* Removed q3map and associated common and libs directories

git-svn-id: svn://svn.icculus.org/quake3/trunk@123 edf5b092-35ff-0310-97b2-ce42778d08ea

1 files changed, 0 insertions, 5748 deletions

diff --git a/q3map/lightv.c b/q3map/lightv.c
deleted file mode 100644
index 3e9617b..0000000
--- a/q3map/lightv.c
+++ /dev/null
@@ -1,5748 +0,0 @@
-/*
-===========================================================================
-Copyright (C) 1999-2005 Id Software, Inc.
-
-This file is part of Quake III Arena source code.
-
-Quake III Arena source code is free software; you can redistribute it
-and/or modify it under the terms of the GNU General Public License as
-published by the Free Software Foundation; either version 2 of the License,
-or (at your option) any later version.
-
-Quake III Arena source code is distributed in the hope that it will be
-useful, but WITHOUT ANY WARRANTY; without even the implied warranty of
-MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
-GNU General Public License for more details.
-
-You should have received a copy of the GNU General Public License
-along with Foobar; if not, write to the Free Software
-Foundation, Inc., 51 Franklin St, Fifth Floor, Boston, MA  02110-1301  USA
-===========================================================================
-*/
-
-
-#include "cmdlib.h"
-#include "mathlib.h"
-#include "bspfile.h"
-#include "imagelib.h"
-#include "threads.h"
-#include "mutex.h"
-#include "scriplib.h"
-
-#include "shaders.h"
-#include "mesh.h"
-
-#ifdef _WIN32
-//Improve floating-point consistency.
-#pragma optimize( "p", on )
-#endif
-
-#ifdef _WIN32
-#include "../libs/pakstuff.h"
-#endif
-
-#define MAX_CLUSTERS		16384
-#define	MAX_PORTALS			32768
-#define MAX_FACETS			65536
-#define MAX_LIGHTS			16384
-
-#define LIGHTMAP_SIZE		128
-
-#define LIGHTMAP_PIXELSHIFT		0.5
-
-//#define LIGHTMAP_PATCHSHIFT
-
-#define	PORTALFILE	"PRT1"
-
-#define	ON_EPSILON	0.1
-
-#define VectorSet(v, x, y, z)		v[0] = x;v[1] = y;v[2] = z;
-
-typedef struct
-{
-	vec3_t		normal;
-	float		dist;
-} plane_t;
-
-#define MAX_POINTS_ON_WINDING	64
-//NOTE: whenever this is overflowed parts of lightmaps might end up not being lit
-#define	MAX_POINTS_ON_FIXED_WINDING	48
-
-typedef struct
-{
-	int		numpoints;
-	vec3_t	points[MAX_POINTS_ON_FIXED_WINDING];			// variable sized
-} winding_t;
-
-typedef struct
-{
-	plane_t		plane;	// normal pointing into neighbor
-	int			leaf;	// neighbor
-	winding_t	*winding;
-	vec3_t		origin;	// for fast clip testing
-	float		radius;
-} lportal_t;
-
-#define	MAX_PORTALS_ON_LEAF		128
-typedef struct lleaf_s
-{
-	int			numportals;
-	lportal_t	*portals[MAX_PORTALS_ON_LEAF];
-	//
-	int			numSurfaces;
-	int			firstSurface;
-} lleaf_t;
-
-typedef struct lFacet_s
-{
-	int		num;
-	plane_t	plane;
-	vec3_t	points[4];				//
-	int		numpoints;
-	float	lightmapCoords[4][2];
-	plane_t boundaries[4];			// negative is outside the bounds
-	float	textureMatrix[2][4];	// texture coordinates for translucency
-	float	lightmapMatrix[2][4];	// lightmap texture coordinates
-	vec3_t	mins;
-	int		x, y, width, height;
-} lFacet_t;
-
-typedef struct lsurfaceTest_s
-{
-	vec3_t			mins, maxs;
-	vec3_t			origin;
-	float			radius;
-	qboolean		patch;			// true if this is a patch
-	qboolean		trisoup;		// true if this is a triangle soup
-	int				numFacets;
-	lFacet_t		*facets;
-	mesh_t			*detailMesh;	// detailed mesh with points for each lmp
-	shaderInfo_t	*shader;		// for translucency
-	mutex_t			*mutex;
-	int				numvolumes;		// number of volumes casted at this surface
-	//
-	int				always_tracelight;
-	int				always_vlight;
-} lsurfaceTest_t;
-
-//volume types
-#define VOLUME_NORMAL			0
-#define VOLUME_DIRECTED			1
-
-#define MAX_TRANSLUCENTFACETS	32
-
-typedef struct lightvolume_s
-{
-	int num;
-	int cluster;							//cluster this light volume started in
-	plane_t endplane;						//end plane
-	plane_t farplane;						//original end plane
-	vec3_t points[MAX_POINTS_ON_WINDING];	//end winding points
-	plane_t planes[MAX_POINTS_ON_WINDING];	//volume bounding planes
-	int numplanes;							//number of volume bounding planes
-	int type;								//light volume type
-	//list with translucent surfaces the volume went through
-	int transFacets[MAX_TRANSLUCENTFACETS];
-	int transSurfaces[MAX_TRANSLUCENTFACETS];
-	int numtransFacets;
-	//clusters already tested
-	byte clusterTested[MAX_CLUSTERS/8];
-	//facets already tested
-	byte facetTested[MAX_FACETS/8];
-	int facetNum;			//number of the facet blocking the light in this volume
-	int surfaceNum;			//number of the surface blocking the light in this volume
-} lightvolume_t;
-
-//light types
-#define LIGHT_POINTRADIAL			1
-#define LIGHT_POINTSPOT				2
-#define LIGHT_POINTFAKESURFACE		3
-#define LIGHT_SURFACEDIRECTED		4
-#define LIGHT_SURFACERADIAL			5
-#define LIGHT_SURFACESPOT			6
-
-//light distance attenuation types
-#define LDAT_QUADRATIC				0
-#define LDAT_LINEAR					1
-#define LDAT_NOSCALE				2
-
-//light angle attenuation types
-#define LAAT_NORMAL					0
-#define LAAT_QUADRATIC				1
-#define LAAT_DOUBLEQUADRATIC		2
-
-typedef struct vlight_s
-{
-	vec3_t origin;				//light origin, for point lights
-	winding_t w;				//light winding, for area lights
-	vec4_t plane;				//light winding plane
-	vec3_t normal;				//direction of the light
-	int type;					//light type
-	vec3_t color;				//light color
-	qboolean twosided;			//radiates light at both sides of the winding
-	int style;					//light style (not used)
-	int atten_disttype;			//light distance attenuation type
-	int atten_angletype;		//light angle attenuation type
-	float atten_distscale;		//distance attenuation scale
-	float atten_anglescale;		//angle attenuation scale
-	float radiusByDist;			//radius by distance for spot lights
-	float photons;				//emitted photons
-	float intensity;			//intensity
-	vec3_t emitColor;			//full out-of-gamut value (not used)
-	struct shaderInfo_s	*si;	//shader info
-	int insolid;				//set when light is in solid
-} vlight_t;
-
-float	lightLinearScale			= 1.0 / 8000;
-float	lightPointScale				= 7500;
-float	lightAreaScale				= 0.25;
-float	lightFormFactorValueScale	= 3;
-int		lightDefaultSubdivide		= 999;		// vary by surface size?
-vec3_t	lightAmbientColor;
-
-int			portalclusters, numportals, numfaces;
-lleaf_t		*leafs;
-lportal_t	*portals;
-int			numvlights = 0;
-vlight_t	*vlights[MAX_LIGHTS];
-int			nostitching = 0;
-int			noalphashading = 0;
-int			nocolorshading = 0;
-int			nobackfaceculling = 0;
-int			defaulttracelight = 0;
-int			radiosity = 0;
-int			radiosity_scale;
-
-int				clustersurfaces[MAX_MAP_LEAFFACES];
-int				numclustersurfaces = 0;
-lsurfaceTest_t	*lsurfaceTest[MAX_MAP_DRAW_SURFS];
-int				numfacets;
-float			lightmappixelarea[MAX_MAP_LIGHTING/3];
-float			*lightFloats;//[MAX_MAP_LIGHTING];
-
-// from polylib.c
-winding_t	*AllocWinding (int points);
-void		FreeWinding (winding_t *w);
-void		WindingCenter (winding_t *w, vec3_t center);
-void		WindingBounds (winding_t *w, vec3_t mins, vec3_t maxs);
-vec_t		WindingArea (winding_t *w);
-winding_t	*BaseWindingForPlane (vec3_t normal, vec_t dist);
-void		ClipWindingEpsilon (winding_t *in, vec3_t normal, vec_t dist, 
-				vec_t epsilon, winding_t **front, winding_t **back);
-winding_t	*ReverseWinding (winding_t *w);
-
-// from light.c
-extern char		source[1024];
-extern vec3_t	surfaceOrigin[ MAX_MAP_DRAW_SURFS ];
-extern int		entitySurface[ MAX_MAP_DRAW_SURFS ];
-extern int		samplesize;
-extern int		novertexlighting;
-extern int		nogridlighting;
-extern qboolean	patchshadows;
-extern vec3_t	gridSize;
-
-float PointToPolygonFormFactor( const vec3_t point, const vec3_t normal, const winding_t *w );
-void ColorToBytes( const float *color, byte *colorBytes );
-void CountLightmaps( void );
-void GridAndVertexLighting( void );
-void SetEntityOrigins( void );
-
-
-//#define DEBUGNET
-
-#ifdef DEBUGNET
-
-#include "l_net.h"
-
-socket_t *debug_socket;
-
-/*
-=====================
-DebugNet_Setup
-=====================
-*/
-void DebugNet_Setup(void)
-{
-	address_t address;
-	int i;
-
-	Net_Setup();
-	Net_StringToAddress("127.0.0.1:28000", &address);
-	for (i = 0; i < 10; i++)
-	{
-		debug_socket = Net_Connect(&address, 28005 + i);
-		if (debug_socket)
-			break;
-	}
-}
-
-/*
-=====================
-DebugNet_Shutdown
-=====================
-*/
-void DebugNet_Shutdown(void)
-{
-	netmessage_t msg;
-
-	if (debug_socket)
-	{
-		NMSG_Clear(&msg);
-		NMSG_WriteByte(&msg, 1);
-		Net_Send(debug_socket, &msg);
-		Net_Disconnect(debug_socket);
-	}
-	debug_socket = NULL;
-	Net_Shutdown();
-}
-
-/*
-=====================
-DebugNet_RemoveAllPolys
-=====================
-*/
-void DebugNet_RemoveAllPolys(void)
-{
-	netmessage_t msg;
-
-	if (!debug_socket)
-		return;
-	NMSG_Clear(&msg);
-	NMSG_WriteByte(&msg, 2);		//remove all debug polys
-	Net_Send(debug_socket, &msg);
-}
-
-/*
-====================
-DebugNet_DrawWinding
-=====================
-*/
-void DebugNet_DrawWinding(winding_t *w, int color)
-{
-	netmessage_t msg;
-	int i;
-
-	if (!debug_socket)
-		return;
-	NMSG_Clear(&msg);
-	NMSG_WriteByte(&msg, 0);				//draw a winding
-	NMSG_WriteByte(&msg, w->numpoints);		//number of points
-	NMSG_WriteLong(&msg, color);			//color
-	for (i = 0; i < w->numpoints; i++)
-	{
-		NMSG_WriteFloat(&msg, w->points[i][0]);
-		NMSG_WriteFloat(&msg, w->points[i][1]);
-		NMSG_WriteFloat(&msg, w->points[i][2]);
-	}
-	Net_Send(debug_socket, &msg);
-}
-
-/*
-=====================
-DebugNet_DrawLine
-=====================
-*/
-void DebugNet_DrawLine(vec3_t p1, vec3_t p2, int color)
-{
-	netmessage_t msg;
-
-	if (!debug_socket)
-		return;
-	NMSG_Clear(&msg);
-	NMSG_WriteByte(&msg, 1);				//draw a line
-	NMSG_WriteLong(&msg, color);			//color
-	NMSG_WriteFloat(&msg, p1[0]);
-	NMSG_WriteFloat(&msg, p1[1]);
-	NMSG_WriteFloat(&msg, p1[2]);
-	NMSG_WriteFloat(&msg, p2[0]);
-	NMSG_WriteFloat(&msg, p2[1]);
-	NMSG_WriteFloat(&msg, p2[2]);
-	Net_Send(debug_socket, &msg);
-}
-
-/*
-=====================
-DebugNet_DrawMesh
-=====================
-*/
-void DebugNet_DrawMesh(mesh_t *mesh)
-{
-	int i, j;
-	float dot;
-	drawVert_t	*v1, *v2, *v3, *v4;
-	winding_t winding;
-	plane_t plane;
-	vec3_t d1, d2;
-
-	for ( i = 0 ; i < mesh->width - 1 ; i++ ) {
-		for ( j = 0 ; j < mesh->height - 1 ; j++ ) {
-
-			v1 = mesh->verts + j * mesh->width + i;
-			v2 = v1 + 1;
-			v3 = v1 + mesh->width + 1;
-			v4 = v1 + mesh->width;
-
-			VectorSubtract( v4->xyz, v1->xyz, d1 );
-			VectorSubtract( v3->xyz, v1->xyz, d2 );
-			CrossProduct( d2, d1, plane.normal );
-			if ( VectorNormalize( plane.normal, plane.normal ) != 0 )
-			{
-				plane.dist = DotProduct( v1->xyz, plane.normal );
-				dot = DotProduct(plane.normal, v2->xyz) - plane.dist;
-				if (fabs(dot) < 0.1)
-				{
-					VectorCopy(v1->xyz, winding.points[0]);
-					VectorCopy(v4->xyz, winding.points[1]);
-					VectorCopy(v3->xyz, winding.points[2]);
-					VectorCopy(v2->xyz, winding.points[3]);
-					winding.numpoints = 4;
-					DebugNet_DrawWinding(&winding, 2);
-					continue;
-				}
-			}
-
-			winding.numpoints = 3;
-			VectorCopy(v1->xyz, winding.points[0]);
-			VectorCopy(v4->xyz, winding.points[1]);
-			VectorCopy(v3->xyz, winding.points[2]);
-			DebugNet_DrawWinding(&winding, 2);
-
-			VectorCopy(v1->xyz, winding.points[0]);
-			VectorCopy(v3->xyz, winding.points[1]);
-			VectorCopy(v2->xyz, winding.points[2]);
-			DebugNet_DrawWinding(&winding, 2);
-		}
-	}
-}
-
-/*
-=====================
-VL_DrawLightVolume
-=====================
-*/
-int VL_ChopWinding (winding_t *in, plane_t *split, float epsilon);
-
-void VL_DrawLightVolume(vlight_t *light, lightvolume_t *volume)
-{
-	winding_t w;
-	int i;
-	vec3_t p2, invlight;
-
-	memcpy(w.points, volume->points, volume->numplanes * sizeof(vec3_t));
-	w.numpoints = volume->numplanes;
-	DebugNet_DrawWinding(&w, 2);
-
-	if (volume->type == VOLUME_DIRECTED)
-	{
-		VectorCopy(light->normal, invlight);
-		VectorInverse(invlight);
-		for (i = 0; i < volume->numplanes; i++)
-		{
-			VectorCopy(volume->points[i], w.points[0]);
-			VectorCopy(volume->points[(i+1) % volume->numplanes], w.points[1]);
-			VectorMA(w.points[1], MAX_WORLD_COORD, invlight, w.points[2]);
-			VectorMA(w.points[0], MAX_WORLD_COORD, invlight, w.points[3]);
-			w.numpoints = 4;
-			DebugNet_DrawWinding(&w, 2);
-			VectorMA(volume->points[i], 8, volume->planes[i].normal, p2);
-			DebugNet_DrawLine(volume->points[i], p2, 3);
-		}
-	}
-	else
-	{
-		//
-		VectorCopy(light->origin, w.points[0]);
-		w.numpoints = 3;
-		for (i = 0; i < volume->numplanes; i++)
-		{
-			VectorCopy(volume->points[i], w.points[1]);
-			VectorCopy(volume->points[(i+1) % volume->numplanes], w.points[2]);
-			VL_ChopWinding(&w, &volume->endplane, 0);
-			DebugNet_DrawWinding(&w, 2);
-			VectorMA(volume->points[i], 8, volume->planes[i].normal, p2);
-			DebugNet_DrawLine(volume->points[i], p2, 3);
-		}
-	}
-}
-
-/*
-=============
-VL_DrawLightmapPixel
-=============
-*/
-void VL_DrawLightmapPixel(int surfaceNum, int x, int y, int color)
-{
-	winding_t w;
-	dsurface_t *ds;
-	mesh_t *mesh;
-
-	ds = &drawSurfaces[surfaceNum];
-
-	if (ds->surfaceType == MST_PATCH)
-	{
-		mesh = lsurfaceTest[surfaceNum]->detailMesh;
-		VectorCopy( mesh->verts[(y-ds->lightmapY)*mesh->width+x-ds->lightmapX].xyz, w.points[0]);
-		VectorCopy( mesh->verts[(y+1-ds->lightmapY)*mesh->width+x-ds->lightmapX].xyz, w.points[1]);
-		VectorCopy( mesh->verts[(y+1-ds->lightmapY)*mesh->width+x+1-ds->lightmapX].xyz, w.points[2]);
-		VectorCopy( mesh->verts[(y-ds->lightmapY)*mesh->width+x+1-ds->lightmapX].xyz, w.points[3]);
-		w.numpoints = 4;
-	}
-	else
-	{
-		VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT - ds->lightmapX, ds->lightmapVecs[0], w.points[0]);
-		VectorMA(w.points[0], (float) y - LIGHTMAP_PIXELSHIFT - ds->lightmapY, ds->lightmapVecs[1], w.points[0]);
-		VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT - ds->lightmapX, ds->lightmapVecs[0], w.points[1]);
-		VectorMA(w.points[1], (float) y - LIGHTMAP_PIXELSHIFT + 1 - ds->lightmapY, ds->lightmapVecs[1], w.points[1]);
-		VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT + 1 - ds->lightmapX, ds->lightmapVecs[0], w.points[2]);
-		VectorMA(w.points[2], (float) y - LIGHTMAP_PIXELSHIFT + 1 - ds->lightmapY, ds->lightmapVecs[1], w.points[2]);
-		VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT + 1 - ds->lightmapX, ds->lightmapVecs[0], w.points[3]);
-		VectorMA(w.points[3], (float) y - LIGHTMAP_PIXELSHIFT - ds->lightmapY, ds->lightmapVecs[1], w.points[3]);
-		w.numpoints = 4;
-	}
-	DebugNet_DrawWinding(&w, color);
-}
-
-/*
-============
-VL_DrawPortals
-============
-*/
-void VL_DrawPortals(void)
-{
-	int j;
-	lportal_t *p;
-
-	for (j = 0; j < numportals * 2; j++)
-	{
-		p = portals + j;
-		DebugNet_DrawWinding(p->winding, 1);
-	}
-}
-
-/*
-============
-VL_DrawLeaf
-============
-*/
-void VL_DrawLeaf(int cluster)
-{
-	int i;
-	lleaf_t *leaf;
-	lportal_t *p;
-
-	leaf = &leafs[cluster];
-	for (i = 0; i < leaf->numportals; i++)
-	{
-		p = leaf->portals[i];
-		DebugNet_DrawWinding(p->winding, 1);
-	}
-}
-
-#endif //DEBUGNET
-
-/*
-=============
-VL_SplitWinding
-=============
-*/
-int VL_SplitWinding (winding_t *in, winding_t *back, plane_t *split, float epsilon)
-{
-	vec_t	dists[128];
-	int		sides[128];
-	int		counts[3];
-	vec_t	dot;
-	int		i, j;
-	vec_t	*p1, *p2;
-	vec3_t	mid;
-	winding_t out;
-	winding_t	*neww;
-
-	counts[0] = counts[1] = counts[2] = 0;
-
-	// determine sides for each point
-	for (i=0 ; i<in->numpoints ; i++)
-	{
-		dot = DotProduct (in->points[i], split->normal);
-		dot -= split->dist;
-		dists[i] = dot;
-		if (dot > epsilon)
-			sides[i] = SIDE_FRONT;
-		else if (dot < -epsilon)
-			sides[i] = SIDE_BACK;
-		else
-		{
-			sides[i] = SIDE_ON;
-		}
-		counts[sides[i]]++;
-	}
-
-	if (!counts[SIDE_BACK])
-	{
-		if (!counts[SIDE_FRONT])
-			return SIDE_ON;
-		else
-			return SIDE_FRONT;
-	}
-	
-	if (!counts[SIDE_FRONT])
-	{
-		return SIDE_BACK;
-	}
-
-	sides[i] = sides[0];
-	dists[i] = dists[0];
-	
-	neww = &out;
-
-	neww->numpoints = 0;
-	back->numpoints = 0;
-
-	for (i=0 ; i<in->numpoints ; i++)
-	{
-		p1 = in->points[i];
-
-		if (neww->numpoints >= MAX_POINTS_ON_FIXED_WINDING)
-		{
-			_printf("WARNING: VL_SplitWinding -> MAX_POINTS_ON_FIXED_WINDING overflowed\n");
-			return SIDE_FRONT;		// can't chop -- fall back to original
-		}
-		if (back->numpoints >= MAX_POINTS_ON_FIXED_WINDING)
-		{
-			_printf("WARNING: VL_SplitWinding -> MAX_POINTS_ON_FIXED_WINDING overflowed\n");
-			return SIDE_FRONT;
-		}
-
-		if (sides[i] == SIDE_ON)
-		{
-			VectorCopy (p1, neww->points[neww->numpoints]);
-			neww->numpoints++;
-			VectorCopy (p1, back->points[back->numpoints]);
-			back->numpoints++;
-			continue;
-		}
-	
-		if (sides[i] == SIDE_FRONT)
-		{
-			VectorCopy (p1, neww->points[neww->numpoints]);
-			neww->numpoints++;
-		}
-		if (sides[i] == SIDE_BACK)
-		{
-			VectorCopy (p1, back->points[back->numpoints]);
-			back->numpoints++;
-		}
-		
-		if (sides[i+1] == SIDE_ON || sides[i+1] == sides[i])
-			continue;
-			
-		if (neww->numpoints >= MAX_POINTS_ON_FIXED_WINDING)
-		{
-			_printf("WARNING: VL_SplitWinding -> MAX_POINTS_ON_FIXED_WINDING overflowed\n");
-			return SIDE_FRONT;		// can't chop -- fall back to original
-		}
-
-		if (back->numpoints >= MAX_POINTS_ON_FIXED_WINDING)
-		{
-			_printf("WARNING: VL_SplitWinding -> MAX_POINTS_ON_FIXED_WINDING overflowed\n");
-			return SIDE_FRONT;		// can't chop -- fall back to original
-		}
-
-		// generate a split point
-		p2 = in->points[(i+1)%in->numpoints];
-		
-		dot = dists[i] / (dists[i]-dists[i+1]);
-		for (j=0 ; j<3 ; j++)
-		{	// avoid round off error when possible
-			if (split->normal[j] == 1)
-				mid[j] = split->dist;
-			else if (split->normal[j] == -1)
-				mid[j] = -split->dist;
-			else
-				mid[j] = p1[j] + dot*(p2[j]-p1[j]);
-		}
-			
-		VectorCopy (mid, neww->points[neww->numpoints]);
-		neww->numpoints++;
-		VectorCopy (mid, back->points[back->numpoints]);
-		back->numpoints++;
-	}
-	memcpy(in, &out, sizeof(winding_t));
-	
-	return SIDE_CROSS;
-}
-
-/*
-=====================
-VL_LinkSurfaceIntoCluster
-=====================
-*/
-void VL_LinkSurfaceIntoCluster(int cluster, int surfaceNum)
-{
-	lleaf_t *leaf;
-	int i;
-
-	leaf = &leafs[cluster];
-
-	for (i = 0; i < leaf->numSurfaces; i++)
-	{
-		if (clustersurfaces[leaf->firstSurface + i] == surfaceNum)
-			return;
-	}
-	for (i = numclustersurfaces; i > leaf->firstSurface + leaf->numSurfaces; i--)
-		clustersurfaces[i] = clustersurfaces[i-1];
-	for (i = 0; i < portalclusters; i++)
-	{
-		if (i == cluster)
-			continue;
-		if (leafs[i].firstSurface >= leaf->firstSurface + leaf->numSurfaces)
-			leafs[i].firstSurface++;
-	}
-	clustersurfaces[leaf->firstSurface + leaf->numSurfaces] = surfaceNum;
-	leaf->numSurfaces++;
-	numclustersurfaces++;
-	if (numclustersurfaces >= MAX_MAP_LEAFFACES)
-		Error("MAX_MAP_LEAFFACES");
-}
-
-/*
-=====================
-VL_R_LinkSurface
-=====================
-*/
-void VL_R_LinkSurface(int nodenum, int surfaceNum, winding_t *w)
-{
-	int leafnum, cluster, res;
-	dnode_t *node;
-	dplane_t *plane;
-	winding_t back;
-	plane_t split;
-
-	while(nodenum >= 0)
-	{
-		node = &dnodes[nodenum];
-		plane = &dplanes[node->planeNum];
-
-		VectorCopy(plane->normal, split.normal);
-		split.dist = plane->dist;
-		res = VL_SplitWinding (w, &back, &split, 0.1);
-
-		if (res == SIDE_FRONT)
-		{
-			nodenum = node->children[0];
-		}
-		else if (res == SIDE_BACK)
-		{
-			nodenum = node->children[1];
-		}
-		else if (res == SIDE_ON)
-		{
-			memcpy(&back, w, sizeof(winding_t));
-			VL_R_LinkSurface(node->children[1], surfaceNum, &back);
-			nodenum = node->children[0];
-		}
-		else
-		{
-			VL_R_LinkSurface(node->children[1], surfaceNum, &back);
-			nodenum = node->children[0];
-		}
-	}
-	leafnum = -nodenum - 1;
-	cluster = dleafs[leafnum].cluster;
-	if (cluster != -1)
-	{
-		VL_LinkSurfaceIntoCluster(cluster, surfaceNum);
-	}
-}
-
-/*
-=====================
-VL_LinkSurfaces
-
-maybe link each facet seperately instead of the test surfaces?
-=====================
-*/
-void VL_LinkSurfaces(void)
-{
-	int i, j;
-	lsurfaceTest_t *test;
-	lFacet_t *facet;
-	winding_t winding;
-
-	for ( i = 0 ; i < numDrawSurfaces ; i++ )
-	{
-		test = lsurfaceTest[ i ];
-		if (!test)
-			continue;
-		for (j = 0; j < test->numFacets; j++)
-		{
-			facet = &test->facets[j];
-			memcpy(winding.points, facet->points, facet->numpoints * sizeof(vec3_t));
-			winding.numpoints = facet->numpoints;
-			VL_R_LinkSurface(0, i, &winding);
-		}
-	}
-}
-
-/*
-=====================
-VL_TextureMatrixFromPoints
-=====================
-*/
-void VL_TextureMatrixFromPoints( lFacet_t *f, drawVert_t *a, drawVert_t *b, drawVert_t *c ) {
-	int			i, j;
-	float		t;
-	float		m[3][4];
-	float		s;
-
-	// This is an incredibly stupid way of solving a three variable equation
-	for ( i = 0 ; i < 2 ; i++ ) {
-
-		m[0][0] = a->xyz[0];
-		m[0][1] = a->xyz[1];
-		m[0][2] = a->xyz[2];
-		m[0][3] = a->st[i];
-
-		m[1][0] = b->xyz[0];
-		m[1][1] = b->xyz[1];
-		m[1][2] = b->xyz[2];
-		m[1][3] = b->st[i];
-
-		m[2][0] = c->xyz[0];
-		m[2][1] = c->xyz[1];
-		m[2][2] = c->xyz[2];
-		m[2][3] = c->st[i];
-
-		if ( fabs(m[1][0]) > fabs(m[0][0]) && fabs(m[1][0]) > fabs(m[2][0]) ) {
-			for ( j = 0 ; j < 4 ; j ++ ) {
-				t = m[0][j];
-				m[0][j] = m[1][j];
-				m[1][j] = t;
-			}
-		} else if ( fabs(m[2][0]) > fabs(m[0][0]) && fabs(m[2][0]) > fabs(m[1][0]) ) {
-			for ( j = 0 ; j < 4 ; j ++ ) {
-				t = m[0][j];
-				m[0][j] = m[2][j];
-				m[2][j] = t;
-			}
-		}
-
-		s = 1.0 / m[0][0];
-		m[0][0] *= s;
-		m[0][1] *= s;
-		m[0][2] *= s;
-		m[0][3] *= s;
-
-		s = m[1][0];
-		m[1][0] -= m[0][0] * s;
-		m[1][1] -= m[0][1] * s;
-		m[1][2] -= m[0][2] * s;
-		m[1][3] -= m[0][3] * s;
-
-		s = m[2][0];
-		m[2][0] -= m[0][0] * s;
-		m[2][1] -= m[0][1] * s;
-		m[2][2] -= m[0][2] * s;
-		m[2][3] -= m[0][3] * s;
-
-		if ( fabs(m[2][1]) > fabs(m[1][1]) ) {
-			for ( j = 0 ; j < 4 ; j ++ ) {
-				t = m[1][j];
-				m[1][j] = m[2][j];
-				m[2][j] = t;
-			}
-		}
-
-		s = 1.0 / m[1][1];
-		m[1][0] *= s;
-		m[1][1] *= s;
-		m[1][2] *= s;
-		m[1][3] *= s;
-
-		s = m[2][1];// / m[1][1];
-		m[2][0] -= m[1][0] * s;
-		m[2][1] -= m[1][1] * s;
-		m[2][2] -= m[1][2] * s;
-		m[2][3] -= m[1][3] * s;
-
-		s = 1.0 / m[2][2];
-		m[2][0] *= s;
-		m[2][1] *= s;
-		m[2][2] *= s;
-		m[2][3] *= s;
-
-		f->textureMatrix[i][2] = m[2][3];
-		f->textureMatrix[i][1] = m[1][3] - f->textureMatrix[i][2] * m[1][2];
-		f->textureMatrix[i][0] = m[0][3] - f->textureMatrix[i][2] * m[0][2] - f->textureMatrix[i][1] * m[0][1];
-
-		f->textureMatrix[i][3] = 0;
-/*
-		s = fabs( DotProduct( a->xyz, f->textureMatrix[i] ) - a->st[i] );
-		if ( s > 0.01 ) {
-			Error( "Bad textureMatrix" );
-		}
-		s = fabs( DotProduct( b->xyz, f->textureMatrix[i] ) - b->st[i] );
-		if ( s > 0.01 ) {
-			Error( "Bad textureMatrix" );
-		}
-		s = fabs( DotProduct( c->xyz, f->textureMatrix[i] ) - c->st[i] );
-		if ( s > 0.01 ) {
-			Error( "Bad textureMatrix" );
-		}
-*/
-	}
-}
-
-/*
-=====================
-VL_LightmapMatrixFromPoints
-=====================
-*/
-void VL_LightmapMatrixFromPoints( dsurface_t *dsurf, shaderInfo_t *si, lFacet_t *f, drawVert_t *a, drawVert_t *b, drawVert_t *c ) {
-	int			i, j;
-	float		t;
-	float		m[3][4], al, bl, cl;
-	float		s;
-	int			h, w, ssize;
-	vec3_t		mins, maxs, delta, size, planeNormal;
-	drawVert_t	*verts;
-	static int	message;
-
-	// vertex-lit triangle model
-	if ( dsurf->surfaceType == MST_TRIANGLE_SOUP ) {
-		return;
-	}
-	
-	if ( dsurf->lightmapNum < 0 ) {
-		return;		// doesn't need lighting
-	}
-
-	VectorClear(f->mins);
-	if (dsurf->surfaceType != MST_PATCH)
-	{
-		ssize = samplesize;
-		if (si->lightmapSampleSize)
-			ssize = si->lightmapSampleSize;
-		ClearBounds( mins, maxs );
-		verts = &drawVerts[dsurf->firstVert];
-		for ( i = 0 ; i < dsurf->numVerts ; i++ ) {
-			AddPointToBounds( verts[i].xyz, mins, maxs );
-		}
-		// round to the lightmap resolution
-		for ( i = 0 ; i < 3 ; i++ ) {
-			mins[i] = ssize * floor( mins[i] / ssize );
-			maxs[i] = ssize * ceil( maxs[i] / ssize );
-			f->mins[i] = mins[i];
-			size[i] = (maxs[i] - mins[i]) / ssize + 1;
-		}
-		// the two largest axis will be the lightmap size
-		VectorClear(f->lightmapMatrix[0]);
-		f->lightmapMatrix[0][3] = 0;
-		VectorClear(f->lightmapMatrix[1]);
-		f->lightmapMatrix[1][3] = 0;
-
-		planeNormal[0] = fabs( dsurf->lightmapVecs[2][0] );
-		planeNormal[1] = fabs( dsurf->lightmapVecs[2][1] );
-		planeNormal[2] = fabs( dsurf->lightmapVecs[2][2] );
-
-		if ( planeNormal[0] >= planeNormal[1] && planeNormal[0] >= planeNormal[2] ) {
-			w = size[1];
-			h = size[2];
-			f->lightmapMatrix[0][1] = 1.0 / ssize;
-			f->lightmapMatrix[1][2] = 1.0 / ssize;
-		} else if ( planeNormal[1] >= planeNormal[0] && planeNormal[1] >= planeNormal[2] ) {
-			w = size[0];
-			h = size[2];
-			f->lightmapMatrix[0][0] = 1.0 / ssize;
-			f->lightmapMatrix[1][2] = 1.0 / ssize;
-		} else {
-			w = size[0];
-			h = size[1];
-			f->lightmapMatrix[0][0] = 1.0 / ssize;
-			f->lightmapMatrix[1][1] = 1.0 / ssize;
-		}
-		if ( w > LIGHTMAP_WIDTH ) {
-			VectorScale ( f->lightmapMatrix[0], (float)LIGHTMAP_SIZE/w, f->lightmapMatrix[0] );
-		}
-		
-		if ( h > LIGHTMAP_HEIGHT ) {
-			VectorScale ( f->lightmapMatrix[1], (float)LIGHTMAP_SIZE/h, f->lightmapMatrix[1] );
-		}
-		VectorSubtract(a->xyz, f->mins, delta);
-		s = (DotProduct( delta, f->lightmapMatrix[0] ) + dsurf->lightmapX + 0.5) / LIGHTMAP_SIZE;
-		if ( fabs(s - a->lightmap[0]) > 0.01 ) {
-			_printf( "Bad lightmapMatrix" );
-		}
-		t = (DotProduct( delta, f->lightmapMatrix[1] ) + dsurf->lightmapY + 0.5) / LIGHTMAP_SIZE;
-		if ( fabs(t - a->lightmap[1]) > 0.01 ) {
-			_printf( "Bad lightmapMatrix" );
-		}
-		VectorSubtract(b->xyz, f->mins, delta);
-		s = (DotProduct( delta, f->lightmapMatrix[0] ) + dsurf->lightmapX + 0.5) / LIGHTMAP_SIZE;
-		if ( fabs(s - b->lightmap[0]) > 0.01 ) {
-			_printf( "Bad lightmapMatrix" );
-		}
-		t = (DotProduct( delta, f->lightmapMatrix[1] ) + dsurf->lightmapY + 0.5) / LIGHTMAP_SIZE;
-		if ( fabs(t - b->lightmap[1]) > 0.01 ) {
-			_printf( "Bad lightmapMatrix" );
-		}
-		VectorSubtract(c->xyz, f->mins, delta);
-		s = (DotProduct( delta, f->lightmapMatrix[0] ) + dsurf->lightmapX + 0.5) / LIGHTMAP_SIZE;
-		if ( fabs(s - c->lightmap[0]) > 0.01 ) {
-			_printf( "Bad lightmapMatrix" );
-		}
-		t = (DotProduct( delta, f->lightmapMatrix[1] ) + dsurf->lightmapY + 0.5) / LIGHTMAP_SIZE;
-		if ( fabs(t - c->lightmap[1]) > 0.01 ) {
-			_printf( "Bad lightmapMatrix" );
-		}
-		VectorAdd(f->mins, surfaceOrigin[dsurf - drawSurfaces], f->mins);
-		return;
-	}
-	// This is an incredibly stupid way of solving a three variable equation
-	for ( i = 0 ; i < 2 ; i++ ) {
-
-		if (i)
-			al = a->lightmap[i] - ((float) dsurf->lightmapY + 0.5) / LIGHTMAP_SIZE;
-		else
-			al = a->lightmap[i] - ((float) dsurf->lightmapX + 0.5) / LIGHTMAP_SIZE;
-
-		m[0][0] = a->xyz[0] - f->mins[0];
-		m[0][1] = a->xyz[1] - f->mins[1];
-		m[0][2] = a->xyz[2] - f->mins[2];
-		m[0][3] = al;
-
-		if (i)
-			bl = b->lightmap[i] - ((float) dsurf->lightmapY + 0.5) / LIGHTMAP_SIZE;
-		else
-			bl = b->lightmap[i] - ((float) dsurf->lightmapX + 0.5) / LIGHTMAP_SIZE;
-
-		m[1][0] = b->xyz[0] - f->mins[0];
-		m[1][1] = b->xyz[1] - f->mins[1];
-		m[1][2] = b->xyz[2] - f->mins[2];
-		m[1][3] = bl;
-
-		if (i)
-			cl = c->lightmap[i] - ((float) dsurf->lightmapY + 0.5) / LIGHTMAP_SIZE;
-		else
-			cl = c->lightmap[i] - ((float) dsurf->lightmapX + 0.5) / LIGHTMAP_SIZE;
-
-		m[2][0] = c->xyz[0] - f->mins[0];
-		m[2][1] = c->xyz[1] - f->mins[1];
-		m[2][2] = c->xyz[2] - f->mins[2];
-		m[2][3] = cl;
-
-		if ( fabs(m[1][0]) > fabs(m[0][0]) && fabs(m[1][0]) >= fabs(m[2][0]) ) {
-			for ( j = 0 ; j < 4 ; j ++ ) {
-				t = m[0][j];
-				m[0][j] = m[1][j];
-				m[1][j] = t;
-			}
-		} else if ( fabs(m[2][0]) > fabs(m[0][0]) && fabs(m[2][0]) >= fabs(m[1][0]) ) {
-			for ( j = 0 ; j < 4 ; j ++ ) {
-				t = m[0][j];
-				m[0][j] = m[2][j];
-				m[2][j] = t;
-			}
-		}
-
-		if (m[0][0])
-		{
-			s = 1.0 / m[0][0];
-			m[0][0] *= s;
-			m[0][1] *= s;
-			m[0][2] *= s;
-			m[0][3] *= s;
-
-			s = m[1][0];
-			m[1][0] -= m[0][0] * s;
-			m[1][1] -= m[0][1] * s;
-			m[1][2] -= m[0][2] * s;
-			m[1][3] -= m[0][3] * s;
-
-			s = m[2][0];
-			m[2][0] -= m[0][0] * s;
-			m[2][1] -= m[0][1] * s;
-			m[2][2] -= m[0][2] * s;
-			m[2][3] -= m[0][3] * s;
-		}
-
-		if ( fabs(m[2][1]) > fabs(m[1][1]) ) {
-			for ( j = 0 ; j < 4 ; j ++ ) {
-				t = m[1][j];
-				m[1][j] = m[2][j];
-				m[2][j] = t;
-			}
-		}
-
-		if (m[1][1])
-		{
-			s = 1.0 / m[1][1];
-			m[1][0] *= s;
-			m[1][1] *= s;
-			m[1][2] *= s;
-			m[1][3] *= s;
-
-			s = m[2][1];
-			m[2][0] -= m[1][0] * s;
-			m[2][1] -= m[1][1] * s;
-			m[2][2] -= m[1][2] * s;
-			m[2][3] -= m[1][3] * s;
-		}
-
-		if (m[2][2])
-		{
-			s = 1.0 / m[2][2];
-			m[2][0] *= s;
-			m[2][1] *= s;
-			m[2][2] *= s;
-			m[2][3] *= s;
-		}
-
-		f->lightmapMatrix[i][2] = m[2][3];
-		f->lightmapMatrix[i][1] = m[1][3] - f->lightmapMatrix[i][2] * m[1][2];
-		f->lightmapMatrix[i][0] = m[0][3] - f->lightmapMatrix[i][2] * m[0][2] - f->lightmapMatrix[i][1] * m[0][1];
-
-		f->lightmapMatrix[i][3] = 0;
-
-		VectorSubtract(a->xyz, f->mins, delta);
-		s = fabs( DotProduct( delta, f->lightmapMatrix[i] ) - al );
-		if ( s > 0.01 ) {
-			if (!message)
-				_printf( "Bad lightmapMatrix\n" );
-			message = qtrue;
-		}
-		VectorSubtract(b->xyz, f->mins, delta);
-		s = fabs( DotProduct( delta, f->lightmapMatrix[i] ) - bl );
-		if ( s > 0.01 ) {
-			if (!message)
-				_printf( "Bad lightmapMatrix\n" );
-			message = qtrue;
-		}
-		VectorSubtract(c->xyz, f->mins, delta);
-		s = fabs( DotProduct( delta, f->lightmapMatrix[i] ) - cl );
-		if ( s > 0.01 ) {
-			if (!message)
-				_printf( "Bad lightmapMatrix\n" );
-			message = qtrue;
-		}
-		VectorAdd(f->mins, surfaceOrigin[dsurf - drawSurfaces], f->mins);
-	}
-}
-
-/*
-=============
-Plane_Equal
-=============
-*/
-#define	NORMAL_EPSILON	0.0001
-#define	DIST_EPSILON	0.02
-
-int Plane_Equal(plane_t *a, plane_t *b, int flip)
-{
-	vec3_t normal;
-	float dist;
-
-	if (flip) {
-		normal[0] = - b->normal[0];
-		normal[1] = - b->normal[1];
-		normal[2] = - b->normal[2];
-		dist = - b->dist;
-	}
-	else {
-		normal[0] = b->normal[0];
-		normal[1] = b->normal[1];
-		normal[2] = b->normal[2];
-		dist = b->dist;
-	}
-	if (
-	   fabs(a->normal[0] - normal[0]) < NORMAL_EPSILON
-	&& fabs(a->normal[1] - normal[1]) < NORMAL_EPSILON
-	&& fabs(a->normal[2] - normal[2]) < NORMAL_EPSILON
-	&& fabs(a->dist - dist) < DIST_EPSILON )
-		return qtrue;
-	return qfalse;
-}
-
-/*
-=============
-VL_PlaneFromPoints
-=============
-*/
-qboolean VL_PlaneFromPoints( plane_t *plane, const vec3_t a, const vec3_t b, const vec3_t c ) {
-	vec3_t	d1, d2;
-
-	VectorSubtract( b, a, d1 );
-	VectorSubtract( c, a, d2 );
-	CrossProduct( d2, d1, plane->normal );
-	if ( VectorNormalize( plane->normal, plane->normal ) == 0 ) {
-		return qfalse;
-	}
-
-	plane->dist = DotProduct( a, plane->normal );
-	return qtrue;
-}
-
-/*
-=====================
-VL_GenerateBoundaryForPoints
-=====================
-*/
-void VL_GenerateBoundaryForPoints( plane_t *boundary, plane_t *plane, vec3_t a, vec3_t b ) {
-	vec3_t	d1;
-
-	// make a perpendicular vector to the edge and the surface
-	VectorSubtract( a, b, d1 );
-	CrossProduct( plane->normal, d1, boundary->normal );
-	VectorNormalize( boundary->normal, boundary->normal );
-	boundary->dist = DotProduct( a, boundary->normal );
-}
-
-/*
-=====================
-VL_GenerateFacetFor3Points
-=====================
-*/
-qboolean VL_GenerateFacetFor3Points( dsurface_t *dsurf, shaderInfo_t *si, lFacet_t *f, drawVert_t *a, drawVert_t *b, drawVert_t *c ) {
-	//
-	vec3_t dir;
-	int i;
-
-	// if we can't generate a valid plane for the points, ignore the facet
-	if ( !VL_PlaneFromPoints( &f->plane, a->xyz, b->xyz, c->xyz ) ) {
-		f->numpoints = 0;
-		return qfalse;
-	}
-
-	f->num = numfacets++;
-
-	VectorAdd( a->xyz, surfaceOrigin[dsurf - drawSurfaces], f->points[0] );
-	VectorAdd( b->xyz, surfaceOrigin[dsurf - drawSurfaces], f->points[1] );
-	VectorAdd( c->xyz, surfaceOrigin[dsurf - drawSurfaces], f->points[2] );
-
-	f->lightmapCoords[0][0] = a->lightmap[0];
-	f->lightmapCoords[0][1] = a->lightmap[1];
-	f->lightmapCoords[1][0] = b->lightmap[0];
-	f->lightmapCoords[1][1] = b->lightmap[1];
-	f->lightmapCoords[2][0] = c->lightmap[0];
-	f->lightmapCoords[2][1] = c->lightmap[1];
-
-	VL_GenerateBoundaryForPoints( &f->boundaries[0], &f->plane, f->points[0], f->points[1] );
-	VL_GenerateBoundaryForPoints( &f->boundaries[1], &f->plane, f->points[1], f->points[2] );
-	VL_GenerateBoundaryForPoints( &f->boundaries[2], &f->plane, f->points[2], f->points[0] );
-
-	for (i = 0; i < 3; i++)
-	{
-		VectorSubtract(f->points[(i+1)%3], f->points[i], dir);
-		if (VectorLength(dir) < 0.1)
-			return qfalse;
-	}
-
-	VL_TextureMatrixFromPoints( f, a, b, c );
-	VL_LightmapMatrixFromPoints( dsurf, si, f, a, b, c );
-
-	f->numpoints = 3;
-
-	return qtrue;
-}
-
-/*
-=====================
-VL_GenerateFacetFor4Points
-
-Attempts to use four points as a planar quad
-=====================
-*/
-#define	PLANAR_EPSILON	0.1
-qboolean VL_GenerateFacetFor4Points( dsurface_t *dsurf, shaderInfo_t *si, lFacet_t *f, drawVert_t *a, drawVert_t *b, drawVert_t *c, drawVert_t *d ) {
-	float	dist;
-	vec3_t dir;
-	int i;
-	plane_t plane;
-
-	// if we can't generate a valid plane for the points, ignore the facet
-	if ( !VL_PlaneFromPoints( &f->plane, a->xyz, b->xyz, c->xyz ) ) {
-		f->numpoints = 0;
-		return qfalse;
-	}
-
-	// if the fourth point is also on the plane, we can make a quad facet
-	dist = DotProduct( d->xyz, f->plane.normal ) - f->plane.dist;
-	if ( fabs( dist ) > PLANAR_EPSILON ) {
-		f->numpoints = 0;
-		return qfalse;
-	}
-
-	VectorAdd( a->xyz, surfaceOrigin[dsurf - drawSurfaces], f->points[0] );
-	VectorAdd( b->xyz, surfaceOrigin[dsurf - drawSurfaces], f->points[1] );
-	VectorAdd( c->xyz, surfaceOrigin[dsurf - drawSurfaces], f->points[2] );
-	VectorAdd( d->xyz, surfaceOrigin[dsurf - drawSurfaces], f->points[3] );
-
-	for (i = 1; i < 4; i++)
-	{
-		if ( !VL_PlaneFromPoints( &plane, f->points[i], f->points[(i+1) % 4], f->points[(i+2) % 4]) ) {
-			f->numpoints = 0;
-			return qfalse;
-		}
-
-		if (!Plane_Equal(&f->plane, &plane, qfalse)) {
-			f->numpoints = 0;
-			return qfalse;
-		}
-	}
-
-	f->lightmapCoords[0][0] = a->lightmap[0];
-	f->lightmapCoords[0][1] = a->lightmap[1];
-	f->lightmapCoords[1][0] = b->lightmap[0];
-	f->lightmapCoords[1][1] = b->lightmap[1];
-	f->lightmapCoords[2][0] = c->lightmap[0];
-	f->lightmapCoords[2][1] = c->lightmap[1];
-	f->lightmapCoords[3][0] = d->lightmap[0];
-	f->lightmapCoords[3][1] = d->lightmap[1];
-
-	VL_GenerateBoundaryForPoints( &f->boundaries[0], &f->plane, f->points[0], f->points[1] );
-	VL_GenerateBoundaryForPoints( &f->boundaries[1], &f->plane, f->points[1], f->points[2] );
-	VL_GenerateBoundaryForPoints( &f->boundaries[2], &f->plane, f->points[2], f->points[3] );
-	VL_GenerateBoundaryForPoints( &f->boundaries[3], &f->plane, f->points[3], f->points[0] );
-
-	for (i = 0; i < 4; i++)
-	{
-		VectorSubtract(f->points[(i+1)%4], f->points[i], dir);
-		if (VectorLength(dir) < 0.1)
-			return qfalse;
-	}
-
-	VL_TextureMatrixFromPoints( f, a, b, c );
-	VL_LightmapMatrixFromPoints( dsurf, si, f, a, b, c );
-
-	f->num = numfacets++;
-	f->numpoints = 4;
-
-	return qtrue;
-}
-
-/*
-===============
-VL_SphereFromBounds
-===============
-*/
-void VL_SphereFromBounds( vec3_t mins, vec3_t maxs, vec3_t origin, float *radius ) {
-	vec3_t		temp;
-
-	VectorAdd( mins, maxs, origin );
-	VectorScale( origin, 0.5, origin );
-	VectorSubtract( maxs, origin, temp );
-	*radius = VectorLength( temp );
-}
-
-/*
-====================
-VL_FacetsForTriangleSurface
-====================
-*/
-void VL_FacetsForTriangleSurface( dsurface_t *dsurf, shaderInfo_t *si, lsurfaceTest_t *test ) {
-	int			i;
-	drawVert_t	*v1, *v2, *v3, *v4;
-	int			count;
-	int			i1, i2, i3, i4, i5, i6;
-
-	test->patch = qfalse;
-	if (dsurf->surfaceType == MST_TRIANGLE_SOUP)
-		test->trisoup = qtrue;
-	else
-		test->trisoup = qfalse;
-	test->numFacets = dsurf->numIndexes / 3;
-	test->facets = malloc( sizeof( test->facets[0] ) * test->numFacets );
-	test->shader = si;
-
-	count = 0;
-	for ( i = 0 ; i < test->numFacets ; i++ ) {
-		i1 = drawIndexes[ dsurf->firstIndex + i*3 ];
-		i2 = drawIndexes[ dsurf->firstIndex + i*3 + 1 ];
-		i3 = drawIndexes[ dsurf->firstIndex + i*3 + 2 ];
-
-		v1 = &drawVerts[ dsurf->firstVert + i1 ];
-		v2 = &drawVerts[ dsurf->firstVert + i2 ];
-		v3 = &drawVerts[ dsurf->firstVert + i3 ];
-
-		// try and make a quad out of two triangles
-		if ( i != test->numFacets - 1 ) {
-			i4 = drawIndexes[ dsurf->firstIndex + i*3 + 3 ];
-			i5 = drawIndexes[ dsurf->firstIndex + i*3 + 4 ];
-			i6 = drawIndexes[ dsurf->firstIndex + i*3 + 5 ];
-			if ( i4 == i3 && i5 == i2 ) {
-				v4 = &drawVerts[ dsurf->firstVert + i6 ];
-				if ( VL_GenerateFacetFor4Points( dsurf, si, &test->facets[count], v1, v2, v4, v3 ) ) {
-					count++;
-					i++;		// skip next tri
-					continue;
-				}
-			}
-		}
-
-		if (VL_GenerateFacetFor3Points( dsurf, si, &test->facets[count], v1, v2, v3 )) {
-			count++;
-		}
-	}		
-
-	// we may have turned some pairs into quads
-	test->numFacets = count;
-}
-
-/*
-====================
-VL_FacetsForPatch
-====================
-*/
-void VL_FacetsForPatch( dsurface_t *dsurf, int surfaceNum, shaderInfo_t *si, lsurfaceTest_t *test ) {
-	int			i, j, x, y;
-	drawVert_t	*v1, *v2, *v3, *v4;
-	int			count, ssize;
-	mesh_t		mesh;
-	mesh_t		*subdivided, *detailmesh, *newmesh;
-	int widthtable[LIGHTMAP_SIZE], heighttable[LIGHTMAP_SIZE];
-
-	mesh.width = dsurf->patchWidth;
-	mesh.height = dsurf->patchHeight;
-	mesh.verts = &drawVerts[ dsurf->firstVert ];
-
-	newmesh = SubdivideMesh( mesh, 8, 999 );
-	PutMeshOnCurve( *newmesh );
-	MakeMeshNormals( *newmesh );
-
-	subdivided = RemoveLinearMeshColumnsRows( newmesh );
-	FreeMesh(newmesh);
-
-	//	DebugNet_RemoveAllPolys();
-	//	DebugNet_DrawMesh(subdivided);
-
-	ssize = samplesize;
-	if (si->lightmapSampleSize)
-		ssize = si->lightmapSampleSize;
-
-	if ( dsurf->lightmapNum >= 0 ) {
-
-		detailmesh = SubdivideMeshQuads( subdivided, ssize, LIGHTMAP_SIZE, widthtable, heighttable);
-		test->detailMesh = detailmesh;
-
-		// DebugNet_RemoveAllPolys();
-		// DebugNet_DrawMesh(detailmesh);
-
-		if ( detailmesh->width != dsurf->lightmapWidth || detailmesh->height != dsurf->lightmapHeight ) {
-			Error( "Mesh lightmap miscount");
-		}
-	}
-	else {
-		test->detailMesh = NULL;
-		memset(widthtable, 0, sizeof(widthtable));
-		memset(heighttable, 0, sizeof(heighttable));
-	}
-
-	test->patch = qtrue;
-	test->trisoup = qfalse;
-	test->numFacets = ( subdivided->width - 1 ) * ( subdivided->height - 1 ) * 2;
-	test->facets = malloc( sizeof( test->facets[0] ) * test->numFacets );
-	test->shader = si;
-
-	count = 0;
-	x = 0;
-	for ( i = 0 ; i < subdivided->width - 1 ; i++ ) {
-		y = 0;
-		for ( j = 0 ; j < subdivided->height - 1 ; j++ ) {
-
-			v1 = subdivided->verts + j * subdivided->width + i;
-			v2 = v1 + 1;
-			v3 = v1 + subdivided->width + 1;
-			v4 = v1 + subdivided->width;
-
-			if ( VL_GenerateFacetFor4Points( dsurf, si, &test->facets[count], v1, v4, v3, v2 ) ) {
-				test->facets[count].x = x;
-				test->facets[count].y = y;
-				test->facets[count].width = widthtable[i];
-				test->facets[count].height = heighttable[j];
-				count++;
-			} else {
-				if (VL_GenerateFacetFor3Points( dsurf, si, &test->facets[count], v1, v4, v3 )) {
-					test->facets[count].x = x;
-					test->facets[count].y = y;
-					test->facets[count].width = widthtable[i];
-					test->facets[count].height = heighttable[j];
-					count++;
-				}
-				if (VL_GenerateFacetFor3Points( dsurf, si, &test->facets[count], v1, v3, v2 )) {
-					test->facets[count].x = x;
-					test->facets[count].y = y;
-					test->facets[count].width = widthtable[i];
-					test->facets[count].height = heighttable[j];
-					count++;
-				}
-			}
-			y += heighttable[j];
-		}
-		x += widthtable[i];
-	}
-	test->numFacets = count;
-
-	FreeMesh(subdivided);
-}
-
-/*
-=====================
-VL_InitSurfacesForTesting
-=====================
-*/
-void VL_InitSurfacesForTesting( void ) {
-
-	int				i, j, k;
-	dsurface_t		*dsurf;
-	lsurfaceTest_t	*test;
-	shaderInfo_t	*si;
-	lFacet_t		*facet;
-
-	for ( i = 0 ; i < numDrawSurfaces ; i++ ) {
-		// don't light the entity surfaces with vlight
-		if ( entitySurface[i] )
-			continue;
-		//
-		dsurf = &drawSurfaces[ i ];
-		if ( !dsurf->numIndexes && !dsurf->patchWidth ) {
-			continue;
-		}
-
-		si = ShaderInfoForShader( dshaders[ dsurf->shaderNum].shader );
-		// if the surface is translucent and does not cast an alpha shadow
-		if ( (si->contents & CONTENTS_TRANSLUCENT) && !(si->surfaceFlags & SURF_ALPHASHADOW) ) {
-			// if the surface has no lightmap
-			if ( dsurf->lightmapNum < 0 )
-				continue;
-		}
-
-		test = malloc( sizeof( *test ) );
-		memset(test, 0, sizeof( *test ));
-		test->mutex = MutexAlloc();
-		test->numvolumes = 0;
-		if (si->forceTraceLight)
-			test->always_tracelight = qtrue;
-		else if (si->forceVLight)
-			test->always_vlight = qtrue;
-		lsurfaceTest[i] = test;
-
-		if ( dsurf->surfaceType == MST_TRIANGLE_SOUP || dsurf->surfaceType == MST_PLANAR ) {
-			VL_FacetsForTriangleSurface( dsurf, si, test );
-		} else if ( dsurf->surfaceType == MST_PATCH ) {
-			VL_FacetsForPatch( dsurf, i, si, test );
-		}
-		if (numfacets >= MAX_FACETS)
-			Error("numfacets >= MAX_FACETS (%d)", MAX_FACETS);
-
-		ClearBounds( test->mins, test->maxs );
-		for (j = 0; j < test->numFacets; j++)
-		{
-			facet = &test->facets[j];
-			for ( k = 0 ; k < facet->numpoints; k++) {
-				AddPointToBounds( facet->points[k], test->mins, test->maxs );
-			}
-		}
-		VL_SphereFromBounds( test->mins, test->maxs, test->origin, &test->radius );
-	}
-	_printf("%6d facets\n", numfacets);
-	_printf("linking surfaces...\n");
-	VL_LinkSurfaces();
-}
-
-/*
-=============
-VL_ChopWinding
-=============
-*/
-int VL_ChopWinding (winding_t *in, plane_t *split, float epsilon)
-{
-	vec_t	dists[128];
-	int		sides[128];
-	int		counts[3];
-	vec_t	dot;
-	int		i, j;
-	vec_t	*p1, *p2;
-	vec3_t	mid;
-	winding_t out;
-	winding_t	*neww;
-
-	counts[0] = counts[1] = counts[2] = 0;
-
-	// determine sides for each point
-	for (i=0 ; i<in->numpoints ; i++)
-	{
-		dot = DotProduct (in->points[i], split->normal);
-		dot -= split->dist;
-		dists[i] = dot;
-		if (dot > epsilon)
-			sides[i] = SIDE_FRONT;
-		else if (dot < -epsilon)
-			sides[i] = SIDE_BACK;
-		else
-		{
-			sides[i] = SIDE_ON;
-		}
-		counts[sides[i]]++;
-	}
-
-	if (!counts[SIDE_BACK])
-	{
-		if (!counts[SIDE_FRONT])
-			return SIDE_ON;
-		else
-			return SIDE_FRONT;
-	}
-	
-	if (!counts[SIDE_FRONT])
-	{
-		return SIDE_BACK;
-	}
-
-	sides[i] = sides[0];
-	dists[i] = dists[0];
-	
-	neww = &out;
-
-	neww->numpoints = 0;
-
-	for (i=0 ; i<in->numpoints ; i++)
-	{
-		p1 = in->points[i];
-
-		if (neww->numpoints >= MAX_POINTS_ON_FIXED_WINDING)
-		{
-			_printf("WARNING: VL_ChopWinding -> MAX_POINTS_ON_FIXED_WINDING overflowed\n");
-			return SIDE_FRONT;		// can't chop -- fall back to original
-		}
-
-		if (sides[i] == SIDE_ON)
-		{
-			VectorCopy (p1, neww->points[neww->numpoints]);
-			neww->numpoints++;
-			continue;
-		}
-	
-		if (sides[i] == SIDE_FRONT)
-		{
-			VectorCopy (p1, neww->points[neww->numpoints]);
-			neww->numpoints++;
-		}
-		
-		if (sides[i+1] == SIDE_ON || sides[i+1] == sides[i])
-			continue;
-			
-		if (neww->numpoints >= MAX_POINTS_ON_FIXED_WINDING)
-		{
-			_printf("WARNING: VL_ChopWinding -> MAX_POINTS_ON_FIXED_WINDING overflowed\n");
-			return SIDE_FRONT;		// can't chop -- fall back to original
-		}
-
-		// generate a split point
-		p2 = in->points[(i+1)%in->numpoints];
-		
-		dot = dists[i] / (dists[i]-dists[i+1]);
-		for (j=0 ; j<3 ; j++)
-		{	// avoid round off error when possible
-			if (split->normal[j] == 1)
-				mid[j] = split->dist;
-			else if (split->normal[j] == -1)
-				mid[j] = -split->dist;
-			else
-				mid[j] = p1[j] + dot*(p2[j]-p1[j]);
-		}
-			
-		VectorCopy (mid, neww->points[neww->numpoints]);
-		neww->numpoints++;
-	}
-	memcpy(in, &out, sizeof(winding_t));
-	
-	return SIDE_CROSS;
-}
-
-/*
-=============
-VL_ChopWindingWithBrush
-
-  returns all winding fragments outside the brush
-=============
-*/
-int VL_ChopWindingWithBrush(winding_t *w, dbrush_t *brush, winding_t *outwindings, int maxout)
-{
-	int i, res, numout;
-	winding_t front, back;
-	plane_t plane;
-
-	numout = 0;
-	memcpy(front.points, w->points, w->numpoints * sizeof(vec3_t));
-	front.numpoints = w->numpoints;
-	for (i = 0; i < brush->numSides; i++)
-	{
-		VectorCopy(dplanes[ dbrushsides[ brush->firstSide + i ].planeNum ].normal, plane.normal);
-		VectorInverse(plane.normal);
-		plane.dist = -dplanes[ dbrushsides[ brush->firstSide + i ].planeNum ].dist;
-		res = VL_SplitWinding(&front, &back, &plane, 0.1);
-		if (res == SIDE_BACK || res == SIDE_ON)
-		{
-			memcpy(outwindings[0].points, w->points, w->numpoints * sizeof(vec3_t));
-			outwindings[0].numpoints = w->numpoints;
-			return 1;	//did not intersect
-		}
-		if (res != SIDE_FRONT)
-		{
-			if (numout >= maxout)
-			{
-				_printf("WARNING: VL_ChopWindingWithBrush: more than %d windings\n", maxout);
-				return 0;
-			}
-			memcpy(outwindings[numout].points, back.points, back.numpoints * sizeof(vec3_t));
-			outwindings[numout].numpoints = back.numpoints;
-			numout++;
-		}
-	}
-	return numout;
-}
-
-/*
-=============
-VL_WindingAreaOutsideBrushes
-=============
-*/
-float VL_WindingAreaOutsideBrushes(winding_t *w, int *brushnums, int numbrushes)
-{
-	int i, j, numwindings[2], n;
-	winding_t windingsbuf[2][64];
-	dbrush_t *brush;
-	float area;
-
-	memcpy(windingsbuf[0][0].points, w->points, w->numpoints * sizeof(vec3_t));
-	windingsbuf[0][0].numpoints = w->numpoints;
-	numwindings[0] = 1;
-	for (i = 0; i < numbrushes; i++)
-	{
-		brush = &dbrushes[brushnums[i]];
-		if (!(dshaders[brush->shaderNum].contentFlags & (
-					CONTENTS_LAVA
-					| CONTENTS_SLIME
-					| CONTENTS_WATER
-					| CONTENTS_FOG
-					| CONTENTS_AREAPORTAL
-					| CONTENTS_PLAYERCLIP
-					| CONTENTS_MONSTERCLIP
-					| CONTENTS_CLUSTERPORTAL
-					| CONTENTS_DONOTENTER
-					| CONTENTS_BODY
-					| CONTENTS_CORPSE
-					| CONTENTS_TRANSLUCENT
-					| CONTENTS_TRIGGER
-					| CONTENTS_NODROP) ) &&
-			(dshaders[brush->shaderNum].contentFlags & CONTENTS_SOLID) )
-		{
-			numwindings[!(i & 1)] = 0;
-			for (j = 0; j < numwindings[i&1]; j++)
-			{
-				n = VL_ChopWindingWithBrush(&windingsbuf[i&1][j], brush,
-											&windingsbuf[!(i&1)][numwindings[!(i&1)]],
-											64 - numwindings[!(i&1)]);
-				numwindings[!(i&1)] += n;
-			}
-			if (!numwindings[!(i&1)])
-				return 0;
-		}
-		else
-		{
-			for (j = 0; j < numwindings[i&1]; j++)
-			{
-				windingsbuf[!(i&1)][j] = windingsbuf[i&1][j];
-			}
-			numwindings[!(i&1)] = numwindings[i&1];
-		}
-	}
-	area = 0;
-	for (j = 0; j < numwindings[i&1]; j++)
-	{
-		area += WindingArea(&windingsbuf[i&1][j]);
-	}
-	return area;
-}
-
-/*
-=============
-VL_R_WindingAreaOutsideSolid
-=============
-*/
-float VL_R_WindingAreaOutsideSolid(winding_t *w, vec3_t normal, int nodenum)
-{
-	int leafnum, res;
-	float area;
-	dnode_t *node;
-	dleaf_t *leaf;
-	dplane_t *plane;
-	winding_t back;
-	plane_t split;
-
-	area = 0;
-	while(nodenum >= 0)
-	{
-		node = &dnodes[nodenum];
-		plane = &dplanes[node->planeNum];
-
-		VectorCopy(plane->normal, split.normal);
-		split.dist = plane->dist;
-		res = VL_SplitWinding (w, &back, &split, 0.1);
-
-		if (res == SIDE_FRONT)
-		{
-			nodenum = node->children[0];
-		}
-		else if (res == SIDE_BACK)
-		{
-			nodenum = node->children[1];
-		}
-		else if (res == SIDE_ON)
-		{
-			if (DotProduct(normal, plane->normal) > 0)
-				nodenum = node->children[0];
-			else
-				nodenum = node->children[1];
-		}
-		else
-		{
-			area += VL_R_WindingAreaOutsideSolid(&back, normal, node->children[1]);
-			nodenum = node->children[0];
-		}
-	}
-	leafnum = -nodenum - 1;
-	leaf = &dleafs[leafnum];
-	if (leaf->cluster != -1)
-	{
-		area += VL_WindingAreaOutsideBrushes(w, &dleafbrushes[leaf->firstLeafBrush], leaf->numLeafBrushes);
-	}
-	return area;
-}
-
-/*
-=============
-VL_WindingAreaOutsideSolid
-=============
-*/
-float VL_WindingAreaOutsideSolid(winding_t *w, vec3_t normal)
-{
-	return VL_R_WindingAreaOutsideSolid(w, normal, 0);
-}
-
-/*
-=============
-VL_ChopWindingWithFacet
-=============
-*/
-float VL_ChopWindingWithFacet(winding_t *w, lFacet_t *facet)
-{
-	int i;
-
-	for (i = 0; i < facet->numpoints; i++)
-	{
-		if (VL_ChopWinding(w, &facet->boundaries[i], 0) == SIDE_BACK)
-			return 0;
-	}
-	if (nostitching)
-		return WindingArea(w);
-	else
-		return VL_WindingAreaOutsideSolid(w, facet->plane.normal);
-}
-
-/*
-=============
-VL_CalcVisibleLightmapPixelArea
-
-nice brute force ;)
-=============
-*/
-void VL_CalcVisibleLightmapPixelArea(void)
-{
-	int				i, j, x, y, k;
-	dsurface_t		*ds;
-	lsurfaceTest_t	*test;
-	mesh_t			*mesh;
-	winding_t w, tmpw;
-	float area;
-
-	_printf("calculating visible lightmap pixel area...\n");
-	for ( i = 0 ; i < numDrawSurfaces ; i++ )
-	{
-		test = lsurfaceTest[ i ];
-		if (!test)
-			continue;
-		ds = &drawSurfaces[ i ];
-
-		if ( ds->lightmapNum < 0 )
-			continue;
-
-		for (y = 0; y < ds->lightmapHeight; y++)
-		{
-			for (x = 0; x < ds->lightmapWidth; x++)
-			{
-				if (ds->surfaceType == MST_PATCH)
-				{
-					if (y == ds->lightmapHeight-1)
-						continue;
-					if (x == ds->lightmapWidth-1)
-						continue;
-					mesh = lsurfaceTest[i]->detailMesh;
-					VectorCopy( mesh->verts[y*mesh->width+x].xyz, w.points[0]);
-					VectorCopy( mesh->verts[(y+1)*mesh->width+x].xyz, w.points[1]);
-					VectorCopy( mesh->verts[(y+1)*mesh->width+x+1].xyz, w.points[2]);
-					VectorCopy( mesh->verts[y*mesh->width+x+1].xyz, w.points[3]);
-					w.numpoints = 4;
-					if (nostitching)
-						area = WindingArea(&w);
-					else
-						area = VL_WindingAreaOutsideSolid(&w, mesh->verts[y*mesh->width+x].normal);
-				}
-				else
-				{
-					VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT, ds->lightmapVecs[0], w.points[0]);
-					VectorMA(w.points[0], (float) y - LIGHTMAP_PIXELSHIFT, ds->lightmapVecs[1], w.points[0]);
-					VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT, ds->lightmapVecs[0], w.points[3]);
-					VectorMA(w.points[3], (float) y - LIGHTMAP_PIXELSHIFT + 1, ds->lightmapVecs[1], w.points[3]);
-					VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT + 1, ds->lightmapVecs[0], w.points[2]);
-					VectorMA(w.points[2], (float) y - LIGHTMAP_PIXELSHIFT + 1, ds->lightmapVecs[1], w.points[2]);
-					VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT + 1, ds->lightmapVecs[0], w.points[1]);
-					VectorMA(w.points[1], (float) y - LIGHTMAP_PIXELSHIFT, ds->lightmapVecs[1], w.points[1]);
-					w.numpoints = 4;
-					area = 0;
-					for (j = 0; j < test->numFacets; j++)
-					{
-						memcpy(&tmpw, &w, sizeof(winding_t));
-						area += VL_ChopWindingWithFacet(&tmpw, &test->facets[j]);
-					}
-				}
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				lightmappixelarea[k] = area;
-			}
-		}
-	}
-}
-
-/*
-=============
-VL_FindAdjacentSurface
-=============
-*/
-int VL_FindAdjacentSurface(int surfaceNum, int facetNum, vec3_t p1, vec3_t p2, int *sNum, int *fNum, int *point)
-{
-	int i, j, k;
-	lsurfaceTest_t *test;
-	lFacet_t *facet;
-	dsurface_t *ds;
-	float *fp1, *fp2;
-	vec3_t dir;
-	plane_t *facetplane;
-	//	winding_t w;
-
-	facetplane = &lsurfaceTest[surfaceNum]->facets[facetNum].plane;
-	//	DebugNet_RemoveAllPolys();
-	//	memcpy(w.points, lsurfaceTest[surfaceNum]->facets[facetNum].points,
-	//			lsurfaceTest[surfaceNum]->facets[facetNum].numpoints * sizeof(vec3_t));
-	//	w.numpoints = lsurfaceTest[surfaceNum]->facets[facetNum].numpoints;
-	//	DebugNet_DrawWinding(&w, 2);
-	for ( i = 0 ; i < numDrawSurfaces ; i++ )
-	{
-		if (i == surfaceNum)
-			continue;
-		test = lsurfaceTest[ i ];
-		if (!test)
-			continue;
-		if (test->trisoup)// || test->patch)
-			continue;
-		ds = &drawSurfaces[i];
-		if ( ds->lightmapNum < 0 )
-			continue;
-		//if this surface is not even near the edge
-		VectorSubtract(p1, test->origin, dir);
-		if (fabs(dir[0]) > test->radius ||
-			fabs(dir[1]) > test->radius ||
-			fabs(dir[1]) > test->radius)
-		{
-			VectorSubtract(p2, test->origin, dir);
-			if (fabs(dir[0]) > test->radius ||
-				fabs(dir[1]) > test->radius ||
-				fabs(dir[1]) > test->radius)
-			{
-				continue;
-			}
-		}
-		//
-		for (j = 0; j < test->numFacets; j++)
-		{
-			facet = &test->facets[j];
-			//
-			//if (!Plane_Equal(&facet->plane, facetplane, qfalse))
-			if (DotProduct(facet->plane.normal, facetplane->normal) < 0.9)
-			{
-				if (!test->trisoup && !test->patch)
-					break;
-				continue;
-			}
-			//
-			for (k = 0; k < facet->numpoints; k++)
-			{
-				fp1 = facet->points[k];
-				if (fabs(p2[0] - fp1[0]) < 0.1 &&
-					fabs(p2[1] - fp1[1]) < 0.1 &&
-					fabs(p2[2] - fp1[2]) < 0.1)
-				{
-					fp2 = facet->points[(k+1) % facet->numpoints];
-					if (fabs(p1[0] - fp2[0]) < 0.1 &&
-						fabs(p1[1] - fp2[1]) < 0.1 &&
-						fabs(p1[2] - fp2[2]) < 0.1)
-					{
-						//	memcpy(w.points, facet->points, facet->numpoints * sizeof(vec3_t));
-						//	w.numpoints = facet->numpoints;
-						//	DebugNet_DrawWinding(&w, 1);
-						*sNum = i;
-						*fNum = j;
-						*point = k;
-						return qtrue;
-					}
-				}
-				/*
-				else if (fabs(p1[0] - fp1[0]) < 0.1 &&
-					fabs(p1[1] - fp1[1]) < 0.1 &&
-					fabs(p1[2] - fp1[2]) < 0.1)
-				{
-					fp2 = facet->points[(k+1) % facet->numpoints];
-					if (fabs(p2[0] - fp2[0]) < 0.1 &&
-						fabs(p2[1] - fp2[1]) < 0.1 &&
-						fabs(p2[2] - fp2[2]) < 0.1)
-					{
-						//	memcpy(w.points, facet->points, facet->numpoints * sizeof(vec3_t));
-						//	w.numpoints = facet->numpoints;
-						//	DebugNet_DrawWinding(&w, 1);
-						*sNum = i;
-						*fNum = j;
-						*point = k;
-						return qtrue;
-					}
-				}
-				//*/
-			}
-		}
-	}
-	return qfalse;
-}
-
-/*
-=============
-VL_SmoothenLightmapEdges
-
-this code is used to smoothen lightmaps across surface edges
-=============
-*/
-void VL_SmoothenLightmapEdges(void)
-{
-	int i, j, k, coords1[2][2];
-	float coords2[2][2];
-	int x1, y1, xinc1, yinc1, k1, k2;
-	float x2, y2, xinc2, yinc2, length;
-	int surfaceNum, facetNum, point;
-	lsurfaceTest_t *test;
-	lFacet_t *facet1, *facet2;
-	dsurface_t *ds1, *ds2;
-	float *p[2], s, t, *color1, *color2;
-	vec3_t dir, cross;
-
-	for ( i = 0 ; i < numDrawSurfaces ; i++ )
-	{
-		test = lsurfaceTest[ i ];
-		if (!test)
-			continue;
-		if (test->trisoup)// || test->patch)
-			continue;
-		ds1 = &drawSurfaces[i];
-		if ( ds1->lightmapNum < 0 )
-			continue;
-		for (j = 0; j < test->numFacets; j++)
-		{
-			facet1 = &test->facets[j];
-			//
-			for (k = 0; k < facet1->numpoints; k++)
-			{
-				p[0] = facet1->points[k];
-				p[1] = facet1->points[(k+1)%facet1->numpoints];
-				//
-				coords1[0][0] = facet1->lightmapCoords[k][0] * LIGHTMAP_SIZE;
-				coords1[0][1] = facet1->lightmapCoords[k][1] * LIGHTMAP_SIZE;
-				coords1[1][0] = facet1->lightmapCoords[(k+1)%facet1->numpoints][0] * LIGHTMAP_SIZE;
-				coords1[1][1] = facet1->lightmapCoords[(k+1)%facet1->numpoints][1] * LIGHTMAP_SIZE;
-				if (coords1[0][0] >= LIGHTMAP_SIZE)
-					coords1[0][0] = LIGHTMAP_SIZE-1;
-				if (coords1[0][1] >= LIGHTMAP_SIZE)
-					coords1[0][1] = LIGHTMAP_SIZE-1;
-				if (coords1[1][0] >= LIGHTMAP_SIZE)
-					coords1[1][0] = LIGHTMAP_SIZE-1;
-				if (coords1[1][1] >= LIGHTMAP_SIZE)
-					coords1[1][1] = LIGHTMAP_SIZE-1;
-				// try one row or column further because on flat faces the lightmap can
-				// extend beyond the edge
-				VectorSubtract(p[1], p[0], dir);
-				VectorNormalize(dir, dir);
-				CrossProduct(dir, facet1->plane.normal, cross);
-				//
-				if (coords1[0][0] - coords1[1][0] == 0)
-				{
-					s = DotProduct( cross, facet1->lightmapMatrix[0] );
-					coords1[0][0] += s < 0 ? 1 : -1;
-					coords1[1][0] += s < 0 ? 1 : -1;
-					if (coords1[0][0] < ds1->lightmapX || coords1[0][0] >= ds1->lightmapX + ds1->lightmapWidth)
-					{
-						coords1[0][0] += s < 0 ? -1 : 1;
-						coords1[1][0] += s < 0 ? -1 : 1;
-					}
-					length = fabs(coords1[1][1] - coords1[0][1]);
-				}
-				else if (coords1[0][1] - coords1[1][1] == 0)
-				{
-					t = DotProduct( cross, facet1->lightmapMatrix[1] );
-					coords1[0][1] += t < 0 ? 1 : -1;
-					coords1[1][1] += t < 0 ? 1 : -1;
-					if (coords1[0][1] < ds1->lightmapY || coords1[0][1] >= ds1->lightmapY + ds1->lightmapHeight)
-					{
-						coords1[0][1] += t < 0 ? -1 : 1;
-						coords1[1][1] += t < 0 ? -1 : 1;
-					}
-					length = fabs(coords1[1][0] - coords1[0][0]);
-				}
-				else
-				{
-					//the edge is not parallell to one of the lightmap axis
-					continue;
-				}
-				//
-				x1 = coords1[0][0];
-				y1 = coords1[0][1];
-				xinc1 = coords1[1][0] - coords1[0][0];
-				if (xinc1 < 0) xinc1 = -1;
-				if (xinc1 > 0) xinc1 = 1;
-				yinc1 = coords1[1][1] - coords1[0][1];
-				if (yinc1 < 0) yinc1 = -1;
-				if (yinc1 > 0) yinc1 = 1;
-				// the edge should be parallell to one of the lightmap axis
-				if (xinc1 != 0 && yinc1 != 0)
-					continue;
-				//
-				if (!VL_FindAdjacentSurface(i, j, p[0], p[1], &surfaceNum, &facetNum, &point))
-					continue;
-				//
-				ds2 = &drawSurfaces[surfaceNum];
-				facet2 = &lsurfaceTest[surfaceNum]->facets[facetNum];
-				coords2[0][0] = facet2->lightmapCoords[(point+1)%facet2->numpoints][0] * LIGHTMAP_SIZE;
-				coords2[0][1] = facet2->lightmapCoords[(point+1)%facet2->numpoints][1] * LIGHTMAP_SIZE;
-				coords2[1][0] = facet2->lightmapCoords[point][0] * LIGHTMAP_SIZE;
-				coords2[1][1] = facet2->lightmapCoords[point][1] * LIGHTMAP_SIZE;
-				if (coords2[0][0] >= LIGHTMAP_SIZE)
-					coords2[0][0] = LIGHTMAP_SIZE-1;
-				if (coords2[0][1] >= LIGHTMAP_SIZE)
-					coords2[0][1] = LIGHTMAP_SIZE-1;
-				if (coords2[1][0] >= LIGHTMAP_SIZE)
-					coords2[1][0] = LIGHTMAP_SIZE-1;
-				if (coords2[1][1] >= LIGHTMAP_SIZE)
-					coords2[1][1] = LIGHTMAP_SIZE-1;
-				//
-				x2 = coords2[0][0];
-				y2 = coords2[0][1];
-				xinc2 = coords2[1][0] - coords2[0][0];
-				if (length)
-					xinc2 = xinc2 / length;
-				yinc2 = coords2[1][1] - coords2[0][1];
-				if (length)
-					yinc2 = yinc2 / length;
-				// the edge should be parallell to one of the lightmap axis
-				if ((int) xinc2 != 0 && (int) yinc2 != 0)
-					continue;
-				//
-				while(1)
-				{
-					k1 = ( ds1->lightmapNum * LIGHTMAP_HEIGHT + y1) * LIGHTMAP_WIDTH + x1;
-					k2 = ( ds2->lightmapNum * LIGHTMAP_HEIGHT + ((int) y2)) * LIGHTMAP_WIDTH + ((int) x2);
-					color1 = lightFloats + k1*3;
-					color2 = lightFloats + k2*3;
-					if (lightmappixelarea[k1] < 0.01)
-					{
-						color1[0] = color2[0];
-						color1[1] = color2[1];
-						color1[2] = color2[2];
-					}
-					else
-					{
-						color1[0] = (float) color2[0] * 0.7 + (float) color1[0] * 0.3;
-						color1[1] = (float) color2[1] * 0.7 + (float) color1[1] * 0.3;
-						color1[2] = (float) color2[2] * 0.7 + (float) color1[2] * 0.3;
-					}
-					//
-					if (x1 == coords1[1][0] &&
-						y1 == coords1[1][1])
-						break;
-					x1 += xinc1;
-					y1 += yinc1;
-					x2 += xinc2;
-					y2 += yinc2;
-					if (x2 < ds2->lightmapX)
-						x2 = ds2->lightmapX;
-					if (x2 >= ds2->lightmapX + ds2->lightmapWidth)
-						x2 = ds2->lightmapX + ds2->lightmapWidth-1;
-					if (y2 < ds2->lightmapY)
-						y2 = ds2->lightmapY;
-					if (y2 >= ds2->lightmapY + ds2->lightmapHeight)
-						y2 = ds2->lightmapY + ds2->lightmapHeight-1;
-				}
-			}
-		}
-	}
-}
-
-/*
-=============
-VL_FixLightmapEdges
-=============
-*/
-void VL_FixLightmapEdges(void)
-{
-	int				i, j, x, y, k, foundvalue, height, width, index;
-	int				pos, top, bottom;
-	dsurface_t		*ds;
-	lsurfaceTest_t	*test;
-	float			color[3];
-	float			*ptr;
-	byte filled[(LIGHTMAP_SIZE+1) * (LIGHTMAP_SIZE+1) / 8];
-	float lightmap_edge_epsilon;
-
-	lightmap_edge_epsilon = 0.1 * samplesize;
-	for ( i = 0 ; i < numDrawSurfaces ; i++ )
-	{
-		test = lsurfaceTest[ i ];
-		if (!test)
-			continue;
-		ds = &drawSurfaces[ i ];
-
-		if ( ds->lightmapNum < 0 )
-			continue;
-		if (ds->surfaceType == MST_PATCH)
-		{
-			height = ds->lightmapHeight - 1;
-			width = ds->lightmapWidth - 1;
-		}
-		else
-		{
-			height = ds->lightmapHeight;
-			width = ds->lightmapWidth;
-		}
-		memset(filled, 0, sizeof(filled));
-//		printf("\n");
-		for (x = 0; x < width; x++)
-		{
-			for (y = 0; y < height; y++)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				if (lightmappixelarea[k] > lightmap_edge_epsilon)
-				{
-					index = (ds->lightmapY + y) * LIGHTMAP_WIDTH + ds->lightmapX + x;
-					filled[index >> 3] |= 1 << (index & 7);
-//					printf("*");
-				}
-//				else
-//					printf("_");
-			}
-//			printf("\n");
-		}
-		for (y = 0; y < height; y++)
-		{
-			pos = -2;
-			for (x = 0; x < width; x++)
-			{
-				index = (ds->lightmapY + y) * LIGHTMAP_WIDTH + ds->lightmapX + x;
-				if (pos == -2)
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-						pos = -1;
-				}
-				else if (pos == -1)
-				{
-					if (!(filled[index >> 3] & (1 << (index & 7))))
-						pos = x - 1;
-				}
-				else
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-					{
-						bottom = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-							* LIGHTMAP_WIDTH + ds->lightmapX + pos;
-						top = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-							* LIGHTMAP_WIDTH + ds->lightmapX + x;
-						for (j = 0; j < (x - pos + 1) / 2; j++)
-						{
-							k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-								* LIGHTMAP_WIDTH + ds->lightmapX + pos + j + 1;
-							index = (ds->lightmapY + y) * LIGHTMAP_WIDTH + ds->lightmapX + pos + j + 1;
-							filled[index >> 3] |= 1 << (index & 7);
-							(lightFloats + k*3)[0] = (lightFloats + top*3)[0];
-							(lightFloats + k*3)[1] = (lightFloats + top*3)[1];
-							(lightFloats + k*3)[2] = (lightFloats + top*3)[2];
-							k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-								* LIGHTMAP_WIDTH + ds->lightmapX + x - j - 1;
-							index = (ds->lightmapY + y) * LIGHTMAP_WIDTH + ds->lightmapX + x - j - 1;
-							filled[index >> 3] |= 1 << (index & 7);
-							(lightFloats + k*3)[0] = (lightFloats + bottom*3)[0];
-							(lightFloats + k*3)[1] = (lightFloats + bottom*3)[1];
-							(lightFloats + k*3)[2] = (lightFloats + bottom*3)[2];
-						}
-						pos = -1;
-					}
-				}
-			}
-		}
-		for (x = 0; x < width; x++)
-		{
-			pos = -2;
-			for (y = 0; y < height; y++)
-			{
-				index = (ds->lightmapY + y) * LIGHTMAP_WIDTH + ds->lightmapX + x;
-				if (pos == -2)
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-						pos = -1;
-				}
-				else if (pos == -1)
-				{
-					if (!(filled[index >> 3] & (1 << (index & 7))))
-						pos = y - 1;
-				}
-				else
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-					{
-						bottom = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + pos)
-							* LIGHTMAP_WIDTH + ds->lightmapX + x;
-						top = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-							* LIGHTMAP_WIDTH + ds->lightmapX + x;
-						for (j = 0; j < (y - pos + 1) / 2; j++)
-						{
-							k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + pos + j + 1)
-								* LIGHTMAP_WIDTH + ds->lightmapX + x;
-							index = (ds->lightmapY + pos + j + 1) * LIGHTMAP_WIDTH + ds->lightmapX + x;
-							filled[index >> 3] |= 1 << (index & 7);
-							(lightFloats + k*3)[0] = (lightFloats + top*3)[0];
-							(lightFloats + k*3)[1] = (lightFloats + top*3)[1];
-							(lightFloats + k*3)[2] = (lightFloats + top*3)[2];
-							k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y - j - 1)
-								* LIGHTMAP_WIDTH + ds->lightmapX + x;
-							index = (ds->lightmapY + y - j - 1) * LIGHTMAP_WIDTH + ds->lightmapX + x;
-							filled[index >> 3] |= 1 << (index & 7);
-							(lightFloats + k*3)[0] = (lightFloats + bottom*3)[0];
-							(lightFloats + k*3)[1] = (lightFloats + bottom*3)[1];
-							(lightFloats + k*3)[2] = (lightFloats + bottom*3)[2];
-						}
-						pos = -1;
-					}
-				}
-			}
-		}
-		for (y = 0; y < height; y++)
-		{
-			foundvalue = qfalse;
-			for (x = 0; x < width; x++)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				index = (ds->lightmapY + y) * LIGHTMAP_WIDTH + ds->lightmapX + x;
-				if (foundvalue)
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-					{
-						ptr = lightFloats + k*3;
-						color[0] = ptr[0];
-						color[1] = ptr[1];
-						color[2] = ptr[2];
-					}
-					else
-					{
-						ptr = lightFloats + k*3;
-						ptr[0] = color[0];
-						ptr[1] = color[1];
-						ptr[2] = color[2];
-						filled[index >> 3] |= 1 << (index & 7);
-					}
-				}
-				else
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-					{
-						ptr = lightFloats + k*3;
-						color[0] = ptr[0];
-						color[1] = ptr[1];
-						color[2] = ptr[2];
-						foundvalue = qtrue;
-					}
-				}
-			}
-			foundvalue = qfalse;
-			for (x = width-1; x >= 0; x--)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				index = (ds->lightmapY + y) * LIGHTMAP_WIDTH + ds->lightmapX + x;
-				if (foundvalue)
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-					{
-						ptr = lightFloats + k*3;
-						color[0] = ptr[0];
-						color[1] = ptr[1];
-						color[2] = ptr[2];
-					}
-					else
-					{
-						ptr = lightFloats + k*3;
-						ptr[0] = color[0];
-						ptr[1] = color[1];
-						ptr[2] = color[2];
-						filled[index >> 3] |= 1 << (index & 7);
-					}
-				}
-				else
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-					{
-						ptr = lightFloats + k*3;
-						color[0] = ptr[0];
-						color[1] = ptr[1];
-						color[2] = ptr[2];
-						foundvalue = qtrue;
-					}
-				}
-			}
-		}
-		for (x = 0; x < width; x++)
-		{
-			foundvalue = qfalse;
-			for (y = 0; y < height; y++)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				index = (ds->lightmapY + y) * LIGHTMAP_WIDTH + ds->lightmapX + x;
-				if (foundvalue)
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-					{
-						ptr = lightFloats + k*3;
-						color[0] = ptr[0];
-						color[1] = ptr[1];
-						color[2] = ptr[2];
-					}
-					else
-					{
-						ptr = lightFloats + k*3;
-						ptr[0] = color[0];
-						ptr[1] = color[1];
-						ptr[2] = color[2];
-						filled[index >> 3] |= 1 << (index & 7);
-					}
-				}
-				else
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-					{
-						ptr = lightFloats + k*3;
-						color[0] = ptr[0];
-						color[1] = ptr[1];
-						color[2] = ptr[2];
-						foundvalue = qtrue;
-					}
-				}
-			}
-			foundvalue = qfalse;
-			for (y = height-1; y >= 0; y--)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				index = (ds->lightmapY + y) * LIGHTMAP_WIDTH + ds->lightmapX + x;
-				if (foundvalue)
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-					{
-						ptr = lightFloats + k*3;
-						color[0] = ptr[0];
-						color[1] = ptr[1];
-						color[2] = ptr[2];
-					}
-					else
-					{
-						ptr = lightFloats + k*3;
-						ptr[0] = color[0];
-						ptr[1] = color[1];
-						ptr[2] = color[2];
-						filled[index >> 3] |= 1 << (index & 7);
-					}
-				}
-				else
-				{
-					if (filled[index >> 3] & (1 << (index & 7)))
-					{
-						ptr = lightFloats + k*3;
-						color[0] = ptr[0];
-						color[1] = ptr[1];
-						color[2] = ptr[2];
-						foundvalue = qtrue;
-					}
-				}
-			}
-		}
-		if (ds->surfaceType == MST_PATCH)
-		{
-			x = ds->lightmapWidth-1;
-			for (y = 0; y < ds->lightmapHeight; y++)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				ptr = lightFloats + k*3;
-				ptr[0] = (lightFloats + (k-1)*3)[0];
-				ptr[1] = (lightFloats + (k-1)*3)[1];
-				ptr[2] = (lightFloats + (k-1)*3)[2];
-			}
-			y = ds->lightmapHeight-1;
-			for (x = 0; x < ds->lightmapWidth; x++)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				ptr = lightFloats + k*3;
-				ptr[0] = (lightFloats + (k-LIGHTMAP_WIDTH)*3)[0];
-				ptr[1] = (lightFloats + (k-LIGHTMAP_WIDTH)*3)[1];
-				ptr[2] = (lightFloats + (k-LIGHTMAP_WIDTH)*3)[2];
-			}
-		}
-		/*
-		//colored debug edges
-		if (ds->surfaceType == MST_PATCH)
-		{
-			x = ds->lightmapWidth-1;
-			for (y = 0; y < ds->lightmapHeight; y++)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				ptr = lightFloats + k*3;
-				ptr[0] = 255;
-				ptr[1] = 0;
-				ptr[2] = 0;
-			}
-			y = ds->lightmapHeight-1;
-			for (x = 0; x < ds->lightmapWidth; x++)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				ptr = lightFloats + k*3;
-				ptr[0] = 0;
-				ptr[1] = 255;
-				ptr[2] = 0;
-			}
-		}
-		//*/
-	}
-	//
-	VL_SmoothenLightmapEdges();
-}
-
-/*
-=============
-VL_ShiftPatchLightmaps
-=============
-*/
-void VL_ShiftPatchLightmaps(void)
-{
-	int				i, j, x, y, k;
-	drawVert_t		*verts;
-	dsurface_t		*ds;
-	lsurfaceTest_t	*test;
-	float			*ptr;
-
-	for ( i = 0 ; i < numDrawSurfaces ; i++ )
-	{
-		test = lsurfaceTest[ i ];
-		if (!test)
-			continue;
-		ds = &drawSurfaces[ i ];
-
-		if ( ds->lightmapNum < 0 )
-			continue;
-		if (ds->surfaceType != MST_PATCH)
-			continue;
-		for (x = ds->lightmapWidth; x > 0; x--)
-		{
-			for (y = 0; y <= ds->lightmapHeight; y++)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				ptr = lightFloats + k*3;
-				ptr[0] = (lightFloats + (k-1)*3)[0];
-				ptr[1] = (lightFloats + (k-1)*3)[1];
-				ptr[2] = (lightFloats + (k-1)*3)[2];
-			}
-		}
-		for (y = ds->lightmapHeight; y > 0; y--)
-		{
-			for (x = 0; x <= ds->lightmapWidth; x++)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				ptr = lightFloats + k*3;
-				ptr[0] = (lightFloats + (k-LIGHTMAP_WIDTH)*3)[0];
-				ptr[1] = (lightFloats + (k-LIGHTMAP_WIDTH)*3)[1];
-				ptr[2] = (lightFloats + (k-LIGHTMAP_WIDTH)*3)[2];
-			}
-		}
-		verts = &drawVerts[ ds->firstVert ];
-		for ( j = 0 ; j < ds->patchHeight * ds->patchWidth; j++ )
-		{
-			verts[j].lightmap[0] += 0.5 / LIGHTMAP_WIDTH;
-			verts[j].lightmap[1] += 0.5 / LIGHTMAP_HEIGHT;
-		}
-		ds->lightmapHeight++;
-		ds->lightmapWidth++;
-	}
-}
-
-/*
-=============
-VL_StoreLightmap
-=============
-*/
-void VL_StoreLightmap(void)
-{
-	int				i, x, y, k;
-	dsurface_t		*ds;
-	lsurfaceTest_t	*test;
-	float			*src;
-	byte			*dst;
-
-	_printf("storing lightmaps...\n");
-	//fix lightmap edges before storing them
-	VL_FixLightmapEdges();
-	//
-#ifdef LIGHTMAP_PATCHSHIFT
-	VL_ShiftPatchLightmaps();
-#endif
-	//
-	for ( i = 0 ; i < numDrawSurfaces ; i++ )
-	{
-		test = lsurfaceTest[ i ];
-		if (!test)
-			continue;
-		ds = &drawSurfaces[ i ];
-
-		if ( ds->lightmapNum < 0 )
-			continue;
-
-		for (y = 0; y < ds->lightmapHeight; y++)
-		{
-			for (x = 0; x < ds->lightmapWidth; x++)
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y)
-						* LIGHTMAP_WIDTH + ds->lightmapX + x;
-				VectorAdd((lightFloats + k*3), lightAmbientColor, (lightFloats + k*3));
-				src = &lightFloats[k*3];
-				dst = lightBytes + k*3;
-				ColorToBytes(src, dst);
-			}
-		}
-	}
-}
-
-/*
-=============
-PointInLeafnum
-=============
-*/
-int	PointInLeafnum(vec3_t point)
-{
-	int		nodenum;
-	vec_t	dist;
-	dnode_t	*node;
-	dplane_t	*plane;
-
-	nodenum = 0;
-	while (nodenum >= 0)
-	{
-		node = &dnodes[nodenum];
-		plane = &dplanes[node->planeNum];
-		dist = DotProduct (point, plane->normal) - plane->dist;
-		if (dist > 0)
-			nodenum = node->children[0];
-		else
-			nodenum = node->children[1];
-	}
-
-	return -nodenum - 1;
-}
-
-/*
-=============
-VL_PointInLeafnum_r
-=============
-*/
-int	VL_PointInLeafnum_r(vec3_t point, int nodenum)
-{
-	int leafnum;
-	vec_t	dist;
-	dnode_t	*node;
-	dplane_t	*plane;
-
-	while (nodenum >= 0)
-	{
-		node = &dnodes[nodenum];
-		plane = &dplanes[node->planeNum];
-		dist = DotProduct (point, plane->normal) - plane->dist;
-		if (dist > 0.1)
-		{
-			nodenum = node->children[0];
-		}
-		else if (dist < -0.1)
-		{
-			nodenum = node->children[1];
-		}
-		else
-		{
-			leafnum = VL_PointInLeafnum_r(point, node->children[0]);
-			if (dleafs[leafnum].cluster != -1)
-				return leafnum;
-			nodenum = node->children[1];
-		}
-	}
-
-	leafnum = -nodenum - 1;
-	return leafnum;
-}
-
-/*
-=============
-VL_PointInLeafnum
-=============
-*/
-int	VL_PointInLeafnum(vec3_t point)
-{
-	return VL_PointInLeafnum_r(point, 0);
-}
-
-/*
-=============
-VL_LightLeafnum
-=============
-*/
-int VL_LightLeafnum(vec3_t point)
-{
-	/*
-	int leafnum;
-	dleaf_t *leaf;
-	float x, y, z;
-	vec3_t test;
-
-	leafnum = VL_PointInLeafnum(point);
-	leaf = &dleafs[leafnum];
-	if (leaf->cluster != -1)
-		return leafnum;
-	for (z = 1; z >= -1; z -= 1)
-	{
-		for (x = 1; x >= -1; x -= 1)
-		{
-			for (y = 1; y >= -1; y -= 1)
-			{
-				VectorCopy(point, test);
-				test[0] += x;
-				test[1] += y;
-				test[2] += z;
-				leafnum = VL_PointInLeafnum(test);
-				leaf = &dleafs[leafnum];
-				if (leaf->cluster != -1)
-				{
-					VectorCopy(test, point);
-					return leafnum;
-				}
-			}
-		}
-	}
-	return leafnum;
-	*/
-	return VL_PointInLeafnum(point);
-}
-
-//#define LIGHTPOLYS
-
-#ifdef LIGHTPOLYS
-
-winding_t *lightwindings[MAX_MAP_DRAW_SURFS];
-int numlightwindings;
-
-/*
-=============
-VL_DrawLightWindings
-=============
-*/
-void VL_DrawLightWindings(void)
-{
-	int i;
-	for (i = 0; i < numlightwindings; i++)
-	{
-#ifdef DEBUGNET
-		DebugNet_DrawWinding(lightwindings[i], 1);
-#endif
-	}
-}
-
-/*
-=============
-VL_LightSurfaceWithVolume
-=============
-*/
-void VL_LightSurfaceWithVolume(int surfaceNum, int facetNum, vlight_t *light, lightvolume_t *volume)
-{
-	winding_t *w;
-	lsurfaceTest_t *test;
-	lFacet_t *facet;
-	int i;
-
-	test = lsurfaceTest[ surfaceNum ];
-	facet = &test->facets[ facetNum ];
-
-	//
-	w = (winding_t *) malloc(sizeof(winding_t));
-	memcpy(w->points, facet->points, sizeof(vec3_t) * facet->numpoints);
-	w->numpoints = facet->numpoints;
-
-	for (i = 0; i < volume->numplanes; i++)
-	{
-		//if totally on the back
-		if (VL_ChopWinding(w, &volume->planes[i], 0.01) == SIDE_BACK)
-			return;
-	}
-	lightwindings[numlightwindings] = w;
-	numlightwindings++;
-	if (numlightwindings >= MAX_MAP_DRAW_SURFS)
-		Error("MAX_LIGHTWINDINGS");
-}
-
-#else
-
-/*
-=============
-VL_LightSurfaceWithVolume
-=============
-*/
-/*
-int VL_PointInsideLightVolume(vec3_t point, lightvolume_t *volume)
-{
-	int i;
-	float d;
-
-	for (i = 0; i < volume->numplanes; i++)
-	{
-		d = DotProduct(volume->planes[i].normal, point) - volume->planes[i].dist;
-		if (d < 0) return qfalse;
-	}
-	return qtrue;
-}
-
-void VL_LightSurfaceWithVolume( int surfaceNum, int facetNum, vlight_t *light, lightvolume_t *volume )
-{
-	dsurface_t	*ds;
-	int			i, j, k;
-	int			numPositions;
-	vec3_t		base, normal, color;
-	int			sampleWidth, sampleHeight;
-	vec3_t		lightmapOrigin, lightmapVecs[2], dir;
-	unsigned char *ptr;
-	float add, dist, angle;
-	mesh_t * mesh;
-
-	ds = &drawSurfaces[surfaceNum];
-
-	// vertex-lit triangle model
-	if ( ds->surfaceType == MST_TRIANGLE_SOUP ) {
-		return;
-	}
-	
-	if ( ds->lightmapNum < 0 ) {
-		return;		// doesn't need lighting
-	}
-
-	if ( ds->surfaceType == MST_PATCH ) {
-		mesh = lsurfaceTest[surfaceNum]->detailMesh;
-	} else {
-		VectorCopy( ds->lightmapVecs[2], normal );
-
-		VectorCopy( ds->lightmapOrigin, lightmapOrigin );
-		VectorCopy( ds->lightmapVecs[0], lightmapVecs[0] );
-		VectorCopy( ds->lightmapVecs[1], lightmapVecs[1] );
-	}
-
-	sampleWidth = ds->lightmapWidth;
-	sampleHeight = ds->lightmapHeight;
-
-	//calculate lightmap
-	for ( i = 0 ; i < sampleWidth; i++ ) {
-		for ( j = 0 ; j < sampleHeight; j++ ) {
-
-			if ( ds->patchWidth ) {
-				numPositions = 9;
-				VectorCopy( mesh->verts[j*mesh->width+i].normal, normal );
-				// VectorNormalize( normal, normal );
-				// push off of the curve a bit
-				VectorMA( mesh->verts[j*mesh->width+i].xyz, 1, normal, base );
-
-//				MakeNormalVectors( normal, lightmapVecs[0], lightmapVecs[1] );
-			} else {
-				numPositions = 9;
-				for ( k = 0 ; k < 3 ; k++ ) {
-					base[k] = lightmapOrigin[k] + normal[k]
-								+ ((float) i) * lightmapVecs[0][k]
-								+ ((float) j) * lightmapVecs[1][k];
-				}
-			}
-			VectorAdd( base, surfaceOrigin[ surfaceNum ], base );
-
-			VectorSubtract(base, light->origin, dir);
-			dist = VectorNormalize(dir, dir);
-			if ( dist < 16 ) {
-				dist = 16;
-			}
-			angle = 1;//DotProduct( normal, dir ); //1;
-			if (angle > 1)
-				angle = 1;
-			if ( light->atten_disttype == LDAT_LINEAR ) {
-				add = angle * light->photons * lightLinearScale - dist;
-				if ( add < 0 ) {
-					add = 0;
-				}
-			} else {
-				add = light->photons / ( dist * dist ) * angle;
-			}
-			if (add <= 1.0)
-				continue;
-
-			if (VL_PointInsideLightVolume(base, volume))
-			{
-				k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + j) 
-					* LIGHTMAP_WIDTH + ds->lightmapX + i;
-				ptr = lightBytes + k*3;
-				color[0] = (float) ptr[0] + add * light->color[0];
-				color[1] = (float) ptr[1] + add * light->color[1];
-				color[2] = (float) ptr[2] + add * light->color[2];
-				ColorToBytes(color, ptr);
-			}
-		}
-	}
-}
-*/
-
-/*
-=============
-VL_GetFilter
-
-FIXME:  don't use a lightmap pixel origin but use the four corner points
-		to map part of a translucent surface onto the lightmap pixel
-=============
-*/
-void VL_GetFilter(vlight_t *light, lightvolume_t *volume, vec3_t lmp, vec3_t filter)
-{
-	lFacet_t *facet;
-	lsurfaceTest_t *test;
-	float d, d1, d2, frac, s, t, ns;
-	int i, j, is, it, b;
-	int x, y, u, v, numsamples, radius, color[4], largest;
-	byte *image;
-	vec3_t point, origin, total;
-
-	VectorSet(filter, 1, 1, 1);
-
-	if (noalphashading)
-		return;
-
-	if (volume->numtransFacets <= 0)
-		return;
-
-	if (light->type == LIGHT_SURFACEDIRECTED)
-	{
-		// project the light map pixel origin onto the area light source plane
-		d = DotProduct(lmp, light->normal) - DotProduct(light->normal, light->w.points[0]);
-		VectorMA(lmp, -d, light->normal, origin);
-	}
-	else
-	{
-		VectorCopy(light->origin, origin);
-	}
-	for (i = 0; i < volume->numtransFacets; i++)
-	{
-		test = lsurfaceTest[ volume->transSurfaces[i] ];
-		facet = &test->facets[ volume->transFacets[i] ];
-		// if this surface does not cast an alpha shadow
-		if ( !(test->shader->surfaceFlags & SURF_ALPHASHADOW) )
-			continue;
-		// if there are no texture pixel available
-		if ( !test->shader->pixels ) {
-			continue;
-		}
-		//
-		d1 = DotProduct( origin, facet->plane.normal) - facet->plane.dist;
-		d2 = DotProduct( lmp, facet->plane.normal ) - facet->plane.dist;
-		// this should never happen because the light volume went through the facet
-		if ( ( d1 < 0 ) == ( d2 < 0 ) ) {
-			continue;
-		}
-		// calculate the crossing point
-		frac = d1 / ( d1 - d2 );
-
-		for ( j = 0 ; j < 3 ; j++ ) {
-			point[j] = origin[j] + frac * ( lmp[j] - origin[j] );
-		}
-
-		s = DotProduct( point, facet->textureMatrix[0] ) + facet->textureMatrix[0][3];
-		t = DotProduct( point, facet->textureMatrix[1] ) + facet->textureMatrix[1][3];
-		if (s < 0)
-			s = 0;
-		if (t < 0)
-			t = 0;
-
-		s = s - floor( s );
-		t = t - floor( t );
-
-		is = s * test->shader->width;
-		it = t * test->shader->height;
-
-		//if old style alpha shading
-		if (nocolorshading) {
-			image = test->shader->pixels + 4 * ( it * test->shader->width + is );
-
-			// alpha filter
-			b = image[3];
-
-			// alpha test makes this a binary option
-			b = b < 128 ? 0 : 255;
-
-			filter[0] = filter[0] * (255-b) / 255;
-			filter[1] = filter[1] * (255-b) / 255;
-			filter[2] = filter[2] * (255-b) / 255;
-		}
-		else {
-			VectorClear(total);
-			numsamples = 0;
-			radius = 2;
-			for ( u = -radius; u <= radius; u++ )
-			{
-				x = is + u;
-				if ( x < 0 || x >= test->shader->width)
-					continue;
-				for ( v = -radius; v <= radius; v++ )
-				{
-					y = it + v;
-					if ( y < 0 || y >= test->shader->height)
-						continue;
-
-					image = test->shader->pixels + 4 * ( y * test->shader->width + x );
-					color[0] = image[0];
-					color[1] = image[1];
-					color[2] = image[2];
-					largest = 0;
-					for (j = 0; j < 3; j++)
-						if (image[j] > largest)
-							largest = image[j];
-					if (largest <= 0 || image[3] == 0) {
-						color[0] = 255;
-						color[1] = 255;
-						color[2] = 255;
-						largest = 255;
-					}
-					total[0] += ((float) color[0]/largest) * (255-image[3]) / 255.0;
-					total[1] += ((float) color[1]/largest) * (255-image[3]) / 255.0;
-					total[2] += ((float) color[2]/largest) * (255-image[3]) / 255.0;
-					numsamples++;
-				}
-			}
-			ns = numsamples;
-			//
-			filter[0] *= total[0] / ns;
-			filter[1] *= total[1] / ns;
-			filter[2] *= total[2] / ns;
-		}
-	}
-}
-
-/*
-=============
-VL_LightSurfaceWithVolume
-=============
-*/
-void VL_LightSurfaceWithVolume( int surfaceNum, int facetNum, vlight_t *light, lightvolume_t *volume )
-{
-	int i;
-	dsurface_t	*ds;
-	lFacet_t *facet;
-	lsurfaceTest_t *test;
-	winding_t w;
-	vec3_t base, dir, delta, normal, filter, origin;
-	int min_x[LIGHTMAP_SIZE+2], max_x[LIGHTMAP_SIZE+2];
-	int min_y, max_y, k, x, y, n;
-	float *color, distscale;
-	float d, add, angle, dist, area, insidearea, coords[MAX_POINTS_ON_WINDING+1][2];
-	mesh_t *mesh;
-	byte polygonedges[(LIGHTMAP_SIZE+1) * (LIGHTMAP_SIZE+1) / 8];
-
-
-	ds = &drawSurfaces[surfaceNum];
-
-	// vertex-lit triangle model
-	if ( ds->surfaceType == MST_TRIANGLE_SOUP ) {
-		return;
-	}
-	
-	if ( ds->lightmapNum < 0 ) {
-		return;		// doesn't need lighting
-	}
-
-	test = lsurfaceTest[ surfaceNum ];
-	facet = &test->facets[ facetNum ];
-
-	if (defaulttracelight && !test->always_vlight)
-		return;
-	if (test->always_tracelight)
-		return;
-
-	memcpy(w.points, facet->points, sizeof(vec3_t) * facet->numpoints);
-	w.numpoints = facet->numpoints;
-
-	for (i = 0; i < volume->numplanes; i++)
-	{
-		//if totally on the back
-		if (VL_ChopWinding(&w, &volume->planes[i], 0.01) == SIDE_BACK)
-			return;
-	}
-
-	// only one thread at a time may write to the lightmap of this surface
-	MutexLock(test->mutex);
-
-	test->numvolumes++;
-
-	if (ds->surfaceType == MST_PATCH)
-	{
-		// FIXME: reduce size and don't mark all as edge
-		min_y = ds->lightmapY + facet->y;
-		max_y = ds->lightmapY + facet->y + facet->height - 1;
-		for (y = min_y; y <= max_y; y++)
-		{
-			min_x[y] = ds->lightmapX + facet->x;
-			max_x[y] = ds->lightmapX + facet->x + facet->width - 1;
-			for (x = min_x[y]; x <= max_x[y]; x++)
-			{
-				n = y * LIGHTMAP_SIZE + x;
-				polygonedges[n >> 3] |= 1 << (n & 7);
-			}
-		}
-	}
-	else
-	{
-		for (i = 0; i < w.numpoints; i++)
-		{
-			float	s, t;
-
-			if (i >= MAX_POINTS_ON_WINDING)
-				_printf("coords overflow\n");
-			if (ds->surfaceType != MST_PATCH)
-			{
-				VectorSubtract(w.points[i], facet->mins, delta);
-				s = DotProduct( delta, facet->lightmapMatrix[0] ) + ds->lightmapX + 0.5;
-				t = DotProduct( delta, facet->lightmapMatrix[1] ) + ds->lightmapY + 0.5;
-				if (s >= LIGHTMAP_SIZE)
-					s = LIGHTMAP_SIZE - 0.5;
-				if (s < 0)
-					s = 0;
-				if (t >= LIGHTMAP_SIZE)
-					t = LIGHTMAP_SIZE - 0.5;
-				if (t < 0)
-					t = 0;
-				coords[i][0] = s;
-				coords[i][1] = t;
-			}
-			else
-			{
-				s = DotProduct( w.points[i], facet->lightmapMatrix[0] ) + facet->lightmapMatrix[0][3];
-				t = DotProduct( w.points[i], facet->lightmapMatrix[1] ) + facet->lightmapMatrix[1][3];
-
-				s = s - floor( s );
-				t = t - floor( t );
-
-				coords[i][0] = ds->lightmapX + s * LIGHTMAP_SIZE;// + 0.5;
-				coords[i][1] = ds->lightmapY + t * LIGHTMAP_SIZE;// + 0.5;
-
-				if (coords[i][0] >= LIGHTMAP_SIZE)
-					coords[i][0] -= LIGHTMAP_SIZE;
-				if (coords[i][1] >= LIGHTMAP_SIZE)
-					coords[i][1] -= LIGHTMAP_SIZE;
-				if (coords[i][0] < ds->lightmapX)
-					coords[i][0] = ds->lightmapX;
-				if (coords[i][1] < ds->lightmapY)
-					coords[i][1] = ds->lightmapY;
-			}
-			x = coords[i][0];
-			y = coords[i][1];
-			if (x < ds->lightmapX || x >= LIGHTMAP_SIZE)
-				_printf("VL_LightSurfaceWithVolume: x outside lightmap\n");
-			if (y < ds->lightmapY || y >= LIGHTMAP_SIZE)
-				_printf("VL_LightSurfaceWithVolume: y outside lightmap\n");
-		}
-		coords[i][0] = coords[0][0];
-		coords[i][1] = coords[0][1];
-
-		//
-		min_y = LIGHTMAP_SIZE;
-		max_y = 0;
-		for (i = 0; i < LIGHTMAP_SIZE; i++)
-		{
-			min_x[i] = LIGHTMAP_SIZE;
-			max_x[i] = 0;
-		}
-		memset(polygonedges, 0, sizeof(polygonedges));
-		// scan convert the polygon onto the lightmap
-		// for each edge it marks *every* lightmap pixel the edge goes through
-		// so no brasenham and no scan conversion used for texture mapping but
-		// more something like ray casting
-		// this is necesary because we need all lightmap pixels totally or partly
-		// inside the light volume. these lightmap pixels are only lit for the part
-		// that they are inside the light volume.
-		for (i = 0; i < w.numpoints; i++)
-		{
-			float xf, yf, dx, dy, xstep, ystep, xfrac, yfrac;
-			int xinc, yinc;
-
-			xf = coords[i][0];
-			yf = coords[i][1];
-			dx = coords[i+1][0] - xf;
-			dy = coords[i+1][1] - yf;
-			//
-			x = (int) xf;
-			y = (int) yf;
-			//
-			if (y < min_y)
-				min_y = y;
-			if (y > max_y)
-				max_y = y;
-			//
-			if (fabs(dx) > fabs(dy))
-			{
-				if (dx > 0)
-				{
-					// y fraction at integer x below fractional x
-					yfrac = yf + (floor(xf) - xf) * dy / dx;
-					xinc = 1;
-				}
-				else if (dx < 0)
-				{
-					// y fraction at integer x above fractional x
-					yfrac = yf + (floor(xf) + 1 - xf) * dy / dx;
-					xinc = -1;
-				}
-				else
-				{
-					yfrac = yf;
-					xinc = 0;
-				}
-				// step in y direction per 1 unit in x direction
-				if (dx)
-					ystep = dy / fabs(dx);
-				else
-					ystep = 0;
-				while(1)
-				{
-					if (x < ds->lightmapX || x >= LIGHTMAP_SIZE)
-						_printf("VL_LightSurfaceWithVolume: x outside lightmap\n");
-					if (y < ds->lightmapY || y >= LIGHTMAP_SIZE)
-						_printf("VL_LightSurfaceWithVolume: y outside lightmap\n");
-					//
-					n = y * LIGHTMAP_SIZE + x;
-					polygonedges[n >> 3] |= 1 << (n & 7);
-					if (x < min_x[y])
-						min_x[y] = x;
-					if (x > max_x[y])
-						max_x[y] = x;
-					if (x == (int) coords[i+1][0])
-						break;
-					yfrac += ystep;
-					if (dy > 0)
-					{
-						if (yfrac > (float) y + 1)
-						{
-							y += 1;
-							//
-							n = y * LIGHTMAP_SIZE + x;
-							polygonedges[n >> 3] |= 1 << (n & 7);
-							if (x < min_x[y])
-								min_x[y] = x;
-							if (x > max_x[y])
-								max_x[y] = x;
-						}
-					}
-					else
-					{
-						if (yfrac < (float) y)
-						{
-							y -= 1;
-							//
-							n = y * LIGHTMAP_SIZE + x;
-							polygonedges[n >> 3] |= 1 << (n & 7);
-							if (x < min_x[y])
-								min_x[y] = x;
-							if (x > max_x[y])
-								max_x[y] = x;
-						}
-					}
-					x += xinc;
-				}
-			}
-			else
-			{
-				if (dy > 0)
-				{
-					//x fraction at integer y below fractional y
-					xfrac = xf + (floor(yf) - yf) * dx / dy;
-					yinc = 1;
-				}
-				else if (dy < 0)
-				{
-					//x fraction at integer y above fractional y
-					xfrac = xf + (floor(yf) + 1 - yf) * dx / dy;
-					yinc = -1;
-				}
-				else
-				{
-					xfrac = xf;
-					yinc = 0;
-				}
-				// step in x direction per 1 unit in y direction
-				if (dy)
-					xstep = dx / fabs(dy);
-				else
-					xstep = 0;
-				while(1)
-				{
-					if (x < ds->lightmapX || x >= LIGHTMAP_SIZE)
-						_printf("VL_LightSurfaceWithVolume: x outside lightmap\n");
-					if (y < ds->lightmapY || y >= LIGHTMAP_SIZE)
-						_printf("VL_LightSurfaceWithVolume: y outside lightmap\n");
-					//
-					n = y * LIGHTMAP_SIZE + x;
-					polygonedges[n >> 3] |= 1 << (n & 7);
-					if (x < min_x[y])
-						min_x[y] = x;
-					if (x > max_x[y])
-						max_x[y] = x;
-					if (y == (int) coords[i+1][1])
-						break;
-					xfrac += xstep;
-					if (dx > 0)
-					{
-						if (xfrac > (float) x + 1)
-						{
-							x += 1;
-							//
-							n = y * LIGHTMAP_SIZE + x;
-							polygonedges[n >> 3] |= 1 << (n & 7);
-							if (x < min_x[y])
-								min_x[y] = x;
-							if (x > max_x[y])
-								max_x[y] = x;
-						}
-					}
-					else
-					{
-						if (xfrac < (float) x)
-						{
-							x -= 1;
-							//
-							n = y * LIGHTMAP_SIZE + x;
-							polygonedges[n >> 3] |= 1 << (n & 7);
-							if (x < min_x[y])
-								min_x[y] = x;
-							if (x > max_x[y])
-								max_x[y] = x;
-						}
-					}
-					y += yinc;
-				}
-			}
-		}
-	}
-	// map light onto the lightmap
-	for (y = min_y; y <= max_y; y++)
-	{
-		for (x = min_x[y]; x <= max_x[y]; x++)
-		{
-			if (ds->surfaceType == MST_PATCH)
-			{
-				mesh = test->detailMesh;
-				VectorCopy( mesh->verts[(y-ds->lightmapY)*mesh->width+x-ds->lightmapX].xyz, base);
-				VectorCopy( mesh->verts[(y-ds->lightmapY)*mesh->width+x-ds->lightmapX].normal, normal);
-				//VectorCopy(facet->plane.normal, normal);
-			}
-			else
-			{
-				VectorMA(ds->lightmapOrigin, (float) x - ds->lightmapX, ds->lightmapVecs[0], base);
-				VectorMA(base, (float) y - ds->lightmapY, ds->lightmapVecs[1], base);
-				VectorCopy(facet->plane.normal, normal);
-			}
-			if (light->type == LIGHT_POINTSPOT)
-			{
-				float	distByNormal;
-				vec3_t	pointAtDist;
-				float	radiusAtDist;
-				float	sampleRadius;
-				vec3_t	distToSample;
-				float	coneScale;
-
-				VectorSubtract( light->origin, base, dir );
-
-				distByNormal = -DotProduct( dir, light->normal );
-				if ( distByNormal < 0 ) {
-					continue;
-				}
-				VectorMA( light->origin, distByNormal, light->normal, pointAtDist );
-				radiusAtDist = light->radiusByDist * distByNormal;
-
-				VectorSubtract( base, pointAtDist, distToSample );
-				sampleRadius = VectorLength( distToSample );
-
-				if ( sampleRadius >= radiusAtDist ) {
-					continue;		// outside the cone
-				}
-				if ( sampleRadius <= radiusAtDist - 32 ) {
-					coneScale = 1.0;	// fully inside
-				} else {
-					coneScale = ( radiusAtDist - sampleRadius ) / 32.0;
-				}
-				
-				dist = VectorNormalize( dir, dir );
-				// clamp the distance to prevent super hot spots
-				if ( dist < 16 ) {
-					dist = 16;
-				}
-				angle = DotProduct( normal, dir );
-				if (angle > 1)
-					angle = 1;
-				if (angle > 0) {
-					if ( light->atten_angletype == LAAT_QUADRATIC ) {
-						angle = 1 - angle;
-						angle *= angle;
-						angle = 1 - angle;
-					}
-					else if ( light->atten_angletype == LAAT_DOUBLEQUADRATIC ) {
-						angle = 1 - angle;
-						angle *= angle * angle;
-						angle = 1 - angle;
-					}
-				}
-				if (light->atten_anglescale > 0) {
-					angle /= light->atten_anglescale;
-					if (angle > 1)
-						angle = 1;
-				}
-				if (light->atten_distscale > 0) {
-					distscale = light->atten_distscale;
-				}
-				else {
-					distscale = 1;
-				}
-				//
-				if ( light->atten_disttype == LDAT_NOSCALE ) {
-					add = angle * coneScale;
-				}
-				else if ( light->atten_disttype == LDAT_LINEAR ) {
-					add = angle * light->photons * lightLinearScale * coneScale - dist * distscale;
-					if ( add < 0 ) {
-						add = 0;
-					}
-				}
-				else {
-					add = light->photons / ( dist * dist * distscale) * angle * coneScale;
-				}
-				if (add <= 1.0)
-					continue;
-			}
-			else if (light->type == LIGHT_POINTFAKESURFACE)
-			{
-				// calculate the contribution
-				add = PointToPolygonFormFactor( base, normal, &light->w );
-				if ( add <= 0 ) {
-					if ( light->twosided ) {
-						add = -add;
-					} else {
-						continue;
-					}
-				}
-			}
-			else if (light->type == LIGHT_SURFACEDIRECTED)
-			{
-				//VectorCopy(light->normal, dir);
-				//VectorInverse(dir);
-				// project the light map pixel origin onto the area light source plane
-				d = DotProduct(base, light->normal) - DotProduct(light->normal, light->w.points[0]);
-				VectorMA(base, -d, light->normal, origin);
-				VectorSubtract(origin, base, dir);
-				dist = VectorNormalize(dir, dir);
-				if ( dist < 16 ) {
-					dist = 16;
-				}
-				//
-				angle = DotProduct( normal, dir );
-				if (angle > 1)
-					angle = 1;
-				if (angle > 0) {
-					if ( light->atten_angletype == LAAT_QUADRATIC ) {
-						angle = 1 - angle;
-						angle *= angle;
-						angle = 1 - angle;
-					}
-					else if ( light->atten_angletype == LAAT_DOUBLEQUADRATIC ) {
-						angle = 1 - angle;
-						angle *= angle * angle;
-						angle = 1 - angle;
-					}
-				}
-				if (light->atten_anglescale > 0) {
-					angle /= light->atten_anglescale;
-					if (angle > 1)
-						angle = 1;
-				}
-				if (light->atten_distscale > 0) {
-					distscale = light->atten_distscale;
-				}
-				else {
-					distscale = 1;
-				}
-				if ( light->atten_disttype == LDAT_NOSCALE ) {
-					add = angle;
-				}
-				else if ( light->atten_disttype == LDAT_LINEAR ) {
-					add = angle * light->photons * lightLinearScale - dist * distscale;
-					if ( add < 0 ) {
-						add = 0;
-					}
-				} else { //default quadratic
-					add = light->photons / ( dist * dist * distscale) * angle;
-				}
-				if (add <= 0)
-					continue;
-			}
-			else //normal radial point light
-			{
-				VectorSubtract(light->origin, base, dir);
-				dist = VectorNormalize(dir, dir);
-				if ( dist < 16 ) {
-					dist = 16;
-				}
-				angle = DotProduct( normal, dir );
-				if (angle > 1)
-					angle = 1;
-				if (angle > 0) {
-					if ( light->atten_angletype == LAAT_QUADRATIC ) {
-						angle = 1 - angle;
-						angle *= angle;
-						angle = 1 - angle;
-					}
-					else if ( light->atten_angletype == LAAT_DOUBLEQUADRATIC ) {
-						angle = 1 - angle;
-						angle *= angle * angle;
-						angle = 1 - angle;
-					}
-				}
-				if (light->atten_anglescale > 0) {
-					angle /= light->atten_anglescale;
-					if (angle > 1)
-						angle = 1;
-				}
-				if (light->atten_distscale > 0) {
-					distscale = light->atten_distscale;
-				}
-				else {
-					distscale = 1;
-				}
-				if ( light->atten_disttype == LDAT_NOSCALE ) {
-					add = angle;
-				}
-				else if ( light->atten_disttype == LDAT_LINEAR ) {
-					add = angle * light->photons * lightLinearScale - dist * distscale;
-					if ( add < 0 ) {
-						add = 0;
-					}
-				} else {
-					add = light->photons / ( dist * dist * distscale) * angle;
-				}
-				if (add <= 1.0)
-					continue;
-			}
-			//
-			k = (ds->lightmapNum * LIGHTMAP_HEIGHT + y) * LIGHTMAP_WIDTH + x;
-			//if on one of the edges
-			n = y * LIGHTMAP_SIZE + x;
-			if ((polygonedges[n >> 3] & (1 << (n & 7)) ))
-			{
-				// multiply 'add' by the relative area being lit of the total visible lightmap pixel area
-				//
-				// first create a winding for the lightmap pixel
-				if (ds->surfaceType == MST_PATCH)
-				{
-					mesh = test->detailMesh;
-					if (y-ds->lightmapY >= mesh->height-1)
-						_printf("y outside mesh\n");
-					if (x-ds->lightmapX >= mesh->width-1)
-						_printf("x outside mesh\n");
-					VectorCopy( mesh->verts[(y-ds->lightmapY)*mesh->width+x-ds->lightmapX].xyz, w.points[0]);
-					VectorCopy( mesh->verts[(y+1-ds->lightmapY)*mesh->width+x-ds->lightmapX].xyz, w.points[1]);
-					VectorCopy( mesh->verts[(y+1-ds->lightmapY)*mesh->width+x+1-ds->lightmapX].xyz, w.points[2]);
-					VectorCopy( mesh->verts[(y-ds->lightmapY)*mesh->width+x+1-ds->lightmapX].xyz, w.points[3]);
-					w.numpoints = 4;
-				}
-				else
-				{
-					VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT - ds->lightmapX, ds->lightmapVecs[0], w.points[0]);
-					VectorMA(w.points[0], (float) y - LIGHTMAP_PIXELSHIFT - ds->lightmapY, ds->lightmapVecs[1], w.points[0]);
-					VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT - ds->lightmapX, ds->lightmapVecs[0], w.points[1]);
-					VectorMA(w.points[1], (float) y - LIGHTMAP_PIXELSHIFT + 1 - ds->lightmapY, ds->lightmapVecs[1], w.points[1]);
-					VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT + 1 - ds->lightmapX, ds->lightmapVecs[0], w.points[2]);
-					VectorMA(w.points[2], (float) y - LIGHTMAP_PIXELSHIFT + 1 - ds->lightmapY, ds->lightmapVecs[1], w.points[2]);
-					VectorMA(ds->lightmapOrigin, (float) x - LIGHTMAP_PIXELSHIFT + 1 - ds->lightmapX, ds->lightmapVecs[0], w.points[3]);
-					VectorMA(w.points[3], (float) y - LIGHTMAP_PIXELSHIFT - ds->lightmapY, ds->lightmapVecs[1], w.points[3]);
-					w.numpoints = 4;
-				}
-				//
-				// take the visible area of the lightmap pixel into account
-				//
-				//area = WindingArea(&w);
-				area = lightmappixelarea[k];
-				if (area <= 0)
-					continue;
-				// chop the lightmap pixel winding with the light volume
-				for (i = 0; i < volume->numplanes; i++)
-				{
-					//if totally on the back
-					if (VL_ChopWinding(&w, &volume->planes[i], 0) == SIDE_BACK)
-						break;
-				}
-				// if the lightmap pixel is partly inside the light volume
-				if (i >= volume->numplanes)
-				{
-					insidearea = WindingArea(&w);
-					if (insidearea <= 0)
-						i = 0;
-					add = add * insidearea / area;
-				}
-				else
-				{
-					//DebugNet_DrawWinding(&w, 2);
-					continue;	// this shouldn't happen
-				}
-			}
-			// get the light filter from all the translucent surfaces the light volume went through
-			VL_GetFilter(light, volume, base, filter);
-			//
-			color = &lightFloats[k*3];
-			color[0] += add * light->color[0] * filter[0];
-			color[1] += add * light->color[1] * filter[1];
-			color[2] += add * light->color[2] * filter[2];
-		}
-	}
-
-	MutexUnlock(test->mutex);
-}
-
-#endif
-
-/*
-=============
-VL_SplitLightVolume
-=============
-*/
-int VL_SplitLightVolume(lightvolume_t *volume, lightvolume_t *back, plane_t *split, float epsilon)
-{
-	lightvolume_t f, b;
-	vec_t	dists[128];
-	int		sides[128];
-	int		counts[3];
-	vec_t	dot;
-	int		i, j;
-	vec_t	*p1, *p2;
-	vec3_t	mid;
-
-	counts[0] = counts[1] = counts[2] = 0;
-
-	// determine sides for each point
-	for (i = 0; i < volume->numplanes; i++)
-	{
-		dot = DotProduct (volume->points[i], split->normal);
-		dot -= split->dist;
-		dists[i] = dot;
-		if (dot > epsilon)
-			sides[i] = SIDE_FRONT;
-		else if (dot < -epsilon)
-			sides[i] = SIDE_BACK;
-		else
-		{
-			sides[i] = SIDE_ON;
-		}
-		counts[sides[i]]++;
-	}
-
-	if (!counts[1])
-		return 0;		// completely on front side
-	
-	if (!counts[0])
-		return 1;		// completely on back side
-
-	sides[i] = sides[0];
-	dists[i] = dists[0];
-	
-	f.numplanes = 0;
-	b.numplanes = 0;
-
-	for (i = 0; i < volume->numplanes; i++)
-	{
-		p1 = volume->points[i];
-
-		if (f.numplanes >= MAX_POINTS_ON_FIXED_WINDING)
-		{
-			_printf("WARNING: VL_SplitLightVolume -> MAX_POINTS_ON_FIXED_WINDING overflowed\n");
-			return 0;		// can't chop -- fall back to original
-		}
-		if (b.numplanes >= MAX_POINTS_ON_FIXED_WINDING)
-		{
-			_printf("WARNING: VL_SplitLightVolume -> MAX_POINTS_ON_FIXED_WINDING overflowed\n");
-			return 0;		// can't chop -- fall back to original
-		}
-
-		if (sides[i] == SIDE_ON)
-		{
-			VectorCopy(p1, f.points[f.numplanes]);
-			VectorCopy(p1, b.points[b.numplanes]);
-			if (sides[i+1] == SIDE_BACK)
-			{
-				f.planes[f.numplanes] = *split;
-				b.planes[b.numplanes] = volume->planes[i];
-			}
-			else if (sides[i+1] == SIDE_FRONT)
-			{
-				f.planes[f.numplanes] = volume->planes[i];
-				b.planes[b.numplanes] = *split;
-				VectorInverse(b.planes[b.numplanes].normal);
-				b.planes[b.numplanes].dist = -b.planes[b.numplanes].dist;
-			}
-			else //this shouldn't happen
-			{
-				f.planes[f.numplanes] = *split;
-				b.planes[b.numplanes] = *split;
-				VectorInverse(b.planes[b.numplanes].normal);
-				b.planes[b.numplanes].dist = -b.planes[b.numplanes].dist;
-			}
-			f.numplanes++;
-			b.numplanes++;
-			continue;
-		}
-	
-		if (sides[i] == SIDE_FRONT)
-		{
-			VectorCopy (p1, f.points[f.numplanes]);
-			f.planes[f.numplanes] = volume->planes[i];
-			f.numplanes++;
-		}
-		if (sides[i] == SIDE_BACK)
-		{
-			VectorCopy (p1, b.points[b.numplanes]);
-			b.planes[b.numplanes] = volume->planes[i];
-			b.numplanes++;
-		}
-		
-		if (sides[i+1] == SIDE_ON || sides[i+1] == sides[i])
-			continue;
-			
-		if (f.numplanes >= MAX_POINTS_ON_FIXED_WINDING)
-		{
-			_printf("WARNING: VL_SplitLightVolume -> MAX_POINTS_ON_FIXED_WINDING overflowed\n");
-			return 0;		// can't chop -- fall back to original
-		}
-		if (b.numplanes >= MAX_POINTS_ON_FIXED_WINDING)
-		{
-			_printf("WARNING: VL_SplitLightVolume -> MAX_POINTS_ON_FIXED_WINDING overflowed\n");
-			return 0;		// can't chop -- fall back to original
-		}
-
-		// generate a split point
-		p2 = volume->points[(i+1)%volume->numplanes];
-		
-		dot = dists[i] / (dists[i]-dists[i+1]);
-		for (j=0 ; j<3 ; j++)
-		{	// avoid round off error when possible
-			if (split->normal[j] == 1)
-				mid[j] = split->dist;
-			else if (split->normal[j] == -1)
-				mid[j] = -split->dist;
-			else
-				mid[j] = p1[j] + dot*(p2[j]-p1[j]);
-		}
-
-		VectorCopy (mid, f.points[f.numplanes]);
-		VectorCopy(mid, b.points[b.numplanes]);
-		if (sides[i+1] == SIDE_BACK)
-		{
-			f.planes[f.numplanes] = *split;
-			b.planes[b.numplanes] = volume->planes[i];
-		}
-		else
-		{
-			f.planes[f.numplanes] = volume->planes[i];
-			b.planes[b.numplanes] = *split;
-			VectorInverse(b.planes[b.numplanes].normal);
-			b.planes[b.numplanes].dist = -b.planes[b.numplanes].dist;
-		}
-		f.numplanes++;
-		b.numplanes++;
-	}
-	memcpy(volume->points, f.points, sizeof(vec3_t) * f.numplanes);
-	memcpy(volume->planes, f.planes, sizeof(plane_t) * f.numplanes);
-	volume->numplanes = f.numplanes;
-	memcpy(back->points, b.points, sizeof(vec3_t) * b.numplanes);
-	memcpy(back->planes, b.planes, sizeof(plane_t) * b.numplanes);
-	back->numplanes = b.numplanes;
-
-	return 2;
-}
-
-/*
-=============
-VL_PlaneForEdgeToWinding
-=============
-*/
-void VL_PlaneForEdgeToWinding(vec3_t p1, vec3_t p2, winding_t *w, int windingonfront, plane_t *plane)
-{
-	int i, j;
-	float length, d;
-	vec3_t v1, v2;
-
-	VectorSubtract(p2, p1, v1);
-	for (i = 0; i < w->numpoints; i++)
-	{
-		VectorSubtract (w->points[i], p1, v2);
-
-		plane->normal[0] = v1[1]*v2[2] - v1[2]*v2[1];
-		plane->normal[1] = v1[2]*v2[0] - v1[0]*v2[2];
-		plane->normal[2] = v1[0]*v2[1] - v1[1]*v2[0];
-			
-		// if points don't make a valid plane, skip it
-		length = plane->normal[0] * plane->normal[0]
-					+ plane->normal[1] * plane->normal[1]
-					+ plane->normal[2] * plane->normal[2];
-			
-		if (length < ON_EPSILON)
-			continue;
-
-		length = 1/sqrt(length);
-			
-		plane->normal[0] *= length;
-		plane->normal[1] *= length;
-		plane->normal[2] *= length;
-
-		plane->dist = DotProduct (w->points[i], plane->normal);
-		//
-		for (j = 0; j < w->numpoints; j++)
-		{
-			if (j == i)
-				continue;
-			d = DotProduct(w->points[j], plane->normal) - plane->dist;
-			if (windingonfront)
-			{
-				if (d < -ON_EPSILON)
-					break;
-			}
-			else
-			{
-				if (d > ON_EPSILON)
-					break;
-			}
-		}
-		if (j >= w->numpoints)
-			return;
-	}
-}
-
-/*
-=============
-VL_R_CastLightAtSurface
-=============
-*/
-void VL_R_FloodLight(vlight_t *light, lightvolume_t *volume, int cluster, int firstportal);
-
-void VL_R_CastLightAtSurface(vlight_t *light, lightvolume_t *volume)
-{
-	lsurfaceTest_t *test;
-	int i, n;
-
-	// light the surface with this volume
-	VL_LightSurfaceWithVolume(volume->surfaceNum, volume->facetNum, light, volume);
-	//
-	test = lsurfaceTest[ volume->surfaceNum ];
-	// if this is not a translucent surface
-	if ( !(test->shader->surfaceFlags & SURF_ALPHASHADOW) && !(test->shader->contents & CONTENTS_TRANSLUCENT))
-		return;
-	//
-	if (volume->numtransFacets >= MAX_TRANSLUCENTFACETS)
-		Error("a light valume went through more than %d translucent facets", MAX_TRANSLUCENTFACETS);
-	//add this translucent surface to the list
-	volume->transSurfaces[volume->numtransFacets] = volume->surfaceNum;
-	volume->transFacets[volume->numtransFacets] = volume->facetNum;
-	volume->numtransFacets++;
-	//clear the tested facets except the translucent ones
-	memset(volume->facetTested, 0, sizeof(volume->facetTested));
-	for (i = 0; i < volume->numtransFacets; i++)
-	{
-		test = lsurfaceTest[ volume->transSurfaces[i] ];
-		n = test->facets[volume->transFacets[i]].num;
-		volume->facetTested[n >> 3] |= 1 << (n & 7);
-	}
-	memset(volume->clusterTested, 0, sizeof(volume->clusterTested));
-	volume->endplane = volume->farplane;
-	volume->surfaceNum = -1;
-	volume->facetNum = 0;
-	VL_R_FloodLight(light, volume, volume->cluster, 0);
-	if (volume->surfaceNum >= 0)
-	{
-		VL_R_CastLightAtSurface(light, volume);
-	}
-}
-
-/*
-=============
-VL_R_SplitLightVolume
-=============
-*/
-int numvolumes = 0;
-
-int VL_R_SplitLightVolume(vlight_t *light, lightvolume_t *volume, plane_t *split, int cluster, int firstportal)
-{
-	lightvolume_t back;
-	int res;
-
-	//
-	res = VL_SplitLightVolume(volume, &back, split, 0.1);
-	// if the volume was split
-	if (res == 2)
-	{
-		memcpy(back.clusterTested, volume->clusterTested, sizeof(back.clusterTested));
-		memcpy(back.facetTested, volume->facetTested, sizeof(back.facetTested));
-		back.num = numvolumes++;
-		back.endplane = volume->endplane;
-		back.surfaceNum = volume->surfaceNum;
-		back.facetNum = volume->facetNum;
-		back.type = volume->type;
-		back.cluster = volume->cluster;
-		back.farplane = volume->farplane;
-		if (volume->numtransFacets > 0)
-		{
-			memcpy(back.transFacets, volume->transFacets, sizeof(back.transFacets));
-			memcpy(back.transSurfaces, volume->transSurfaces, sizeof(back.transSurfaces));
-		}
-		back.numtransFacets = volume->numtransFacets;
-		//
-		// flood the volume at the back of the split plane
-		VL_R_FloodLight(light, &back, cluster, firstportal);
-		// if the back volume hit a surface
-		if (back.surfaceNum >= 0)
-		{
-			VL_R_CastLightAtSurface(light, &back);
-		}
-	}
-	return res;
-}
-
-/*
-=============
-VL_R_FloodLight
-=============
-*/
-void VL_R_FloodLight(vlight_t *light, lightvolume_t *volume, int cluster, int firstportal)
-{
-	int i, j, k, res, surfaceNum, backfaceculled, testculled;
-	float d;
-	winding_t winding, tmpwinding;
-	lleaf_t *leaf;
-	lportal_t *p;
-	lsurfaceTest_t *test;
-	lFacet_t *facet;
-	vec3_t dir1, dir2;
-	plane_t plane;
-
-	//	DebugNet_RemoveAllPolys();
-	//	VL_DrawLightVolume(light, volume);
-
-	// if the first portal is not zero then we've checked all occluders in this leaf already
-	if (firstportal == 0)
-	{
-		// check all potential occluders in this leaf
-		for (i = 0; i < leafs[cluster].numSurfaces; i++)
-		{
-			surfaceNum = clustersurfaces[leafs[cluster].firstSurface + i];
-			//
-			test = lsurfaceTest[ surfaceNum ];
-			if ( !test )
-				continue;
-			//
-			testculled = qfalse;
-			// use surface as an occluder
-			for (j = 0; j < test->numFacets; j++)
-			{
-				// use each facet as an occluder
-				facet = &test->facets[j];
-				//
-				//	memcpy(winding.points, facet->points, sizeof(vec3_t) * facet->numpoints);
-				//	winding.numpoints = facet->numpoints;
-				//	DebugNet_DrawWinding(&winding, 5);
-				//
-				// if the facet was tested already
-				if ( volume->facetTested[facet->num >> 3] & (1 << (facet->num & 7)) )
-					continue;
-				volume->facetTested[facet->num >> 3] |= 1 << (facet->num & 7);
-				// backface culling for planar surfaces
-				backfaceculled = qfalse;
-				if (!test->patch && !test->trisoup)
-				{
-					if (volume->type == VOLUME_NORMAL)
-					{
-						// facet backface culling
-						d = DotProduct(light->origin, facet->plane.normal) - facet->plane.dist;
-						if (d < 0)
-						{
-							// NOTE: this doesn't work too great because of sometimes very bad tesselation
-							//		of surfaces that are supposed to be flat
-							// FIXME: to work around this problem we should make sure that all facets
-							//		created from planar surfaces use the lightmapVecs normal vector
-							/*
-							if ( !test->shader->twoSided )
-							{
-								// skip all other facets of this surface as well because they are in the same plane
-								for (k = 0; k < test->numFacets; k++)
-								{
-									facet = &test->facets[k];
-									volume->facetTested[facet->num >> 3] |= 1 << (facet->num & 7);
-								}
-							}*/
-							backfaceculled = qtrue;
-						}
-					}
-					else
-					{
-						// FIXME: if all light source winding points are at the back of the facet
-						//			plane then backfaceculled = qtrue
-					}
-				}
-				else // backface culling per facet for patches and triangle soups
-				{
-					if (volume->type == VOLUME_NORMAL)
-					{
-						// facet backface culling
-						d = DotProduct(light->origin, facet->plane.normal) - facet->plane.dist;
-						if (d < 0)
-							backfaceculled = qtrue;
-					}
-					else
-					{
-						// FIXME: if all light source winding points are at the back of the facet
-						//			plane then backfaceculled = qtrue
-					}
-				}
-				/* chopping does this already
-				// check if this facet is totally or partly in front of the volume end plane
-				for (k = 0; k < facet->numpoints; k++)
-				{
-					d = DotProduct(volume->endplane.normal, facet->points[k]) - volume->endplane.dist;
-					if (d > ON_EPSILON)
-						break;
-				}
-				// if this facet is outside the light volume
-				if (k >= facet->numpoints)
-					continue;
-				*/
-				//
-				if (backfaceculled)
-				{
-					// if the facet is not two sided
-					if ( !nobackfaceculling && !test->shader->twoSided )
-						continue;
-					// flip the winding
-					for (k = 0; k < facet->numpoints; k++)
-						VectorCopy(facet->points[k], winding.points[facet->numpoints - k - 1]);
-					winding.numpoints = facet->numpoints;
-				}
-				else
-				{
-					memcpy(winding.points, facet->points, sizeof(vec3_t) * facet->numpoints);
-					winding.numpoints = facet->numpoints;
-				}
-				//
-				if (!testculled)
-				{
-					testculled = qtrue;
-					// fast check if the surface sphere is totally behind the volume end plane
-					d = DotProduct(volume->endplane.normal, test->origin) - volume->endplane.dist;
-					if (d < -test->radius)
-					{
-						for (k = 0; k < test->numFacets; k++)
-						{
-							facet = &test->facets[k];
-							volume->facetTested[facet->num >> 3] |= 1 << (facet->num & 7);
-						}
-						break;
-					}
-					for (k = 0; k < volume->numplanes; k++)
-					{
-						d = DotProduct(volume->planes[k].normal, test->origin) - volume->planes[k].dist;
-						if (d < - test->radius)
-						{
-							for (k = 0; k < test->numFacets; k++)
-							{
-								facet = &test->facets[k];
-								volume->facetTested[facet->num >> 3] |= 1 << (facet->num & 7);
-							}
-							break;
-						}
-					}
-					if (k < volume->numplanes)
-						break;
-				}
-				//NOTE: we have to chop the facet winding with the volume end plane because
-				//		the faces in Q3 are not stitched together nicely
-				res = VL_ChopWinding(&winding, &volume->endplane, 0.01);
-				// if the facet is on or at the back of the volume end plane
-				if (res == SIDE_BACK || res == SIDE_ON)
-					continue;
-				// check if the facet winding is totally or partly inside the light volume
-				memcpy(&tmpwinding, &winding, sizeof(winding_t));
-				for (k = 0; k < volume->numplanes; k++)
-				{
-					res = VL_ChopWinding(&tmpwinding, &volume->planes[k], 0.01);
-					if (res == SIDE_BACK || res == SIDE_ON)
-						break;
-				}
-				// if no part of the light volume is occluded by this facet
-				if (k < volume->numplanes)
-					continue;
-				//
-				for (k = 0; k < winding.numpoints; k++)
-				{
-					if (volume->type == VOLUME_DIRECTED)
-					{
-						VectorSubtract(winding.points[(k+1) % winding.numpoints], winding.points[k], dir1);
-						CrossProduct(light->normal, dir1, plane.normal);
-						VectorNormalize(plane.normal, plane.normal);
-						plane.dist = DotProduct(plane.normal, winding.points[k]);
-					}
-					else
-					{
-						VectorSubtract(winding.points[(k+1) % winding.numpoints], winding.points[k], dir1);
-						VectorSubtract(light->origin, winding.points[k], dir2);
-						CrossProduct(dir1, dir2, plane.normal);
-						VectorNormalize(plane.normal, plane.normal);
-						plane.dist = DotProduct(plane.normal, winding.points[k]);
-					}
-					res = VL_R_SplitLightVolume(light, volume, &plane, cluster, 0);
-					if (res == 1)
-						break; //the facet wasn't really inside the volume
-				}
-				if (k >= winding.numpoints)
-				{
-					volume->endplane = facet->plane;
-					if (backfaceculled)
-					{
-						VectorInverse(volume->endplane.normal);
-						volume->endplane.dist = -volume->endplane.dist;
-					}
-					volume->surfaceNum = surfaceNum;
-					volume->facetNum = j;
-				}
-			}
-		}
-	}
-	// we've tested all occluders in this cluster
-	volume->clusterTested[cluster >> 3] |= 1 << (cluster & 7);
-	// flood light through the portals of the current leaf
-	leaf = &leafs[cluster];
-	for (i = firstportal; i < leaf->numportals; i++)
-	{
-		p = leaf->portals[i];
-		//
-		//	memcpy(&winding, p->winding, sizeof(winding_t));
-		//	DebugNet_DrawWinding(&winding, 5);
-		// if already flooded into the cluster this portal leads to
-		if ( volume->clusterTested[p->leaf >> 3] & (1 << (p->leaf & 7)) )
-			continue;
-		//
-		if (volume->type == VOLUME_NORMAL)
-		{
-			// portal backface culling
-			d = DotProduct(light->origin, p->plane.normal) - p->plane.dist;
-			if (d > 0) // portal plane normal points into neighbour cluster
-				continue;
-		}
-		else
-		{
-			// FIXME: if all light source winding points are at the back of this portal
-			//			plane then there's no need to flood through
-		}
-		// check if this portal is totally or partly in front of the volume end plane
-		// fast check with portal sphere
-		d = DotProduct(volume->endplane.normal, p->origin) - volume->endplane.dist;
-		if (d < -p->radius)
-			continue;
-		for (j = 0; j < p->winding->numpoints; j++)
-		{
-			d = DotProduct(volume->endplane.normal, p->winding->points[j]) - volume->endplane.dist;
-			if (d > -0.01)
-				break;
-		}
-		// if this portal is totally behind the light volume end plane
-		if (j >= p->winding->numpoints)
-			continue;
-		//distance from point light to portal
-		d = DotProduct(p->plane.normal, light->origin) - p->plane.dist;
-		// only check if a point light is Not *on* the portal
-		if (volume->type != VOLUME_NORMAL || fabs(d) > 0.1)
-		{
-			// check if the portal is partly or totally inside the light volume
-			memcpy(&winding, p->winding, sizeof(winding_t));
-			for (j = 0; j < volume->numplanes; j++)
-			{
-				res = VL_ChopWinding(&winding, &volume->planes[j], 0.01);
-				if (res == SIDE_BACK || res == SIDE_ON)
-					break;
-			}
-			// if the light volume does not go through this portal at all
-			if (j < volume->numplanes)
-				continue;
-		}
-		// chop the light volume with the portal
-		for (k = 0; k < p->winding->numpoints; k++)
-		{
-			if (volume->type == VOLUME_DIRECTED)
-			{
-				VectorSubtract(p->winding->points[(k+1) % p->winding->numpoints], p->winding->points[k], dir1);
-				CrossProduct(light->normal, dir1, plane.normal);
-				VectorNormalize(plane.normal, plane.normal);
-				plane.dist = DotProduct(plane.normal, p->winding->points[k]);
-			}
-			else
-			{
-				VectorSubtract(p->winding->points[(k+1) % p->winding->numpoints], p->winding->points[k], dir1);
-				VectorSubtract(light->origin, p->winding->points[k], dir2);
-				CrossProduct(dir1, dir2, plane.normal);
-				VectorNormalize(plane.normal, plane.normal);
-				plane.dist = DotProduct(plane.normal, p->winding->points[k]);
-			}
-			res = VL_R_SplitLightVolume(light, volume, &plane, cluster, i+1);
-			if (res == 1)
-				break; //volume didn't really go through the portal
-		}
-		// if the light volume went through the portal
-		if (k >= p->winding->numpoints)
-		{
-			// flood through the portal
-			VL_R_FloodLight(light, volume, p->leaf, 0);
-		}
-	}
-}
-
-/*
-=============
-VL_R_FloodAreaSpotLight
-=============
-*/
-void VL_FloodAreaSpotLight(vlight_t *light, winding_t *w, int leafnum)
-{
-}
-
-/*
-=============
-VL_R_SubdivideAreaSpotLight
-=============
-*/
-void VL_R_SubdivideAreaSpotLight(vlight_t *light, int nodenum, winding_t *w)
-{
-	int leafnum, res;
-	dnode_t *node;
-	dplane_t *plane;
-	winding_t back;
-	plane_t split;
-
-	while(nodenum >= 0)
-	{
-		node = &dnodes[nodenum];
-		plane = &dplanes[node->planeNum];
-
-		VectorCopy(plane->normal, split.normal);
-		split.dist = plane->dist;
-		res = VL_SplitWinding (w, &back, &split, 0.1);
-
-		if (res == SIDE_FRONT)
-		{
-			nodenum = node->children[0];
-		}
-		else if (res == SIDE_BACK)
-		{
-			nodenum = node->children[1];
-		}
-		else if (res == SIDE_ON)
-		{
-			memcpy(&back, w, sizeof(winding_t));
-			VL_R_SubdivideAreaSpotLight(light, node->children[1], &back);
-			nodenum = node->children[0];
-		}
-		else
-		{
-			VL_R_SubdivideAreaSpotLight(light, node->children[1], &back);
-			nodenum = node->children[0];
-		}
-	}
-	leafnum = -nodenum - 1;
-	if (dleafs[leafnum].cluster != -1)
-	{
-		VL_FloodAreaSpotLight(light, w, leafnum);
-	}
-}
-
-/*
-=============
-VL_R_FloodRadialAreaLight
-=============
-*/
-void VL_FloodRadialAreaLight(vlight_t *light, winding_t *w, int leafnum)
-{
-}
-
-/*
-=============
-VL_R_SubdivideRadialAreaLight
-=============
-*/
-void VL_R_SubdivideRadialAreaLight(vlight_t *light, int nodenum, winding_t *w)
-{
-	int leafnum, res;
-	dnode_t *node;
-	dplane_t *plane;
-	winding_t back;
-	plane_t split;
-
-	while(nodenum >= 0)
-	{
-		node = &dnodes[nodenum];
-		plane = &dplanes[node->planeNum];
-
-		VectorCopy(plane->normal, split.normal);
-		split.dist = plane->dist;
-		res = VL_SplitWinding (w, &back, &split, 0.1);
-
-		if (res == SIDE_FRONT)
-		{
-			nodenum = node->children[0];
-		}
-		else if (res == SIDE_BACK)
-		{
-			nodenum = node->children[1];
-		}
-		else if (res == SIDE_ON)
-		{
-			memcpy(&back, w, sizeof(winding_t));
-			VL_R_SubdivideRadialAreaLight(light, node->children[1], &back);
-			nodenum = node->children[0];
-		}
-		else
-		{
-			VL_R_SubdivideRadialAreaLight(light, node->children[1], &back);
-			nodenum = node->children[0];
-		}
-	}
-	leafnum = -nodenum - 1;
-	if (dleafs[leafnum].cluster != -1)
-	{
-		VL_FloodRadialAreaLight(light, w, leafnum);
-	}
-}
-
-/*
-=============
-VL_R_FloodDirectedLight
-=============
-*/
-void VL_FloodDirectedLight(vlight_t *light, winding_t *w, int leafnum)
-{
-	int i;
-	float dist;
-	lightvolume_t volume;
-	vec3_t dir;
-
-	if (light->atten_disttype == LDAT_NOSCALE)
-	{
-		// light travels without decrease in intensity over distance
-		dist = MAX_WORLD_COORD;
-	}
-	else
-	{
-		if ( light->atten_disttype == LDAT_LINEAR )
-			dist = light->photons * lightLinearScale;
-		else
-			dist = sqrt(light->photons);
-	}
-
-	memset(&volume, 0, sizeof(lightvolume_t));
-	for (i = 0; i < w->numpoints; i++)
-	{
-		VectorMA(w->points[i], dist, light->normal, volume.points[i]);
-		VectorSubtract(w->points[(i+1)%w->numpoints], w->points[i], dir);
-		CrossProduct(light->normal, dir, volume.planes[i].normal);
-		VectorNormalize(volume.planes[i].normal, volume.planes[i].normal);
-		volume.planes[i].dist = DotProduct(volume.planes[i].normal, w->points[i]);
-	}
-	volume.numplanes = w->numpoints;
-	VectorCopy(light->normal, volume.endplane.normal);
-	VectorInverse(volume.endplane.normal);
-	volume.endplane.dist = DotProduct(volume.endplane.normal, volume.points[0]);
-	volume.farplane = volume.endplane;
-	volume.surfaceNum = -1;
-	volume.type = VOLUME_DIRECTED;
-	volume.cluster = dleafs[leafnum].cluster;
-	VL_R_FloodLight(light, &volume, volume.cluster, 0);
-	if (volume.surfaceNum >= 0)
-	{
-		VL_R_CastLightAtSurface(light, &volume);
-	}
-}
-
-/*
-=============
-VL_R_SubdivideDirectedAreaLight
-=============
-*/
-void VL_R_SubdivideDirectedAreaLight(vlight_t *light, int nodenum, winding_t *w)
-{
-	int leafnum, res;
-	dnode_t *node;
-	dplane_t *plane;
-	winding_t back;
-	plane_t split;
-
-	while(nodenum >= 0)
-	{
-		node = &dnodes[nodenum];
-		plane = &dplanes[node->planeNum];
-
-		VectorCopy(plane->normal, split.normal);
-		split.dist = plane->dist;
-		res = VL_SplitWinding (w, &back, &split, 0.1);
-
-		if (res == SIDE_FRONT)
-		{
-			nodenum = node->children[0];
-		}
-		else if (res == SIDE_BACK)
-		{
-			nodenum = node->children[1];
-		}
-		else if (res == SIDE_ON)
-		{
-			memcpy(&back, w, sizeof(winding_t));
-			VL_R_SubdivideDirectedAreaLight(light, node->children[1], &back);
-			nodenum = node->children[0];
-		}
-		else
-		{
-			VL_R_SubdivideDirectedAreaLight(light, node->children[1], &back);
-			nodenum = node->children[0];
-		}
-	}
-	leafnum = -nodenum - 1;
-	if (dleafs[leafnum].cluster != -1)
-	{
-		VL_FloodDirectedLight(light, w, leafnum);
-	}
-}
-
-/*
-=============
-VL_FloodLight
-=============
-*/
-void VL_FloodLight(vlight_t *light)
-{
-	lightvolume_t volume;
-	dleaf_t *leaf;
-	int leafnum, i, j, k, dir[2][4] = {{1, 1, -1, -1}, {1, -1, -1, 1}};
-	float a, step, dist, radius, windingdist;
-	vec3_t vec, r, p, temp;
-	winding_t winding;
-
-	switch(light->type)
-	{
-		case LIGHT_POINTRADIAL:
-		{
-			// source is a point
-			// light radiates in all directions
-			// creates sharp shadows
-			//
-			// create 6 volumes shining in the axis directions
-			// what about: 4 tetrahedrons instead?
-			//
-			if ( light->atten_disttype == LDAT_LINEAR )
-				dist = light->photons * lightLinearScale;
-			else
-				dist = sqrt(light->photons);
-			//always put the winding at a large distance to avoid epsilon issues
-			windingdist = MAX_WORLD_COORD;
-			if (dist > windingdist)
-				windingdist = dist;
-			//
-			leafnum = VL_LightLeafnum(light->origin);
-			leaf = &dleafs[leafnum];
-			if (leaf->cluster == -1)
-			{
-				light->insolid = qtrue;
-				break;
-			}
-			// for each axis
-			for (i = 0; i < 3; i++)
-			{
-				// for both directions on the axis
-				for (j = -1; j <= 1; j += 2)
-				{
-					memset(&volume, 0, sizeof(lightvolume_t));
-					volume.numplanes = 0;
-					for (k = 0; k < 4; k ++)
-					{
-						volume.points[volume.numplanes][i] = light->origin[i] + j * windingdist;
-						volume.points[volume.numplanes][(i+1)%3] = light->origin[(i+1)%3] + dir[0][k] * windingdist;
-						volume.points[volume.numplanes][(i+2)%3] = light->origin[(i+2)%3] + dir[1][k] * windingdist;
-						volume.numplanes++;
-					}
-					if (j >= 0)
-					{
-						VectorCopy(volume.points[0], temp);
-						VectorCopy(volume.points[2], volume.points[0]);
-						VectorCopy(temp, volume.points[2]);
-					}
-					for (k = 0; k < volume.numplanes; k++)
-					{
-						VL_PlaneFromPoints(&volume.planes[k], light->origin, volume.points[(k+1)%volume.numplanes], volume.points[k]);
-					}
-					VectorCopy(light->origin, temp);
-					temp[i] += (float) j * dist;
-					VectorClear(volume.endplane.normal);
-					volume.endplane.normal[i] = -j;
-					volume.endplane.dist = DotProduct(volume.endplane.normal, temp); //DotProduct(volume.endplane.normal, volume.points[0]);
-					volume.farplane = volume.endplane;
-					volume.cluster = leaf->cluster;
-					volume.surfaceNum = -1;
-					volume.type = VOLUME_NORMAL;
-					//
-					memset(volume.facetTested, 0, sizeof(volume.facetTested));
-					memset(volume.clusterTested, 0, sizeof(volume.clusterTested));
-					VL_R_FloodLight(light, &volume, leaf->cluster, 0);
-					if (volume.surfaceNum >= 0)
-					{
-						VL_R_CastLightAtSurface(light, &volume);
-					}
-				}
-			}
-			break;
-		}
-		case LIGHT_POINTSPOT:
-		{
-			// source is a point
-			// light is targetted
-			// creates sharp shadows
-			//
-			// what about using brushes to shape spot lights? that'd be pretty cool
-			//
-			if ( light->atten_disttype == LDAT_LINEAR )
-				dist = light->photons * lightLinearScale;
-			else
-				dist = sqrt(light->photons);
-			dist *= 2;
-			//
-			windingdist = 4096;
-			if (dist > windingdist)
-				windingdist = dist;
-			//take 8 times the cone radius because the spotlight also lights outside the cone
-			radius = 8 * windingdist * light->radiusByDist;
-			//
-			memset(&volume, 0, sizeof(lightvolume_t));
-			leafnum = VL_LightLeafnum(light->origin);
-			leaf = &dleafs[leafnum];
-			if (leaf->cluster == -1)
-			{
-				light->insolid = qtrue;
-				break;
-			}
-			//
-			VectorClear(vec);
-			for (i = 0; i < 3; i++)
-			{
-				if (light->normal[i] > -0.9 && light->normal[i] < 0.9)
-				{
-					vec[i] = 1;
-					break;
-				}
-			}
-			CrossProduct(light->normal, vec, r);
-			VectorScale(r, radius, p);
-			volume.numplanes = 0;
-			step = 45;
-			for (a = step / 2; a < 360 + step / 2; a += step)
-			{
-				RotatePointAroundVector(volume.points[volume.numplanes], light->normal, p, a);
-				VectorAdd(light->origin, volume.points[volume.numplanes], volume.points[volume.numplanes]);
-				VectorMA(volume.points[volume.numplanes], windingdist, light->normal, volume.points[volume.numplanes]);
-				volume.numplanes++;
-			}
-			for (i = 0; i < volume.numplanes; i++)
-			{
-				VL_PlaneFromPoints(&volume.planes[i], light->origin, volume.points[(i+1)%volume.numplanes], volume.points[i]);
-			}
-			VectorMA(light->origin, dist, light->normal, temp);
-			VectorCopy(light->normal, volume.endplane.normal);
-			VectorInverse(volume.endplane.normal);
-			volume.endplane.dist = DotProduct(volume.endplane.normal, temp);//DotProduct(volume.endplane.normal, volume.points[0]);
-			volume.farplane = volume.endplane;
-			volume.cluster = leaf->cluster;
-			volume.surfaceNum = -1;
-			volume.type = VOLUME_NORMAL;
-			//
-			memset(volume.facetTested, 0, sizeof(volume.facetTested));
-			memset(volume.clusterTested, 0, sizeof(volume.clusterTested));
-			VL_R_FloodLight(light, &volume, leaf->cluster, 0);
-			if (volume.surfaceNum >= 0)
-			{
-				VL_R_CastLightAtSurface(light, &volume);
-			}
-			break;
-		}
-		case LIGHT_POINTFAKESURFACE:
-		{
-			float value;
-			int n, axis;
-			vec3_t v, vecs[2];
-
-			if ( light->atten_disttype == LDAT_LINEAR )
-				dist = light->photons * lightLinearScale;
-			else
-				dist = sqrt(light->photons);
-			//always put the winding at a large distance to avoid epsilon issues
-			windingdist = 4096;
-			if (dist > windingdist)
-				windingdist = dist;
-			//
-			VectorMA(light->origin, 0.1, light->normal, light->origin);
-			//
-			leafnum = VL_LightLeafnum(light->origin);
-			leaf = &dleafs[leafnum];
-			if (leaf->cluster == -1)
-			{
-				light->insolid = qtrue;
-				break;
-			}
-			value = 0;
-			for (i = 0; i < 3; i++)
-			{
-				if (fabs(light->normal[i]) > value)
-				{
-					value = fabs(light->normal[i]);
-					axis = i;
-				}
-			}
-			for (i = 0; i < 2; i++)
-			{
-				VectorClear(v);
-				v[(axis + 1 + i) % 3] = 1;
-				CrossProduct(light->normal, v, vecs[i]);
-			}
-			//cast 4 volumes at the front of the surface
-			for (i = -1; i <= 1; i += 2)
-			{
-				for (j = -1; j <= 1; j += 2)
-				{
-					for (n = 0; n < 2; n++)
-					{
-						memset(&volume, 0, sizeof(lightvolume_t));
-						volume.numplanes = 3;
-						VectorMA(light->origin, i * windingdist, vecs[0], volume.points[(i == j) == n]);
-						VectorMA(light->origin, j * windingdist, vecs[1], volume.points[(i != j) == n]);
-						VectorMA(light->origin, windingdist, light->normal, volume.points[2]);
-						for (k = 0; k < volume.numplanes; k++)
-						{
-							VL_PlaneFromPoints(&volume.planes[k], light->origin, volume.points[(k+1)%volume.numplanes], volume.points[k]);
-						}
-						VL_PlaneFromPoints(&volume.endplane, volume.points[0], volume.points[1], volume.points[2]);
-						VectorMA(light->origin, dist, light->normal, temp);
-						volume.endplane.dist = DotProduct(volume.endplane.normal, temp);
-						if (DotProduct(light->origin, volume.endplane.normal) - volume.endplane.dist > 0)
-							break;
-					}
-					volume.farplane = volume.endplane;
-					volume.cluster = leaf->cluster;
-					volume.surfaceNum = -1;
-					volume.type = VOLUME_NORMAL;
-					//
-					memset(volume.facetTested, 0, sizeof(volume.facetTested));
-					memset(volume.clusterTested, 0, sizeof(volume.clusterTested));
-
-					VL_R_FloodLight(light, &volume, leaf->cluster, 0);
-					if (volume.surfaceNum >= 0)
-					{
-						VL_R_CastLightAtSurface(light, &volume);
-					}
-				}
-			}
-			break;
-		}
-		case LIGHT_SURFACEDIRECTED:
-		{
-			// source is an area defined by a winding
-			// the light is unidirectional
-			// creates sharp shadows
-			// for instance sun light or laser light
-			//
-			memcpy(&winding, &light->w, sizeof(winding_t));
-			VL_R_SubdivideDirectedAreaLight(light, 0, &winding);
-			break;
-		}
-		case LIGHT_SURFACERADIAL:
-		{
-			// source is an area defined by a winding
-			// the light radiates in all directions at the front of the winding plane
-			//
-			memcpy(&winding, &light->w, sizeof(winding_t));
-			VL_R_SubdivideRadialAreaLight(light, 0, &winding);
-			break;
-		}
-		case LIGHT_SURFACESPOT:
-		{
-			// source is an area defined by a winding
-			// light is targetted but not unidirectional
-			//
-			memcpy(&winding, &light->w, sizeof(winding_t));
-			VL_R_SubdivideAreaSpotLight(light, 0, &winding);
-			break;
-		}
-	}
-}
-
-/*
-=============
-VL_FloodLightThread
-=============
-*/
-void VL_FloodLightThread(int num)
-{
-	VL_FloodLight(vlights[num]);
-}
-
-/*
-=============
-VL_TestLightLeafs
-=============
-*/
-void VL_TestLightLeafs(void)
-{
-	int leafnum, i;
-	vlight_t *light;
-	dleaf_t *leaf;
-
-	for (i = 0; i < numvlights; i++)
-	{
-		light = vlights[i];
-		if (light->type != LIGHT_POINTRADIAL &&
-			light->type != LIGHT_POINTSPOT)
-			continue;
-		leafnum = VL_LightLeafnum(light->origin);
-		leaf = &dleafs[leafnum];
-		if (leaf->cluster == -1)
-			if (light->type == LIGHT_POINTRADIAL)
-				qprintf("light in solid at %1.1f %1.1f %1.1f\n", light->origin[0], light->origin[1], light->origin[2]);
-			else if (light->type == LIGHT_POINTSPOT)
-				qprintf("spot light in solid at %1.1f %1.1f %1.1f\n", light->origin[0], light->origin[1], light->origin[2]);
-	}
-}
-
-
-/*
-=============
-VL_DoForcedTraceLight
-=============
-*/
-// from light.c
-void TraceLtm( int num );
-
-void VL_DoForcedTraceLight(int num)
-{
-	dsurface_t		*ds;
-	shaderInfo_t	*si;
-
-	ds = &drawSurfaces[num];
-
-	if ( ds->surfaceType == MST_TRIANGLE_SOUP )
-		return;
-
-	if ( ds->lightmapNum < 0 )
-		return;
-
-	// always light entity surfaces with the old light algorithm
-	if ( !entitySurface[num] )
-	{
-		si = ShaderInfoForShader( dshaders[ ds->shaderNum].shader );
-
-		if (defaulttracelight)
-		{
-			if (si->forceVLight)
-				return;
-		}
-		else
-		{
-			if (!si->forceTraceLight)
-				return;
-		}
-	}
-
-	TraceLtm(num);
-}
-
-/*
-=============
-VL_DoForcedTraceLightSurfaces
-=============
-*/
-void VL_DoForcedTraceLightSurfaces(void)
-{
-	_printf( "forced trace light\n" );
-	RunThreadsOnIndividual( numDrawSurfaces, qtrue, VL_DoForcedTraceLight );
-}
-
-float *oldLightFloats;
-
-/*
-=============
-VL_SurfaceRadiosity
-=============
-*/
-void VL_SurfaceRadiosity( int num ) {
-	dsurface_t		*ds;
-	mesh_t			*mesh;
-	shaderInfo_t	*si;
-	lsurfaceTest_t *test;
-	int x, y, k;
-	vec3_t base, normal;
-	float *color, area;
-	vlight_t vlight;
-
-	ds = &drawSurfaces[num];
-
-	if ( ds->lightmapNum < 0 ) {
-		return;		// doesn't have a lightmap
-	}
-
-	// vertex-lit triangle model
-	if ( ds->surfaceType == MST_TRIANGLE_SOUP ) {
-		return;
-	}
-
-	si = ShaderInfoForShader( dshaders[ ds->shaderNum].shader );
-	test = lsurfaceTest[ num ];
-
-	if (!test) {
-		return;
-	}
-
-	for (x = 0; x < ds->lightmapWidth; x++) {
-		for (y = 0; y < ds->lightmapHeight; y++) {
-			//
-			k = ( ds->lightmapNum * LIGHTMAP_HEIGHT + ds->lightmapY + y) 
-							* LIGHTMAP_WIDTH + ds->lightmapX + x;
-			area = lightmappixelarea[k];
-			if (area <= 0)
-				continue;
-			//
-			if (ds->surfaceType == MST_PATCH)
-			{
-				mesh = test->detailMesh;
-				VectorCopy( mesh->verts[y*mesh->width+x].xyz, base);
-				VectorCopy( mesh->verts[y*mesh->width+x].normal, normal);
-			}
-			else
-			{
-				VectorMA(ds->lightmapOrigin, (float) x, ds->lightmapVecs[0], base);
-				VectorMA(base, (float) y, ds->lightmapVecs[1], base);
-				VectorCopy(test->facets[0].plane.normal, normal);
-			}
-			// create ligth from base
-			memset(&vlight, 0, sizeof(vlight_t));
-			color = &oldLightFloats[k*3];
-			// a few units away from the surface
-			VectorMA(base, 5, normal, vlight.origin);
-			ColorNormalize(color, vlight.color);
-			// ok this is crap
-			vlight.photons = VectorLength(color) * 0.05 * lightPointScale / (area * radiosity_scale);
-			// what about using a front facing light only ?
-			vlight.type = LIGHT_POINTRADIAL;
-			// flood the light from this lightmap pixel
-			VL_FloodLight(&vlight);
-			// only one thread at a time may write to the lightmap of this surface
-			MutexLock(test->mutex);
-			// don't light the lightmap pixel itself
-			lightFloats[k*3] = oldLightFloats[k*3];
-			lightFloats[k*3+1] = oldLightFloats[k*3+1];
-			lightFloats[k*3+2] = oldLightFloats[k*3+2];
-			//
-			MutexUnlock(test->mutex);
-		}
-	}
-}
-
-/*
-=============
-VL_Radiosity
-
-this aint working real well but it's fun to play with.
-=============
-*/
-void VL_Radiosity(void) {
-
-	oldLightFloats = lightFloats;
-	lightFloats = (float *) malloc(numLightBytes * sizeof(float));
-	memcpy(lightFloats, oldLightFloats, numLightBytes * sizeof(float));
-	_printf("%7i surfaces\n", numDrawSurfaces);
-	RunThreadsOnIndividual( numDrawSurfaces, qtrue, VL_SurfaceRadiosity );
-	free(oldLightFloats);
-}
-
-/*
-=============
-VL_LightWorld
-=============
-*/
-void VL_LightWorld(void)
-{
-	int i, numcastedvolumes, numvlightsinsolid;
-	float f;
-
-	// find the optional world ambient
-	GetVectorForKey( &entities[0], "_color", lightAmbientColor );
-	f = FloatForKey( &entities[0], "ambient" );
-	VectorScale( lightAmbientColor, f, lightAmbientColor );
-	/*
-	_printf("\r%6d lights out of %d", 0, numvlights);
-	for (i = 0; i < numvlights; i++)
-	{
-		_printf("\r%6d", i);
-		VL_FloodLight(vlights[i]);
-	}
-	_printf("\r%6d lights out of %d\n", i, numvlights);
-	*/
-	_printf("%7i lights\n", numvlights);
-	RunThreadsOnIndividual( numvlights, qtrue, VL_FloodLightThread );
-
-	numcastedvolumes = 0;
-	for ( i = 0 ; i < numDrawSurfaces ; i++ ) {
-		if (lsurfaceTest[i])
-			numcastedvolumes += lsurfaceTest[i]->numvolumes;
-	}
-	_printf("%7i light volumes casted\n", numcastedvolumes);
-	numvlightsinsolid = 0;
-	for (i = 0; i < numvlights; i++)
-	{
-		if (vlights[i]->insolid)
-			numvlightsinsolid++;
-	}
-	_printf("%7i lights in solid\n", numvlightsinsolid);
-	//
-	radiosity_scale = 1;
-	for (i = 0; i < radiosity; i++) {
-		VL_Radiosity();
-		radiosity_scale <<= 1;
-	}
-	//
-	VL_StoreLightmap();
-	// redo surfaces with the old light algorithm when needed
-	VL_DoForcedTraceLightSurfaces();
-}
-
-/*
-=============
-VL_CreateEntityLights
-=============
-*/
-entity_t *FindTargetEntity( const char *target );
-
-void VL_CreateEntityLights (void)
-{
-	int		i, c_entityLights;
-	vlight_t	*dl;
-	entity_t	*e, *e2;
-	const char	*name;
-	const char	*target;
-	vec3_t	dest;
-	const char	*_color;
-	float	intensity;
-	int		spawnflags;
-
-	//
-	c_entityLights = 0;
-	_printf("Creating entity lights...\n");
-	//
-	for ( i = 0 ; i < num_entities ; i++ ) {
-		e = &entities[i];
-		name = ValueForKey (e, "classname");
-		if (strncmp (name, "light", 5))
-			continue;
-
-		dl = malloc(sizeof(*dl));
-		memset (dl, 0, sizeof(*dl));
-
-		spawnflags = FloatForKey (e, "spawnflags");
-		if ( spawnflags & 1 ) {
-			dl->atten_disttype = LDAT_LINEAR;
-		}
-		if ( spawnflags & 2 ) {
-			dl->atten_disttype = LDAT_NOSCALE;
-		}
-		if ( spawnflags & 4 ) {
-			dl->atten_angletype = LAAT_QUADRATIC;
-		}
-		if ( spawnflags & 8 ) {
-			dl->atten_angletype = LAAT_DOUBLEQUADRATIC;
-		}
-
-		dl->atten_distscale = FloatForKey(e, "atten_distscale");
-		dl->atten_anglescale = FloatForKey(e, "atten_anglescale");
-
-		GetVectorForKey (e, "origin", dl->origin);
-		dl->style = FloatForKey (e, "_style");
-		if (!dl->style)
-			dl->style = FloatForKey (e, "style");
-		if (dl->style < 0)
-			dl->style = 0;
-
-		intensity = FloatForKey (e, "light");
-		if (!intensity)
-			intensity = FloatForKey (e, "_light");
-		if (!intensity)
-			intensity = 300;
-		_color = ValueForKey (e, "_color");
-		if (_color && _color[0])
-		{
-			sscanf (_color, "%f %f %f", &dl->color[0],&dl->color[1],&dl->color[2]);
-			ColorNormalize (dl->color, dl->color);
-		}
-		else
-			dl->color[0] = dl->color[1] = dl->color[2] = 1.0;
-
-		intensity = intensity * lightPointScale;
-		dl->photons = intensity;
-
-		dl->type = LIGHT_POINTRADIAL;
-
-		// lights with a target will be spotlights
-		target = ValueForKey (e, "target");
-
-		if ( target[0] ) {
-			float	radius;
-			float	dist;
-
-			e2 = FindTargetEntity (target);
-			if (!e2) {
-				_printf ("WARNING: light at (%i %i %i) has missing target\n",
-				(int)dl->origin[0], (int)dl->origin[1], (int)dl->origin[2]);
-			} else {
-				GetVectorForKey (e2, "origin", dest);
-				VectorSubtract (dest, dl->origin, dl->normal);
-				dist = VectorNormalize (dl->normal, dl->normal);
-				radius = FloatForKey (e, "radius");
-				if ( !radius ) {
-					radius = 64;
-				}
-				if ( !dist ) {
-					dist = 64;
-				}
-				dl->radiusByDist = (radius + 16) / dist;
-				dl->type = LIGHT_POINTSPOT;
-			}
-		}
-		vlights[numvlights++] = dl;
-		c_entityLights++;
-	}
-	_printf("%7i entity lights\n", c_entityLights);
-}
-
-/*
-==================
-VL_SubdivideAreaLight
-==================
-*/
-void VL_SubdivideAreaLight( shaderInfo_t *ls, winding_t *w, vec3_t normal, 
-						float areaSubdivide, qboolean backsplash ) {
-	float			area, value, intensity;
-	vlight_t			*dl, *dl2;
-	vec3_t			mins, maxs;
-	int				axis;
-	winding_t		*front, *back;
-	vec3_t			planeNormal;
-	float			planeDist;
-
-	if ( !w ) {
-		return;
-	}
-
-	WindingBounds( w, mins, maxs );
-
-	// check for subdivision
-	for ( axis = 0 ; axis < 3 ; axis++ ) {
-		if ( maxs[axis] - mins[axis] > areaSubdivide ) {
-			VectorClear( planeNormal );
-			planeNormal[axis] = 1;
-			planeDist = ( maxs[axis] + mins[axis] ) * 0.5;
-			ClipWindingEpsilon ( w, planeNormal, planeDist, ON_EPSILON, &front, &back );
-			VL_SubdivideAreaLight( ls, front, normal, areaSubdivide, qfalse );
-			VL_SubdivideAreaLight( ls, back, normal, areaSubdivide, qfalse );
-			FreeWinding( w );
-			return;
-		}
-	}
-
-	// create a light from this
-	area = WindingArea (w);
-	if ( area <= 0 || area > 20000000 ) {
-		return;
-	}
-
-	dl = malloc(sizeof(*dl));
-	memset (dl, 0, sizeof(*dl));
-	dl->type = LIGHT_POINTFAKESURFACE;
-
-	WindingCenter( w, dl->origin );
-	memcpy(dl->w.points, w->points, sizeof(vec3_t) * w->numpoints);
-	dl->w.numpoints = w->numpoints;
-	VectorCopy ( normal, dl->normal);
-	VectorCopy ( normal, dl->plane);
-	dl->plane[3] = DotProduct( dl->origin, normal );
-
-	value = ls->value;
-	intensity = value * area * lightAreaScale;
-	VectorAdd( dl->origin, dl->normal, dl->origin );
-
-	VectorCopy( ls->color, dl->color );
-
-	dl->photons = intensity;
-
-	// emitColor is irrespective of the area
-	VectorScale( ls->color, value*lightFormFactorValueScale*lightAreaScale, dl->emitColor );
-	//
-	VectorCopy(dl->emitColor, dl->color);
-
-	dl->si = ls;
-
-	if ( ls->contents & CONTENTS_FOG ) {
-		dl->twosided = qtrue;
-	}
-
-	vlights[numvlights++] = dl;
-
-	// optionally create a point backsplash light
-	if ( backsplash && ls->backsplashFraction > 0 ) {
-
-		dl2 = malloc(sizeof(*dl));
-		memset (dl2, 0, sizeof(*dl2));
-		dl2->type = LIGHT_POINTRADIAL;
-
-		VectorMA( dl->origin, ls->backsplashDistance, normal, dl2->origin );
-
-		VectorCopy( ls->color, dl2->color );
-
-		dl2->photons = dl->photons * ls->backsplashFraction;
-		dl2->si = ls;
-
-		vlights[numvlights++] = dl2;
-	}
-}
-
-/*
-==================
-VL_CreateFakeSurfaceLights
-==================
-*/
-void VL_CreateFakeSurfaceLights( void ) {
-	int				i, j, side;
-	dsurface_t		*ds;
-	shaderInfo_t	*ls;
-	winding_t		*w;
-	lFacet_t		*f;
-	vlight_t			*dl;
-	vec3_t			origin;
-	drawVert_t		*dv;
-	int				c_surfaceLights;
-	float			lightSubdivide;
-	vec3_t			normal;
-
-
-	c_surfaceLights = 0;
-	_printf ("Creating surface lights...\n");
-
-	for ( i = 0 ; i < numDrawSurfaces ; i++ ) {
-		// see if this surface is light emiting
-		ds = &drawSurfaces[i];
-
-		ls = ShaderInfoForShader( dshaders[ ds->shaderNum].shader );
-		if ( ls->value == 0 ) {
-			continue;
-		}
-
-		// determine how much we need to chop up the surface
-		if ( ls->lightSubdivide ) {
-			lightSubdivide = ls->lightSubdivide;
-		} else {
-			lightSubdivide = lightDefaultSubdivide;
-		}
-
-		c_surfaceLights++;
-
-		// an autosprite shader will become
-		// a point light instead of an area light
-		if ( ls->autosprite ) {
-			// autosprite geometry should only have four vertexes
-			if ( lsurfaceTest[i] ) {
-				// curve or misc_model
-				f = lsurfaceTest[i]->facets;
-				if ( lsurfaceTest[i]->numFacets != 1 || f->numpoints != 4 ) {
-					_printf( "WARNING: surface at (%i %i %i) has autosprite shader but isn't a quad\n",
-						(int)f->points[0], (int)f->points[1], (int)f->points[2] );
-				}
-				VectorAdd( f->points[0], f->points[1], origin );
-				VectorAdd( f->points[2], origin, origin );
-				VectorAdd( f->points[3], origin, origin );
-				VectorScale( origin, 0.25, origin );
-			} else {
-				// normal polygon
-				dv = &drawVerts[ ds->firstVert ];
-				if ( ds->numVerts != 4 ) {
-					_printf( "WARNING: surface at (%i %i %i) has autosprite shader but %i verts\n",
-						(int)dv->xyz[0], (int)dv->xyz[1], (int)dv->xyz[2] );
-					continue;
-				}
-
-				VectorAdd( dv[0].xyz, dv[1].xyz, origin );
-				VectorAdd( dv[2].xyz, origin, origin );
-				VectorAdd( dv[3].xyz, origin, origin );
-				VectorScale( origin, 0.25, origin );
-			}
-
-			dl = malloc(sizeof(*dl));
-			memset (dl, 0, sizeof(*dl));
-			VectorCopy( origin, dl->origin );
-			VectorCopy( ls->color, dl->color );
-			dl->photons = ls->value * lightPointScale;
-			dl->type = LIGHT_POINTRADIAL;
-			vlights[numvlights++] = dl;
-			continue;
-		}
-
-		// possibly create for both sides of the polygon
-		for ( side = 0 ; side <= ls->twoSided ; side++ ) {
-			// create area lights
-			if ( lsurfaceTest[i] ) {
-				// curve or misc_model
-				for ( j = 0 ; j < lsurfaceTest[i]->numFacets ; j++ ) {
-					f = lsurfaceTest[i]->facets + j;
-					w = AllocWinding( f->numpoints );
-					w->numpoints = f->numpoints;
-					memcpy( w->points, f->points, f->numpoints * 12 );
-
-					VectorCopy( f->plane.normal, normal );
-					if ( side ) {
-						winding_t	*t;
-
-						t = w;
-						w = ReverseWinding( t );
-						FreeWinding( t );
-						VectorSubtract( vec3_origin, normal, normal );
-					}
-					VL_SubdivideAreaLight( ls, w, normal, lightSubdivide, qtrue );
-				}
-			} else {
-				// normal polygon
-
-				w = AllocWinding( ds->numVerts );
-				w->numpoints = ds->numVerts;
-				for ( j = 0 ; j < ds->numVerts ; j++ ) {
-					VectorCopy( drawVerts[ds->firstVert+j].xyz, w->points[j] );
-				}
-				VectorCopy( ds->lightmapVecs[2], normal );
-				if ( side ) {
-					winding_t	*t;
-
-					t = w;
-					w = ReverseWinding( t );
-					FreeWinding( t );
-					VectorSubtract( vec3_origin, normal, normal );
-				}
-				VL_SubdivideAreaLight( ls, w, normal, lightSubdivide, qtrue );
-			}
-		}
-	}
-
-	_printf( "%7i light emitting surfaces\n", c_surfaceLights );
-}
-
-
-/*
-==================
-VL_WindingForBrushSide
-==================
-*/
-winding_t *VL_WindingForBrushSide(dbrush_t *brush, int side, winding_t *w)
-{
-	int i, res;
-	winding_t *tmpw;
-	plane_t plane;
-
-	VectorCopy(dplanes[ dbrushsides[ brush->firstSide + side ].planeNum ].normal, plane.normal);
-	VectorInverse(plane.normal);
-	plane.dist = -dplanes[ dbrushsides[ brush->firstSide + side ].planeNum ].dist;
-	tmpw = BaseWindingForPlane( plane.normal, plane.dist );
-	memcpy(w->points, tmpw->points, sizeof(vec3_t) * tmpw->numpoints);
-	w->numpoints = tmpw->numpoints;
-
-	for (i = 0; i < brush->numSides; i++)
-	{
-		if (i == side)
-			continue;
-		VectorCopy(dplanes[ dbrushsides[ brush->firstSide + i ].planeNum ].normal, plane.normal);
-		VectorInverse(plane.normal);
-		plane.dist = -dplanes[ dbrushsides[ brush->firstSide + i ].planeNum ].dist;
-		res = VL_ChopWinding(w, &plane, 0.1);
-		if (res == SIDE_BACK)
-			return NULL;
-	}
-	return w;
-}
-
-/*
-==================
-VL_CreateSkyLights
-==================
-*/
-void VL_CreateSkyLights(void)
-{
-	int				i, j, c_skyLights;
-	dbrush_t		*b;
-	shaderInfo_t	*si;
-	dbrushside_t	*s;
-	vlight_t		*dl;
-	vec3_t sunColor, sunDir = { 0.45, 0.3, 0.9 };
-	float d;
-
-	VectorNormalize(sunDir, sunDir);
-	VectorInverse(sunDir);
-
-	c_skyLights = 0;
-	_printf("Creating sky lights...\n");
-	// find the sky shader
-	for ( i = 0 ; i < numDrawSurfaces ; i++ ) {
-		si = ShaderInfoForShader( dshaders[ drawSurfaces[i].shaderNum ].shader );
-		if ( si->surfaceFlags & SURF_SKY ) {
-			VectorCopy( si->sunLight, sunColor );
-			VectorCopy( si->sunDirection, sunDir );
-			VectorInverse(sunDir);
-			break;
-		}
-	}
-
-	// find the brushes
-	for ( i = 0 ; i < numbrushes ; i++ ) {
-		b = &dbrushes[i];
-		for ( j = 0 ; j < b->numSides ; j++ ) {
-			s = &dbrushsides[ b->firstSide + j ];
-			if ( dshaders[ s->shaderNum ].surfaceFlags & SURF_SKY ) {
-				//if this surface doesn't face in the same direction as the sun
-				d = DotProduct(dplanes[ s->planeNum ].normal, sunDir);
-				if (d <= 0)
-					continue;
-				//
-				dl = malloc(sizeof(*dl));
-				memset (dl, 0, sizeof(*dl));
-				VectorCopy(sunColor, dl->color);
-				VectorCopy(sunDir, dl->normal);
-				VectorCopy(dplanes[ s->planeNum ].normal, dl->plane);
-				dl->plane[3] = dplanes[ s->planeNum ].dist;
-				dl->type = LIGHT_SURFACEDIRECTED;
-				dl->atten_disttype = LDAT_NOSCALE;
-				VL_WindingForBrushSide(b, j, &dl->w);
-//				DebugNet_DrawWinding(&dl->w, 2);
-				//
-				vlights[numvlights++] = dl;
-				c_skyLights++;
-			}
-		}
-	}
-	_printf("%7i light emitting sky surfaces\n", c_skyLights);
-}
-
-/*
-==================
-VL_SetPortalSphere
-==================
-*/
-void VL_SetPortalSphere (lportal_t *p)
-{
-	int		i;
-	vec3_t	total, dist;
-	winding_t	*w;
-	float	r, bestr;
-
-	w = p->winding;
-	VectorCopy (vec3_origin, total);
-	for (i=0 ; i<w->numpoints ; i++)
-	{
-		VectorAdd (total, w->points[i], total);
-	}
-	
-	for (i=0 ; i<3 ; i++)
-		total[i] /= w->numpoints;
-
-	bestr = 0;		
-	for (i=0 ; i<w->numpoints ; i++)
-	{
-		VectorSubtract (w->points[i], total, dist);
-		r = VectorLength (dist);
-		if (r > bestr)
-			bestr = r;
-	}
-	VectorCopy (total, p->origin);
-	p->radius = bestr;
-}
-
-/*
-==================
-VL_PlaneFromWinding
-==================
-*/
-void VL_PlaneFromWinding (winding_t *w, plane_t *plane)
-{
-	vec3_t		v1, v2;
-
-	//calc plane
-	VectorSubtract (w->points[2], w->points[1], v1);
-	VectorSubtract (w->points[0], w->points[1], v2);
-	CrossProduct (v2, v1, plane->normal);
-	VectorNormalize (plane->normal, plane->normal);
-	plane->dist = DotProduct (w->points[0], plane->normal);
-}
-
-/*
-==================
-VL_AllocWinding
-==================
-*/
-winding_t *VL_AllocWinding (int points)
-{
-	winding_t	*w;
-	int			size;
-	
-	if (points > MAX_POINTS_ON_WINDING)
-		Error ("NewWinding: %i points", points);
-	
-	size = (int)((winding_t *)0)->points[points];
-	w = malloc (size);
-	memset (w, 0, size);
-	
-	return w;
-}
-
-/*
-============
-VL_LoadPortals
-============
-*/
-void VL_LoadPortals (char *name)
-{
-	int			i, j, hint;
-	lportal_t	*p;
-	lleaf_t		*l;
-	char		magic[80];
-	FILE		*f;
-	int			numpoints;
-	winding_t	*w;
-	int			leafnums[2];
-	plane_t		plane;
-	//
-	
-	if (!strcmp(name,"-"))
-		f = stdin;
-	else
-	{
-		f = fopen(name, "r");
-		if (!f)
-			Error ("LoadPortals: couldn't read %s\n",name);
-	}
-
-	if (fscanf (f,"%79s\n%i\n%i\n%i\n",magic, &portalclusters, &numportals, &numfaces) != 4)
-		Error ("LoadPortals: failed to read header");
-	if (strcmp(magic, PORTALFILE))
-		Error ("LoadPortals: not a portal file");
-
-	_printf ("%6i portalclusters\n", portalclusters);
-	_printf ("%6i numportals\n", numportals);
-	_printf ("%6i numfaces\n", numfaces);
-
-	if (portalclusters >= MAX_CLUSTERS)
-		Error ("more than %d clusters in portal file\n", MAX_CLUSTERS);
-
-	// each file portal is split into two memory portals
-	portals = malloc(2*numportals*sizeof(lportal_t));
-	memset (portals, 0, 2*numportals*sizeof(lportal_t));
-	
-	leafs = malloc(portalclusters*sizeof(lleaf_t));
-	memset (leafs, 0, portalclusters*sizeof(lleaf_t));
-
-	for (i=0, p=portals ; i<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);
-		if (fscanf (f, "%i ", &hint) != 1)
-			Error ("LoadPortals: reading hint state");
-		
-		w = p->winding = VL_AllocWinding (numpoints);
-		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
-		VL_PlaneFromWinding (w, &plane);
-
-		// create forward portal
-		l = &leafs[leafnums[0]];
-		if (l->numportals == MAX_PORTALS_ON_LEAF)
-			Error ("Leaf with too many portals");
-		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];
-		VL_SetPortalSphere (p);
-		p++;
-		
-		// create backwards portal
-		l = &leafs[leafnums[1]];
-		if (l->numportals == MAX_PORTALS_ON_LEAF)
-			Error ("Leaf with too many portals");
-		l->portals[l->numportals] = p;
-		l->numportals++;
-		
-		p->winding = VL_AllocWinding(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];
-		VL_SetPortalSphere (p);
-		p++;
-
-	}
-	
-	fclose (f);
-}
-
-/*
-============
-VLightMain
-============
-*/
-int VLightMain (int argc, char **argv) {
-	int			i;
-	double		start, end;
-	const char	*value;
-
-	_printf ("----- VLighting ----\n");
-
-	for (i=1 ; i<argc ; i++) {
-		if (!strcmp(argv[i],"-v")) {
-			verbose = qtrue;
-		} else if (!strcmp(argv[i],"-threads")) {
-			numthreads = atoi (argv[i+1]);
-			_printf("num threads = %d\n", numthreads);
-			i++;
-		} else if (!strcmp(argv[i],"-area")) {
-			lightAreaScale *= atof(argv[i+1]);
-			_printf ("area light scaling at %f\n", lightAreaScale);
-			i++;
-		} else if (!strcmp(argv[i],"-point")) {
-			lightPointScale *= atof(argv[i+1]);
-			_printf ("point light scaling at %f\n", lightPointScale);
-			i++;
-		} else if (!strcmp(argv[i], "-samplesize")) {
-			samplesize = atoi(argv[i+1]);
-			if (samplesize < 1) samplesize = 1;
-			i++;
-			_printf("lightmap sample size is %dx%d units\n", samplesize, samplesize);
-		} else if (!strcmp(argv[i], "-novertex")) {
-			novertexlighting = qtrue;
-			_printf("no vertex lighting = true\n");
-		} else if (!strcmp(argv[i], "-nogrid")) {
-			nogridlighting = qtrue;
-			_printf("no grid lighting = true\n");
-		} else if (!strcmp(argv[i], "-nostitching")) {
-			nostitching = qtrue;
-			_printf("no stitching = true\n");
-		} else if (!strcmp(argv[i], "-noalphashading")) {
-			noalphashading = qtrue;
-			_printf("no alpha shading = true\n");
-		} else if (!strcmp(argv[i], "-nocolorshading")) {
-			nocolorshading = qtrue;
-			_printf("old style alpha shading = true\n");
-		} else if (!strcmp(argv[i], "-nobackfaceculling")) {
-			nobackfaceculling = qtrue;
-			_printf("no backface culling = true\n");
-		} else if (!strcmp(argv[i], "-tracelight")) {
-			defaulttracelight = qtrue;
-			_printf("default trace light = true\n");
-		} else if (!strcmp(argv[i], "-radiosity")) {
-			radiosity = atoi(argv[i+1]);
-			_printf("radiosity = %d\n", radiosity);
-			i++;
-		} else {
-			break;
-		}
-	}
-
-	ThreadSetDefault ();
-
-	if (i != argc - 1) {
-		_printf("usage: q3map -vlight [-<switch> [-<switch> ...]] <mapname>\n"
-				"\n"
-				"Switches:\n"
-				"   v              = verbose output\n"
-				"   threads <X>    = set number of threads to X\n"
-				"   area <V>       = set the area light scale to V\n"
-				"   point <W>      = set the point light scale to W\n"
-				"   novertex       = don't calculate vertex lighting\n"
-				"   nogrid         = don't calculate light grid for dynamic model lighting\n"
-				"   nostitching    = no polygon stitching before lighting\n"
-				"   noalphashading = don't use alpha shading\n"
-				"   nocolorshading = don't use color alpha shading\n"
-				"   tracelight     = use old light algorithm by default\n"
-				"   samplesize <N> = set the lightmap pixel size to NxN units\n");
-		exit(0);
-	}
-
-	SetQdirFromPath (argv[i]);	
-
-#ifdef _WIN32
-	InitPakFile(gamedir, NULL);
-#endif
-
-	strcpy (source, ExpandArg(argv[i]));
-	StripExtension (source);
-	DefaultExtension (source, ".bsp");
-
-	LoadShaderInfo();
-
-	_printf ("reading %s\n", source);
-
-	LoadBSPFile (source);
-	ParseEntities();
-
-	value = ValueForKey( &entities[0], "gridsize" );
-	if (strlen(value)) {
-		sscanf( value, "%f %f %f", &gridSize[0], &gridSize[1], &gridSize[2] );
-		_printf("grid size = {%1.1f, %1.1f, %1.1f}\n", gridSize[0], gridSize[1], gridSize[2]);
-	}
-
-	CountLightmaps();
-
-	StripExtension (source);
-	DefaultExtension (source, ".prt");
-
-	VL_LoadPortals(source);
-
-	// set surfaceOrigin
-	SetEntityOrigins();
-
-	// grid and vertex lighting
-	GridAndVertexLighting();
-
-#ifdef DEBUGNET
-	DebugNet_Setup();
-#endif
-
-	start = clock();
-
-	lightFloats = (float *) malloc(numLightBytes * sizeof(float));
-	memset(lightFloats, 0, numLightBytes * sizeof(float));
-
-	VL_InitSurfacesForTesting();
-
-	VL_CalcVisibleLightmapPixelArea();
-
-	numvlights = 0;
-	VL_CreateEntityLights();
-	VL_CreateFakeSurfaceLights();
-	VL_CreateSkyLights();
-
-	VL_TestLightLeafs();
-
-	VL_LightWorld();
-
-#ifndef LIGHTPOLYS
-	StripExtension (source);
-	DefaultExtension (source, ".bsp");
-	_printf ("writing %s\n", source);
-	WriteBSPFile (source);
-#endif
-
-	end = clock();
-
-	_printf ("%5.2f seconds elapsed\n", (end-start) / CLK_TCK);
-
-#ifdef LIGHTPOLYS
-	VL_DrawLightWindings();
-#endif
-
-#ifdef DEBUGNET
-	DebugNet_Shutdown();
-#endif
-	return 0;
-}