示例#1
0
void CMySQLQuery::Format( const char *pFormat, ... )
{
	#define QUERYTEXT_GROWSIZE	1024

	// This keeps growing the buffer and calling _vsnprintf until the buffer is 
	// large enough to hold all the data.
	m_QueryText.SetSize( QUERYTEXT_GROWSIZE );
	while ( 1 )
	{
		va_list marker;
		va_start( marker, pFormat );
		int ret = _vsnprintf( m_QueryText.Base(), m_QueryText.Count(), pFormat, marker );
		va_end( marker );

		if ( ret < 0 )
		{
			m_QueryText.SetSize( m_QueryText.Count() + QUERYTEXT_GROWSIZE );
		}
		else
		{
			m_QueryText[ m_QueryText.Count() - 1 ] = 0;
			break;
		}
	}
}
static void Graphical_Start()
{
	g_bUseGraphics = VMPI_IsParamUsed( mpi_Graphics );
	if ( !g_bUseGraphics )
		return;
	
	// Setup an event so we'll wait until the window is ready.
	if ( !g_hCreateEvent )
	{
		g_hCreateEvent = CreateEvent( 0, 0, 0, 0 );
		g_hDestroyWindowEvent = CreateEvent( 0, 0, 0, 0 );
		g_hDestroyWindowCompletedEvent = CreateEvent( 0, 0, 0, 0 );
		InitializeCriticalSection( &g_CS );
	}
	ResetEvent( g_hCreateEvent );
	ResetEvent( g_hDestroyWindowCompletedEvent );

	g_WUStatus.SetSize( g_WorkUnits.Count() );
	for ( int i=0; i < g_WUStatus.Count(); i++ )
		g_WUStatus[i].m_iState = 0;
	
	// Setup our thread.
	CreateThread( NULL, 0, ThreadProc, NULL, 0, NULL );
	
	// Wait until the event is signaled.
	WaitForSingleObject( g_hCreateEvent, INFINITE );
}
void jInit_destination(j_compress_ptr cinfo)
{
	jOut.Purge();
	jOut.SetSize(BLOCK_SIZE);
	cinfo->dest->next_output_byte = &jOut[0];
	cinfo->dest->free_in_buffer = jOut.Count();
}
void SetupDispBoxes( const CCoreDispInfo *pListBase, int listSize, CUtlVector<CDispBox> &out )
{
	out.SetSize( listSize );
	for ( int i=0; i < listSize; i++ )
	{
		const CCoreDispInfo *pDisp = &pListBase[i];

		// Calculate the bbox for this displacement.
		Vector vMin(  1e24,  1e24,  1e24 );
		Vector vMax( -1e24, -1e24, -1e24 );

		for ( int iVert=0; iVert < 4; iVert++ )
		{
			const Vector &vTest = pDisp->GetSurface()->GetPoint( iVert );
			VectorMin( vTest, vMin, vMin );
			VectorMax( vTest, vMax, vMax );
		}		

		// Puff the box out a little.
		static float flPuff = 0.1f;
		vMin -= Vector( flPuff, flPuff, flPuff );
		vMax += Vector( flPuff, flPuff, flPuff );

		out[i].m_Min = vMin;
		out[i].m_Max = vMax;
	}
}
bool CJobWatchDlg::GetCurrentWorkerText( 
	CUtlVector<char> &text, 
	unsigned long &curMessageIndex )
{
	text.SetSize( 0 );

	unsigned long jobWorkerID;
	if ( !GetCurJobWorkerID( jobWorkerID ) )
		return false;

	// Now copy all the text out.
	CMySQLQuery query;
	if ( curMessageIndex == 0 )
		query.Format( "select * from text_messages where JobWorkerID=%lu", jobWorkerID );
	else
		query.Format( "select * from text_messages where JobWorkerID=%lu and MessageIndex >= %lu", jobWorkerID, curMessageIndex );
	
	GetMySQL()->Execute( query );

	while ( GetMySQL()->NextRow() )
	{
		const char *pTextStr = GetMySQL()->GetColumnValue( "text" ).String();
		int len = strlen( pTextStr );
		text.AddMultipleToTail( len, pTextStr );

		curMessageIndex = GetMySQL()->GetColumnValue( "MessageIndex" ).UInt32() + 1;
	}

	text.AddToTail( 0 );
	return true;
}
	virtual void OnPacketReceived( CTCPPacket *pPacket )
	{
		if ( g_ClientPacket.Count() < pPacket->GetLen() )
			g_ClientPacket.SetSize( pPacket->GetLen() );
		
		memcpy( g_ClientPacket.Base(), pPacket->GetData(), pPacket->GetLen() );
		g_ClientPacketEvent.SetEvent();
		pPacket->Release();
	}
示例#7
0
void InitMacroTexture( const char *pBSPFilename )
{
	// Get the world bounds (same ones used by minimaps and level designers know how to use).
	int i = 0;
	for (i = 0; i < num_entities; ++i)
	{
		char* pEntity = ValueForKey(&entities[i], "classname");
		if( !strcmp(pEntity, "worldspawn") )
		{
			GetVectorForKey( &entities[i], "world_mins", g_MacroWorldMins );
			GetVectorForKey( &entities[i], "world_maxs", g_MacroWorldMaxs );
			break;
		}
	}

	if ( i == num_entities )
	{
		Warning( "MaskOnMacroTexture: can't find worldspawn" );
		return;
	}


	// Load the macro texture that is mapped onto everything.
	char mapName[512], vtfFilename[512];
	Q_FileBase( pBSPFilename, mapName, sizeof( mapName ) );
	Q_snprintf( vtfFilename, sizeof( vtfFilename ), "materials/macro/%s/base.vtf", mapName );
	g_pGlobalMacroTextureData = LoadMacroTextureFile( vtfFilename );

	
	// Now load the macro texture for each face.
	g_FaceMacroTextures.SetSize( numfaces );
	for ( int iFace=0; iFace < numfaces; iFace++ )
	{
		g_FaceMacroTextures[iFace] = NULL;

		if ( iFace < g_FaceMacroTextureInfos.Count() )
		{
			unsigned short stringID = g_FaceMacroTextureInfos[iFace].m_MacroTextureNameID;
			if ( stringID != 0xFFFF )
			{
				const char *pMacroTextureName = &g_TexDataStringData[ g_TexDataStringTable[stringID] ];
				Q_snprintf( vtfFilename, sizeof( vtfFilename ), "%smaterials/%s.vtf", gamedir, pMacroTextureName );
				
				g_FaceMacroTextures[iFace] = FindMacroTexture( vtfFilename );
				if ( !g_FaceMacroTextures[iFace] )
				{
					g_FaceMacroTextures[iFace] = LoadMacroTextureFile( vtfFilename );
					if ( g_FaceMacroTextures[iFace] )
					{
						g_MacroTextureLookup.Insert( vtfFilename, g_FaceMacroTextures[iFace] );
					}
				}
			}
		}
	}
}
void ScratchPad_DrawSphere(
	IScratchPad3D *pPad,
	const Vector &vCenter,
	float flRadius,
	const Vector &vColor,
	int nSubDivs )
{
	CUtlVector<Vector> prevPoints;
	prevPoints.SetSize( nSubDivs );
	
	// For each vertical slice.. (the top and bottom ones are just a single point).
	for ( int iSlice=0; iSlice < nSubDivs; iSlice++ )
	{
		float flHalfSliceAngle = M_PI * (float)iSlice / (nSubDivs - 1);

		if ( iSlice == 0 )
		{
			prevPoints[0] = vCenter + Vector( 0, 0, flRadius );
			for ( int z=1; z < prevPoints.Count(); z++ )
				prevPoints[z] = prevPoints[0];
		}
		else
		{
			for ( int iSubPt=0; iSubPt < nSubDivs; iSubPt++ )
			{
				float flHalfAngle = M_PI * (float)iSubPt / (nSubDivs - 1);
				float flAngle = flHalfAngle * 2;
				
				Vector pt;
				if ( iSlice == (nSubDivs - 1) )
				{
					pt = vCenter - Vector( 0, 0, flRadius );
				}
				else
				{
					pt.x = cos( flAngle ) * sin( flHalfSliceAngle );
					pt.y = sin( flAngle ) * sin( flHalfSliceAngle );
					pt.z = cos( flHalfSliceAngle );
					
					pt *= flRadius;
					pt += vCenter;
				}
				
				pPad->DrawLine( CSPVert( pt, vColor ), CSPVert( prevPoints[iSubPt], vColor ) );
				prevPoints[iSubPt] = pt;
			}
			
			if ( iSlice != (nSubDivs - 1) )
			{
				for ( int i=0; i < nSubDivs; i++ )
					pPad->DrawLine( CSPVert( prevPoints[i], vColor ), CSPVert( prevPoints[(i+1)%nSubDivs], vColor ) );
			}
		}
	}
}
void VMPITracker_Start( int nWorkUnits )
{
	g_bTrackWorkUnitEvents = (VMPI_IsParamUsed( mpi_TrackEvents ) || VMPI_IsParamUsed( mpi_Graphics ));
	g_flJobStartTime = Plat_FloatTime();
	g_WorkUnits.Purge();

	if ( g_bTrackWorkUnitEvents )
	{
		g_WorkUnits.SetSize( nWorkUnits );
	}

	Graphical_Start();
}
void ShowMPIStats(
    double flTimeSpent,
    unsigned long nBytesSent,
    unsigned long nBytesReceived,
    unsigned long nMessagesSent,
    unsigned long nMessagesReceived )
{
    double flKSent = (nBytesSent + 511) / 1024;
    double flKRecv = (nBytesReceived + 511) / 1024;

    bool bShowOutput = VMPI_IsParamUsed( mpi_ShowDistributeWorkStats );

    bool bOldSuppress = g_bSuppressPrintfOutput;
    g_bSuppressPrintfOutput = !bShowOutput;

    Msg( "\n\n--------------------------------------------------------------\n");
    Msg( "Total Time       : %.2f\n", flTimeSpent );
    Msg( "Total Bytes Sent : %dk (%.2fk/sec, %d messages)\n", (int)flKSent, flKSent / flTimeSpent, nMessagesSent );
    Msg( "Total Bytes Recv : %dk (%.2fk/sec, %d messages)\n", (int)flKRecv, flKRecv / flTimeSpent, nMessagesReceived );
    if ( g_bMPIMaster )
    {
        Msg( "Duplicated WUs   : %I64u (%.1f%%)\n", g_nDuplicatedWUs, (float)g_nDuplicatedWUs * 100.0f / g_nWUs );

        Msg( "\nWU count by proc:\n" );

        int nProcs = VMPI_GetCurrentNumberOfConnections();

        CUtlVector<int> sortedProcs;
        sortedProcs.SetSize( nProcs );
        for ( int i=0; i < nProcs; i++ )
            sortedProcs[i] = i;

        qsort( sortedProcs.Base(), nProcs, sizeof( int ), SortByWUCount );

        for ( int i=0; i < nProcs; i++ )
        {
            const char *pMachineName = VMPI_GetMachineName( sortedProcs[i] );
            Msg( "%s", pMachineName );

            char formatStr[512];
            Q_snprintf( formatStr, sizeof( formatStr ), "%%%ds %I64u\n", 30 - strlen( pMachineName ), g_wuCountByProcess[ sortedProcs[i] ] );
            Msg( formatStr, ":" );
        }
    }
    Msg( "--------------------------------------------------------------\n\n ");

    g_bSuppressPrintfOutput = bOldSuppress;
}
示例#11
0
void Test_InitRandomEntitySpawner( const CCommand &args )
{
	// Put the list of registered functions into array form for convenience.
	g_StressEntityRegs.Purge();
	for ( CStressEntityReg *pCur=CStressEntityReg::GetListHead(); pCur; pCur=pCur->GetNext() )
		g_StressEntityRegs.AddToTail( pCur );

	// Create slots for all the entities..
	int nSlots = 100;
	if ( args.ArgC() >= 2 )
		nSlots = atoi( args[ 1 ] );

	g_StressEntities.Purge();
	g_StressEntities.SetSize( nSlots );

	Msg( "Test_InitRandomEntitySpawner: created %d slots.\n", nSlots );
}
示例#12
0
DWORD WINAPI PortalMCThreadFn( LPVOID p )
{
	CUtlVector<char> data;
	data.SetSize( portalbytes + 128 );

	DWORD waitTime = 0;
	while ( WaitForSingleObject( g_MCThreadExitEvent.GetEventHandle(), waitTime ) != WAIT_OBJECT_0 )
	{
		CIPAddr ipFrom;
		int len = g_pPortalMCSocket->RecvFrom( data.Base(), data.Count(), &ipFrom );
		if ( len == -1 )
		{
			waitTime = 20;
		}
		else
		{
			// These lengths must match exactly what is sent in ReceivePortalFlow.
			if ( len == 2 + sizeof( g_PortalMCThreadUniqueID ) + sizeof( int ) + portalbytes )
			{
				// Perform more validation...
				if ( data[0] == VMPI_VVIS_PACKET_ID && data[1] == VMPI_PORTALFLOW_RESULTS )
				{
					if ( *((unsigned long*)&data[2]) == g_PortalMCThreadUniqueID )
					{
						int iWorkUnit = *((int*)&data[6]);
						if ( iWorkUnit >= 0 && iWorkUnit < g_numportals*2 )
						{
							portal_t *p = sorted_portals[iWorkUnit];
							if ( p )
							{
								++g_nMulticastPortalsReceived;
								memcpy( p->portalvis, &data[10], portalbytes );
								p->status = stat_done;
								waitTime = 0;
							}
						}
					}
				}
			}
		}
	}
	
	return 0;
}
示例#13
0
CMacroTextureData* LoadMacroTextureFile( const char *pFilename )
{
	FileHandle_t hFile = g_pFileSystem->Open( pFilename, "rb" );
	if ( hFile == FILESYSTEM_INVALID_HANDLE )
		return NULL;

	// Read the file in.
	CUtlVector<char> tempData;
	tempData.SetSize( g_pFileSystem->Size( hFile ) );
	g_pFileSystem->Read( tempData.Base(), tempData.Count(), hFile );
	g_pFileSystem->Close( hFile );
	
	
	// Now feed the data into a CUtlBuffer (great...)
	CUtlBuffer buf;
	buf.Put( tempData.Base(), tempData.Count() );

	
	// Now make a texture out of it.
	IVTFTexture *pTex = CreateVTFTexture();
	if ( !pTex->Unserialize( buf ) )
		Error( "IVTFTexture::Unserialize( %s ) failed.", pFilename );

	pTex->ConvertImageFormat( IMAGE_FORMAT_RGBA8888, false );	// Get it in a format we like.

	
	// Now convert to a CMacroTextureData.
	CMacroTextureData *pData = new CMacroTextureData;
	pData->m_Width = pTex->Width();
	pData->m_Height = pTex->Height();
	pData->m_ImageData.EnsureCapacity( pData->m_Width * pData->m_Height * 4 );
	memcpy( pData->m_ImageData.Base(), pTex->ImageData(), pData->m_Width * pData->m_Height * 4 );

	DestroyVTFTexture( pTex );

	Msg( "-- LoadMacroTextureFile: %s\n", pFilename );
	return pData;
}
KeyValues* ReadKeyValuesFile( const char *pFilename )
{
	// Read in the gameinfo.txt file and null-terminate it.
	FILE *fp = fopen( pFilename, "rb" );
	if ( !fp )
		return NULL;
	CUtlVector<char> buf;
	fseek( fp, 0, SEEK_END );
	buf.SetSize( ftell( fp ) + 1 );
	fseek( fp, 0, SEEK_SET );
	fread( buf.Base(), 1, buf.Count()-1, fp );
	fclose( fp );
	buf[buf.Count()-1] = 0;

	KeyValues *kv = new KeyValues( "" );
	if ( !kv->LoadFromBuffer( pFilename, buf.Base() ) )
	{
		kv->deleteThis();
		return NULL;
	}
	
	return kv;
}
示例#15
0
void SnapRemainingVertsToSurface( CCoreDispInfo *pCoreDisp, ddispinfo_t *pDispInfo )
{
	// First, tesselate the displacement.
	CUtlVector<unsigned short> indices;
	CVBSPTesselateHelper helper;
	helper.m_pIndices = &indices;
	helper.m_pActiveVerts = pCoreDisp->GetAllowedVerts().Base();
	helper.m_pPowerInfo = pCoreDisp->GetPowerInfo();
	::TesselateDisplacement( &helper );

	// Figure out which verts are actually referenced in the tesselation.
	CUtlVector<bool> vertsTouched;
	vertsTouched.SetSize( pCoreDisp->GetSize() );
	memset( vertsTouched.Base(), 0, sizeof( bool ) * vertsTouched.Count() );

	for ( int i=0; i < indices.Count(); i++ )
		vertsTouched[ indices[i] ] = true;

	// Generate 2D floating point coordinates for each vertex. We use these to generate
	// barycentric coordinates, and the scale doesn't matter.
	CUtlVector<Vector2D> vertCoords;
	vertCoords.SetSize( pCoreDisp->GetSize() );
	for ( int y=0; y < pCoreDisp->GetHeight(); y++ )
	{
		for ( int x=0; x < pCoreDisp->GetWidth(); x++ )
			vertCoords[y*pCoreDisp->GetWidth()+x].Init( x, y );
	}
	
	// Now, for each vert not touched, snap its position to the main surface.
	for ( int y=0; y < pCoreDisp->GetHeight(); y++ )
	{
		for ( int x=0; x < pCoreDisp->GetWidth(); x++ )
		{
			int index = y * pCoreDisp->GetWidth() + x;
			if ( !( vertsTouched[index] ) )
			{
				float bcCoords[3];
				int iStartVert = -1;
				if ( FindEnclosingTri( vertCoords[index], vertCoords, indices, &iStartVert, bcCoords ) )
				{
					const Vector &A = pCoreDisp->GetVert( indices[iStartVert+0] );
					const Vector &B = pCoreDisp->GetVert( indices[iStartVert+1] );
					const Vector &C = pCoreDisp->GetVert( indices[iStartVert+2] );
					Vector vNewPos = A*bcCoords[0] + B*bcCoords[1] + C*bcCoords[2];

					// This is kind of cheesy, but it gets the job done. Since the CDispVerts store the
					// verts relative to some other offset, we'll just offset their position instead
					// of setting it directly.
					Vector vOffset = vNewPos - pCoreDisp->GetVert( index );

					// Modify the mapfile vert.
					CDispVert *pVert = &g_DispVerts[pDispInfo->m_iDispVertStart + index];
					pVert->m_vVector = (pVert->m_vVector * pVert->m_flDist) + vOffset;
					pVert->m_flDist = 1;

					// Modify the CCoreDispInfo vert (although it probably won't be used later).
					pCoreDisp->SetVert( index, vNewPos );
				}
				else
				{
					// This shouldn't happen because it would mean that the triangulation that 
					// disp_tesselation.h produced was missing a chunk of the space that the
					// displacement covers. 
					// It also could indicate a floating-point epsilon error.. check to see if
					// FindEnclosingTri finds a triangle that -almost- encloses the vert.
					Assert( false );
				}
			}
		}
	} 
}
示例#16
0
文件: vvis.cpp 项目: chrizonix/RCBot2
/*
============
LoadPortals
============
*/
void LoadPortals (char *name)
{
    int			i, j;
    portal_t	*p;
    leaf_t		*l;
    char		magic[80];
    int			numpoints;
    winding_t	*w;
    int			leafnums[2];
    plane_t		plane;

    FILE *f;

    // Open the portal file.
    if ( g_bUseMPI )
    {
        // If we're using MPI, copy off the file to a temporary first. This will download the file
        // from the MPI master, then we get to use nice functions like fscanf on it.
        char tempPath[MAX_PATH], tempFile[MAX_PATH];
        if ( GetTempPath( sizeof( tempPath ), tempPath ) == 0 )
        {
            Error( "LoadPortals: GetTempPath failed.\n" );
        }

        if ( GetTempFileName( tempPath, "vvis_portal_", 0, tempFile ) == 0 )
        {
            Error( "LoadPortals: GetTempFileName failed.\n" );
        }

        // Read all the data from the network file into memory.
        FileHandle_t hFile = g_pFileSystem->Open(name, "r");
        if ( hFile == FILESYSTEM_INVALID_HANDLE )
            Error( "LoadPortals( %s ): couldn't get file from master.\n", name );

        CUtlVector<char> data;
        data.SetSize( g_pFileSystem->Size( hFile ) );
        g_pFileSystem->Read( data.Base(), data.Count(), hFile );
        g_pFileSystem->Close( hFile );

        // Dump it into a temp file.
        f = fopen( tempFile, "wt" );
        fwrite( data.Base(), 1, data.Count(), f );
        fclose( f );

        // Open the temp file up.
        f = fopen( tempFile, "rSTD" ); // read only, sequential, temporary, delete on close
    }
    else
    {
        f = fopen( name, "r" );
    }

    if ( !f )
        Error ("LoadPortals: couldn't read %s\n",name);

    if (fscanf (f,"%79s\n%i\n%i\n",magic, &portalclusters, &g_numportals) != 3)
        Error ("LoadPortals: failed to read header");
    if (stricmp(magic,PORTALFILE))
        Error ("LoadPortals: not a portal file");

    Msg ("%4i portalclusters\n", portalclusters);
    Msg ("%4i numportals\n", g_numportals);

    if (g_numportals * 2 >= MAX_PORTALS)
    {
        Error("The map overflows the max portal count (%d of max %d)!\n", g_numportals, MAX_PORTALS / 2 );
    }

    // these counts should take advantage of 64 bit systems automatically
    leafbytes = ((portalclusters+63)&~63)>>3;
    leaflongs = leafbytes/sizeof(long);

    portalbytes = ((g_numportals*2+63)&~63)>>3;
    portallongs = portalbytes/sizeof(long);

// each file portal is split into two memory portals
    portals = (portal_t*)malloc(2*g_numportals*sizeof(portal_t));
    memset (portals, 0, 2*g_numportals*sizeof(portal_t));

    leafs = (leaf_t*)malloc(portalclusters*sizeof(leaf_t));
    memset (leafs, 0, portalclusters*sizeof(leaf_t));

    originalvismapsize = portalclusters*leafbytes;
    uncompressedvis = (byte*)malloc(originalvismapsize);

    vismap = vismap_p = dvisdata;
    dvis->numclusters = portalclusters;
    vismap_p = (byte *)&dvis->bitofs[portalclusters];

    vismap_end = vismap + MAX_MAP_VISIBILITY;

    for (i=0, p=portals ; i<g_numportals ; i++)
    {
        if (fscanf (f, "%i %i %i ", &numpoints, &leafnums[0], &leafnums[1])
                != 3)
            Error ("LoadPortals: reading portal %i", i);
        if (numpoints > MAX_POINTS_ON_WINDING)
            Error ("LoadPortals: portal %i has too many points", i);
        if ( (unsigned)leafnums[0] > portalclusters
                || (unsigned)leafnums[1] > portalclusters)
            Error ("LoadPortals: reading portal %i", i);

        w = p->winding = NewWinding (numpoints);
        w->original = true;
        w->numpoints = numpoints;

        for (j=0 ; j<numpoints ; j++)
        {
            double	v[3];
            int		k;

            // scanf into double, then assign to vec_t
            // so we don't care what size vec_t is
            if (fscanf (f, "(%lf %lf %lf ) "
                        , &v[0], &v[1], &v[2]) != 3)
                Error ("LoadPortals: reading portal %i", i);
            for (k=0 ; k<3 ; k++)
                w->points[j][k] = v[k];
        }
        fscanf (f, "\n");

        // calc plane
        PlaneFromWinding (w, &plane);

        // create forward portal
        l = &leafs[leafnums[0]];
        if (l->numportals == MAX_PORTALS_ON_LEAF)
            Error ("Leaf %d (portal %d) with too many portals. Use vbsp -glview to compile, then glview -portal -portalhighlight X or -leafhighlight L to view the problem.", leafnums[0], i );
        l->portals[l->numportals] = p;
        l->numportals++;

        p->winding = w;
        VectorSubtract (vec3_origin, plane.normal, p->plane.normal);
        p->plane.dist = -plane.dist;
        p->leaf = leafnums[1];
        SetPortalSphere (p);
        p++;

        // create backwards portal
        l = &leafs[leafnums[1]];
        if (l->numportals == MAX_PORTALS_ON_LEAF)
            Error ("Leaf %d (portal %d) with too many portals. Use vbsp -glview to compile, then glview -portal -portalhighlight X or -leafhighlight L to view the problem.", leafnums[1], i );
        l->portals[l->numportals] = p;
        l->numportals++;

        p->winding = NewWinding(w->numpoints);
        p->winding->numpoints = w->numpoints;
        for (j=0 ; j<w->numpoints ; j++)
        {
            VectorCopy (w->points[w->numpoints-1-j], p->winding->points[j]);
        }

        p->plane = plane;
        p->leaf = leafnums[0];
        SetPortalSphere (p);
        p++;

    }

    fclose (f);
}
示例#17
0
// adds all displacement faces as a series of convex objects
// UNDONE: Only add the displacements for this model?
void Disp_AddCollisionModels( CUtlVector<CPhysCollisionEntry *> &collisionList, dmodel_t *pModel, int contentsMask )
{
	int dispIndex;

	// Add each displacement to the grid hash
	for ( dispIndex = 0; dispIndex < g_CoreDispInfos.Count(); dispIndex++ )	
	{
		CCoreDispInfo *pDispInfo = &g_CoreDispInfos[ dispIndex ];
		mapdispinfo_t *pMapDisp = &mapdispinfo[ dispIndex ];

		// not solid for this pass
		if ( !(pMapDisp->contents & contentsMask) )
			continue;

		int gridIndex = Disp_GridIndex( pDispInfo );
		AddToGrid( gridIndex, dispIndex );
	}

	// now make a polysoup for the terrain in each grid
	for ( int grid = 0; grid < gDispGridList.Count(); grid++ )
	{
		int triCount = 0;
		CPhysPolysoup *pTerrainPhysics = physcollision->PolysoupCreate();

		// iterate the displacements in this grid
		for ( int listIndex = 0; listIndex < gDispGridList[grid].dispList.Count(); listIndex++ )
		{
			dispIndex = gDispGridList[grid].dispList[listIndex];
			CCoreDispInfo *pDispInfo = &g_CoreDispInfos[ dispIndex ];
			mapdispinfo_t *pMapDisp = &mapdispinfo[ dispIndex ];

			// Get the material id.
			MaterialSystemMaterial_t matID = GetMatIDFromDisp( pMapDisp );

			// Get the triangle count.
			int nTriCount = pDispInfo->GetTriCount();
			if ( nTriCount >= 0xFFFF )
			{
				// if we hit this error, it's probably time to make the grid adaptive (DISP_GRID_SIZEX,etc)
				Error("Terrain collision overflow!\n");
			}

			// Convert the tristrip into a triangle list.			
			CUtlVector<unsigned short> indices;
			indices.SetSize( nTriCount * 3 );
			for ( int iTri = 0; iTri < nTriCount; ++iTri )
			{
				unsigned short iVert0, iVert1, iVert2;
				pDispInfo->GetTriIndices( iTri, iVert0, iVert1, iVert2 );
				indices[iTri*3] =  iVert0;
				indices[iTri*3+1] = iVert1;
				indices[iTri*3+2] = iVert2;
			}

			Vector tmpVerts[3];
			for ( iTri = 0; iTri < nTriCount; ++iTri )
			{
				float flAlphaTotal = 0.0f;
				for ( int iTriVert = 0; iTriVert < 3; ++iTriVert )
				{
					pDispInfo->GetVert( indices[iTri*3+iTriVert], tmpVerts[iTriVert] );
					flAlphaTotal += pDispInfo->GetAlpha( indices[iTri*3+iTriVert] );
				}

				int nProp = g_SurfaceProperties[texinfo[pMapDisp->face.texinfo].texdata];
				if ( flAlphaTotal > DISP_ALPHA_PROP_DELTA )
				{
					int nProp2 = GetSurfaceProperties2( matID, "surfaceprop2" );
					if ( nProp2 != -1 )
					{
						nProp = nProp2;
					}
				}
				int nMaterialIndex = RemapWorldMaterial( nProp );

				physcollision->PolysoupAddTriangle( pTerrainPhysics, tmpVerts[0], tmpVerts[1], tmpVerts[2], nMaterialIndex );
			}
		}

		// convert the whole grid's polysoup to a collide and store in the collision list
		CPhysCollide *pCollide = physcollision->ConvertPolysoupToCollide( pTerrainPhysics );
		if ( pCollide )
		{
			collisionList.AddToTail( new CPhysCollisionEntryStaticMesh( pCollide, NULL ) );	
		}
		// now that we have the collide, we're done with the soup
		physcollision->PolysoupDestroy( pTerrainPhysics );
	}
}
示例#18
0
void EmitDispLMAlphaAndNeighbors()
{
	int i;

	Msg( "Finding displacement neighbors...\n" );

	// Do lightmap alpha.
    g_DispLightmapAlpha.RemoveAll();

	// Build the CCoreDispInfos.
	CUtlVector<dface_t*> faces;

	// Create the core dispinfos and init them for use as CDispUtilsHelpers.
	g_CoreDispInfos.SetSize( nummapdispinfo );
	for ( i=0; i < nummapdispinfo; i++ )
	{
		g_CoreDispInfos[i].SetDispUtilsHelperInfo( g_CoreDispInfos.Base(), nummapdispinfo );
	}

	faces.SetSize( nummapdispinfo );

	for( i = 0; i < numfaces; i++ )
	{
        dface_t *pFace = &dfaces[i];

		if( pFace->dispinfo == -1 )
			continue;

		mapdispinfo_t *pMapDisp = &mapdispinfo[pFace->dispinfo];
		
		// Set the displacement's face index.
		ddispinfo_t *pDisp = &g_dispinfo[pFace->dispinfo];
		pDisp->m_iMapFace = i;

		// Get a CCoreDispInfo. All we need is the triangles and lightmap texture coordinates.
		CCoreDispInfo *pCoreDispInfo = &g_CoreDispInfos[pFace->dispinfo];
		DispMapToCoreDispInfo( pMapDisp, pCoreDispInfo, pFace );
		
		faces[pFace->dispinfo] = pFace;
	}

	
	// Generate and export neighbor data.
	ExportNeighborData( g_CoreDispInfos.Base(), g_dispinfo.Base(), nummapdispinfo );

	// Generate and export the active vert lists.
	ExportAllowedVertLists( g_CoreDispInfos.Base(), g_dispinfo.Base(), nummapdispinfo );

	Msg( "Finding lightmap sample positions...\n" );
	for ( i=0; i < nummapdispinfo; i++ )
	{
		dface_t *pFace = faces[i];
		ddispinfo_t *pDisp = &g_dispinfo[pFace->dispinfo];
		CCoreDispInfo *pCoreDispInfo = &g_CoreDispInfos[i];

		pDisp->m_iLightmapSamplePositionStart = g_DispLightmapSamplePositions.Count();

		CalculateLightmapSamplePositions( 
			pCoreDispInfo, 
			pFace,
			g_DispLightmapSamplePositions );
	}


	StartPacifier( "Displacement Alpha : ");

	// Build lightmap alphas.
	int dispCount = 0;	// How many we've processed.
	for( i = 0; i < nummapdispinfo; i++ )
	{
        dface_t *pFace = faces[i];

		Assert( pFace->dispinfo == i );
		mapdispinfo_t *pMapDisp = &mapdispinfo[pFace->dispinfo];
		ddispinfo_t *pDisp = &g_dispinfo[pFace->dispinfo];

		CCoreDispInfo *pCoreDispInfo = &g_CoreDispInfos[i];

		// Allocate space for the alpha values.
		pDisp->m_iLightmapAlphaStart = g_DispLightmapAlpha.Count();
		int nLuxelsToAdd = (pFace->m_LightmapTextureSizeInLuxels[0]+1) * (pFace->m_LightmapTextureSizeInLuxels[1]+1);
		g_DispLightmapAlpha.AddMultipleToTail( nLuxelsToAdd );

		DispUpdateLightmapAlpha( 
			g_CoreDispInfos.Base(),
			i,
			(float)dispCount     / g_dispinfo.Count(),
			(float)(dispCount+1) / g_dispinfo.Count(),
			pDisp, 
			pFace->m_LightmapTextureSizeInLuxels[0],
			pFace->m_LightmapTextureSizeInLuxels[1] );
	
		++dispCount;
	}

	EndPacifier();
}
int main(int argc, char* argv[])
{
	SpewOutputFunc( MySpewFunc );

	// Figure out a random port to use.
	CCycleCount cnt;
	cnt.Sample();
	CUniformRandomStream randomStream;
	randomStream.SetSeed( cnt.GetMicroseconds() );
	int iPort = randomStream.RandomInt( 20000, 30000 );


	g_ClientPacketEvent.Init( false, false );

	
	// Setup the "server".
	CHandlerCreator_Server serverHandler;
	CIPAddr addr( 127, 0, 0, 1, iPort );

	ITCPConnectSocket *pListener = ThreadedTCP_CreateListener( 
		&serverHandler,
		(unsigned short)iPort );

	
	// Setup the "client".
	CHandlerCreator_Client clientCreator;
	ITCPConnectSocket *pConnector = ThreadedTCP_CreateConnector( 
		CIPAddr( 127, 0, 0, 1, iPort ),
		CIPAddr(),
		&clientCreator );


	// Wait for them to connect.
	while ( !g_pClientSocket )
	{
		if ( !pConnector->Update( &g_pClientSocket ) )
		{
			Error( "Error in client connector!\n" );
		}
	}
	pConnector->Release();


	while ( !g_pServerSocket )
	{
		if ( !pListener->Update( &g_pServerSocket ) )
			Error( "Error in server connector!\n" );
	}
	pListener->Release();


	// Send some data.
	__int64 totalBytes = 0;
	CCycleCount startTime;
	int iPacket = 1;

	startTime.Sample();
	CUtlVector<char> buf;

	while ( (GetAsyncKeyState( VK_SHIFT ) & 0x8000) == 0 )
	{
		int size = randomStream.RandomInt( 1024*0, 1024*320 );
		if ( buf.Count() < size )
			buf.SetSize( size );

		if ( g_pClientSocket->Send( buf.Base(), size ) )
		{
			// Server receives the data and echoes it back. Verify that the data is good.
			WaitForSingleObject( g_ClientPacketEvent.GetEventHandle(), INFINITE );
			Assert( memcmp( g_ClientPacket.Base(), buf.Base(), size ) == 0 );

			totalBytes += size;
			CCycleCount curTime, elapsed;
			curTime.Sample();
			CCycleCount::Sub( curTime, startTime, elapsed );
			double flSeconds = elapsed.GetSeconds();
			Msg( "Packet %d, %d bytes, %dk/sec\n", iPacket++, size, (int)(((totalBytes+511)/1024) / flSeconds) );
		}
	}
	
	g_pClientSocket->Release();
	g_pServerSocket->Release();
	return 0;
}
static LRESULT CALLBACK TrackerWindowProc( HWND hwnd, UINT uMsg, WPARAM wParam, LPARAM lParam )
{
	switch( uMsg )
	{
		case WM_PAINT:
		{
			// Do one pass for each color..
			HBRUSH hStateColors[ARRAYSIZE( g_StateColors )];
			for ( int i=0; i < ARRAYSIZE( hStateColors ); i++ )
				hStateColors[i] = CreateSolidBrush( g_StateColors[i] );

			// Copy the WU statuses.
			CUtlVector<CWUStatus> wuStatus;
			EnterCriticalSection( &g_CS );

			g_nLastDrawnChanges = g_nChanges;
			wuStatus.SetSize( g_WUStatus.Count() );
			memcpy( wuStatus.Base(), g_WUStatus.Base(), wuStatus.Count() * sizeof( wuStatus[0] ) );

			LeaveCriticalSection( &g_CS );

			PAINTSTRUCT ps;
			HDC hDC = BeginPaint( hwnd, &ps );		
			for ( int iState=0; iState < ARRAYSIZE( hStateColors ); iState++ )
			{
				HGDIOBJ hOldObj = SelectObject( hDC, hStateColors[iState] );

				for ( int iWU=0; iWU < wuStatus.Count(); iWU++ )
				{
					if ( wuStatus[iWU].m_iState != iState )
						continue;
					
					RECT &rc = wuStatus[iWU].m_Rect;
					Rectangle( hDC, rc.left, rc.top, rc.right, rc.bottom );
				}
				
				SelectObject( hDC, hOldObj );
				DeleteObject( hStateColors[iState] );
			}
			EndPaint( hwnd, &ps );
		}
		break;
		
		case WM_SIZE:
		{
			int width = LOWORD( lParam );
			int height = HIWORD( lParam );
			
			g_LastSizeX = width;
			g_LastSizeY = height;
			
			// Figure out the rectangles for everything.
			int nWorkUnits = g_WUStatus.Count();
			
			// What is the max width of the grid elements so they will fit in the width and height.
			int testSize;
			for ( testSize=20; testSize > 1; testSize-- )
			{
				int nX = width / testSize;
				int nY = height / testSize;
				if ( nX * nY >= nWorkUnits )
					break;
			}
			static int minTestSize = 3;
			testSize = max( testSize, minTestSize );
			
			int xPos=0, yPos=0;
			for ( int i=0; i < nWorkUnits; i++ )
			{
				g_WUStatus[i].m_Rect.left = xPos;
				g_WUStatus[i].m_Rect.top = yPos;
				g_WUStatus[i].m_Rect.right = xPos + testSize;
				g_WUStatus[i].m_Rect.bottom = yPos + testSize;
				
				xPos += testSize;
				if ( (xPos+testSize) > width )
				{
					yPos += testSize;
					xPos = 0;
				}
			}
		}
		break;
	}
	
	return DefWindowProc( hwnd, uMsg, wParam, lParam );
}
示例#21
0
//-----------------------------------------
//
// Run BasePortalVis across all available processing nodes
// Then collect and redistribute the results.
//
void RunMPIBasePortalVis()
{
	int i;

	Msg( "\n\nportalbytes: %d\nNum Work Units: %d\nTotal data size: %d\n", portalbytes, g_numportals*2, portalbytes*g_numportals*2 );
    Msg("%-20s ", "BasePortalVis:");
	if ( g_bMPIMaster )
		StartPacifier("");


	VMPI_SetCurrentStage( "RunMPIBasePortalVis" );

	// Note: we're aiming for about 1500 portals in a map, so about 3000 work units.
	g_CPUTime.Init();
	double elapsed = DistributeWork( 
		g_numportals * 2,		// # work units
		VMPI_DISTRIBUTEWORK_PACKETID,	// packet ID
		ProcessBasePortalVis,	// Worker function to process work units
		ReceiveBasePortalVis	// Master function to receive work results
		);

	if ( g_bMPIMaster )
	{
		EndPacifier( false );
		Msg( " (%d)\n", (int)elapsed );
	}
	
	//
	// Distribute the results to all the workers.
	//
	if ( g_bMPIMaster )
	{
		if ( !fastvis )
		{
			VMPI_SetCurrentStage( "SendPortalResults" );

			// Store all the portal results in a temp file and multicast that to the workers.
			CUtlVector<char> allPortalData;
			allPortalData.SetSize( g_numportals * 2 * portalbytes * 2 );

			char *pOut = allPortalData.Base();
			for ( i=0; i < g_numportals * 2; i++) 
			{
				portal_t *p = &portals[i];
				
				memcpy( pOut, p->portalfront, portalbytes );
				pOut += portalbytes;
				
				memcpy( pOut, p->portalflood, portalbytes );
				pOut += portalbytes;
			}

			const char *pVirtualFilename = "--portal-results--";
			VMPI_FileSystem_CreateVirtualFile( pVirtualFilename, allPortalData.Base(), allPortalData.Count() );

			char cPacketID[2] = { VMPI_VVIS_PACKET_ID, VMPI_BASEPORTALVIS_RESULTS };
			VMPI_Send2Chunks( cPacketID, sizeof( cPacketID ), pVirtualFilename, strlen( pVirtualFilename ) + 1, VMPI_PERSISTENT );
		}
	}
	else
	{
		VMPI_SetCurrentStage( "RecvPortalResults" );

		// Wait until we've received the filename from the master.
		while ( g_BasePortalVisResultsFilename.Count() == 0 )
		{
			VMPI_DispatchNextMessage();
		}

		// Open 
		FileHandle_t fp = g_pFileSystem->Open( g_BasePortalVisResultsFilename.Base(), "rb", VMPI_VIRTUAL_FILES_PATH_ID );
		if ( !fp )
			Error( "Can't open '%s' to read portal info.", g_BasePortalVisResultsFilename.Base() );

		for ( i=0; i < g_numportals * 2; i++) 
		{
			portal_t *p = &portals[i];

			p->portalfront = (byte*)malloc (portalbytes);
			g_pFileSystem->Read( p->portalfront, portalbytes, fp );
			
			p->portalflood = (byte*)malloc (portalbytes);
			g_pFileSystem->Read( p->portalflood, portalbytes, fp );
		
			p->portalvis = (byte*)malloc (portalbytes);
			memset (p->portalvis, 0, portalbytes);
		
			p->nummightsee = CountBits (p->portalflood, g_numportals*2);
		}

		g_pFileSystem->Close( fp );
	}

	
	if ( !g_bMPIMaster )
	{
		if ( g_iVMPIVerboseLevel >= 1 )
			Msg( "\n%% worker CPU utilization during BasePortalVis: %.1f\n", (g_CPUTime.GetSeconds() * 100.0f / elapsed) / numthreads );
	}
}
示例#22
0
void EmitDispLMAlphaAndNeighbors()
{
	int i;

	Msg( "Finding displacement neighbors...\n" );

	// Build the CCoreDispInfos.
	CUtlVector<dface_t*> faces;

	// Create the core dispinfos and init them for use as CDispUtilsHelpers.
	for ( int iDisp = 0; iDisp < nummapdispinfo; ++iDisp )
	{
		CCoreDispInfo *pDisp = new CCoreDispInfo;
		if ( !pDisp )
		{
			g_CoreDispInfos.Purge();
			return;
		}

		int nIndex = g_CoreDispInfos.AddToTail();
		pDisp->SetListIndex( nIndex );
		g_CoreDispInfos[nIndex] = pDisp;
	}

	for ( i=0; i < nummapdispinfo; i++ )
	{
		g_CoreDispInfos[i]->SetDispUtilsHelperInfo( g_CoreDispInfos.Base(), nummapdispinfo );
	}

	faces.SetSize( nummapdispinfo );

	for( i = 0; i < numfaces; i++ )
	{
        dface_t *pFace = &dfaces[i];

		if( pFace->dispinfo == -1 )
			continue;

		mapdispinfo_t *pMapDisp = &mapdispinfo[pFace->dispinfo];
		
		// Set the displacement's face index.
		ddispinfo_t *pDisp = &g_dispinfo[pFace->dispinfo];
		pDisp->m_iMapFace = i;

		// Get a CCoreDispInfo. All we need is the triangles and lightmap texture coordinates.
		CCoreDispInfo *pCoreDispInfo = g_CoreDispInfos[pFace->dispinfo];
		DispMapToCoreDispInfo( pMapDisp, pCoreDispInfo, pFace );
		
		faces[pFace->dispinfo] = pFace;
	}

	
	// Generate and export neighbor data.
	ExportNeighborData( g_CoreDispInfos.Base(), g_dispinfo.Base(), nummapdispinfo );

	// Generate and export the active vert lists.
	ExportAllowedVertLists( g_CoreDispInfos.Base(), g_dispinfo.Base(), nummapdispinfo );

	
	// Now that we know which vertices are actually going to be around, snap the ones that won't
	// be around onto the slightly-reduced mesh. This is so the engine's ray test code and 
	// overlay code works right.
	SnapRemainingVertsToSurface( g_CoreDispInfos.Base(), g_dispinfo.Base(), nummapdispinfo );

	Msg( "Finding lightmap sample positions...\n" );
	for ( i=0; i < nummapdispinfo; i++ )
	{
		dface_t *pFace = faces[i];
		ddispinfo_t *pDisp = &g_dispinfo[pFace->dispinfo];
		CCoreDispInfo *pCoreDispInfo = g_CoreDispInfos[i];

		pDisp->m_iLightmapSamplePositionStart = g_DispLightmapSamplePositions.Count();

		CalculateLightmapSamplePositions( pCoreDispInfo, pFace, g_DispLightmapSamplePositions );
	}

	StartPacifier( "Displacement Alpha : ");

	// Build lightmap alphas.
	int dispCount = 0;	// How many we've processed.
	for( i = 0; i < nummapdispinfo; i++ )
	{
        dface_t *pFace = faces[i];

		Assert( pFace->dispinfo == i );
		mapdispinfo_t *pMapDisp = &mapdispinfo[pFace->dispinfo];
		ddispinfo_t *pDisp = &g_dispinfo[pFace->dispinfo];

		CCoreDispInfo *pCoreDispInfo = g_CoreDispInfos[i];

		// Allocate space for the alpha values.
		pDisp->m_iLightmapAlphaStart = 0; // not used anymore
		
		++dispCount;
	}

	EndPacifier();
}