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openmohaa/code/renderer/tr_bsp.c

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/*
===========================================================================
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
===========================================================================
*/
// tr_map.c
#include "tr_local.h"
#include "tr_vis.h"
/*
Loads and prepares a map file for scene rendering.
A single entry point:
void RE_LoadWorldMap( const char *name );
*/
static world_t s_worldData;
static byte *fileBase;
int c_subdivisions;
int c_gridVerts;
static int map_length;
static int nummodels;
static int numShaders;
static int numbrushes;
static int numbrushsides;
static int numFogs;
static int numplanes;
static int num_entities;
static int numnodes;
static int numleafs;
static int numleafsurfaces;
static int numDrawVerts;
static int numDrawIndexes;
static int numDrawSurfaces;
static int numLightDefs;
static int numLightBytes;
static int numVisBytes;
static int numSLights;
static int entLightVisSize;
static int g_iGridArraySize;
static int g_iGridDataSize;
static int g_iGridPaletteBytes;
static int g_iGridOffsets;
static int g_nStaticModelData;
static int map_version;
static int g_nStaticModelIndices;
static int g_nStaticModels;
static int g_nTerPatchIndices;
static int g_nTerraPatches;
//===============================================================================
static void HSVtoRGB( float h, float s, float v, float rgb[3] )
{
int i;
float f;
float p, q, t;
h *= 5;
i = floor( h );
f = h - i;
p = v * ( 1 - s );
q = v * ( 1 - s * f );
t = v * ( 1 - s * ( 1 - f ) );
switch ( i )
{
case 0:
rgb[0] = v;
rgb[1] = t;
rgb[2] = p;
break;
case 1:
rgb[0] = q;
rgb[1] = v;
rgb[2] = p;
break;
case 2:
rgb[0] = p;
rgb[1] = v;
rgb[2] = t;
break;
case 3:
rgb[0] = p;
rgb[1] = q;
rgb[2] = v;
break;
case 4:
rgb[0] = t;
rgb[1] = p;
rgb[2] = v;
break;
case 5:
rgb[0] = v;
rgb[1] = p;
rgb[2] = q;
break;
}
}
/*
===============
R_ColorShiftLightingBytes
===============
*/
static void R_ColorShiftLightingBytes( byte in[3], byte out[3] ) {
int r, g, b;
// shift the data based on overbright range
r = in[0] << tr.overbrightBits;
g = in[1] << tr.overbrightBits;
b = in[2] << tr.overbrightBits;
// normalize by color instead of saturating to white
if ( ( r | g | b ) > 255 ) {
int max;
max = r > g ? r : g;
max = max > b ? max : b;
r = r * 255 / max;
g = g * 255 / max;
b = b * 255 / max;
}
out[0] = r;
out[1] = g;
out[2] = b;
}
/*
===============
R_ColorShiftLightingBytesAlpha
===============
*/
static void R_ColorShiftLightingBytesAlpha( byte in[4], byte out[4] ) {
int r, g, b;
// shift the data based on overbright range
r = in[0] << tr.overbrightBits;
g = in[1] << tr.overbrightBits;
b = in[2] << tr.overbrightBits;
// normalize by color instead of saturating to white
if ( ( r | g | b ) > 255 ) {
int max;
max = r > g ? r : g;
max = max > b ? max : b;
r = r * 255 / max;
g = g * 255 / max;
b = b * 255 / max;
}
out[0] = r;
out[1] = g;
out[2] = b;
out[3] = in[3];
}
/*
===============
R_LoadLightmaps
===============
*/
#define LIGHTMAP_SIZE 128
static void R_LoadLightmaps(gamelump_t* l) {
byte *buf, *buf_p;
int len;
MAC_STATIC byte image[LIGHTMAP_SIZE*LIGHTMAP_SIZE*4];
int i, j;
float maxIntensity = 0;
double sumIntensity = 0;
len = l->length;
if (!len) {
return;
}
buf = l->buffer;
// we are about to upload textures
R_SyncRenderThread();
// create all the lightmaps
tr.numLightmaps = len / (LIGHTMAP_SIZE * LIGHTMAP_SIZE * 3);
// if we are in r_vertexLight mode, we don't need the lightmaps at all
if ( r_vertexLight->integer ) {
return;
}
for ( i = 0 ; i < tr.numLightmaps ; i++ ) {
// expand the 24 bit on-disk to 32 bit
buf_p = buf + i * LIGHTMAP_SIZE*LIGHTMAP_SIZE * 3;
if ( r_lightmap->integer == 2 )
{ // color code by intensity as development tool (FIXME: check range)
for ( j = 0; j < LIGHTMAP_SIZE * LIGHTMAP_SIZE; j++ )
{
float r = buf_p[j*3+0];
float g = buf_p[j*3+1];
float b = buf_p[j*3+2];
float intensity;
float out[3];
intensity = 0.33f * r + 0.685f * g + 0.063f * b;
if ( intensity > 255 )
intensity = 1.0f;
else
intensity /= 255.0f;
if ( intensity > maxIntensity )
maxIntensity = intensity;
HSVtoRGB( intensity, 1.00, 0.50, out );
image[j*4+0] = out[0] * 255;
image[j*4+1] = out[1] * 255;
image[j*4+2] = out[2] * 255;
image[j*4+3] = 255;
sumIntensity += intensity;
}
} else {
for ( j = 0 ; j < LIGHTMAP_SIZE * LIGHTMAP_SIZE; j++ ) {
R_ColorShiftLightingBytes( &buf_p[j*3], &image[j*4] );
image[j*4+3] = 255;
}
}
tr.lightmaps[i] = R_CreateImage(va("*lightmap%d", i), image,
LIGHTMAP_SIZE, LIGHTMAP_SIZE, 0, 1, qfalse, qfalse, qfalse, qfalse, GL_CLAMP, GL_CLAMP);
}
if ( r_lightmap->integer == 2 ) {
ri.Printf( PRINT_ALL, "Brightest lightmap value: %d\n", ( int ) ( maxIntensity * 255 ) );
}
if (r_fastdlights->integer) {
s_worldData.lighting = NULL;
}
else {
s_worldData.lighting = ri.Hunk_Alloc(l->length, h_dontcare);
Com_Memcpy(s_worldData.lighting, l->buffer, l->length);
}
}
/*
=================
RE_SetWorldVisData
This is called by the clipmodel subsystem so we can share the 1.8 megs of
space in big maps...
=================
*/
void RE_SetWorldVisData( const byte *vis ) {
tr.externalVisData = vis;
}
/*
=================
R_LoadVisibility
=================
*/
static void R_LoadVisibility(gamelump_t* l) {
int len;
byte *buf;
len = ( s_worldData.numClusters + 63 ) & ~63;
s_worldData.novis = ri.Hunk_Alloc( len, h_dontcare );
Com_Memset( s_worldData.novis, 0xff, len );
len = l->length;
if (!len) {
return;
}
buf = l->buffer;
s_worldData.numClusters = LittleLong( ((int *)buf)[0] );
s_worldData.clusterBytes = LittleLong( ((int *)buf)[1] );
// CM_Load should have given us the vis data to share, so
// we don't need to allocate another copy
if ( tr.externalVisData ) {
s_worldData.vis = tr.externalVisData;
} else {
byte *dest;
dest = ri.Hunk_Alloc( len - 8, h_dontcare );
Com_Memcpy( dest, buf + 8, len - 8 );
s_worldData.vis = dest;
}
}
/*
================
R_LoadSphereLights
================
*/
void R_LoadSphereLights(gamelump_t* l) {
int i, j;
mapspherel_t* at;
spherel_t* light;
if (l->length % sizeof(mapspherel_t)) {
Com_Error(ERR_DROP, "LoadMap: funny lump size in spherelight data for %s\n", s_worldData.name);
}
tr.numSLights = l->length / sizeof(mapspherel_t);
if (tr.numSLights >= MAX_MAP_SPHERE_L_SIZE) {
Com_Error(ERR_DROP, "LoadMap: Too many spherelights on map %s, limit is %d\n", s_worldData.name, MAX_MAP_SPHERE_L_SIZE);
}
at = l->buffer;
light = tr.sLights;
for (i = 0; i < tr.numSLights; at++, light++, i++) {
VectorCopy(at->origin, light->origin);
VectorCopy(at->color, light->color);
VectorCopy(at->spot_dir, light->spot_dir);
for (j = 0; j < 3; j++) {
light->origin[j] = LittleFloat(light->origin[j]);
light->color[j] = LittleFloat(light->color[j]);
light->spot_dir[j] = LittleFloat(light->spot_dir[j]);
}
light->spot_radiusbydistance = LittleFloat(at->spot_radiusbydistance);
light->intensity = LittleFloat(at->intensity);
light->spot_light = LittleLong(at->spot_light);
light->needs_trace = LittleLong(at->needs_trace);
light->leaf = &s_worldData.nodes[s_worldData.numDecisionNodes + LittleLong(at->leaf)];
}
}
/*
================
R_LoadSphereLightVis
================
*/
void R_LoadSphereLightVis(gamelump_t* l) {
int i;
int j;
int h;
mnode_t* node;
int numentries;
int* entries;
memset(&tr.sSunLight, 0, sizeof(spherel_t));
if (l->length % 4) {
ri.Error(ERR_DROP, "LoadMap: funny lump size in spherelight vis data for %s\n",
s_worldData.name);
}
else {
entries = l->buffer;
numentries = l->length / sizeof(int);
if (numentries) {
if (numentries != s_worldData.numnodes - s_worldData.numDecisionNodes) {
for (i = 0; i < numentries; ++i)
entries[i] = LittleLong(entries[i]);
for (node = &s_worldData.nodes[s_worldData.numDecisionNodes]; numentries; node++) {
j = 0;
if (entries[0] != -1) {
do
++j;
while (entries[j] != -1);
}
if (j) {
node->lights = ri.Hunk_Alloc(j * sizeof(spherel_t*), h_dontcare);
node->numlights = j;
h = 0;
if (entries[0] == -2) {
node->lights[0] = &tr.sSunLight;
tr.sSunLight.leaf = (mnode_t*)-1;
h = 1;
}
while (entries[h] != -1) {
node->lights[h] = &tr.sLights[entries[h]];
h++;
}
entries += h + 1;
numentries = numentries - 1 - h;
}
else {
numentries--;
entries++;
}
}
}
}
}
}
//===============================================================================
/*
===============
ShaderForShaderNum
===============
*/
static shader_t *ShaderForShaderNum( int shaderNum, int lightmapNum ) {
shader_t *shader;
dshader_t *dsh;
shaderNum = LittleLong( shaderNum );
if ( shaderNum < 0 || shaderNum >= s_worldData.numShaders ) {
ri.Error( ERR_DROP, "ShaderForShaderNum: bad num %i", shaderNum );
}
dsh = &s_worldData.shaders[ shaderNum ];
if ( r_vertexLight->integer || glConfig.hardwareType == GLHW_PERMEDIA2 ) {
lightmapNum = LIGHTMAP_BY_VERTEX;
}
if ( r_fullbright->integer ) {
lightmapNum = LIGHTMAP_WHITEIMAGE;
}
shader = R_FindShader( dsh->shader, lightmapNum, qtrue, qtrue, qtrue, qtrue);
// if the shader had errors, just use default shader
if ( shader->defaultShader ) {
return tr.defaultShader;
}
return shader;
}
/*
================
R_UnpackTerraPatch
================
*/
void R_UnpackTerraPatch(cTerraPatch_t* pPacked, cTerraPatchUnpacked_t* pUnpacked) {
int i, j;
union {
int16_t v;
uint8_t b[2];
} flags;
pUnpacked->byDirty = qfalse;
pUnpacked->visCountCheck = 0;
pUnpacked->visCountDraw = 0;
pUnpacked->uiDistRecalc = 0;
if (pPacked->lmapScale <= 0) {
Com_Error(ERR_DROP, "invalid map: terrain has lmapScale <= 0");
}
pUnpacked->drawinfo.lmapStep = (float)(pPacked->lmapScale / 64);
pUnpacked->drawinfo.lmapSize = (float)((pPacked->lmapScale * 8) + 1);
pUnpacked->s = ((float)pPacked->s + 0.5) * 0.0078125;
pUnpacked->t = ((float)pPacked->t + 0.5) * 0.0078125;
if( s_worldData.lighting ) {
pUnpacked->drawinfo.lmData = &s_worldData.lighting[pPacked->iLightMap * (LIGHTMAP_SIZE * LIGHTMAP_SIZE * 3) + 3 * pPacked->s + 3 * 128 * pPacked->t];
} else {
pUnpacked->drawinfo.lmData = NULL;
}
for (i = 0; i < 2; i++) {
for (j = 0; j < 2; j++) {
pUnpacked->texCoord[i][j][0] = LittleFloat(pPacked->texCoord[i][j][0]);
pUnpacked->texCoord[i][j][1] = LittleFloat(pPacked->texCoord[i][j][1]);
}
}
pUnpacked->x0 = ((int)pPacked->x << 6);
pUnpacked->y0 = ((int)pPacked->y << 6);
pUnpacked->z0 = LittleShort(pPacked->iBaseHeight);
pUnpacked->shader = ShaderForShaderNum(LittleShort(pPacked->iShader), LittleShort(pPacked->iLightMap));
pUnpacked->iNorth = LittleShort(pPacked->iNorth);
pUnpacked->iEast = LittleShort(pPacked->iEast);
pUnpacked->iSouth = LittleShort(pPacked->iSouth);
pUnpacked->iWest = LittleShort(pPacked->iWest);
for (i = 0; i < 63; i++)
{
flags.v = pPacked->varTree[0][i].flags;
flags.b[1] &= 7;
pUnpacked->varTree[0][i].fVariance = LittleShort(flags.v);
pUnpacked->varTree[0][i].s.flags = LittleShort(pPacked->varTree[0][i].flags) >> 12;
flags.v = pPacked->varTree[1][i].flags;
flags.b[1] &= 7;
pUnpacked->varTree[1][i].fVariance = LittleShort(flags.v);
pUnpacked->varTree[1][i].s.flags = LittleShort(pPacked->varTree[1][i].flags) >> 12;
}
for (i = 0; i < sizeof(pUnpacked->heightmap) / sizeof(pUnpacked->heightmap[0]); i++) {
pUnpacked->heightmap[i] = pPacked->heightmap[i];
}
pUnpacked->zmax = 0;
pUnpacked->flags = pPacked->flags;
for (i = 0; i < sizeof(pUnpacked->heightmap) / sizeof(pUnpacked->heightmap[0]); i++)
{
if (pUnpacked->zmax < pUnpacked->heightmap[i]) {
pUnpacked->zmax = pUnpacked->heightmap[i];
}
}
pUnpacked->frameCount = 0;
pUnpacked->zmax += pUnpacked->zmax;
}
/*
================
R_LoadTerrain
================
IneQuation was here
*/
void R_LoadTerrain(gamelump_t* lump) {
int i;
cTerraPatch_t* in;
cTerraPatchUnpacked_t* out;
if (!lump->length) {
s_worldData.numTerraPatches = 0;
s_worldData.terraPatches = NULL;
return;
}
if (lump->length % sizeof(cTerraPatch_t)) {
Com_Error(ERR_DROP, "R_LoadTerrain: funny lump size");
}
s_worldData.numTerraPatches = lump->length / sizeof(cTerraPatch_t);
s_worldData.terraPatches = ri.Hunk_Alloc(s_worldData.numTerraPatches * sizeof(cTerraPatchUnpacked_t), h_dontcare);
in = lump->buffer;
out = s_worldData.terraPatches;
for (i = 0; i < s_worldData.numTerraPatches; in++, out++, i++) {
R_UnpackTerraPatch(in, out);
}
}
/*
================
R_LoadTerrainIndexes
================
*/
void R_LoadTerrainIndexes(gamelump_t* lump) {
int i;
short* in;
cTerraPatchUnpacked_t** out;
if (!lump->length) {
s_worldData.numVisTerraPatches = 0;
s_worldData.visTerraPatches = NULL;
return;
}
if (lump->length % sizeof(short)) {
Com_Error(ERR_DROP, "R_LoadTerrainIndexes: funny lump size");
}
s_worldData.numVisTerraPatches = lump->length / sizeof(short);
s_worldData.visTerraPatches = ri.Hunk_Alloc(s_worldData.numVisTerraPatches * sizeof(cTerraPatchUnpacked_t*), h_dontcare);
in = lump->buffer;
out = s_worldData.visTerraPatches;
for (i = 0; i < s_worldData.numVisTerraPatches; in++, out++, i++) {
*out = &s_worldData.terraPatches[*in];
}
}
/*
===============
ParseFace
===============
*/
static void ParseFace( dsurface_t *ds, drawVert_t *verts, msurface_t *surf, int *indexes ) {
int i, j;
srfSurfaceFace_t *cv;
int numPoints, numIndexes;
int lightmapNum;
int sfaceSize, ofsIndexes;
lightmapNum = LittleLong( ds->lightmapNum );
// get shader value
surf->shader = ShaderForShaderNum( ds->shaderNum, lightmapNum );
if ( r_singleShader->integer && !surf->shader->isSky ) {
surf->shader = tr.defaultShader;
}
numPoints = LittleLong( ds->numVerts );
if (numPoints > MAX_FACE_POINTS) {
ri.Printf( PRINT_WARNING, "WARNING: MAX_FACE_POINTS exceeded: %i\n", numPoints);
numPoints = MAX_FACE_POINTS;
surf->shader = tr.defaultShader;
}
numIndexes = LittleLong( ds->numIndexes );
// create the srfSurfaceFace_t
sfaceSize = ( int ) &((srfSurfaceFace_t *)0)->points[numPoints];
ofsIndexes = sfaceSize;
sfaceSize += sizeof( int ) * numIndexes;
cv = ri.Hunk_Alloc( sfaceSize, h_dontcare );
cv->surfaceType = SF_FACE;
cv->numPoints = numPoints;
cv->numIndices = numIndexes;
cv->ofsIndices = ofsIndexes;
verts += LittleLong( ds->firstVert );
for ( i = 0 ; i < numPoints ; i++ ) {
for ( j = 0 ; j < 3 ; j++ ) {
cv->points[i][j] = LittleFloat( verts[i].xyz[j] );
}
for ( j = 0 ; j < 2 ; j++ ) {
cv->points[i][3+j] = LittleFloat( verts[i].st[j] );
cv->points[i][5+j] = LittleFloat( verts[i].lightmap[j] );
}
R_ColorShiftLightingBytesAlpha( verts[i].color, (byte *)&cv->points[i][7] );
}
indexes += LittleLong( ds->firstIndex );
for ( i = 0 ; i < numIndexes ; i++ ) {
((int *)((byte *)cv + cv->ofsIndices ))[i] = LittleLong( indexes[ i ] );
}
// take the plane information from the lightmap vector
for ( i = 0 ; i < 3 ; i++ ) {
cv->plane.normal[i] = LittleFloat( ds->lightmapVecs[2][i] );
}
cv->plane.dist = DotProduct( cv->points[0], cv->plane.normal );
SetPlaneSignbits( &cv->plane );
cv->plane.type = PlaneTypeForNormal( cv->plane.normal );
if (tr.numLightmaps && lightmapNum != -1 && surf->shader->lightmapIndex >= 0)
{
float inv;
cv->lmX = LittleLong(ds->lightmapX);
cv->lmY = LittleLong(ds->lightmapY);
cv->lmWidth = LittleLong(ds->lightmapWidth);
cv->lmHeight = LittleLong(ds->lightmapHeight);
if (s_worldData.lighting) {
cv->lmData = &s_worldData.lighting[lightmapNum * (LIGHTMAP_SIZE * LIGHTMAP_SIZE * 3) + 3 * cv->lmX + 3 * 128 * cv->lmY];
} else {
cv->lmData = NULL;
}
for (i = 0; i < 3; i++)
{
cv->lmOrigin[j] = LittleFloat(ds->lightmapOrigin[j]);
cv->lmVecs[0][j] = LittleFloat(ds->lightmapVecs[0][j]);
cv->lmVecs[1][j] = LittleFloat(ds->lightmapVecs[1][j]);
}
inv = VectorNormalize2(cv->lmVecs[0], cv->lmInverseVecs[0]);
cv->lmInverseVecs[0][0] *= 1.0 / inv;
cv->lmInverseVecs[0][1] *= 1.0 / inv;
cv->lmInverseVecs[0][2] *= 1.0 / inv;
inv = VectorNormalize2(cv->lmVecs[1], cv->lmInverseVecs[1]);
cv->lmInverseVecs[1][0] *= 1.0 / inv;
cv->lmInverseVecs[1][1] *= 1.0 / inv;
cv->lmInverseVecs[1][2] *= 1.0 / inv;
}
else
{
cv->lmData = NULL;
}
surf->data = (surfaceType_t *)cv;
}
/*
===============
ParseMesh
===============
*/
static void ParseMesh ( dsurface_t *ds, drawVert_t *verts, msurface_t *surf ) {
srfGridMesh_t *grid;
int i, j;
int width, height, numPoints;
MAC_STATIC drawVert_t points[MAX_PATCH_SIZE*MAX_PATCH_SIZE];
int lightmapNum;
vec3_t bounds[2];
vec3_t tmpVec;
static surfaceType_t skipData = SF_SKIP;
lightmapNum = LittleLong( ds->lightmapNum );
// get fog volume
surf->fogIndex = LittleLong( ds->fogNum ) + 1;
// get shader value
surf->shader = ShaderForShaderNum( ds->shaderNum, lightmapNum );
if ( r_singleShader->integer && !surf->shader->isSky ) {
surf->shader = tr.defaultShader;
}
// we may have a nodraw surface, because they might still need to
// be around for movement clipping
if ( s_worldData.shaders[ LittleLong( ds->shaderNum ) ].surfaceFlags & SURF_NODRAW ) {
surf->data = &skipData;
return;
}
width = LittleLong( ds->patchWidth );
height = LittleLong( ds->patchHeight );
verts += LittleLong( ds->firstVert );
numPoints = width * height;
for ( i = 0 ; i < numPoints ; i++ ) {
for ( j = 0 ; j < 3 ; j++ ) {
points[i].xyz[j] = LittleFloat( verts[i].xyz[j] );
points[i].normal[j] = LittleFloat( verts[i].normal[j] );
}
for ( j = 0 ; j < 2 ; j++ ) {
points[i].st[j] = LittleFloat( verts[i].st[j] );
points[i].lightmap[j] = LittleFloat( verts[i].lightmap[j] );
}
R_ColorShiftLightingBytesAlpha( verts[i].color, points[i].color );
}
// pre-tesseleate
grid = R_SubdividePatchToGrid( width, height, points );
surf->data = (surfaceType_t *)grid;
if (tr.numLightmaps && lightmapNum != -1 && surf->shader->lightmapIndex >= 0)
{
grid->lmX = LittleLong(ds->lightmapX);
grid->lmY = LittleLong(ds->lightmapY);
grid->lmWidth = LittleLong(ds->lightmapWidth);
grid->lmHeight = LittleLong(ds->lightmapHeight);
if (s_worldData.lighting) {
grid->lmData = &s_worldData.lighting[lightmapNum * (LIGHTMAP_SIZE * LIGHTMAP_SIZE * 3) + 3 * grid->lmX + 3 * 128 * grid->lmY];
} else {
grid->lmData = NULL;
}
}
// copy the level of detail origin, which is the center
// of the group of all curves that must subdivide the same
// to avoid cracking
for ( i = 0 ; i < 3 ; i++ ) {
bounds[0][i] = LittleFloat( ds->lightmapVecs[0][i] );
bounds[1][i] = LittleFloat( ds->lightmapVecs[1][i] );
}
VectorAdd( bounds[0], bounds[1], bounds[1] );
VectorScale( bounds[1], 0.5f, grid->lodOrigin );
VectorSubtract( bounds[0], grid->lodOrigin, tmpVec );
grid->lodRadius = VectorLength( tmpVec );
}
/*
===============
ParseTriSurf
===============
*/
static void ParseTriSurf( dsurface_t *ds, drawVert_t *verts, msurface_t *surf, int *indexes ) {
srfTriangles_t *tri;
int i, j;
int numVerts, numIndexes;
// get fog volume
surf->fogIndex = LittleLong( ds->fogNum ) + 1;
// get shader
surf->shader = ShaderForShaderNum( ds->shaderNum, LIGHTMAP_BY_VERTEX );
if ( r_singleShader->integer && !surf->shader->isSky ) {
surf->shader = tr.defaultShader;
}
numVerts = LittleLong( ds->numVerts );
numIndexes = LittleLong( ds->numIndexes );
tri = ri.Hunk_Alloc( sizeof( *tri ) + numVerts * sizeof( tri->verts[0] )
+ numIndexes * sizeof( tri->indexes[0] ), h_dontcare );
tri->surfaceType = SF_TRIANGLES;
tri->numVerts = numVerts;
tri->numIndexes = numIndexes;
tri->verts = (drawVert_t *)(tri + 1);
tri->indexes = (int *)(tri->verts + tri->numVerts );
surf->data = (surfaceType_t *)tri;
// copy vertexes
ClearBounds( tri->bounds[0], tri->bounds[1] );
verts += LittleLong( ds->firstVert );
for ( i = 0 ; i < numVerts ; i++ ) {
for ( j = 0 ; j < 3 ; j++ ) {
tri->verts[i].xyz[j] = LittleFloat( verts[i].xyz[j] );
tri->verts[i].normal[j] = LittleFloat( verts[i].normal[j] );
}
AddPointToBounds( tri->verts[i].xyz, tri->bounds[0], tri->bounds[1] );
for ( j = 0 ; j < 2 ; j++ ) {
tri->verts[i].st[j] = LittleFloat( verts[i].st[j] );
tri->verts[i].lightmap[j] = LittleFloat( verts[i].lightmap[j] );
}
R_ColorShiftLightingBytesAlpha( verts[i].color, tri->verts[i].color );
}
// copy indexes
indexes += LittleLong( ds->firstIndex );
for ( i = 0 ; i < numIndexes ; i++ ) {
tri->indexes[i] = LittleLong( indexes[i] );
if ( tri->indexes[i] < 0 || tri->indexes[i] >= numVerts ) {
ri.Error( ERR_DROP, "Bad index in triangle surface" );
}
}
}
/*
===============
ParseFlare
===============
*/
static void ParseFlare( dsurface_t *ds, drawVert_t *verts, msurface_t *surf, int *indexes ) {
srfFlare_t *flare;
int i;
// get fog volume
surf->fogIndex = LittleLong( ds->fogNum ) + 1;
// get shader
surf->shader = ShaderForShaderNum( ds->shaderNum, LIGHTMAP_BY_VERTEX );
if ( r_singleShader->integer && !surf->shader->isSky ) {
surf->shader = tr.defaultShader;
}
flare = ri.Hunk_Alloc( sizeof( *flare ), h_dontcare );
flare->surfaceType = SF_FLARE;
surf->data = (surfaceType_t *)flare;
for ( i = 0 ; i < 3 ; i++ ) {
flare->origin[i] = LittleFloat( ds->lightmapOrigin[i] );
flare->color[i] = LittleFloat( ds->lightmapVecs[0][i] );
flare->normal[i] = LittleFloat( ds->lightmapVecs[2][i] );
}
}
/*
=================
R_MergedWidthPoints
returns true if there are grid points merged on a width edge
=================
*/
int R_MergedWidthPoints(srfGridMesh_t *grid, int offset) {
int i, j;
for (i = 1; i < grid->width-1; i++) {
for (j = i + 1; j < grid->width-1; j++) {
if ( fabs(grid->verts[i + offset].xyz[0] - grid->verts[j + offset].xyz[0]) > .1) continue;
if ( fabs(grid->verts[i + offset].xyz[1] - grid->verts[j + offset].xyz[1]) > .1) continue;
if ( fabs(grid->verts[i + offset].xyz[2] - grid->verts[j + offset].xyz[2]) > .1) continue;
return qtrue;
}
}
return qfalse;
}
/*
=================
R_MergedHeightPoints
returns true if there are grid points merged on a height edge
=================
*/
int R_MergedHeightPoints(srfGridMesh_t *grid, int offset) {
int i, j;
for (i = 1; i < grid->height-1; i++) {
for (j = i + 1; j < grid->height-1; j++) {
if ( fabs(grid->verts[grid->width * i + offset].xyz[0] - grid->verts[grid->width * j + offset].xyz[0]) > .1) continue;
if ( fabs(grid->verts[grid->width * i + offset].xyz[1] - grid->verts[grid->width * j + offset].xyz[1]) > .1) continue;
if ( fabs(grid->verts[grid->width * i + offset].xyz[2] - grid->verts[grid->width * j + offset].xyz[2]) > .1) continue;
return qtrue;
}
}
return qfalse;
}
/*
=================
R_FixSharedVertexLodError_r
NOTE: never sync LoD through grid edges with merged points!
FIXME: write generalized version that also avoids cracks between a patch and one that meets half way?
=================
*/
void R_FixSharedVertexLodError_r( int start, srfGridMesh_t *grid1 ) {
int j, k, l, m, n, offset1, offset2, touch;
srfGridMesh_t *grid2;
for ( j = start; j < s_worldData.numsurfaces; j++ ) {
//
grid2 = (srfGridMesh_t *) s_worldData.surfaces[j].data;
// if this surface is not a grid
if ( grid2->surfaceType != SF_GRID ) continue;
// if the LOD errors are already fixed for this patch
if ( grid2->lodFixed == 2 ) continue;
// grids in the same LOD group should have the exact same lod radius
if ( grid1->lodRadius != grid2->lodRadius ) continue;
// grids in the same LOD group should have the exact same lod origin
if ( grid1->lodOrigin[0] != grid2->lodOrigin[0] ) continue;
if ( grid1->lodOrigin[1] != grid2->lodOrigin[1] ) continue;
if ( grid1->lodOrigin[2] != grid2->lodOrigin[2] ) continue;
//
touch = qfalse;
for (n = 0; n < 2; n++) {
//
if (n) offset1 = (grid1->height-1) * grid1->width;
else offset1 = 0;
if (R_MergedWidthPoints(grid1, offset1)) continue;
for (k = 1; k < grid1->width-1; k++) {
for (m = 0; m < 2; m++) {
if (m) offset2 = (grid2->height-1) * grid2->width;
else offset2 = 0;
if (R_MergedWidthPoints(grid2, offset2)) continue;
for ( l = 1; l < grid2->width-1; l++) {
//
if ( fabs(grid1->verts[k + offset1].xyz[0] - grid2->verts[l + offset2].xyz[0]) > .1) continue;
if ( fabs(grid1->verts[k + offset1].xyz[1] - grid2->verts[l + offset2].xyz[1]) > .1) continue;
if ( fabs(grid1->verts[k + offset1].xyz[2] - grid2->verts[l + offset2].xyz[2]) > .1) continue;
// ok the points are equal and should have the same lod error
grid2->widthLodError[l] = grid1->widthLodError[k];
touch = qtrue;
}
}
for (m = 0; m < 2; m++) {
if (m) offset2 = grid2->width-1;
else offset2 = 0;
if (R_MergedHeightPoints(grid2, offset2)) continue;
for ( l = 1; l < grid2->height-1; l++) {
//
if ( fabs(grid1->verts[k + offset1].xyz[0] - grid2->verts[grid2->width * l + offset2].xyz[0]) > .1) continue;
if ( fabs(grid1->verts[k + offset1].xyz[1] - grid2->verts[grid2->width * l + offset2].xyz[1]) > .1) continue;
if ( fabs(grid1->verts[k + offset1].xyz[2] - grid2->verts[grid2->width * l + offset2].xyz[2]) > .1) continue;
// ok the points are equal and should have the same lod error
grid2->heightLodError[l] = grid1->widthLodError[k];
touch = qtrue;
}
}
}
}
for (n = 0; n < 2; n++) {
//
if (n) offset1 = grid1->width-1;
else offset1 = 0;
if (R_MergedHeightPoints(grid1, offset1)) continue;
for (k = 1; k < grid1->height-1; k++) {
for (m = 0; m < 2; m++) {
if (m) offset2 = (grid2->height-1) * grid2->width;
else offset2 = 0;
if (R_MergedWidthPoints(grid2, offset2)) continue;
for ( l = 1; l < grid2->width-1; l++) {
//
if ( fabs(grid1->verts[grid1->width * k + offset1].xyz[0] - grid2->verts[l + offset2].xyz[0]) > .1) continue;
if ( fabs(grid1->verts[grid1->width * k + offset1].xyz[1] - grid2->verts[l + offset2].xyz[1]) > .1) continue;
if ( fabs(grid1->verts[grid1->width * k + offset1].xyz[2] - grid2->verts[l + offset2].xyz[2]) > .1) continue;
// ok the points are equal and should have the same lod error
grid2->widthLodError[l] = grid1->heightLodError[k];
touch = qtrue;
}
}
for (m = 0; m < 2; m++) {
if (m) offset2 = grid2->width-1;
else offset2 = 0;
if (R_MergedHeightPoints(grid2, offset2)) continue;
for ( l = 1; l < grid2->height-1; l++) {
//
if ( fabs(grid1->verts[grid1->width * k + offset1].xyz[0] - grid2->verts[grid2->width * l + offset2].xyz[0]) > .1) continue;
if ( fabs(grid1->verts[grid1->width * k + offset1].xyz[1] - grid2->verts[grid2->width * l + offset2].xyz[1]) > .1) continue;
if ( fabs(grid1->verts[grid1->width * k + offset1].xyz[2] - grid2->verts[grid2->width * l + offset2].xyz[2]) > .1) continue;
// ok the points are equal and should have the same lod error
grid2->heightLodError[l] = grid1->heightLodError[k];
touch = qtrue;
}
}
}
}
if (touch) {
grid2->lodFixed = 2;
R_FixSharedVertexLodError_r ( start, grid2 );
//NOTE: this would be correct but makes things really slow
//grid2->lodFixed = 1;
}
}
}
/*
=================
R_FixSharedVertexLodError
This function assumes that all patches in one group are nicely stitched together for the highest LoD.
If this is not the case this function will still do its job but won't fix the highest LoD cracks.
=================
*/
void R_FixSharedVertexLodError( void ) {
int i;
srfGridMesh_t *grid1;
for ( i = 0; i < s_worldData.numsurfaces; i++ ) {
//
grid1 = (srfGridMesh_t *) s_worldData.surfaces[i].data;
// if this surface is not a grid
if ( grid1->surfaceType != SF_GRID )
continue;
//
if ( grid1->lodFixed )
continue;
//
grid1->lodFixed = 2;
// recursively fix other patches in the same LOD group
R_FixSharedVertexLodError_r( i + 1, grid1);
}
}
/*
===============
R_StitchPatches
===============
*/
int R_StitchPatches( int grid1num, int grid2num ) {
float *v1, *v2;
srfGridMesh_t *grid1, *grid2;
int k, l, m, n, offset1, offset2, row, column;
grid1 = (srfGridMesh_t *) s_worldData.surfaces[grid1num].data;
grid2 = (srfGridMesh_t *) s_worldData.surfaces[grid2num].data;
for (n = 0; n < 2; n++) {
//
if (n) offset1 = (grid1->height-1) * grid1->width;
else offset1 = 0;
if (R_MergedWidthPoints(grid1, offset1))
continue;
for (k = 0; k < grid1->width-2; k += 2) {
for (m = 0; m < 2; m++) {
if ( grid2->width >= MAX_GRID_SIZE )
break;
if (m) offset2 = (grid2->height-1) * grid2->width;
else offset2 = 0;
for ( l = 0; l < grid2->width-1; l++) {
//
v1 = grid1->verts[k + offset1].xyz;
v2 = grid2->verts[l + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
v1 = grid1->verts[k + 2 + offset1].xyz;
v2 = grid2->verts[l + 1 + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
//
v1 = grid2->verts[l + offset2].xyz;
v2 = grid2->verts[l + 1 + offset2].xyz;
if ( fabs(v1[0] - v2[0]) < .01 &&
fabs(v1[1] - v2[1]) < .01 &&
fabs(v1[2] - v2[2]) < .01)
continue;
//
//ri.Printf( PRINT_ALL, "found highest LoD crack between two patches\n" );
// insert column into grid2 right after after column l
if (m) row = grid2->height-1;
else row = 0;
grid2 = R_GridInsertColumn( grid2, l+1, row,
grid1->verts[k + 1 + offset1].xyz, grid1->widthLodError[k+1]);
grid2->lodStitched = qfalse;
s_worldData.surfaces[grid2num].data = (void *) grid2;
return qtrue;
}
}
for (m = 0; m < 2; m++) {
if (grid2->height >= MAX_GRID_SIZE)
break;
if (m) offset2 = grid2->width-1;
else offset2 = 0;
for ( l = 0; l < grid2->height-1; l++) {
//
v1 = grid1->verts[k + offset1].xyz;
v2 = grid2->verts[grid2->width * l + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
v1 = grid1->verts[k + 2 + offset1].xyz;
v2 = grid2->verts[grid2->width * (l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
//
v1 = grid2->verts[grid2->width * l + offset2].xyz;
v2 = grid2->verts[grid2->width * (l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) < .01 &&
fabs(v1[1] - v2[1]) < .01 &&
fabs(v1[2] - v2[2]) < .01)
continue;
//
//ri.Printf( PRINT_ALL, "found highest LoD crack between two patches\n" );
// insert row into grid2 right after after row l
if (m) column = grid2->width-1;
else column = 0;
grid2 = R_GridInsertRow( grid2, l+1, column,
grid1->verts[k + 1 + offset1].xyz, grid1->widthLodError[k+1]);
grid2->lodStitched = qfalse;
s_worldData.surfaces[grid2num].data = (void *) grid2;
return qtrue;
}
}
}
}
for (n = 0; n < 2; n++) {
//
if (n) offset1 = grid1->width-1;
else offset1 = 0;
if (R_MergedHeightPoints(grid1, offset1))
continue;
for (k = 0; k < grid1->height-2; k += 2) {
for (m = 0; m < 2; m++) {
if ( grid2->width >= MAX_GRID_SIZE )
break;
if (m) offset2 = (grid2->height-1) * grid2->width;
else offset2 = 0;
for ( l = 0; l < grid2->width-1; l++) {
//
v1 = grid1->verts[grid1->width * k + offset1].xyz;
v2 = grid2->verts[l + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
v1 = grid1->verts[grid1->width * (k + 2) + offset1].xyz;
v2 = grid2->verts[l + 1 + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
//
v1 = grid2->verts[l + offset2].xyz;
v2 = grid2->verts[(l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) < .01 &&
fabs(v1[1] - v2[1]) < .01 &&
fabs(v1[2] - v2[2]) < .01)
continue;
//
//ri.Printf( PRINT_ALL, "found highest LoD crack between two patches\n" );
// insert column into grid2 right after after column l
if (m) row = grid2->height-1;
else row = 0;
grid2 = R_GridInsertColumn( grid2, l+1, row,
grid1->verts[grid1->width * (k + 1) + offset1].xyz, grid1->heightLodError[k+1]);
grid2->lodStitched = qfalse;
s_worldData.surfaces[grid2num].data = (void *) grid2;
return qtrue;
}
}
for (m = 0; m < 2; m++) {
if (grid2->height >= MAX_GRID_SIZE)
break;
if (m) offset2 = grid2->width-1;
else offset2 = 0;
for ( l = 0; l < grid2->height-1; l++) {
//
v1 = grid1->verts[grid1->width * k + offset1].xyz;
v2 = grid2->verts[grid2->width * l + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
v1 = grid1->verts[grid1->width * (k + 2) + offset1].xyz;
v2 = grid2->verts[grid2->width * (l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
//
v1 = grid2->verts[grid2->width * l + offset2].xyz;
v2 = grid2->verts[grid2->width * (l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) < .01 &&
fabs(v1[1] - v2[1]) < .01 &&
fabs(v1[2] - v2[2]) < .01)
continue;
//
//ri.Printf( PRINT_ALL, "found highest LoD crack between two patches\n" );
// insert row into grid2 right after after row l
if (m) column = grid2->width-1;
else column = 0;
grid2 = R_GridInsertRow( grid2, l+1, column,
grid1->verts[grid1->width * (k + 1) + offset1].xyz, grid1->heightLodError[k+1]);
grid2->lodStitched = qfalse;
s_worldData.surfaces[grid2num].data = (void *) grid2;
return qtrue;
}
}
}
}
for (n = 0; n < 2; n++) {
//
if (n) offset1 = (grid1->height-1) * grid1->width;
else offset1 = 0;
if (R_MergedWidthPoints(grid1, offset1))
continue;
for (k = grid1->width-1; k > 1; k -= 2) {
for (m = 0; m < 2; m++) {
if ( grid2->width >= MAX_GRID_SIZE )
break;
if (m) offset2 = (grid2->height-1) * grid2->width;
else offset2 = 0;
for ( l = 0; l < grid2->width-1; l++) {
//
v1 = grid1->verts[k + offset1].xyz;
v2 = grid2->verts[l + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
v1 = grid1->verts[k - 2 + offset1].xyz;
v2 = grid2->verts[l + 1 + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
//
v1 = grid2->verts[l + offset2].xyz;
v2 = grid2->verts[(l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) < .01 &&
fabs(v1[1] - v2[1]) < .01 &&
fabs(v1[2] - v2[2]) < .01)
continue;
//
//ri.Printf( PRINT_ALL, "found highest LoD crack between two patches\n" );
// insert column into grid2 right after after column l
if (m) row = grid2->height-1;
else row = 0;
grid2 = R_GridInsertColumn( grid2, l+1, row,
grid1->verts[k - 1 + offset1].xyz, grid1->widthLodError[k+1]);
grid2->lodStitched = qfalse;
s_worldData.surfaces[grid2num].data = (void *) grid2;
return qtrue;
}
}
for (m = 0; m < 2; m++) {
if (grid2->height >= MAX_GRID_SIZE)
break;
if (m) offset2 = grid2->width-1;
else offset2 = 0;
for ( l = 0; l < grid2->height-1; l++) {
//
v1 = grid1->verts[k + offset1].xyz;
v2 = grid2->verts[grid2->width * l + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
v1 = grid1->verts[k - 2 + offset1].xyz;
v2 = grid2->verts[grid2->width * (l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
//
v1 = grid2->verts[grid2->width * l + offset2].xyz;
v2 = grid2->verts[grid2->width * (l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) < .01 &&
fabs(v1[1] - v2[1]) < .01 &&
fabs(v1[2] - v2[2]) < .01)
continue;
//
//ri.Printf( PRINT_ALL, "found highest LoD crack between two patches\n" );
// insert row into grid2 right after after row l
if (m) column = grid2->width-1;
else column = 0;
grid2 = R_GridInsertRow( grid2, l+1, column,
grid1->verts[k - 1 + offset1].xyz, grid1->widthLodError[k+1]);
if (!grid2)
break;
grid2->lodStitched = qfalse;
s_worldData.surfaces[grid2num].data = (void *) grid2;
return qtrue;
}
}
}
}
for (n = 0; n < 2; n++) {
//
if (n) offset1 = grid1->width-1;
else offset1 = 0;
if (R_MergedHeightPoints(grid1, offset1))
continue;
for (k = grid1->height-1; k > 1; k -= 2) {
for (m = 0; m < 2; m++) {
if ( grid2->width >= MAX_GRID_SIZE )
break;
if (m) offset2 = (grid2->height-1) * grid2->width;
else offset2 = 0;
for ( l = 0; l < grid2->width-1; l++) {
//
v1 = grid1->verts[grid1->width * k + offset1].xyz;
v2 = grid2->verts[l + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
v1 = grid1->verts[grid1->width * (k - 2) + offset1].xyz;
v2 = grid2->verts[l + 1 + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
//
v1 = grid2->verts[l + offset2].xyz;
v2 = grid2->verts[(l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) < .01 &&
fabs(v1[1] - v2[1]) < .01 &&
fabs(v1[2] - v2[2]) < .01)
continue;
//
//ri.Printf( PRINT_ALL, "found highest LoD crack between two patches\n" );
// insert column into grid2 right after after column l
if (m) row = grid2->height-1;
else row = 0;
grid2 = R_GridInsertColumn( grid2, l+1, row,
grid1->verts[grid1->width * (k - 1) + offset1].xyz, grid1->heightLodError[k+1]);
grid2->lodStitched = qfalse;
s_worldData.surfaces[grid2num].data = (void *) grid2;
return qtrue;
}
}
for (m = 0; m < 2; m++) {
if (grid2->height >= MAX_GRID_SIZE)
break;
if (m) offset2 = grid2->width-1;
else offset2 = 0;
for ( l = 0; l < grid2->height-1; l++) {
//
v1 = grid1->verts[grid1->width * k + offset1].xyz;
v2 = grid2->verts[grid2->width * l + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
v1 = grid1->verts[grid1->width * (k - 2) + offset1].xyz;
v2 = grid2->verts[grid2->width * (l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) > .1)
continue;
if ( fabs(v1[1] - v2[1]) > .1)
continue;
if ( fabs(v1[2] - v2[2]) > .1)
continue;
//
v1 = grid2->verts[grid2->width * l + offset2].xyz;
v2 = grid2->verts[grid2->width * (l + 1) + offset2].xyz;
if ( fabs(v1[0] - v2[0]) < .01 &&
fabs(v1[1] - v2[1]) < .01 &&
fabs(v1[2] - v2[2]) < .01)
continue;
//
//ri.Printf( PRINT_ALL, "found highest LoD crack between two patches\n" );
// insert row into grid2 right after after row l
if (m) column = grid2->width-1;
else column = 0;
grid2 = R_GridInsertRow( grid2, l+1, column,
grid1->verts[grid1->width * (k - 1) + offset1].xyz, grid1->heightLodError[k+1]);
grid2->lodStitched = qfalse;
s_worldData.surfaces[grid2num].data = (void *) grid2;
return qtrue;
}
}
}
}
return qfalse;
}
/*
===============
R_TryStitchPatch
This function will try to stitch patches in the same LoD group together for the highest LoD.
Only single missing vertice cracks will be fixed.
Vertices will be joined at the patch side a crack is first found, at the other side
of the patch (on the same row or column) the vertices will not be joined and cracks
might still appear at that side.
===============
*/
int R_TryStitchingPatch( int grid1num ) {
int j, numstitches;
srfGridMesh_t *grid1, *grid2;
numstitches = 0;
grid1 = (srfGridMesh_t *) s_worldData.surfaces[grid1num].data;
for ( j = 0; j < s_worldData.numsurfaces; j++ ) {
//
grid2 = (srfGridMesh_t *) s_worldData.surfaces[j].data;
// if this surface is not a grid
if ( grid2->surfaceType != SF_GRID ) continue;
// grids in the same LOD group should have the exact same lod radius
if ( grid1->lodRadius != grid2->lodRadius ) continue;
// grids in the same LOD group should have the exact same lod origin
if ( grid1->lodOrigin[0] != grid2->lodOrigin[0] ) continue;
if ( grid1->lodOrigin[1] != grid2->lodOrigin[1] ) continue;
if ( grid1->lodOrigin[2] != grid2->lodOrigin[2] ) continue;
//
while (R_StitchPatches(grid1num, j))
{
numstitches++;
}
}
return numstitches;
}
/*
===============
R_StitchAllPatches
===============
*/
void R_StitchAllPatches( void ) {
int i, stitched, numstitches;
srfGridMesh_t *grid1;
numstitches = 0;
do
{
stitched = qfalse;
for ( i = 0; i < s_worldData.numsurfaces; i++ ) {
//
grid1 = (srfGridMesh_t *) s_worldData.surfaces[i].data;
// if this surface is not a grid
if ( grid1->surfaceType != SF_GRID )
continue;
//
if ( grid1->lodStitched )
continue;
//
grid1->lodStitched = qtrue;
stitched = qtrue;
//
numstitches += R_TryStitchingPatch( i );
}
}
while (stitched);
ri.Printf( PRINT_ALL, "stitched %d LoD cracks\n", numstitches );
}
/*
===============
R_MovePatchSurfacesToHunk
===============
*/
void R_MovePatchSurfacesToHunk(void) {
int i, size;
srfGridMesh_t *grid, *hunkgrid;
for ( i = 0; i < s_worldData.numsurfaces; i++ ) {
//
grid = (srfGridMesh_t *) s_worldData.surfaces[i].data;
// if this surface is not a grid
if ( grid->surfaceType != SF_GRID )
continue;
//
size = (grid->width * grid->height - 1) * sizeof( drawVert_t ) + sizeof( *grid );
hunkgrid = ri.Hunk_Alloc( size, h_dontcare );
Com_Memcpy(hunkgrid, grid, size);
hunkgrid->widthLodError = ri.Hunk_Alloc( grid->width * 4, h_dontcare );
Com_Memcpy( hunkgrid->widthLodError, grid->widthLodError, grid->width * 4 );
hunkgrid->heightLodError = ri.Hunk_Alloc( grid->height * 4, h_dontcare );
Com_Memcpy( grid->heightLodError, grid->heightLodError, grid->height * 4 );
R_FreeSurfaceGridMesh( grid );
s_worldData.surfaces[i].data = (void *) hunkgrid;
}
}
/*
===============
R_LoadSurfaces
===============
*/
static void R_LoadSurfaces(gamelump_t* surfs, gamelump_t* verts, gamelump_t* indexLump) {
dsurface_t *in;
msurface_t *out;
drawVert_t *dv;
int *indexes;
int count;
int numFaces, numMeshes, numTriSurfs, numFlares;
int i;
numFaces = 0;
numMeshes = 0;
numTriSurfs = 0;
numFlares = 0;
if (surfs->length % sizeof(*in))
ri.Error(ERR_DROP, "LoadMap: funny lump size in %s", s_worldData.name);
count = surfs->length / sizeof(*in);
dv = (void*)verts->buffer;
if (verts->length % sizeof(*dv))
ri.Error(ERR_DROP, "LoadMap: funny lump size in %s", s_worldData.name);
indexes = (void*)indexLump->buffer;
if (indexLump->length % sizeof(*indexes))
ri.Error(ERR_DROP, "LoadMap: funny lump size in %s", s_worldData.name);
in = (void*)surfs->buffer;
out = ri.Hunk_Alloc ( count * sizeof(*out), h_dontcare );
s_worldData.surfaces = out;
s_worldData.numsurfaces = count;
for ( i = 0 ; i < count ; i++, in++, out++ ) {
switch ( LittleLong( in->surfaceType ) ) {
case MST_PATCH:
ParseMesh ( in, dv, out );
numMeshes++;
break;
case MST_TRIANGLE_SOUP:
ParseTriSurf( in, dv, out, indexes );
numTriSurfs++;
break;
case MST_PLANAR:
ParseFace( in, dv, out, indexes );
numFaces++;
break;
case MST_FLARE:
ParseFlare( in, dv, out, indexes );
numFlares++;
break;
default:
ri.Error( ERR_DROP, "Bad surfaceType" );
}
}
#ifdef PATCH_STITCHING
R_StitchAllPatches();
#endif
R_FixSharedVertexLodError();
#ifdef PATCH_STITCHING
R_MovePatchSurfacesToHunk();
#endif
ri.Printf( PRINT_ALL, "...loaded %d faces, %i meshes, %i trisurfs, %i flares\n",
numFaces, numMeshes, numTriSurfs, numFlares );
}
/*
=================
R_LoadSubmodels
=================
*/
static void R_LoadSubmodels(gamelump_t* l) {
dmodel_t *in;
bmodel_t *out;
int i, j, count;
in = (void*)l->buffer;
if (l->length % sizeof(*in))
ri.Error(ERR_DROP, "LoadMap: funny lump size in %s", s_worldData.name);
count = l->length / sizeof(*in);
s_worldData.bmodels = out = ri.Hunk_Alloc( count * sizeof(*out), h_dontcare );
for ( i=0 ; i<count ; i++, in++, out++ ) {
model_t *model;
model = R_AllocModel();
assert( model != NULL ); // this should never happen
model->type = MOD_BRUSH;
model->d.bmodel = out;
Com_sprintf( model->name, sizeof( model->name ), "*%d", i );
for (j=0 ; j<3 ; j++) {
out->bounds[0][j] = LittleFloat (in->mins[j]);
out->bounds[1][j] = LittleFloat (in->maxs[j]);
}
out->firstSurface = s_worldData.surfaces + LittleLong( in->firstSurface );
out->numSurfaces = LittleLong( in->numSurfaces );
}
}
//==================================================================
/*
=================
R_SetParent
=================
*/
static void R_SetParent (mnode_t *node, mnode_t *parent)
{
node->parent = parent;
if (node->contents != -1)
return;
R_SetParent (node->children[0], node);
R_SetParent (node->children[1], node);
}
/*
=================
R_LoadNodesAndLeafs
=================
*/
static void R_LoadNodesAndLeafs(gamelump_t* nodeLump, gamelump_t* leafLump) {
int i, j, p;
dnode_t* in;
dleaf_t* inLeaf;
mnode_t* out;
int numNodes, numLeafs;
in = (void*)nodeLump->buffer;
if (nodeLump->length % sizeof(dnode_t) ||
leafLump->length % sizeof(dleaf_t)) {
ri.Error(ERR_DROP, "LoadMap: funny lump size in %s", s_worldData.name);
}
numNodes = nodeLump->length / sizeof(dnode_t);
numLeafs = leafLump->length / sizeof(dleaf_t);
out = ri.Hunk_Alloc((numNodes + numLeafs) * sizeof(*out), h_dontcare);
s_worldData.nodes = out;
s_worldData.numnodes = numNodes + numLeafs;
s_worldData.numDecisionNodes = numNodes;
// load nodes
for (i = 0; i < numNodes; i++, in++, out++)
{
for (j = 0; j < 3; j++)
{
out->mins[j] = LittleLong(in->mins[j]);
out->maxs[j] = LittleLong(in->maxs[j]);
}
p = LittleLong(in->planeNum);
out->plane = s_worldData.planes + p;
out->contents = CONTENTS_NODE; // differentiate from leafs
for (j = 0; j < 2; j++)
{
p = LittleLong(in->children[j]);
if (p >= 0)
out->children[j] = s_worldData.nodes + p;
else
out->children[j] = s_worldData.nodes + numNodes + (-1 - p);
}
}
// load leafs
inLeaf = (void*)leafLump->buffer;
for (i = 0; i < numLeafs; i++, inLeaf++, out++)
{
for (j = 0; j < 3; j++)
{
out->mins[j] = LittleLong(inLeaf->mins[j]);
out->maxs[j] = LittleLong(inLeaf->maxs[j]);
}
out->cluster = LittleLong(inLeaf->cluster);
out->area = LittleLong(inLeaf->area);
if (out->cluster >= s_worldData.numClusters) {
s_worldData.numClusters = out->cluster + 1;
}
out->firstmarksurface = s_worldData.marksurfaces +
LittleLong(inLeaf->firstLeafSurface);
out->nummarksurfaces = LittleLong(inLeaf->numLeafSurfaces);
out->firstTerraPatch = LittleLong(inLeaf->firstTerraPatch);
out->numTerraPatches = LittleLong(inLeaf->numTerraPatches);
out->firstStaticModel = LittleLong(inLeaf->firstStaticModel);
out->numStaticModels = LittleLong(inLeaf->numStaticModels);
}
// chain decendants
R_SetParent(s_worldData.nodes, NULL);
}
/*
=================
R_LoadNodesAndLeafsOld
=================
*/
static void R_LoadNodesAndLeafsOld(gamelump_t* nodeLump, gamelump_t* leafLump) {
int i, j, p;
dnode_t* in;
dleaf_t_ver17* inLeaf;
mnode_t* out;
int numNodes, numLeafs;
in = nodeLump->buffer;
if (nodeLump->length % sizeof(dnode_t) ||
leafLump->length % sizeof(dleaf_t)) {
ri.Error(ERR_DROP, "LoadMap: funny lump size in %s", s_worldData.name);
}
numNodes = nodeLump->length / sizeof(dnode_t);
numLeafs = leafLump->length / sizeof(dleaf_t);
out = ri.Hunk_Alloc((numNodes + numLeafs) * sizeof(*out), h_dontcare);
s_worldData.nodes = out;
s_worldData.numnodes = numNodes + numLeafs;
s_worldData.numDecisionNodes = numNodes;
// load nodes
for (i = 0; i < numNodes; i++, in++, out++)
{
for (j = 0; j < 3; j++)
{
out->mins[j] = LittleLong(in->mins[j]);
out->maxs[j] = LittleLong(in->maxs[j]);
}
p = LittleLong(in->planeNum);
out->plane = s_worldData.planes + p;
out->contents = CONTENTS_NODE; // differentiate from leafs
for (j = 0; j < 2; j++)
{
p = LittleLong(in->children[j]);
if (p >= 0)
out->children[j] = s_worldData.nodes + p;
else
out->children[j] = s_worldData.nodes + numNodes + (-1 - p);
}
}
// load leafs
inLeaf = leafLump->buffer;
for (i = 0; i < numLeafs; i++, inLeaf++, out++)
{
for (j = 0; j < 3; j++)
{
out->mins[j] = LittleLong(inLeaf->mins[j]);
out->maxs[j] = LittleLong(inLeaf->maxs[j]);
}
out->cluster = LittleLong(inLeaf->cluster);
out->area = LittleLong(inLeaf->area);
if (out->cluster >= s_worldData.numClusters) {
s_worldData.numClusters = out->cluster + 1;
}
out->firstmarksurface = s_worldData.marksurfaces +
LittleLong(inLeaf->firstLeafSurface);
out->nummarksurfaces = LittleLong(inLeaf->numLeafSurfaces);
out->firstTerraPatch = LittleLong(inLeaf->firstTerraPatch);
out->numTerraPatches = LittleLong(inLeaf->numTerraPatches);
}
// chain decendants
R_SetParent(s_worldData.nodes, NULL);
}
//=============================================================================
/*
=================
R_LoadShaders
=================
*/
static void R_LoadShaders(gamelump_t* l) {
int i, count;
dshader_t* in, * out;
in = l->buffer;
if (l->length % sizeof(*in))
ri.Error(ERR_DROP, "LoadMap: funny lump size in %s", s_worldData.name);
count = l->length / sizeof(*in);
out = ri.Hunk_Alloc(count * sizeof(*out), h_dontcare);
s_worldData.shaders = out;
s_worldData.numShaders = count;
Com_Memcpy(out, in, count * sizeof(*out));
for (i = 0; i < count; i++) {
out[i].surfaceFlags = LittleLong(out[i].surfaceFlags);
out[i].contentFlags = LittleLong(out[i].contentFlags);
}
}
/*
=================
R_LoadMarksurfaces
=================
*/
static void R_LoadMarksurfaces(gamelump_t* l)
{
int i, j, count;
int* in;
msurface_t** out;
in = l->buffer;
if (l->length % sizeof(*in))
ri.Error(ERR_DROP, "LoadMap: funny lump size in %s", s_worldData.name);
count = l->length / sizeof(*in);
out = (msurface_t**)ri.Hunk_Alloc(count * sizeof(*out), h_dontcare);
s_worldData.marksurfaces = out;
s_worldData.nummarksurfaces = count;
for (i = 0; i < count; i++)
{
j = LittleLong(in[i]);
out[i] = &s_worldData.surfaces[j];
}
}
/*
=================
R_LoadPlanes
=================
*/
static void R_LoadPlanes(gamelump_t* l) {
int i, j;
cplane_t* out;
dplane_t* in;
int count;
int bits;
in = l->buffer;
if (l->length % sizeof(*in))
ri.Error(ERR_DROP, "LoadMap: funny lump size in %s", s_worldData.name);
count = l->length / sizeof(*in);
out = ri.Hunk_Alloc(count * 2 * sizeof(*out), h_dontcare);
s_worldData.planes = out;
s_worldData.numplanes = count;
for (i = 0; i < count; i++, in++, out++) {
bits = 0;
for (j = 0; j < 3; j++) {
out->normal[j] = LittleFloat(in->normal[j]);
if (out->normal[j] < 0) {
bits |= 1 << j;
}
}
out->dist = LittleFloat(in->dist);
out->type = PlaneTypeForNormal(out->normal);
out->signbits = bits;
}
}
/*
================
R_LoadLightGrid
================
*/
void R_LoadLightGrid(gamelump_t* plPal, gamelump_t* plOffsets, gamelump_t* plData) {
int i;
vec3_t maxs;
int numGridPoints;
world_t *w;
float *wMins, *wMaxs;
w = &s_worldData;
if (!plPal->buffer || !plOffsets->buffer || !plData->buffer) {
ri.Printf(PRINT_WARNING, "WARNING: No light grid data present\n");
w->lightGridOffsets = 0;
w->lightGridData = 0;
return;
}
w->lightGridSize[0] = 32.0;
w->lightGridSize[1] = 32.0;
w->lightGridSize[2] = 32.0;
w->lightGridOOSize[0] = 1.0f / w->lightGridSize[0];
w->lightGridOOSize[1] = 1.0f / w->lightGridSize[1];
w->lightGridOOSize[2] = 1.0f / w->lightGridSize[2];
wMins = w->bmodels[0].bounds[0];
wMaxs = w->bmodels[0].bounds[1];
for ( i = 0 ; i < 3 ; i++ ) {
w->lightGridMins[i] = w->lightGridSize[i] * ceil( wMins[i] / w->lightGridSize[i] );
maxs[i] = w->lightGridSize[i] * floor( wMaxs[i] / w->lightGridSize[i] );
w->lightGridBounds[i] = (maxs[i] - w->lightGridMins[i])/w->lightGridSize[i] + 1;
}
numGridPoints = w->lightGridBounds[0] * w->lightGridBounds[1] + w->lightGridBounds[0];
if (plOffsets->length != numGridPoints * 2) {
ri.Printf(PRINT_WARNING, "WARNING: light grid offset size mismatch\n");
w->lightGridOffsets = NULL;
w->lightGridData = NULL;
return;
}
if (plPal->length != 768) {
ri.Printf(PRINT_WARNING, "WARNING: light grid palette size mismatch\n");
w->lightGridOffsets = NULL;
w->lightGridData = NULL;
return;
}
w->lightGridOffsets = ri.Hunk_Alloc(plOffsets->length, h_dontcare);
Com_Memcpy(w->lightGridOffsets, plOffsets->buffer, plOffsets->length);
Com_Memcpy(w->lightGridPalette, plPal->buffer, sizeof(s_worldData.lightGridPalette));
w->lightGridData = ri.Hunk_Alloc(plData->length, h_dontcare);
Com_Memcpy(w->lightGridData, plData->buffer, plData->length);
}
/*
================
R_LoadStaticModelData
================
*/
void R_LoadStaticModelData(gamelump_t* lump) {
int i;
byte* pDstColors;
byte* pSrcColors;
if (!lump->length) {
s_worldData.numStaticModelData = 0;
s_worldData.staticModelData = 0;
return;
}
if (lump->length % (sizeof(byte) * 3)) {
Com_Error(1, "R_LoadStaticModelData: funny lump size");
}
s_worldData.numStaticModelData = lump->length / (sizeof(byte) * 3);
s_worldData.staticModelData = (byte*)ri.Hunk_Alloc(s_worldData.numStaticModelData * sizeof(color4ub_t), h_dontcare);
pSrcColors = lump->buffer;
pDstColors = s_worldData.staticModelData;
for (i = 0; i < lump->length; i += sizeof(byte) * 3)
{
// Colors are stored as integers
pDstColors[0] = pSrcColors[0];
pDstColors[1] = pSrcColors[1];
pDstColors[2] = pSrcColors[2];
pDstColors[3] = 0xFF;
pSrcColors += sizeof(byte) * 3;
pDstColors += sizeof(byte) * 4;
}
}
/*
================
R_CopyStaticModel
================
*/
void R_CopyStaticModel(cStaticModel_t* pSM, cStaticModelUnpacked_t* pUnpackedSM) {
pUnpackedSM->visCount = 0;
pUnpackedSM->angles[0] = LittleFloat(pSM->angles[0]);
pUnpackedSM->angles[1] = LittleFloat(pSM->angles[1]);
pUnpackedSM->angles[2] = LittleFloat(pSM->angles[2]);
pUnpackedSM->origin[0] = LittleFloat(pSM->origin[0]);
pUnpackedSM->origin[1] = LittleFloat(pSM->origin[1]);
pUnpackedSM->origin[2] = LittleFloat(pSM->origin[2]);
pUnpackedSM->scale = LittleFloat(pSM->scale);
pUnpackedSM->firstVertexData = LittleLong(pSM->firstVertexData) * sizeof(color4ub_t) / (sizeof(byte) * 3);
pUnpackedSM->numVertexData = LittleLong(pSM->numVertexData);
memcpy(pUnpackedSM->model, pSM->model, sizeof(pUnpackedSM->model));
}
/*
================
R_LoadStaticModelDefs
================
*/
void R_LoadStaticModelDefs(gamelump_t* lump) {
int i;
cStaticModel_t* in;
cStaticModelUnpacked_t* out;
if (!lump->length) {
s_worldData.numStaticModels = 0;
s_worldData.staticModels = NULL;
return;
}
if (lump->length % sizeof(cStaticModel_t)) {
Com_Error(ERR_DROP, "R_LoadStaticModelDefs: funny lump size");
}
s_worldData.numStaticModels = lump->length / sizeof(cStaticModel_t);
s_worldData.staticModels = ri.Hunk_Alloc(s_worldData.numStaticModels * sizeof(cStaticModelUnpacked_t), h_dontcare);
in = lump->buffer;
out = s_worldData.staticModels;
for (i = 0; i < s_worldData.numStaticModels; in++, out++, i++) {
R_CopyStaticModel(in, out);
}
}
/*
================
R_LoadStaticModelIndexes
================
*/
void R_LoadStaticModelIndexes(gamelump_t* lump) {
int i;
short* in;
cStaticModelUnpacked_t** out;
if (lump->length % sizeof(short)) {
Com_Error(ERR_DROP, "R_LoadStaticModelDefs: funny lump size");
}
s_worldData.numVisStaticModels = lump->length / sizeof(short);
s_worldData.visStaticModels = ri.Hunk_Alloc(s_worldData.numVisStaticModels * sizeof(cStaticModelUnpacked_t*), h_dontcare);
in = lump->buffer;
out = s_worldData.visStaticModels;
for (i = 0; i < s_worldData.numVisStaticModels; in++, out++, i++) {
*out = &s_worldData.staticModels[*in];
}
}
/*
==================
R_LoadLump
Loads a lump from the BSP file
==================
*/
int R_LoadLump(fileHandle_t handle, lump_t* lump, gamelump_t* glump, int size)
{
glump->buffer = NULL;
glump->length = lump->filelen;
if (lump->filelen) {
glump->buffer = Hunk_AllocateTempMemory(lump->filelen);
if (FS_Seek(handle, lump->fileofs, FS_SEEK_SET)) {
Com_Error(ERR_DROP, "R_LoadLump: Error seeking to lump.");
}
FS_Read(glump->buffer, lump->filelen, handle);
if (size) {
return lump->filelen / size;
}
}
return 0;
}
/*
==================
R_FreeLump
Free a previously allocated lump
==================
*/
void R_FreeLump(gamelump_t* lump)
{
if (lump->buffer)
{
Hunk_FreeTempMemory(lump->buffer);
lump->buffer = NULL;
lump->length = 0;
}
}
#define _R( id ) UI_LoadResource( "*" #id )
/*
=================
RE_LoadWorldMap
Called directly from cgame
=================
*/
void RE_LoadWorldMap( const char *name ) {
int i;
dheader_t header;
fileHandle_t h;
int length;
vec3_t vDefSundir;
gamelump_t lump, lump2, lump3;
vDefSundir[0] = 0.45f;
vDefSundir[1] = 0.3f;
vDefSundir[2] = 0.9f;
_R(52);
// set default sun direction to be used if it isn't
// overridden by a shader
VectorCopy(vDefSundir, tr.sunDirection);
VectorNormalize( tr.sunDirection );
tr.worldMapLoaded = qtrue;
// load it
length = ri.FS_OpenFile(name, &h, qtrue, qtrue);
if (length <= 0) {
ri.Error(ERR_DROP, "RE_LoadWorldMap: %s not found", name);
}
ri.FS_Read(&header, sizeof(dheader_t), h);
map_length = length;
map_version = header.version;
header.ident = LittleLong(header.ident);
// clear tr.world so if the level fails to load, the next
// try will not look at the partially loaded version
tr.world = NULL;
Com_Memset( &s_worldData, 0, sizeof( s_worldData ) );
Q_strncpyz( s_worldData.name, name, sizeof( s_worldData.name ) );
Q_strncpyz( s_worldData.baseName, COM_SkipPath( s_worldData.name ), sizeof( s_worldData.name ) );
COM_StripExtension( s_worldData.baseName, s_worldData.baseName, sizeof(s_worldData.baseName));
c_gridVerts = 0;
i = LittleLong(header.version);
if (i < BSP_MIN_VERSION || i > BSP_MAX_VERSION) {
ri.Error(ERR_DROP, "RE_LoadWorldMap: %s has wrong version number (%i should be between %i and %i)",
name, i, BSP_MIN_VERSION, BSP_MAX_VERSION);
}
// load into heap
// load into heap
_R(53);
numShaders = R_LoadLump(h, &header.lumps[LUMP_SHADERS], &lump, sizeof(dshader_t));
_R(54);
R_LoadShaders(&lump);
_R(55);
R_FreeLump(&lump);
_R(56);
numplanes = R_LoadLump(h, &header.lumps[LUMP_PLANES], &lump, sizeof(dplane_t));
R_LoadPlanes(&lump);
_R(57);
R_FreeLump(&lump);
_R(58);
numLightBytes = R_LoadLump(h, &header.lumps[LUMP_LIGHTMAPS], &lump, sizeof(byte));
_R(59);
R_LoadLightmaps(&lump);
_R(60);
R_FreeLump(&lump);
_R(61);
numDrawSurfaces = R_LoadLump(h, &header.lumps[LUMP_SURFACES], &lump, sizeof(dsurface_t));
_R(62);
numDrawVerts = R_LoadLump(h, &header.lumps[LUMP_DRAWVERTS], &lump2, sizeof(drawVert_t));
_R(63);
numDrawIndexes = R_LoadLump(h, &header.lumps[LUMP_DRAWINDEXES], &lump3, sizeof(int));
_R(64);
R_LoadSurfaces(&lump, &lump2, &lump3);
_R(65);
R_FreeLump(&lump3);
_R(66);
R_FreeLump(&lump2);
_R(67);
R_FreeLump(&lump);
_R(68);
numleafsurfaces = R_LoadLump(h, &header.lumps[LUMP_LEAFSURFACES], &lump, sizeof(int));
_R(69);
R_LoadMarksurfaces(&lump);
_R(70);
R_FreeLump(&lump);
_R(71);
numleafs = R_LoadLump(h, &header.lumps[LUMP_LEAFS], &lump2, sizeof(dleaf_t));
_R(72);
numnodes = R_LoadLump(h, &header.lumps[LUMP_NODES], &lump, sizeof(mnode_t));
_R(73);
if (header.version > BSP_BETA_VERSION) {
R_LoadNodesAndLeafs(&lump, &lump2);
}
else {
R_LoadNodesAndLeafsOld(&lump, &lump2);
}
_R(74);
R_FreeLump(&lump);
_R(75);
R_FreeLump(&lump2);
_R(76);
numFogs = 0;
nummodels = R_LoadLump(h, &header.lumps[LUMP_MODELS], &lump, sizeof(bmodel_t));
_R(77);
R_LoadSubmodels(&lump);
_R(78);
R_FreeLump(&lump);
_R(79);
numVisBytes = R_LoadLump(h, &header.lumps[LUMP_VISIBILITY], &lump, sizeof(byte));
_R(80);
R_LoadVisibility(&lump);
_R(81);
R_FreeLump(&lump);
_R(82);
g_iGridPaletteBytes = R_LoadLump(h, &header.lumps[LUMP_LIGHTGRIDPALETTE], &lump, sizeof(byte));
_R(83);
g_iGridOffsets = R_LoadLump(h, &header.lumps[LUMP_LIGHTGRIDOFFSETS], &lump2, sizeof(short));
_R(84);
g_iGridDataSize = R_LoadLump(h, &header.lumps[LUMP_LIGHTGRIDDATA], &lump3, sizeof(byte));
_R(85);
R_LoadLightGrid( &lump, &lump2, &lump3 );
_R(86);
R_FreeLump(&lump);
_R(87);
R_FreeLump(&lump2);
_R(88);
R_FreeLump(&lump3);
_R(89);
numSLights = R_LoadLump(h, &header.lumps[LUMP_SPHERELIGHTS], &lump, sizeof(mapspherel_t));
_R(90);
R_LoadSphereLights(&lump);
_R(91);
R_FreeLump(&lump);
_R(92);
entLightVisSize = R_LoadLump(h, &header.lumps[LUMP_SPHERELIGHTVIS], &lump, sizeof(byte));
_R(93);
R_LoadSphereLightVis(&lump);
_R(94);
R_FreeLump(&lump);
_R(95);
g_nTerraPatches = R_LoadLump(h, &header.lumps[LUMP_TERRAIN], &lump, sizeof(cTerraPatch_t));
_R(96);
R_LoadTerrain(&lump);
_R(97);
R_FreeLump(&lump);
_R(98);
g_nTerPatchIndices = R_LoadLump(h, &header.lumps[LUMP_TERRAININDEXES], &lump, sizeof(short));
_R(99);
R_LoadTerrainIndexes(&lump);
_R(100);
R_FreeLump(&lump);
_R(101);
if (header.version > BSP_BETA_VERSION)
{
g_nStaticModelData = R_LoadLump(h, &header.lumps[LUMP_STATICMODELDATA], &lump, sizeof(byte));
_R(102);
R_LoadStaticModelData(&lump);
_R(103);
R_FreeLump(&lump);
_R(104);
g_nStaticModels = R_LoadLump(h, &header.lumps[LUMP_STATICMODELDEF], &lump, sizeof(cStaticModel_t));
_R(105);
R_LoadStaticModelDefs(&lump);
_R(106);
R_FreeLump(&lump);
_R(107);
g_nStaticModelIndices = R_LoadLump(h, &header.lumps[LUMP_STATICMODELINDEXES], &lump, sizeof(byte));
_R(108);
R_LoadStaticModelIndexes(&lump);
_R(109);
R_FreeLump(&lump);
_R(110);
}
else
{
g_nStaticModelData = 0;
g_nStaticModels = 0;
g_nStaticModelIndices = 0;
}
// only set tr.world now that we know the entire level has loaded properly
tr.world = &s_worldData;
ri.FS_CloseFile(h);
UI_LoadResource("*111");
R_Sphere_InitLights();
UI_LoadResource("*112");
R_InitTerrain();
UI_LoadResource("*113");
R_InitStaticModels();
UI_LoadResource("*114");
R_LevelMarksLoad(name);
UI_LoadResource("*115");
R_VisDebugLoad(name);
UI_LoadResource("*116");
}
int RE_MapVersion(void)
{
// FIXME: unimplemented
return 0;
}
void RE_PrintBSPFileSizes(void)
{
// FIXME: unimplemented
}
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