eclass_t* GetCachedModel(entity_t *pEntity, const char *pName, idVec3 &vMin, idVec3 &vMax)
{
eclass_t *e = NULL;
if (pName == NULL || strlen(pName) == 0) {
return NULL;
}
for (e = g_md3Cache; e ; e = e->next) {
if (!strcmp (pName, e->name)) {
pEntity->md3Class = e;
VectorCopy(e->mins, vMin);
VectorCopy(e->maxs, vMax);
return e;
}
}
e = (eclass_t*)Mem_ClearedAlloc(sizeof(*e));
memset (e, 0, sizeof(*e));
e->name = Mem_CopyString( pName );
e->color[0] = e->color[2] = 0.85f;
if (LoadModel(pName, e, vMin, vMax, NULL)) {
EClass_InsertSortedList(g_md3Cache, e);
VectorCopy(vMin, e->mins);
VectorCopy(vMax, e->maxs);
pEntity->md3Class = e;
return e;
}
return NULL;
}
/*
================
idAASBuild::ParseProcNodes
================
*/
void idAASBuild::ParseProcNodes( idLexer* src )
{
int i;
src->ExpectTokenString( "{" );
idAASBuild::numProcNodes = src->ParseInt();
if( idAASBuild::numProcNodes < 0 )
{
src->Error( "idAASBuild::ParseProcNodes: bad numProcNodes" );
}
idAASBuild::procNodes = ( aasProcNode_t* )Mem_ClearedAlloc( idAASBuild::numProcNodes * sizeof( aasProcNode_t ), TAG_TOOLS );
for( i = 0; i < idAASBuild::numProcNodes; i++ )
{
aasProcNode_t* node;
node = &( idAASBuild::procNodes[i] );
src->Parse1DMatrix( 4, node->plane.ToFloatPtr() );
node->children[0] = src->ParseInt();
node->children[1] = src->ParseInt();
}
src->ExpectTokenString( "}" );
}
/*
========================
PC_BeginNamedEvent
FIXME: this is not thread safe on the PC
========================
*/
void PC_BeginNamedEvent( const char *szName, ... ) {
#if 0
if ( !r_pix.GetBool() ) {
return;
}
if ( !pixEvents ) {
// lazy allocation to not waste memory
pixEvents = (pixEvent_t *)Mem_ClearedAlloc( sizeof( *pixEvents ) * MAX_PIX_EVENTS, TAG_CRAP );
}
if ( numPixEvents >= MAX_PIX_EVENTS ) {
idLib::FatalError( "PC_BeginNamedEvent: event overflow" );
}
if ( ++numPixLevels > 1 ) {
return; // only get top level timing information
}
if ( !glGetQueryObjectui64vEXT ) {
return;
}
GL_CheckErrors();
if ( timeQueryIds[0] == 0 ) {
glGenQueries( MAX_PIX_EVENTS, timeQueryIds );
}
glFinish();
glBeginQuery( GL_TIME_ELAPSED_EXT, timeQueryIds[numPixEvents] );
GL_CheckErrors();
pixEvent_t *ev = &pixEvents[numPixEvents++];
strncpy( ev->name, szName, sizeof( ev->name ) - 1 );
ev->cpuTime = Sys_Microseconds();
#endif
}
/*
==============
LoadFile
==============
*/
int LoadFile (const char *filename, void **bufferptr)
{
FILE *f;
int length;
void *buffer;
*bufferptr = NULL;
if ( filename == NULL || strlen(filename) == 0 ) {
return -1;
}
f = fopen( filename, "rb" );
if ( !f ) {
return -1;
}
length = Q_filelength( f );
buffer = Mem_ClearedAlloc( length+1, TAG_TOOLS );
((char *)buffer)[length] = 0;
if ( (int)fread( buffer, 1, length, f ) != length ) {
Error( "File read failure" );
}
fclose( f );
*bufferptr = buffer;
return length;
}
static void BotInitInfoEntities() {
BotFreeInfoEntities();
int numlocations = 0;
int numcampspots = 0;
for ( int ent = AAS_NextBSPEntity( 0 ); ent; ent = AAS_NextBSPEntity( ent ) ) {
char classname[ MAX_EPAIRKEY ];
if ( !AAS_ValueForBSPEpairKey( ent, "classname", classname, MAX_EPAIRKEY ) ) {
continue;
}
//map locations
if ( !String::Cmp( classname, "target_location" ) ) {
maplocation_t* ml = ( maplocation_t* )Mem_ClearedAlloc( sizeof ( maplocation_t ) );
AAS_VectorForBSPEpairKey( ent, "origin", ml->origin );
AAS_ValueForBSPEpairKey( ent, "message", ml->name, sizeof ( ml->name ) );
ml->areanum = AAS_PointAreaNum( ml->origin );
ml->next = maplocations;
maplocations = ml;
numlocations++;
}
//camp spots
else if ( !String::Cmp( classname, "info_camp" ) ) {
campspot_t* cs = ( campspot_t* )Mem_ClearedAlloc( sizeof ( campspot_t ) );
AAS_VectorForBSPEpairKey( ent, "origin", cs->origin );
AAS_ValueForBSPEpairKey( ent, "message", cs->name, sizeof ( cs->name ) );
AAS_FloatForBSPEpairKey( ent, "range", &cs->range );
AAS_FloatForBSPEpairKey( ent, "weight", &cs->weight );
AAS_FloatForBSPEpairKey( ent, "wait", &cs->wait );
AAS_FloatForBSPEpairKey( ent, "random", &cs->random );
cs->areanum = AAS_PointAreaNum( cs->origin );
if ( !cs->areanum ) {
BotImport_Print( PRT_MESSAGE, "camp spot at %1.1f %1.1f %1.1f in solid\n", cs->origin[ 0 ], cs->origin[ 1 ], cs->origin[ 2 ] );
Mem_Free( cs );
continue;
}
cs->next = campspots;
campspots = cs;
numcampspots++;
}
}
if ( bot_developer ) {
BotImport_Print( PRT_MESSAGE, "%d map locations\n", numlocations );
BotImport_Print( PRT_MESSAGE, "%d camp spots\n", numcampspots );
}
}
int BotAllocGoalState( int client ) {
for ( int i = 1; i <= MAX_BOTLIB_CLIENTS; i++ ) {
if ( !botgoalstates[ i ] ) {
botgoalstates[ i ] = ( bot_goalstate_t* )Mem_ClearedAlloc( sizeof ( bot_goalstate_t ) );
botgoalstates[ i ]->client = client;
return i;
}
}
return 0;
}
// index to find the weight function of an iteminfo
static int* ItemWeightIndex( weightconfig_t* iwc, itemconfig_t* ic ) {
//initialize item weight index
int* index = ( int* )Mem_ClearedAlloc( sizeof ( int ) * ic->numiteminfo );
for ( int i = 0; i < ic->numiteminfo; i++ ) {
index[ i ] = FindFuzzyWeight( iwc, ic->iteminfo[ i ].classname );
if ( index[ i ] < 0 ) {
Log_Write( "item info %d \"%s\" has no fuzzy weight\r\n", i, ic->iteminfo[ i ].classname );
} //end if
} //end for
return index;
}
static void InitLevelItemHeap() {
if ( levelitemheap ) {
Mem_Free( levelitemheap );
}
int max_levelitems = ( int )LibVarValue( "max_levelitems", "256" );
levelitemheap = ( levelitem_t* )Mem_ClearedAlloc( max_levelitems * sizeof ( levelitem_t ) );
for ( int i = 0; i < max_levelitems - 1; i++ ) {
levelitemheap[ i ].next = &levelitemheap[ i + 1 ];
}
levelitemheap[ max_levelitems - 1 ].next = NULL;
freelevelitems = levelitemheap;
}
/*
=================
idEventLoop::GetRealEvent
=================
*/
sysEvent_t idEventLoop::GetRealEvent()
{
int r;
sysEvent_t ev;
// either get an event from the system or the journal file
if( com_journal.GetInteger() == 2 )
{
r = com_journalFile->Read( &ev, sizeof( ev ) );
if( r != sizeof( ev ) )
{
common->FatalError( "Error reading from journal file" );
}
if( ev.evPtrLength )
{
ev.evPtr = Mem_ClearedAlloc( ev.evPtrLength, TAG_EVENTS );
r = com_journalFile->Read( ev.evPtr, ev.evPtrLength );
if( r != ev.evPtrLength )
{
common->FatalError( "Error reading from journal file" );
}
}
}
else
{
ev = Sys_GetEvent();
// write the journal value out if needed
if( com_journal.GetInteger() == 1 )
{
r = com_journalFile->Write( &ev, sizeof( ev ) );
if( r != sizeof( ev ) )
{
common->FatalError( "Error writing to journal file" );
}
if( ev.evPtrLength )
{
r = com_journalFile->Write( ev.evPtr, ev.evPtrLength );
if( r != ev.evPtrLength )
{
common->FatalError( "Error writing to journal file" );
}
}
}
}
return ev;
}
/*
================
idCollisionModelManagerLocal::ParseBrushes
================
*/
void idCollisionModelManagerLocal::ParseBrushes( idLexer* src, cm_model_t* model )
{
cm_brush_t* b;
int i, numPlanes;
idVec3 normal;
idToken token;
if( src->CheckTokenType( TT_NUMBER, 0, &token ) )
{
model->brushBlock = ( cm_brushBlock_t* ) Mem_ClearedAlloc( sizeof( cm_brushBlock_t ) + token.GetIntValue(), TAG_COLLISION );
model->brushBlock->bytesRemaining = token.GetIntValue();
model->brushBlock->next = ( ( byte* ) model->brushBlock ) + sizeof( cm_brushBlock_t );
}
src->ExpectTokenString( "{" );
while( !src->CheckTokenString( "}" ) )
{
// parse brush
numPlanes = src->ParseInt();
b = AllocBrush( model, numPlanes );
b->numPlanes = numPlanes;
src->ExpectTokenString( "{" );
for( i = 0; i < b->numPlanes; i++ )
{
src->Parse1DMatrix( 3, normal.ToFloatPtr() );
b->planes[i].SetNormal( normal );
b->planes[i].SetDist( src->ParseFloat() );
}
src->ExpectTokenString( "}" );
src->Parse1DMatrix( 3, b->bounds[0].ToFloatPtr() );
src->Parse1DMatrix( 3, b->bounds[1].ToFloatPtr() );
src->ReadToken( &token );
if( token.type == TT_NUMBER )
{
b->contents = token.GetIntValue(); // old .cm files use a single integer
}
else
{
b->contents = ContentsFromString( token );
}
b->checkcount = 0;
b->primitiveNum = 0;
b->material = NULL;
// filter brush into tree
R_FilterBrushIntoTree( model, model->node, NULL, b );
}
}
/*
================
idCollisionModelManagerLocal::ParseVertices
================
*/
void idCollisionModelManagerLocal::ParseVertices( idLexer* src, cm_model_t* model )
{
int i;
src->ExpectTokenString( "{" );
model->numVertices = src->ParseInt();
model->maxVertices = model->numVertices;
model->vertices = ( cm_vertex_t* ) Mem_ClearedAlloc( model->maxVertices * sizeof( cm_vertex_t ), TAG_COLLISION );
for( i = 0; i < model->numVertices; i++ )
{
src->Parse1DMatrix( 3, model->vertices[i].p.ToFloatPtr() );
model->vertices[i].side = 0;
model->vertices[i].sideSet = 0;
model->vertices[i].checkcount = 0;
}
src->ExpectTokenString( "}" );
}
/*
================
idCollisionModelManagerLocal::ParsePolygons
================
*/
void idCollisionModelManagerLocal::ParsePolygons( idLexer* src, cm_model_t* model )
{
cm_polygon_t* p;
int i, numEdges;
idVec3 normal;
idToken token;
if( src->CheckTokenType( TT_NUMBER, 0, &token ) )
{
model->polygonBlock = ( cm_polygonBlock_t* ) Mem_ClearedAlloc( sizeof( cm_polygonBlock_t ) + token.GetIntValue(), TAG_COLLISION );
model->polygonBlock->bytesRemaining = token.GetIntValue();
model->polygonBlock->next = ( ( byte* ) model->polygonBlock ) + sizeof( cm_polygonBlock_t );
}
src->ExpectTokenString( "{" );
while( !src->CheckTokenString( "}" ) )
{
// parse polygon
numEdges = src->ParseInt();
p = AllocPolygon( model, numEdges );
p->numEdges = numEdges;
src->ExpectTokenString( "(" );
for( i = 0; i < p->numEdges; i++ )
{
p->edges[i] = src->ParseInt();
}
src->ExpectTokenString( ")" );
src->Parse1DMatrix( 3, normal.ToFloatPtr() );
p->plane.SetNormal( normal );
p->plane.SetDist( src->ParseFloat() );
src->Parse1DMatrix( 3, p->bounds[0].ToFloatPtr() );
src->Parse1DMatrix( 3, p->bounds[1].ToFloatPtr() );
src->ExpectTokenType( TT_STRING, 0, &token );
// get material
p->material = declManager->FindMaterial( token );
p->contents = p->material->GetContentFlags();
p->checkcount = 0;
// filter polygon into tree
R_FilterPolygonIntoTree( model, model->node, NULL, p );
}
}
/*
=====================
R_InitFrameData
=====================
*/
void R_InitFrameData( void ) {
int size;
frameData_t *frame;
frameMemoryBlock_t *block;
R_ShutdownFrameData();
frameData = (frameData_t *)Mem_ClearedAlloc( sizeof( *frameData ));
frame = frameData;
size = MEMORY_BLOCK_SIZE;
block = (frameMemoryBlock_t *)Mem_Alloc( size + sizeof( *block ) );
if ( !block ) {
common->FatalError( "R_InitFrameData: Mem_Alloc() failed" );
}
block->size = size;
block->used = 0;
block->next = NULL;
frame->memory = block;
frame->memoryHighwater = 0;
R_ToggleSmpFrame();
}
script_t* LoadScriptFile( const char* filename ) {
char pathname[ MAX_QPATH ];
if ( String::Length( basefolder ) ) {
String::Sprintf( pathname, sizeof ( pathname ), "%s/%s", basefolder, filename );
} else {
String::Sprintf( pathname, sizeof ( pathname ), "%s", filename );
}
fileHandle_t fp;
int length = FS_FOpenFileByMode( pathname, &fp, FS_READ );
if ( !fp ) {
return NULL;
}
void* buffer = Mem_ClearedAlloc( sizeof ( script_t ) + length + 1 );
script_t* script = ( script_t* )buffer;
Com_Memset( script, 0, sizeof ( script_t ) );
String::Cpy( script->filename, filename );
script->buffer = ( char* )buffer + sizeof ( script_t );
script->buffer[ length ] = 0;
script->length = length;
//pointer in script buffer
script->script_p = script->buffer;
//pointer in script buffer before reading token
script->lastscript_p = script->buffer;
//pointer to end of script buffer
script->end_p = &script->buffer[ length ];
//set if there's a token available in script->token
script->tokenavailable = 0;
script->line = 1;
script->lastline = 1;
SetScriptPunctuations( script, NULL );
FS_Read( script->buffer, length, fp );
FS_FCloseFile( fp );
return script;
}
script_t* LoadScriptMemory( const char* ptr, int length, const char* name ) {
void* buffer = Mem_ClearedAlloc( sizeof ( script_t ) + length + 1 );
script_t* script = ( script_t* )buffer;
Com_Memset( script, 0, sizeof ( script_t ) );
String::Cpy( script->filename, name );
script->buffer = ( char* )buffer + sizeof ( script_t );
script->buffer[ length ] = 0;
script->length = length;
//pointer in script buffer
script->script_p = script->buffer;
//pointer in script buffer before reading token
script->lastscript_p = script->buffer;
//pointer to end of script buffer
script->end_p = &script->buffer[ length ];
//set if there's a token available in script->token
script->tokenavailable = 0;
script->line = 1;
script->lastline = 1;
SetScriptPunctuations( script, NULL );
Com_Memcpy( script->buffer, ptr, length );
return script;
}
/*
================
idCollisionModelManagerLocal::ParseEdges
================
*/
void idCollisionModelManagerLocal::ParseEdges( idLexer* src, cm_model_t* model )
{
int i;
src->ExpectTokenString( "{" );
model->numEdges = src->ParseInt();
model->maxEdges = model->numEdges;
model->edges = ( cm_edge_t* ) Mem_ClearedAlloc( model->maxEdges * sizeof( cm_edge_t ), TAG_COLLISION );
for( i = 0; i < model->numEdges; i++ )
{
src->ExpectTokenString( "(" );
model->edges[i].vertexNum[0] = src->ParseInt();
model->edges[i].vertexNum[1] = src->ParseInt();
src->ExpectTokenString( ")" );
model->edges[i].side = 0;
model->edges[i].sideSet = 0;
model->edges[i].internal = src->ParseInt();
model->edges[i].numUsers = src->ParseInt();
model->edges[i].normal = vec3_origin;
model->edges[i].checkcount = 0;
model->numInternalEdges += model->edges[i].internal;
}
src->ExpectTokenString( "}" );
}
/*
==============
RenderBumpTriangles
==============
*/
static void RenderBumpTriangles( srfTriangles_t *lowMesh, renderBump_t *rb ) {
int i, j;
RB_SetGL2D();
qglDisable( GL_CULL_FACE );
qglColor3f( 1, 1, 1 );
qglMatrixMode( GL_PROJECTION );
qglLoadIdentity();
qglOrtho( 0, 1, 1, 0, -1, 1 );
qglDisable( GL_BLEND );
qglMatrixMode( GL_MODELVIEW );
qglLoadIdentity();
qglDisable( GL_DEPTH_TEST );
qglClearColor(1,0,0,1);
qglClear( GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT );
qglColor3f( 1, 1, 1 );
// create smoothed normals for the surface, which might be
// different than the normals at the vertexes if the
// surface uses unsmoothedNormals, which only takes the
// normal from a single triangle. We need properly smoothed
// normals to make sure that the traces always go off normal
// to the true surface.
idVec3 *lowMeshNormals = (idVec3 *)Mem_ClearedAlloc( lowMesh->numVerts * sizeof( *lowMeshNormals ) );
R_DeriveFacePlanes( lowMesh );
R_CreateSilIndexes( lowMesh ); // recreate, merging the mirrored verts back together
const idPlane *planes = lowMesh->facePlanes;
for ( i = 0 ; i < lowMesh->numIndexes ; i += 3, planes++ ) {
for ( j = 0 ; j < 3 ; j++ ) {
int index;
index = lowMesh->silIndexes[i+j];
lowMeshNormals[index] += (*planes).Normal();
}
}
// normalize and replicate from silIndexes to all indexes
for ( i = 0 ; i < lowMesh->numIndexes ; i++ ) {
lowMeshNormals[lowMesh->indexes[i]] = lowMeshNormals[lowMesh->silIndexes[i]];
lowMeshNormals[lowMesh->indexes[i]].Normalize();
}
// rasterize each low poly face
for ( j = 0 ; j < lowMesh->numIndexes ; j+=3 ) {
// pump the event loop so the window can be dragged around
Sys_GenerateEvents();
RasterizeTriangle( lowMesh, lowMeshNormals, j/3, rb );
qglClearColor(1,0,0,1);
qglClear( GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT );
qglRasterPos2f( 0, 1 );
qglPixelZoom( glConfig.vidWidth / (float)rb->width, glConfig.vidHeight / (float)rb->height );
qglDrawPixels( rb->width, rb->height, GL_RGBA, GL_UNSIGNED_BYTE, rb->localPic );
qglPixelZoom( 1, 1 );
qglFlush();
GLimp_SwapBuffers();
}
Mem_Free( lowMeshNormals );
}
/*
====================
idMD5Mesh::ParseMesh
====================
*/
void idMD5Mesh::ParseMesh( idLexer& parser, int numJoints, const idJointMat* joints )
{
idToken token;
idToken name;
parser.ExpectTokenString( "{" );
//
// parse name
//
if( parser.CheckTokenString( "name" ) )
{
parser.ReadToken( &name );
}
//
// parse shader
//
parser.ExpectTokenString( "shader" );
parser.ReadToken( &token );
idStr shaderName = token;
shader = declManager->FindMaterial( shaderName );
//
// parse texture coordinates
//
parser.ExpectTokenString( "numverts" );
int count = parser.ParseInt();
if( count < 0 )
{
parser.Error( "Invalid size: %s", token.c_str() );
}
this->numVerts = count;
idList<idVec2> texCoords;
idList<int> firstWeightForVertex;
idList<int> numWeightsForVertex;
texCoords.SetNum( count );
firstWeightForVertex.SetNum( count );
numWeightsForVertex.SetNum( count );
int numWeights = 0;
int maxweight = 0;
for( int i = 0; i < texCoords.Num(); i++ )
{
parser.ExpectTokenString( "vert" );
parser.ParseInt();
parser.Parse1DMatrix( 2, texCoords[ i ].ToFloatPtr() );
firstWeightForVertex[ i ] = parser.ParseInt();
numWeightsForVertex[ i ] = parser.ParseInt();
if( !numWeightsForVertex[ i ] )
{
parser.Error( "Vertex without any joint weights." );
}
numWeights += numWeightsForVertex[ i ];
if( numWeightsForVertex[ i ] + firstWeightForVertex[ i ] > maxweight )
{
maxweight = numWeightsForVertex[ i ] + firstWeightForVertex[ i ];
}
}
//
// parse tris
//
parser.ExpectTokenString( "numtris" );
count = parser.ParseInt();
if( count < 0 )
{
parser.Error( "Invalid size: %d", count );
}
idList<int> tris;
tris.SetNum( count * 3 );
numTris = count;
for( int i = 0; i < count; i++ )
{
parser.ExpectTokenString( "tri" );
parser.ParseInt();
tris[ i * 3 + 0 ] = parser.ParseInt();
tris[ i * 3 + 1 ] = parser.ParseInt();
tris[ i * 3 + 2 ] = parser.ParseInt();
}
//
// parse weights
//
parser.ExpectTokenString( "numweights" );
count = parser.ParseInt();
if( count < 0 )
{
parser.Error( "Invalid size: %d", count );
}
if( maxweight > count )
{
parser.Warning( "Vertices reference out of range weights in model (%d of %d weights).", maxweight, count );
}
idList<vertexWeight_t> tempWeights;
tempWeights.SetNum( count );
assert( numJoints < 256 ); // so we can pack into bytes
for( int i = 0; i < count; i++ )
{
parser.ExpectTokenString( "weight" );
parser.ParseInt();
int jointnum = parser.ParseInt();
if( ( jointnum < 0 ) || ( jointnum >= numJoints ) )
{
parser.Error( "Joint Index out of range(%d): %d", numJoints, jointnum );
}
tempWeights[ i ].joint = jointnum;
tempWeights[ i ].jointWeight = parser.ParseFloat();
parser.Parse1DMatrix( 3, tempWeights[ i ].offset.ToFloatPtr() );
}
// create pre-scaled weights and an index for the vertex/joint lookup
idVec4* scaledWeights = ( idVec4* ) Mem_Alloc16( numWeights * sizeof( scaledWeights[0] ), TAG_MD5_WEIGHT );
int* weightIndex = ( int* ) Mem_Alloc16( numWeights * 2 * sizeof( weightIndex[0] ), TAG_MD5_INDEX );
memset( weightIndex, 0, numWeights * 2 * sizeof( weightIndex[0] ) );
count = 0;
for( int i = 0; i < texCoords.Num(); i++ )
{
int num = firstWeightForVertex[i];
for( int j = 0; j < numWeightsForVertex[i]; j++, num++, count++ )
{
scaledWeights[count].ToVec3() = tempWeights[num].offset * tempWeights[num].jointWeight;
scaledWeights[count].w = tempWeights[num].jointWeight;
weightIndex[count * 2 + 0] = tempWeights[num].joint * sizeof( idJointMat );
}
weightIndex[count * 2 - 1] = 1;
}
parser.ExpectTokenString( "}" );
// update counters
c_numVerts += texCoords.Num();
c_numWeights += numWeights;
c_numWeightJoints++;
for( int i = 0; i < numWeights; i++ )
{
c_numWeightJoints += weightIndex[i * 2 + 1];
}
//
// build a base pose that can be used for skinning
//
idDrawVert* basePose = ( idDrawVert* )Mem_ClearedAlloc( texCoords.Num() * sizeof( *basePose ), TAG_MD5_BASE );
for( int j = 0, i = 0; i < texCoords.Num(); i++ )
{
idVec3 v = ( *( idJointMat* )( ( byte* )joints + weightIndex[j * 2 + 0] ) ) * scaledWeights[j];
while( weightIndex[j * 2 + 1] == 0 )
{
j++;
v += ( *( idJointMat* )( ( byte* )joints + weightIndex[j * 2 + 0] ) ) * scaledWeights[j];
}
j++;
basePose[i].Clear();
basePose[i].xyz = v;
basePose[i].SetTexCoord( texCoords[i] );
}
// build the weights and bone indexes into the verts, so they will be duplicated
// as necessary at mirror seems
static int maxWeightsPerVert;
static float maxResidualWeight;
const int MAX_VERTEX_WEIGHTS = 4;
idList< bool > jointIsUsed;
jointIsUsed.SetNum( numJoints );
for( int i = 0; i < jointIsUsed.Num(); i++ )
{
jointIsUsed[i] = false;
}
numMeshJoints = 0;
maxJointVertDist = 0.0f;
//-----------------------------------------
// new-style setup for fixed four weights and normal / tangent deformation
//
// Several important models have >25% residual weight in joints after the
// first four, which is worrisome for using a fixed four joint deformation.
//-----------------------------------------
for( int i = 0; i < texCoords.Num(); i++ )
{
idDrawVert& dv = basePose[i];
// some models do have >4 joint weights, so it is necessary to sort and renormalize
// sort the weights and take the four largest
int weights[256];
const int numWeights = numWeightsForVertex[ i ];
for( int j = 0; j < numWeights; j++ )
{
weights[j] = firstWeightForVertex[i] + j;
}
// bubble sort
for( int j = 0; j < numWeights; j++ )
{
for( int k = 0; k < numWeights - 1 - j; k++ )
{
if( tempWeights[weights[k]].jointWeight < tempWeights[weights[k + 1]].jointWeight )
{
SwapValues( weights[k], weights[k + 1] );
}
}
}
if( numWeights > maxWeightsPerVert )
{
maxWeightsPerVert = numWeights;
}
const int usedWeights = Min( MAX_VERTEX_WEIGHTS, numWeights );
float totalWeight = 0;
for( int j = 0; j < numWeights; j++ )
{
totalWeight += tempWeights[weights[j]].jointWeight;
}
assert( totalWeight > 0.999f && totalWeight < 1.001f );
float usedWeight = 0;
for( int j = 0; j < usedWeights; j++ )
{
usedWeight += tempWeights[weights[j]].jointWeight;
}
const float residualWeight = totalWeight - usedWeight;
if( residualWeight > maxResidualWeight )
{
maxResidualWeight = residualWeight;
}
byte finalWeights[MAX_VERTEX_WEIGHTS] = { 0 };
byte finalJointIndecies[MAX_VERTEX_WEIGHTS] = { 0 };
for( int j = 0; j < usedWeights; j++ )
{
const vertexWeight_t& weight = tempWeights[weights[j]];
const int jointIndex = weight.joint;
const float fw = weight.jointWeight;
assert( fw >= 0.0f && fw <= 1.0f );
const float normalizedWeight = fw / usedWeight;
finalWeights[j] = idMath::Ftob( normalizedWeight * 255.0f );
finalJointIndecies[j] = jointIndex;
}
// Sort the weights and indices for hardware skinning
for( int k = 0; k < 3; ++k )
{
for( int l = k + 1; l < 4; ++l )
{
if( finalWeights[l] > finalWeights[k] )
{
SwapValues( finalWeights[k], finalWeights[l] );
SwapValues( finalJointIndecies[k], finalJointIndecies[l] );
}
}
}
// Give any left over to the biggest weight
finalWeights[0] += Max( 255 - finalWeights[0] - finalWeights[1] - finalWeights[2] - finalWeights[3], 0 );
dv.color[0] = finalJointIndecies[0];
dv.color[1] = finalJointIndecies[1];
dv.color[2] = finalJointIndecies[2];
dv.color[3] = finalJointIndecies[3];
dv.color2[0] = finalWeights[0];
dv.color2[1] = finalWeights[1];
dv.color2[2] = finalWeights[2];
dv.color2[3] = finalWeights[3];
for( int j = usedWeights; j < 4; j++ )
{
assert( dv.color2[j] == 0 );
}
for( int j = 0; j < usedWeights; j++ )
{
if( !jointIsUsed[finalJointIndecies[j]] )
{
jointIsUsed[finalJointIndecies[j]] = true;
numMeshJoints++;
}
const idJointMat& joint = joints[finalJointIndecies[j]];
float dist = ( dv.xyz - joint.GetTranslation() ).Length();
if( dist > maxJointVertDist )
{
maxJointVertDist = dist;
}
}
}
meshJoints = ( byte* ) Mem_Alloc( numMeshJoints * sizeof( meshJoints[0] ), TAG_MODEL );
numMeshJoints = 0;
for( int i = 0; i < numJoints; i++ )
{
if( jointIsUsed[i] )
{
meshJoints[numMeshJoints++] = i;
}
}
// build the deformInfo and collect a final base pose with the mirror
// seam verts properly including the bone weights
deformInfo = R_BuildDeformInfo( texCoords.Num(), basePose, tris.Num(), tris.Ptr(),
shader->UseUnsmoothedTangents() );
for( int i = 0; i < deformInfo->numOutputVerts; i++ )
{
for( int j = 0; j < 4; j++ )
{
if( deformInfo->verts[i].color[j] >= numJoints )
{
idLib::FatalError( "Bad joint index" );
}
}
}
Mem_Free( basePose );
}
/*
====================
WriteOutputSurfaces
====================
*/
static void WriteOutputSurfaces( int entityNum, int areaNum ) {
mapTri_t *ambient, *copy;
int surfaceNum;
int numSurfaces;
idMapEntity *entity;
uArea_t *area;
optimizeGroup_t *group, *groupStep;
int i; // , j;
// int col;
srfTriangles_t *uTri;
// mapTri_t *tri;
typedef struct interactionTris_s {
struct interactionTris_s *next;
mapTri_t *triList;
mapLight_t *light;
} interactionTris_t;
interactionTris_t *interactions, *checkInter; //, *nextInter;
area = &dmapGlobals.uEntities[entityNum].areas[areaNum];
entity = dmapGlobals.uEntities[entityNum].mapEntity;
numSurfaces = CountUniqueShaders( area->groups );
if ( entityNum == 0 ) {
procFile->WriteFloatString( "model { /* name = */ \"_area%i\" /* numSurfaces = */ %i\n\n",
areaNum, numSurfaces );
} else {
const char *name;
entity->epairs.GetString( "name", "", &name );
if ( !name[0] ) {
common->Error( "Entity %i has surfaces, but no name key", entityNum );
}
procFile->WriteFloatString( "model { /* name = */ \"%s\" /* numSurfaces = */ %i\n\n",
name, numSurfaces );
}
surfaceNum = 0;
for ( group = area->groups ; group ; group = group->nextGroup ) {
if ( group->surfaceEmited ) {
continue;
}
// combine all groups compatible with this one
// usually several optimizeGroup_t can be combined into a single
// surface, even though they couldn't be merged together to save
// vertexes because they had different planes, texture coordinates, or lights.
// Different mergeGroups will stay in separate surfaces.
ambient = NULL;
// each light that illuminates any of the groups in the surface will
// get its own list of indexes out of the original surface
interactions = NULL;
for ( groupStep = group ; groupStep ; groupStep = groupStep->nextGroup ) {
if ( groupStep->surfaceEmited ) {
continue;
}
if ( !GroupsAreSurfaceCompatible( group, groupStep ) ) {
continue;
}
// copy it out to the ambient list
copy = CopyTriList( groupStep->triList );
ambient = MergeTriLists( ambient, copy );
groupStep->surfaceEmited = true;
// duplicate it into an interaction for each groupLight
for ( i = 0 ; i < groupStep->numGroupLights ; i++ ) {
for ( checkInter = interactions ; checkInter ; checkInter = checkInter->next ) {
if ( checkInter->light == groupStep->groupLights[i] ) {
break;
}
}
if ( !checkInter ) {
// create a new interaction
checkInter = (interactionTris_t *)Mem_ClearedAlloc( sizeof( *checkInter ) );
checkInter->light = groupStep->groupLights[i];
checkInter->next = interactions;
interactions = checkInter;
}
copy = CopyTriList( groupStep->triList );
checkInter->triList = MergeTriLists( checkInter->triList, copy );
}
}
if ( !ambient ) {
continue;
}
if ( surfaceNum >= numSurfaces ) {
common->Error( "WriteOutputSurfaces: surfaceNum >= numSurfaces" );
}
procFile->WriteFloatString( "/* surface %i */ { ", surfaceNum );
surfaceNum++;
procFile->WriteFloatString( "\"%s\" ", ambient->material->GetName() );
uTri = ShareMapTriVerts( ambient );
FreeTriList( ambient );
CleanupUTriangles( uTri );
WriteUTriangles( uTri );
R_FreeStaticTriSurf( uTri );
procFile->WriteFloatString( "}\n\n" );
}
procFile->WriteFloatString( "}\n\n" );
}
/*
=============
Undo_GeneralStart
=============
*/
void Undo_GeneralStart(char *operation)
{
undo_t *undo;
brush_t *pBrush;
entity_t *pEntity;
if (g_lastundo)
{
if (!g_lastundo->done)
{
common->Printf("Undo_Start: WARNING last undo not finished.\n");
}
}
undo = (undo_t *) Mem_ClearedAlloc(sizeof(undo_t), TAG_TOOLS);
if (!undo) return;
memset(undo, 0, sizeof(undo_t));
undo->brushlist.next = &undo->brushlist;
undo->brushlist.prev = &undo->brushlist;
undo->entitylist.next = &undo->entitylist;
undo->entitylist.prev = &undo->entitylist;
if (g_lastundo) g_lastundo->next = undo;
else g_undolist = undo;
undo->prev = g_lastundo;
undo->next = NULL;
g_lastundo = undo;
undo->time = Sys_DoubleTime();
//
if (g_undoId > g_undoMaxSize * 2) g_undoId = 1;
if (g_undoId <= 0) g_undoId = 1;
undo->id = g_undoId++;
undo->done = false;
undo->operation = operation;
//reset the undo IDs of all brushes using the new ID
for (pBrush = active_brushes.next; pBrush != NULL && pBrush != &active_brushes; pBrush = pBrush->next)
{
if (pBrush->undoId == undo->id)
{
pBrush->undoId = 0;
}
}
for (pBrush = selected_brushes.next; pBrush != NULL && pBrush != &selected_brushes; pBrush = pBrush->next)
{
if (pBrush->undoId == undo->id)
{
pBrush->undoId = 0;
}
}
//reset the undo IDs of all entities using thew new ID
for (pEntity = entities.next; pEntity != NULL && pEntity != &entities; pEntity = pEntity->next)
{
if (pEntity->undoId == undo->id)
{
pEntity->undoId = 0;
}
}
g_undoMemorySize += sizeof(undo_t);
g_undoSize++;
//undo buffer is bound to a max
if (g_undoSize > g_undoMaxSize)
{
Undo_FreeFirstUndo();
}
}
/*
=============
Undo_Undo
=============
*/
void Undo_Undo(void)
{
undo_t *undo, *redo;
brush_t *pBrush, *pNextBrush;
entity_t *pEntity, *pNextEntity, *pUndoEntity;
if (!g_lastundo)
{
Sys_Status("Nothing left to undo.\n");
return;
}
if (!g_lastundo->done)
{
Sys_Status("Undo_Undo: WARNING: last undo not yet finished!\n");
}
// get the last undo
undo = g_lastundo;
if (g_lastundo->prev) g_lastundo->prev->next = NULL;
else g_undolist = NULL;
g_lastundo = g_lastundo->prev;
//allocate a new redo
redo = (undo_t *) Mem_ClearedAlloc(sizeof(undo_t), TAG_TOOLS);
if (!redo) return;
memset(redo, 0, sizeof(undo_t));
redo->brushlist.next = &redo->brushlist;
redo->brushlist.prev = &redo->brushlist;
redo->entitylist.next = &redo->entitylist;
redo->entitylist.prev = &redo->entitylist;
if (g_lastredo) g_lastredo->next = redo;
else g_redolist = redo;
redo->prev = g_lastredo;
redo->next = NULL;
g_lastredo = redo;
redo->time = Sys_DoubleTime();
redo->id = g_redoId++;
redo->done = true;
redo->operation = undo->operation;
//reset the redo IDs of all brushes using the new ID
for (pBrush = active_brushes.next; pBrush != NULL && pBrush != &active_brushes; pBrush = pBrush->next)
{
if (pBrush->redoId == redo->id)
{
pBrush->redoId = 0;
}
}
for (pBrush = selected_brushes.next; pBrush != NULL && pBrush != &selected_brushes; pBrush = pBrush->next)
{
if (pBrush->redoId == redo->id)
{
pBrush->redoId = 0;
}
}
//reset the redo IDs of all entities using thew new ID
for (pEntity = entities.next; pEntity != NULL && pEntity != &entities; pEntity = pEntity->next)
{
if (pEntity->redoId == redo->id)
{
pEntity->redoId = 0;
}
}
// remove current selection
Select_Deselect();
// move "created" brushes to the redo
for (pBrush = active_brushes.next; pBrush != NULL && pBrush != &active_brushes; pBrush=pNextBrush)
{
pNextBrush = pBrush->next;
if (pBrush->undoId == undo->id)
{
//Brush_Free(pBrush);
//move the brush to the redo
Brush_RemoveFromList(pBrush);
Brush_AddToList(pBrush, &redo->brushlist);
//make sure the ID of the owner is stored
pBrush->ownerId = pBrush->owner->entityId;
//unlink the brush from the owner entity
Entity_UnlinkBrush(pBrush);
}
}
// move "created" entities to the redo
for (pEntity = entities.next; pEntity != NULL && pEntity != &entities; pEntity = pNextEntity)
{
pNextEntity = pEntity->next;
if (pEntity->undoId == undo->id)
{
// check if this entity is in the undo
for (pUndoEntity = undo->entitylist.next; pUndoEntity != NULL && pUndoEntity != &undo->entitylist; pUndoEntity = pUndoEntity->next)
{
// move brushes to the undo entity
if (pUndoEntity->entityId == pEntity->entityId)
{
pUndoEntity->brushes.next = pEntity->brushes.next;
pUndoEntity->brushes.prev = pEntity->brushes.prev;
pEntity->brushes.next = &pEntity->brushes;
pEntity->brushes.prev = &pEntity->brushes;
}
}
//
//Entity_Free(pEntity);
//move the entity to the redo
Entity_RemoveFromList(pEntity);
Entity_AddToList(pEntity, &redo->entitylist);
}
}
// add the undo entities back into the entity list
for (pEntity = undo->entitylist.next; pEntity != NULL && pEntity != &undo->entitylist; pEntity = undo->entitylist.next)
{
g_undoMemorySize -= Entity_MemorySize(pEntity);
//if this is the world entity
if (pEntity->entityId == world_entity->entityId)
{
//free the epairs of the world entity
Entity_FreeEpairs(world_entity);
//set back the original epairs
world_entity->epairs = pEntity->epairs;
//free the world_entity clone that stored the epairs
Entity_Free(pEntity);
}
else
{
Entity_RemoveFromList(pEntity);
Entity_AddToList(pEntity, &entities);
pEntity->redoId = redo->id;
}
}
// add the undo brushes back into the selected brushes
for (pBrush = undo->brushlist.next; pBrush != NULL && pBrush != &undo->brushlist; pBrush = undo->brushlist.next)
{
g_undoMemorySize -= Brush_MemorySize(pBrush);
Brush_RemoveFromList(pBrush);
Brush_AddToList(pBrush, &active_brushes);
for (pEntity = entities.next; pEntity != NULL && pEntity != &entities; pEntity = pEntity->next)
{
if (pEntity->entityId == pBrush->ownerId)
{
Entity_LinkBrush(pEntity, pBrush);
break;
}
}
//if the brush is not linked then it should be linked into the world entity
if (pEntity == NULL || pEntity == &entities)
{
Entity_LinkBrush(world_entity, pBrush);
}
//build the brush
//Brush_Build(pBrush);
Select_Brush(pBrush);
pBrush->redoId = redo->id;
}
//
common->Printf("%s undone.\n", undo->operation);
// free the undo
g_undoMemorySize -= sizeof(undo_t);
Mem_Free(undo);
g_undoSize--;
g_undoId--;
if (g_undoId <= 0) g_undoId = 2 * g_undoMaxSize;
//
Sys_BeginWait();
brush_t *b, *next;
for (b = active_brushes.next ; b != NULL && b != &active_brushes ; b=next) {
next = b->next;
Brush_Build( b, true, false, false );
}
for (b = selected_brushes.next ; b != NULL && b != &selected_brushes ; b=next) {
next = b->next;
Brush_Build( b, true, false, false );
}
Sys_EndWait();
g_bScreenUpdates = true;
Sys_UpdateWindows(W_ALL);
}
/*
=====================
SplitOriginalEdgesAtCrossings
=====================
*/
void SplitOriginalEdgesAtCrossings( optimizeGroup_t *opt ) {
int i, j, k, l;
int numOriginalVerts;
edgeCrossing_t **crossings;
numOriginalVerts = numOptVerts;
// now split any crossing edges and create optEdges
// linked to the vertexes
// debug drawing bounds
dmapGlobals.drawBounds = optBounds;
dmapGlobals.drawBounds[0][0] -= 2;
dmapGlobals.drawBounds[0][1] -= 2;
dmapGlobals.drawBounds[1][0] += 2;
dmapGlobals.drawBounds[1][1] += 2;
// generate crossing points between all the original edges
crossings = (edgeCrossing_t **)Mem_ClearedAlloc( numOriginalEdges * sizeof( *crossings ), TAG_DMAP );
for ( i = 0 ; i < numOriginalEdges ; i++ ) {
if ( dmapGlobals.drawflag ) {
DrawOriginalEdges( numOriginalEdges, originalEdges );
qglBegin( GL_LINES );
qglColor3f( 0, 1, 0 );
qglVertex3fv( originalEdges[i].v1->pv.ToFloatPtr() );
qglColor3f( 0, 0, 1 );
qglVertex3fv( originalEdges[i].v2->pv.ToFloatPtr() );
qglEnd();
qglFlush();
}
for ( j = i+1 ; j < numOriginalEdges ; j++ ) {
optVertex_t *v1, *v2, *v3, *v4;
optVertex_t *newVert;
edgeCrossing_t *cross;
v1 = originalEdges[i].v1;
v2 = originalEdges[i].v2;
v3 = originalEdges[j].v1;
v4 = originalEdges[j].v2;
if ( !EdgesCross( v1, v2, v3, v4 ) ) {
continue;
}
// this is the only point in optimization where
// completely new points are created, and it only
// happens if there is overlapping coplanar
// geometry in the source triangles
newVert = EdgeIntersection( v1, v2, v3, v4, opt );
if ( !newVert ) {
//common->Printf( "lines %i (%i to %i) and %i (%i to %i) are colinear\n", i, v1 - optVerts, v2 - optVerts,
// j, v3 - optVerts, v4 - optVerts ); // !@#
// colinear, so add both verts of each edge to opposite
if ( VertexBetween( v3, v1, v2 ) ) {
cross = (edgeCrossing_t *)Mem_ClearedAlloc( sizeof( *cross ), TAG_DMAP );
cross->ov = v3;
cross->next = crossings[i];
crossings[i] = cross;
}
if ( VertexBetween( v4, v1, v2 ) ) {
cross = (edgeCrossing_t *)Mem_ClearedAlloc( sizeof( *cross ), TAG_DMAP );
cross->ov = v4;
cross->next = crossings[i];
crossings[i] = cross;
}
if ( VertexBetween( v1, v3, v4 ) ) {
cross = (edgeCrossing_t *)Mem_ClearedAlloc( sizeof( *cross ), TAG_DMAP );
cross->ov = v1;
cross->next = crossings[j];
crossings[j] = cross;
}
if ( VertexBetween( v2, v3, v4 ) ) {
cross = (edgeCrossing_t *)Mem_ClearedAlloc( sizeof( *cross ), TAG_DMAP );
cross->ov = v2;
cross->next = crossings[j];
crossings[j] = cross;
}
continue;
}
#if 0
if ( newVert && newVert != v1 && newVert != v2 && newVert != v3 && newVert != v4 ) {
common->Printf( "lines %i (%i to %i) and %i (%i to %i) cross at new point %i\n", i, v1 - optVerts, v2 - optVerts,
j, v3 - optVerts, v4 - optVerts, newVert - optVerts );
} else if ( newVert ) {
common->Printf( "lines %i (%i to %i) and %i (%i to %i) intersect at old point %i\n", i, v1 - optVerts, v2 - optVerts,
j, v3 - optVerts, v4 - optVerts, newVert - optVerts );
}
#endif
if ( newVert != v1 && newVert != v2 ) {
cross = (edgeCrossing_t *)Mem_ClearedAlloc( sizeof( *cross ), TAG_DMAP );
cross->ov = newVert;
cross->next = crossings[i];
crossings[i] = cross;
}
if ( newVert != v3 && newVert != v4 ) {
cross = (edgeCrossing_t *)Mem_ClearedAlloc( sizeof( *cross ), TAG_DMAP );
cross->ov = newVert;
cross->next = crossings[j];
crossings[j] = cross;
}
}
}
// now split each edge by its crossing points
// colinear edges will have duplicated edges added, but it won't hurt anything
for ( i = 0 ; i < numOriginalEdges ; i++ ) {
edgeCrossing_t *cross, *nextCross;
int numCross;
optVertex_t **sorted;
numCross = 0;
for ( cross = crossings[i] ; cross ; cross = cross->next ) {
numCross++;
}
numCross += 2; // account for originals
sorted = (optVertex_t **)Mem_Alloc( numCross * sizeof( *sorted ), TAG_DMAP );
sorted[0] = originalEdges[i].v1;
sorted[1] = originalEdges[i].v2;
j = 2;
for ( cross = crossings[i] ; cross ; cross = nextCross ) {
nextCross = cross->next;
sorted[j] = cross->ov;
Mem_Free( cross );
j++;
}
// add all possible fragment combinations that aren't divided
// by another point
for ( j = 0 ; j < numCross ; j++ ) {
for ( k = j+1 ; k < numCross ; k++ ) {
for ( l = 0 ; l < numCross ; l++ ) {
if ( sorted[l] == sorted[j] || sorted[l] == sorted[k] ) {
continue;
}
if ( sorted[j] == sorted[k] ) {
continue;
}
if ( VertexBetween( sorted[l], sorted[j], sorted[k] ) ) {
break;
}
}
if ( l == numCross ) {
//common->Printf( "line %i fragment from point %i to %i\n", i, sorted[j] - optVerts, sorted[k] - optVerts );
AddEdgeIfNotAlready( sorted[j], sorted[k] );
}
}
}
Mem_Free( sorted );
}
Mem_Free( crossings );
Mem_Free( originalEdges );
// check for duplicated edges
for ( i = 0 ; i < numOptEdges ; i++ ) {
for ( j = i+1 ; j < numOptEdges ; j++ ) {
if ( ( optEdges[i].v1 == optEdges[j].v1 && optEdges[i].v2 == optEdges[j].v2 )
|| ( optEdges[i].v1 == optEdges[j].v2 && optEdges[i].v2 == optEdges[j].v1 ) ) {
common->Printf( "duplicated optEdge\n" );
}
}
}
if ( dmapGlobals.verbose ) {
common->Printf( "%6i original edges\n", numOriginalEdges );
common->Printf( "%6i edges after splits\n", numOptEdges );
common->Printf( "%6i original vertexes\n", numOriginalVerts );
common->Printf( "%6i vertexes after splits\n", numOptVerts );
}
}
NSBitmapImageRep::NSBitmapImageRep( int wide, int high )
{
bmap = ( byte * ) Mem_ClearedAlloc( wide * high * 4 );
width = wide;
height = high;
}
static itemconfig_t* LoadItemConfig( const char* filename ) {
int max_iteminfo = ( int )LibVarValue( "max_iteminfo", "256" );
if ( max_iteminfo < 0 ) {
BotImport_Print( PRT_ERROR, "max_iteminfo = %d\n", max_iteminfo );
max_iteminfo = 256;
LibVarSet( "max_iteminfo", "256" );
}
if ( GGameType & GAME_Quake3 ) {
PC_SetBaseFolder( BOTFILESBASEFOLDER );
}
char path[ MAX_QPATH ];
String::NCpyZ( path, filename, MAX_QPATH );
source_t* source = LoadSourceFile( path );
if ( !source ) {
BotImport_Print( PRT_ERROR, "counldn't load %s\n", path );
return NULL;
}
//initialize item config
itemconfig_t* ic = ( itemconfig_t* )Mem_ClearedAlloc( sizeof ( itemconfig_t ) +
max_iteminfo * sizeof ( iteminfo_t ) );
ic->iteminfo = ( iteminfo_t* )( ( char* )ic + sizeof ( itemconfig_t ) );
ic->numiteminfo = 0;
//parse the item config file
token_t token;
while ( PC_ReadToken( source, &token ) ) {
if ( !String::Cmp( token.string, "iteminfo" ) ) {
if ( ic->numiteminfo >= max_iteminfo ) {
SourceError( source, "more than %d item info defined\n", max_iteminfo );
Mem_Free( ic );
FreeSource( source );
return NULL;
}
iteminfo_t* ii = &ic->iteminfo[ ic->numiteminfo ];
Com_Memset( ii, 0, sizeof ( iteminfo_t ) );
if ( !PC_ExpectTokenType( source, TT_STRING, 0, &token ) ) {
Mem_Free( ic );
FreeSource( source );
return NULL;
}
StripDoubleQuotes( token.string );
String::NCpy( ii->classname, token.string, sizeof ( ii->classname ) - 1 );
if ( !ReadStructure( source, &iteminfo_struct, ( char* )ii ) ) {
Mem_Free( ic );
FreeSource( source );
return NULL;
}
ii->number = ic->numiteminfo;
ic->numiteminfo++;
} else {
SourceError( source, "unknown definition %s\n", token.string );
Mem_Free( ic );
FreeSource( source );
return NULL;
}
}
FreeSource( source );
if ( !ic->numiteminfo ) {
BotImport_Print( PRT_WARNING, "no item info loaded\n" );
}
BotImport_Print( PRT_MESSAGE, "loaded %s\n", path );
return ic;
}