmd;

	if ( !tr.registered ) {
		return;
	}
	cmd = (swapBuffersCommand_t *) R_GetCommandBuffer( sizeof( *cmd ) );
	if ( !cmd ) {
		return;
	}
	cmd->commandId = RC_SWAP_BUFFERS;

	R_IssueRenderCommands( qtrue );

	// use the other buffers next frame, because another CPU
	// may still be rendering into the current ones
	R_InitNextFrame();

	if ( frontEndMsec ) {
		*frontEndMsec = tr.frontEndMsec;
	}
	tr.frontEndMsec = 0;
	if ( backEndMsec ) {
		*backEndMsec = backEnd.pc.msec;
	}
	backEnd.pc.msec = 0;
}
Example #2
0
/*
=============
RE_EndFrame

Returns the number of msec spent in the back end
=============
*/
void RE_EndFrame( int *frontEndMsec, int *backEndMsec ) {
	swapBuffersCommand_t	*cmd;

	if ( !tr.registered ) {
		return;
	}
	cmd = R_GetCommandBuffer( sizeof( *cmd ) );
	if ( !cmd ) {
		return;
	}
	cmd->commandId = RC_SWAP_BUFFERS;

	R_IssueRenderCommands( qtrue );

	R_InitNextFrame();

	if ( frontEndMsec ) {
		*frontEndMsec = tr.frontEndMsec;
	}
	tr.frontEndMsec = 0;
	if ( backEndMsec ) {
		*backEndMsec = backEnd.pc.msec;
	}
	backEnd.pc.msec = 0;
}
Example #3
0
/*
=============
RE_EndFrame

Returns the number of msec spent in the back end
=============
*/
void RE_EndFrame(int *frontEndMsec, int *backEndMsec)
{
	renderCommandList_t *cmdList;

	if (!tr.registered)
	{
		return;
	}

	// Needs to use reserved space, so no R_GetCommandBuffer.
	cmdList = &backEndData->commands;
	assert(cmdList);
	// add swap-buffers command
	*( int * )(cmdList->cmds + cmdList->used) = RC_SWAP_BUFFERS;
	cmdList->used                            += sizeof(swapBuffersCommand_t);


	R_IssueRenderCommands(qtrue);

	// use the other buffers next frame, because another CPU
	// may still be rendering into the current ones
	R_InitNextFrame();

	if (frontEndMsec)
	{
		*frontEndMsec = tr.frontEndMsec;
	}
	tr.frontEndMsec = 0;
	if (backEndMsec)
	{
		*backEndMsec = backEnd.pc.msec;
	}
	backEnd.pc.msec = 0;
}
Example #4
0
/*
===============
R_Init
===============
*/
void R_Init( void ) {
	int err;
	int i;
	byte *ptr;

	ri.Printf( PRINT_ALL, "----- R_Init -----\n" );

	// clear all our internal state
	memset( &tr, 0, sizeof( tr ) );
	memset( &backEnd, 0, sizeof( backEnd ) );
	memset( &tess, 0, sizeof( tess ) );

	if(sizeof(glconfig_t) != 7268)
		ri.Error( ERR_FATAL, "Mod ABI incompatible: sizeof(glconfig_t) == %u != 7268", (unsigned int) sizeof(glconfig_t));

//	Swap_Init();

	if ( (intptr_t)tess.xyz & 15 ) {
		ri.Printf( PRINT_WARNING, "tess.xyz not 16 byte aligned\n" );
	}
	memset( tess.constantColor255, 255, sizeof( tess.constantColor255 ) );

	//
	// init function tables
	//
	for ( i = 0; i < FUNCTABLE_SIZE; i++ )
	{
		tr.sinTable[i]      = sin( DEG2RAD( i * 360.0f / ( ( float ) ( FUNCTABLE_SIZE - 1 ) ) ) );
		tr.squareTable[i]   = ( i < FUNCTABLE_SIZE / 2 ) ? 1.0f : -1.0f;
		tr.sawToothTable[i] = (float)i / FUNCTABLE_SIZE;
		tr.inverseSawToothTable[i] = 1.0f - tr.sawToothTable[i];

		if ( i < FUNCTABLE_SIZE / 2 ) {
			if ( i < FUNCTABLE_SIZE / 4 ) {
				tr.triangleTable[i] = ( float ) i / ( FUNCTABLE_SIZE / 4 );
			} else
			{
				tr.triangleTable[i] = 1.0f - tr.triangleTable[i - FUNCTABLE_SIZE / 4];
			}
		} else
		{
			tr.triangleTable[i] = -tr.triangleTable[i - FUNCTABLE_SIZE / 2];
		}
	}

	// Ridah, init the virtual memory
	R_Hunk_Begin();

	R_InitFogTable();

	R_NoiseInit();

	R_Register();

#ifdef USE_BLOOM
	R_BloomInit();
#endif

	max_polys = r_maxpolys->integer;
	if ( max_polys < MAX_POLYS ) {
		max_polys = MAX_POLYS;
	}

	max_polyverts = r_maxpolyverts->integer;
	if ( max_polyverts < MAX_POLYVERTS ) {
		max_polyverts = MAX_POLYVERTS;
	}

	ptr = ri.Hunk_Alloc( sizeof( *backEndData ) + sizeof(srfPoly_t) * max_polys + sizeof(polyVert_t) * max_polyverts, h_low);
	backEndData = (backEndData_t *) ptr;
	backEndData->polys = (srfPoly_t *) ((char *) ptr + sizeof( *backEndData ));
	backEndData->polyVerts = (polyVert_t *) ((char *) ptr + sizeof( *backEndData ) + sizeof(srfPoly_t) * max_polys);

	R_InitNextFrame();

	InitOpenGL();

	R_InitImages();

	R_InitShaders();

	R_InitSkins();

	R_ModelInit();

	R_InitFreeType();

	err = qglGetError();
	if ( err != GL_NO_ERROR ) {
		ri.Printf( PRINT_ALL, "glGetError() = 0x%x\n", err );
	}

	ri.Printf( PRINT_ALL, "----- finished R_Init -----\n" );
}
Example #5
0
/*
===============
R_Init
===============
*/
void R_Init( void ) {	
	int	err;
	int i;
	byte *ptr;

	ri.Printf( PRINT_ALL, "----- R_Init -----\n" );

	// clear all our internal state
	Com_Memset( &tr, 0, sizeof( tr ) );
	Com_Memset( &backEnd, 0, sizeof( backEnd ) );
	Com_Memset( &tess, 0, sizeof( tess ) );

	if(sizeof(glconfig_t) != 11332)
		ri.Error( ERR_FATAL, "Mod ABI incompatible: sizeof(glconfig_t) == %u != 11332", (unsigned int) sizeof(glconfig_t));

//	Swap_Init();

	if ( (intptr_t)tess.xyz & 15 ) {
		ri.Printf( PRINT_WARNING, "tess.xyz not 16 byte aligned\n" );
	}
	//Com_Memset( tess.constantColor255, 255, sizeof( tess.constantColor255 ) );

	//
	// init function tables
	//
	for ( i = 0; i < FUNCTABLE_SIZE; i++ )
	{
		tr.sinTable[i]		= sin( DEG2RAD( i * 360.0f / ( ( float ) ( FUNCTABLE_SIZE - 1 ) ) ) );
		tr.squareTable[i]	= ( i < FUNCTABLE_SIZE/2 ) ? 1.0f : -1.0f;
		tr.sawToothTable[i] = (float)i / FUNCTABLE_SIZE;
		tr.inverseSawToothTable[i] = 1.0f - tr.sawToothTable[i];

		if ( i < FUNCTABLE_SIZE / 2 )
		{
			if ( i < FUNCTABLE_SIZE / 4 )
			{
				tr.triangleTable[i] = ( float ) i / ( FUNCTABLE_SIZE / 4 );
			}
			else
			{
				tr.triangleTable[i] = 1.0f - tr.triangleTable[i-FUNCTABLE_SIZE / 4];
			}
		}
		else
		{
			tr.triangleTable[i] = -tr.triangleTable[i-FUNCTABLE_SIZE/2];
		}
	}

	R_InitFogTable();

	R_NoiseInit();

	R_Register();

	max_polys = r_maxpolys->integer;
	if (max_polys < MAX_POLYS)
		max_polys = MAX_POLYS;

	max_polyverts = r_maxpolyverts->integer;
	if (max_polyverts < MAX_POLYVERTS)
		max_polyverts = MAX_POLYVERTS;

	ptr = ri.Hunk_Alloc( sizeof( *backEndData ) + sizeof(srfPoly_t) * max_polys + sizeof(polyVert_t) * max_polyverts, h_low);
	backEndData = (backEndData_t *) ptr;
	backEndData->polys = (srfPoly_t *) ((char *) ptr + sizeof( *backEndData ));
	backEndData->polyVerts = (polyVert_t *) ((char *) ptr + sizeof( *backEndData ) + sizeof(srfPoly_t) * max_polys);
	R_InitNextFrame();

	InitOpenGL();

	R_InitImages();

	if (glRefConfig.framebufferObject)
		FBO_Init();

	GLSL_InitGPUShaders();

	R_InitVaos();

	R_InitShaders();

	R_InitSkins();

	R_ModelInit();

	R_InitFreeType();

	R_InitQueries();


	err = qglGetError();
	if ( err != GL_NO_ERROR )
		ri.Printf (PRINT_ALL, "glGetError() = 0x%x\n", err);

	// print info
	GfxInfo_f();
	ri.Printf( PRINT_ALL, "----- finished R_Init -----\n" );
}
Example #6
0
/*
===============
R_Init
===============
*/
void R_Init(void)
{
	int  err;
	int  i;
	byte *ptr;

	ri.Printf(PRINT_ALL, "----- R_Init -----\n");

	// clear all our internal state
	Com_Memset(&tr, 0, sizeof(tr));
	Com_Memset(&backEnd, 0, sizeof(backEnd));
	Com_Memset(&tess, 0, sizeof(tess));

	tess.xyz          = tess_xyz;
	tess.texCoords0   = tess_texCoords0;
	tess.texCoords1   = tess_texCoords1;
	tess.indexes      = tess_indexes;
	tess.normal       = tess_normal;
	tess.vertexColors = tess_vertexColors;

	tess.maxShaderVerts    = SHADER_MAX_VERTEXES;
	tess.maxShaderIndicies = SHADER_MAX_INDEXES;

	if ((intptr_t) tess.xyz & 15)
	{
		ri.Printf(PRINT_WARNING, "tess.xyz not 16 byte aligned\n");
	}
	Com_Memset(tess.constantColor255, 255, sizeof(tess.constantColor255));

	// init function tables
	for (i = 0; i < FUNCTABLE_SIZE; i++)
	{
		tr.sinTable[i]             = sin(DEG2RAD(i * 360.0f / (( float ) (FUNCTABLE_SIZE - 1))));
		tr.squareTable[i]          = (i < FUNCTABLE_SIZE / 2) ? 1.0f : -1.0f;
		tr.sawToothTable[i]        = ( float ) i / FUNCTABLE_SIZE;
		tr.inverseSawToothTable[i] = 1.0f - tr.sawToothTable[i];

		if (i < FUNCTABLE_SIZE / 2)
		{
			if (i < FUNCTABLE_SIZE / 4)
			{
				tr.triangleTable[i] = ( float ) i / (FUNCTABLE_SIZE / 4);
			}
			else
			{
				tr.triangleTable[i] = 1.0f - tr.triangleTable[i - FUNCTABLE_SIZE / 4];
			}
		}
		else
		{
			tr.triangleTable[i] = -tr.triangleTable[i - FUNCTABLE_SIZE / 2];
		}
	}

	// init the virtual memory
	R_Hunk_Begin();

	R_NoiseInit();

	R_Register();

	ptr = ri.Hunk_Alloc(sizeof(*backEndData) + sizeof(srfPoly_t) * r_maxpolys->integer + sizeof(polyVert_t) * r_maxpolyverts->integer, h_low);

	backEndData            = (backEndData_t *) ptr;
	backEndData->polys     = (srfPoly_t *) ((char *) ptr + sizeof(*backEndData));
	backEndData->polyVerts = (polyVert_t *) ((char *) ptr + sizeof(*backEndData) + sizeof(srfPoly_t) * r_maxpolys->integer);

	R_InitNextFrame();

	InitOpenGL();

	R_InitImages();

	R_InitShaders();

	R_InitSkins();

	R_ModelInit();

	R_InitFreeType();

	err = qglGetError();
	if (err != GL_NO_ERROR)
	{
		ri.Printf(PRINT_ALL, "glGetError() = 0x%x\n", err);
	}

	ri.Printf(PRINT_ALL, "----- finished R_Init -----\n");
}
Example #7
0
/*
===============
R_Init
===============
*/
void R_Init( void ) {	
	static qboolean firstTime = qtrue;
	int	err;
	int i;
	byte *ptr;

	ri.Printf(PRINT_DEVELOPER, "----- R_Init -----\n");

	// clear all our internal state
	Com_Memset( &tr, 0, sizeof( tr ) );
	Com_Memset( &backEnd, 0, sizeof( backEnd ) );
	Com_Memset( &tess, 0, sizeof( tess ) );

//	Swap_Init();

	if ( refHeadless ) {
		// dummy shader
		tr.defaultShader = ri.Hunk_Alloc( sizeof( shader_t ), h_low );
		tr.defaultShader->defaultShader = qtrue;
		Q_strncpyz(tr.defaultShader->name, "<default>", MAX_QPATH);

		// dedicated server only uses model data
		R_ModelInit();
		return;
	}

	if ( (intptr_t)tess.xyz & 15 ) {
		ri.Printf( PRINT_WARNING, "tess.xyz not 16 byte aligned\n" );
	}
	Com_Memset( tess.constantColor255, 255, sizeof( tess.constantColor255 ) );

	R_NoiseInit();

	//
	// init function tables
	//
	for ( i = 0; i < FUNCTABLE_SIZE; i++ )
	{
		tr.sinTable[i]		= sin( DEG2RAD( i * 360.0f / ( ( float ) ( FUNCTABLE_SIZE - 1 ) ) ) );
		tr.squareTable[i]	= ( i < FUNCTABLE_SIZE/2 ) ? 1.0f : -1.0f;
		tr.sawToothTable[i] = (float)i / FUNCTABLE_SIZE;
		tr.inverseSawToothTable[i] = 1.0f - tr.sawToothTable[i];
		tr.noiseTable[i]	= R_NoiseGet4f(0, 0, 0, i);

		if ( i < FUNCTABLE_SIZE / 2 )
		{
			if ( i < FUNCTABLE_SIZE / 4 )
			{
				tr.triangleTable[i] = ( float ) i / ( FUNCTABLE_SIZE / 4 );
			}
			else
			{
				tr.triangleTable[i] = 1.0f - tr.triangleTable[i-FUNCTABLE_SIZE / 4];
			}
		}
		else
		{
			tr.triangleTable[i] = -tr.triangleTable[i-FUNCTABLE_SIZE/2];
		}
	}

	R_InitFogTable();

	R_Register();

	max_polys = r_maxpolys->integer;
	if (max_polys < MAX_POLYS)
		max_polys = MAX_POLYS;

	max_polyverts = r_maxpolyverts->integer;
	if (max_polyverts < MAX_POLYVERTS)
		max_polyverts = MAX_POLYVERTS;

	max_polybuffers = r_maxpolybuffers->integer;
	if (max_polybuffers < MAX_POLYBUFFERS)
		max_polybuffers = MAX_POLYBUFFERS;

	ptr = ri.Hunk_Alloc( sizeof( *backEndData ) + sizeof(srfPoly_t) * max_polys + sizeof(polyVert_t) * max_polyverts
			+ sizeof(srfPolyBuffer_t) * max_polybuffers, h_low);
	backEndData = (backEndData_t *) ptr;
	backEndData->polys = (srfPoly_t *) ((char *) ptr + sizeof( *backEndData ));
	backEndData->polyVerts = (polyVert_t *) ((char *) ptr + sizeof( *backEndData ) + sizeof(srfPoly_t) * max_polys);
	backEndData->polybuffers = (srfPolyBuffer_t *) ((char *) ptr + sizeof( *backEndData ) + sizeof(srfPoly_t) * max_polys
			+ sizeof(polyVert_t) * max_polyverts);
	R_InitNextFrame();

	InitOpenGL();

	R_InitImages();

	R_InitShaders();

	R_InitSkins();

	R_ModelInit();

	R_InitFreeType();


	err = qglGetError();
	if ( err != GL_NO_ERROR )
		ri.Printf (PRINT_ALL, "glGetError() = 0x%x\n", err);

	if (firstTime)
	{
		firstTime = qfalse;

		// print info
		GfxInfo_f();
	}

	ri.Printf(PRINT_DEVELOPER, "----- finished R_Init -----\n");
}
Example #8
0
/**
 * @brief R_Init
 */
void R_Init(void)
{
	int  err;
	int  i;
	byte *ptr;

	Ren_Print("----- R_Init -----\n");

	// clear all our internal state
	Com_Memset(&tr, 0, sizeof(tr));
	Com_Memset(&backEnd, 0, sizeof(backEnd));
	Com_Memset(&tess, 0, sizeof(tess));

	if ((intptr_t) tess.xyz & 15)
	{
		Ren_Warning("tess.xyz not 16 byte aligned\n");
	}
	Com_Memset(tess.constantColor255, 255, sizeof(tess.constantColor255));

	// init function tables
	for (i = 0; i < FUNCTABLE_SIZE; i++)
	{
		tr.sinTable[i]             = sin(DEG2RAD(i * 360.0f / (( float ) (FUNCTABLE_SIZE - 1))));
		tr.squareTable[i]          = (i < FUNCTABLE_SIZE / 2) ? 1.0f : -1.0f;
		tr.sawToothTable[i]        = ( float ) i / FUNCTABLE_SIZE;
		tr.inverseSawToothTable[i] = 1.0f - tr.sawToothTable[i];

		if (i < FUNCTABLE_SIZE / 2)
		{
			if (i < FUNCTABLE_SIZE / 4)
			{
				tr.triangleTable[i] = ( float ) i / (FUNCTABLE_SIZE / 4);
			}
			else
			{
				tr.triangleTable[i] = 1.0f - tr.triangleTable[i - FUNCTABLE_SIZE / 4];
			}
		}
		else
		{
			tr.triangleTable[i] = -tr.triangleTable[i - FUNCTABLE_SIZE / 2];
		}
	}

	// init the virtual memory
	R_Hunk_Begin();

	R_NoiseInit();

	R_Register();

	ptr = ri.Hunk_Alloc(sizeof(*backEndData) + sizeof(srfPoly_t) * r_maxPolys->integer + sizeof(polyVert_t) * r_maxPolyVerts->integer, h_low);

	backEndData            = (backEndData_t *) ptr;
	backEndData->polys     = (srfPoly_t *) ((char *) ptr + sizeof(*backEndData));
	backEndData->polyVerts = (polyVert_t *) ((char *) ptr + sizeof(*backEndData) + sizeof(srfPoly_t) * r_maxPolys->integer);

	R_InitNextFrame();

	InitOpenGL();

	R_InitImages();

	R_InitShaders();

	R_InitSkins();

	R_ModelInit();

	R_InitFreeType();

	err = qglGetError();
	if (err != GL_NO_ERROR)
	{
		Ren_Print("R_Init: glGetError() = 0x%x\n", err);
	}

	Ren_Print("----- finished R_Init -----\n");
}