void CheckboardTexture::Deserialization( tinyxml2::XMLElement* RootElement )
{
Spectrum value;
ParseVector( RootElement->Attribute( "value1" ) , value.GetDataPtr() );
texture1 = new ConstantTexture( value );
ParseVector( RootElement->Attribute( "value2" ) , value.GetDataPtr() );
texture2 = new ConstantTexture( value );
}
void CheckboardTexture::Deserialization( tinyxml2::XMLElement* RootElement )
{
Vector3f value;
ParseVector( RootElement->Attribute( "value1" ) , &value[0] );
texture1 = new ConstantTexture( value );
ParseVector( RootElement->Attribute( "value2" ) , &value[0] );
texture2 = new ConstantTexture( value );
}
bool CRainSystem::Command(const char *command)
{
char *token;
if (CWorldEffectsSystem::Command(command))
{
return true;
}
token = COM_ParseExt(&command, false);
if (strcmpi(token, "fog") == 0)
{ // rain fog
AddWorldEffect(new CMistyFog2);
mWindChange = 0;
return true;
}
else if (strcmpi(token, "fall") == 0)
{ // rain fall ( minVelocity maxVelocity ) default: ( -60 -50 )
float data[2];
if (ParseVector(&command, 2, data))
{
mMinVelocity[2] = data[0];
mMaxVelocity[2] = data[1];
}
return true;
}
else if (strcmpi(token, "spread") == 0)
{ // rain spread ( radius height ) default: ( 20 20 )
ParseVector(&command, 2, &mSpread[1]);
return true;
}
else if (strcmpi(token, "alpha") == 0)
{ // rain alpha <float> default: 0.15
token = COM_ParseExt(&command, false);
mAlpha = atof(token);
return true;
}
else if (strcmpi(token, "height") == 0)
{ // rain height <float> default: 1.5
token = COM_ParseExt(&command, false);
mRainHeight = atof(token);
return true;
}
else if (strcmpi(token, "angle") == 0)
{ // rain angle <float> default: 1.0
token = COM_ParseExt(&command, false);
mWindAngle = atof(token);
return true;
}
return false;
}
bool FDefaultValueHelper::ParseRotator(const FString& Source, FRotator& OutVal)
{
FVector Vector;
if( ParseVector( Source, Vector ) )
{
OutVal = FRotator(Vector.X, Vector.Y, Vector.Z);
return true;
}
return false;
}
void Sphere::Deserialization( tinyxml2::XMLElement* ShapeRootElement )
{
ShapeRootElement->QueryFloatAttribute( "radius" , &m_Radius );
ParseVector( std::string( ShapeRootElement->FirstChildElement( "transform" )->Attribute( "position" ) ) , &mWorldPos[0] );
*mObjectToWorld = Translate( Vector3f( mWorldPos ) );
*mWorldToObject = Inverse( *mObjectToWorld );
BBoxLocal = Bound3f( Point3f( -m_Radius , -m_Radius , -m_Radius ) , Point3f( m_Radius , m_Radius , m_Radius ) );
BBoxWorld = ( *mObjectToWorld )( BBoxLocal );
}
//------------------------------------------------------
// ParseVelocity
// Reads in a ranged velocity field in vector format
//
// input:
// string that contains one or two vectors
//
// return:
// success of parse operation.
//------------------------------------------------------
bool CPrimitiveTemplate::ParseVelocity( const gsl::cstring_view& val )
{
vec3_t min, max;
if ( ParseVector( val, min, max ) == true )
{
mVelX.SetRange( min[0], max[0] );
mVelY.SetRange( min[1], max[1] );
mVelZ.SetRange( min[2], max[2] );
return true;
}
return false;
}
//------------------------------------------------------
// ParseOrigin2
// Reads in an origin field in vector format
//
// input:
// string that contains three float values
//
// return:
// success of parse operation.
//------------------------------------------------------
bool CPrimitiveTemplate::ParseOrigin2( const char *val )
{
vec3_t min, max;
if ( ParseVector( val, min, max ) == true )
{
mOrigin2X.SetRange( min[0], max[0] );
mOrigin2Y.SetRange( min[1], max[1] );
mOrigin2Z.SetRange( min[2], max[2] );
return true;
}
return false;
}
//------------------------------------------------------
// ParseAngleDelta
// Reads in a ranged angleDelta field in vector format
//
// input:
// string that contains one or two vectors
//
// return:
// success of parse operation.
//------------------------------------------------------
bool CPrimitiveTemplate::ParseAngleDelta( const char *val )
{
vec3_t min, max;
if ( ParseVector( val, min, max ) == true )
{
mAngle1Delta.SetRange( min[0], max[0] );
mAngle2Delta.SetRange( min[1], max[1] );
mAngle3Delta.SetRange( min[2], max[2] );
return true;
}
return false;
}
//------------------------------------------------------
// ParseAcceleration
// Reads in a ranged acceleration field in vector format
//
// input:
// string that contains one or two vectors
//
// return:
// success of parse operation.
//------------------------------------------------------
bool CPrimitiveTemplate::ParseAcceleration( const char *val )
{
vec3_t min, max;
if ( ParseVector( val, min, max ) == true )
{
mAccelX.SetRange( min[0], max[0] );
mAccelY.SetRange( min[1], max[1] );
mAccelZ.SetRange( min[2], max[2] );
return true;
}
return false;
}
//------------------------------------------------------
// ParseRGBEnd
// Reads in a ranged rgbEnd field in vector format
//
// input:
// string that contains one or two vectors
//
// return:
// success of parse operation.
//------------------------------------------------------
bool CPrimitiveTemplate::ParseRGBEnd( const char *val )
{
vec3_t min, max;
if ( ParseVector( val, min, max ) == true )
{
mRedEnd.SetRange( min[0], max[0] );
mGreenEnd.SetRange( min[1], max[1] );
mBlueEnd.SetRange( min[2], max[2] );
return true;
}
return false;
}
//------------------------------------------------------
// ParseRGBStart
// Reads in a ranged rgbStart field in vector format
//
// input:
// string that contains one or two vectors
//
// return:
// success of parse operation.
//------------------------------------------------------
bool CPrimitiveTemplate::ParseRGBStart( const gsl::cstring_view& val )
{
vec3_t min, max;
if ( ParseVector( val, min, max ) == true )
{
mRedStart.SetRange( min[0], max[0] );
mGreenStart.SetRange( min[1], max[1] );
mBlueStart.SetRange( min[2], max[2] );
return true;
}
return false;
}
//------------------------------------------------------
// ParseAngle
// Reads in a ranged angle field in vector format
//
// input:
// string that contains one or two vectors
//
// return:
// success of parse operation.
//------------------------------------------------------
bool CPrimitiveTemplate::ParseAngle( const gsl::cstring_view& val )
{
vec3_t min, max;
if ( ParseVector( val, min, max ) == true )
{
mAngle1.SetRange( min[0], max[0] );
mAngle2.SetRange( min[1], max[1] );
mAngle3.SetRange( min[2], max[2] );
return true;
}
return false;
}
//------------------------------------------------------
// ParseMin
// Reads in a min bounding box field in vector format
//
// input:
// string that contains three float values
//
// return:
// success of parse operation.
//------------------------------------------------------
bool CPrimitiveTemplate::ParseMin( const gsl::cstring_view& val )
{
vec3_t min;
if ( ParseVector( val, min, min ) == true )
{
VectorCopy( min, mMin );
// We assume that if a min is being set that we are using physics and a bounding box
mFlags |= (FX_USE_BBOX | FX_APPLY_PHYSICS);
return true;
}
return false;
}
//------------------------------------------------------
// ParseMax
// Reads in a max bounding box field in vector format
//
// input:
// string that contains three float values
//
// return:
// success of parse operation.
//------------------------------------------------------
bool CPrimitiveTemplate::ParseMax( const char *val )
{
vec3_t max;
if ( ParseVector( val, max, max ) == true )
{
VectorCopy( max, mMax );
// We assume that if a max is being set that we are using physics and a bounding box
mFlags |= (FX_USE_BBOX | FX_APPLY_PHYSICS);
return true;
}
return false;
}
Vector2 ParseVertex(const picojson::value& vertices, const picojson::value& id) {
const auto& vertex = vertices.get(id.to_str());
const auto& position = vertex.get("Position");
return ParseVector(position);
}
void AreaLight::Deserialization( tinyxml2::XMLElement* LightRootElement )
{
ParseVector( LightRootElement->Attribute( "Le" ) , Lemission.GetDataPtr() );
}
bool CSnowSystem::Command(const char *command)
{
char *token;
if (CWorldEffectsSystem::Command(command))
{
return true;
}
token = COM_ParseExt(&command, false);
if (strcmpi(token, "wind") == 0)
{ // snow wind ( windOriginX windOriginY windOriginZ ) ( windVelocityX windVelocityY windVelocityZ ) ( sizeX sizeY sizeZ )
vec3_t origin, velocity, size;
ParseVector(&command, 3, origin);
ParseVector(&command, 3, velocity);
ParseVector(&command, 3, size);
AddWorldEffect(new CWind(origin, velocity, size, 0));
return true;
}
else if (strcmpi(token, "fog") == 0)
{ // snow fog
AddWorldEffect(new CMistyFog2);
mWindChange = 0;
return true;
}
else if (strcmpi(token, "alpha") == 0)
{ // snow alpha <float> default: 0.09
token = COM_ParseExt(&command, false);
mAlpha = atof(token);
return true;
}
else if (strcmpi(token, "spread") == 0)
{ // snow spread ( minX minY minZ ) ( maxX maxY maxZ ) default: ( -600 -600 -200 ) ( 600 600 250 )
ParseVector(&command, 3, mMinSpread);
ParseVector(&command, 3, mMaxSpread);
return true;
}
else if (strcmpi(token, "velocity") == 0)
{ // snow velocity ( minX minY minZ ) ( maxX maxY maxZ ) default: ( -15 -15 -20 ) ( 15 15 -70 )
ParseVector(&command, 3, mMinSpread);
ParseVector(&command, 3, mMaxSpread);
return true;
}
else if (strcmpi(token, "blowing") == 0)
{
token = COM_ParseExt(&command, false);
if (strcmpi(token, "duration") == 0)
{ // snow blowing duration <int> default: 2
token = COM_ParseExt(&command, false);
mWindDuration = atol(token);
return true;
}
else if (strcmpi(token, "low") == 0)
{ // snow blowing low <int> default: 3
token = COM_ParseExt(&command, false);
mWindLow = atol(token);
return true;
}
else if (strcmpi(token, "velocity") == 0)
{ // snow blowing velocity ( min max ) default: ( 30 70 )
float data[2];
ParseVector(&command, 2, data);
mWindMin = data[0];
mWindMax = data[1];
return true;
}
else if (strcmpi(token, "size") == 0)
{ // snow blowing size ( minX minY minZ ) default: ( 1000 300 300 )
ParseVector(&command, 3, mWindSize);
return true;
}
}
return false;
}
void Sphere::Deserialization( tinyxml2::XMLElement* ShapeRootElement )
{
ShapeRootElement->QueryFloatAttribute( "radius" , &mRadius );
ParseVector( std::string( ShapeRootElement->FirstChildElement( "transform" )->Attribute( "position" ) ) , &mWorldPos[0] );
}
/*
================
Model::ImportMD5
================
*/
Model *Model::ImportMD5( const char *filename, const char *filenameAnim ) {
Lexer lexer(LEXER_NO_BOM_WARNING);
if ( !lexer.LoadFile( filename ) )
return NULL;
Model *model = new Model(true);
int numJoints = -1;
try {
// MD5Version must be the first keyword
lexer.ExpectToken( "MD5Version" );
int fileVersion = lexer.ReadInt();
if ( fileVersion != MD5_VERSION_DOOM3 && fileVersion != MD5_VERSION_QUAKEWARS )
lexer.Error( Format( "MD5Version is $*, should be $* or $*") << fileVersion << MD5_VERSION_DOOM3 << MD5_VERSION_QUAKEWARS );
const Token *token;
String key;
const char *p;
bool inJointGroup = false;
bool inMeshGroup = false;
bool readMeshVerts = false;
bool readMeshTris = false;
int numMeshes = -1;
int numVerts, vertIndex;
int triCounter, indexCounter;
int numWeights;
MeshAnimated *mesh = NULL;
int i, j, num;
Vec3 vTemp;
bool noAnimate = false;
bool readVertexColor = false;
Color vertexColor;
ListEx<MD5Vertex> vertexList;
ListEx<MD5Weight> weightList;
while ( (token = lexer.ReadToken()) != NULL ) {
p = token->GetString();
if ( !p || !*p )
continue;
if ( inJointGroup ) {
if ( *p == '}' ) {
inJointGroup = false;
continue;
}
lexer.ReadInt(); // unused
ParseVector( lexer, &vTemp.x, 3 );
ParseVector( lexer, &vTemp.x, 3 );
} else if ( inMeshGroup ) {
lexer.UnreadToken();
if ( readMeshVerts ) {
if ( lexer.CheckToken( "numtris" ) ) {
if ( numVerts != vertexList.Num() )
lexer.Error( Format("numVerts don't match: $*") << vertexList.Num() );
InitIndices( mesh, lexer.ReadInt() * 3 ); // numtris * 3
triCounter = 0;
indexCounter = 0;
readMeshVerts = false;
readMeshTris = true;
continue;
}
lexer.ExpectToken( "vert" );
vertIndex = lexer.ReadInt();
if ( vertIndex != vertexList.Num() )
lexer.Error( Format("Bad Vert Index, should be $*") << vertexList.Num() );
MD5Vertex &vertex = vertexList.Alloc();
ParseVector( lexer, &vertex.texCoord.x, 2 );
vertex.firstWeight = lexer.ReadInt();
vertex.lastWeight = lexer.ReadInt() + vertex.firstWeight - 1;
if ( readVertexColor ) {
// Currently we don't have use for vertex color..
// I haven't seen md5meshes with other values than ( 1 1 1 1 ) for vertexColor anyway..
ParseVector( lexer, &vertexColor.r, 4 );
}
} else if ( readMeshTris ) {
if ( lexer.CheckToken( "numweights" ) ) {
numWeights = lexer.ReadInt();
weightList.CheckSize( numWeights );
readMeshTris = false;
continue;
}
lexer.ExpectToken( "tri" );
if ( lexer.ReadInt() != triCounter )
lexer.Error( Format("Bad Tri Index, should be $*") << triCounter );
mesh->indices[indexCounter++] = lexer.ReadInt();
mesh->indices[indexCounter++] = lexer.ReadInt();
mesh->indices[indexCounter++] = lexer.ReadInt();
triCounter++;
} else {
if ( lexer.CheckToken( "}" ) ) {
if ( numWeights != weightList.Num() )
lexer.Error( Format("numWeights doesn't match $*") << weightList.Num() );
// Convert vertices:
num = vertexList.Num();
for( i=0; i<num; i++ ) {
if ( i >= vertexList.Num() )
lexer.Error( "Vertex index out of range" );
const MD5Vertex &md5Vert = vertexList[i];
mesh->texCoords[i] = md5Vert.texCoord;
Vertex &vInfo = mesh->vertices[i];
InitVertex( &vInfo, 1 + md5Vert.lastWeight - md5Vert.firstWeight );
vInfo.numWeights = 0;
for ( j=md5Vert.firstWeight; j<=md5Vert.lastWeight; j++ ) {
if ( j >= weightList.Num() )
lexer.Error( "Weight index out of range" );
const MD5Weight &md5Weight = weightList[j];
if ( md5Weight.jointIndex >= numJoints )
lexer.Error( "Weight joint index out of range" );
if ( md5Weight.bias == 0.0f )
continue;
VertexWeight &weight = vInfo.weights[vInfo.numWeights++];
weight.boneId = md5Weight.jointIndex;
weight.origin = md5Weight.origin;
//weight.normal = md5Weight.normal; //! @todo calculate normal
weight.influence = md5Weight.bias;
}
}
inMeshGroup = false;
continue;
}
lexer.ExpectToken( "weight" );
if ( lexer.ReadInt() != weightList.Num() )
lexer.Error( Format("Bad VertexWeight Index, should be $*") << weightList.Num() );
MD5Weight &weight = weightList.Alloc();
weight.jointIndex = lexer.ReadInt();
weight.bias = lexer.ReadFloat();
ParseVector( lexer, &weight.origin.x, 3 );
weight.origin *= MD5_MODEL_SCALE;
}
} else {
if ( String::Icmp( p, "commandline" ) == 0 ) {
// Skip value, we don't need it
lexer.ReadToken();
} else if ( String::Icmp( p, "numJoints" ) == 0 ) {
numJoints = lexer.ReadInt();
if ( numJoints > 0 ) {
model->bones.SetGranularity( numJoints );
model->bones.CheckSize( numJoints );
}
} else if ( String::Icmp( p, "numMeshes" ) == 0 ) {
numMeshes = lexer.ReadInt();
if ( numMeshes <= 0 )
lexer.Error("Zero meshes");
model->meshes.SetGranularity( numMeshes );
model->meshes.CheckSize( numMeshes );
} else if ( String::Icmp( p, "joints" ) == 0 ) {
if ( numJoints == -1 )
lexer.Error( "numJoins not set!" );
lexer.ExpectToken( "{" );
inJointGroup = true;
} else if ( String::Icmp( p, "mesh" ) == 0 ) {
if ( numMeshes == -1 )
lexer.Error( "numMeshes not set!" );
lexer.ExpectToken( "{" );
mesh = new MeshAnimated;
model->meshes.Append(mesh);
if ( fileVersion != MD5_VERSION_QUAKEWARS )
mesh->name = Format("mesh $*") << model->meshes.Num();
else {
lexer.ExpectToken( "name" );
mesh->name = lexer.ReadString();
}
lexer.ExpectToken( "shader" );
mesh->material = lexer.ReadString();
noAnimate = false;
readVertexColor = false;
if ( fileVersion == MD5_VERSION_QUAKEWARS ) {
lexer.ExpectToken( "flags" );
lexer.ExpectToken( "{" );
while( !lexer.CheckToken("}") ) {
if ( lexer.CheckToken("noAnimate") )
noAnimate = true;
else if ( lexer.CheckToken("vertexColor") )
readVertexColor = true;
else
lexer.Error( Format("Unknown flag: '$*'") << lexer.ReadString() );
}
}
lexer.ExpectToken( "numverts" );
numVerts = lexer.ReadInt();
vertexList.Clear();
vertexList.CheckSize( numVerts );
weightList.Clear();
InitVertices( mesh, numVerts );
inMeshGroup = true;
readMeshVerts = true;
} else {
lexer.Error( Format("Unexpected '$*'") << p );
}
}
}
if ( inJointGroup || inMeshGroup || numJoints == -1 || numMeshes == -1 )
throw LexerError( LexerError::END_OF_FILE );
}
catch( LexerError err ) {
delete model;
String errStr;
err.ToString( errStr );
User::Error( ERR_LEXER_FAILURE, errStr.c_str(), filename );
return NULL;
}
if ( !ImportMD5AnimBaseFrame( filenameAnim, model ) )
return NULL;
if ( numJoints != model->bones.Num() ) {
delete model;
User::Error( ERR_FILE_CORRUPT, "Number of Joints do not match", filename );
return NULL;
}
return model;
}
/*
============
idAASSettings::FromParser
============
*/
bool idAASSettings::FromParser( idLexer &src )
{
idToken token;
if ( !src.ExpectTokenString( "{" ) )
{
return false;
}
// parse the file
while ( 1 )
{
if ( !src.ReadToken( &token ) )
{
break;
}
if ( token == "}" )
{
break;
}
if ( token == "bboxes" )
{
if ( !ParseBBoxes( src ) )
{
return false;
}
}
else if ( token == "usePatches" )
{
if ( !ParseBool( src, usePatches ) )
{
return false;
}
}
else if ( token == "writeBrushMap" )
{
if ( !ParseBool( src, writeBrushMap ) )
{
return false;
}
}
else if ( token == "playerFlood" )
{
if ( !ParseBool( src, playerFlood ) )
{
return false;
}
}
else if ( token == "allowSwimReachabilities" )
{
if ( !ParseBool( src, allowSwimReachabilities ) )
{
return false;
}
}
else if ( token == "allowFlyReachabilities" )
{
if ( !ParseBool( src, allowFlyReachabilities ) )
{
return false;
}
}
else if ( token == "fileExtension" )
{
src.ExpectTokenString( "=" );
src.ExpectTokenType( TT_STRING, 0, &token );
fileExtension = token;
}
else if ( token == "gravity" )
{
ParseVector( src, gravity );
gravityDir = gravity;
gravityValue = gravityDir.Normalize();
invGravityDir = -gravityDir;
}
else if ( token == "maxStepHeight" )
{
if ( !ParseFloat( src, maxStepHeight ) )
{
return false;
}
}
else if ( token == "maxBarrierHeight" )
{
if ( !ParseFloat( src, maxBarrierHeight ) )
{
return false;
}
}
else if ( token == "maxWaterJumpHeight" )
{
if ( !ParseFloat( src, maxWaterJumpHeight ) )
{
return false;
}
}
else if ( token == "maxFallHeight" )
{
if ( !ParseFloat( src, maxFallHeight ) )
{
return false;
}
}
else if ( token == "minFloorCos" )
{
if ( !ParseFloat( src, minFloorCos ) )
{
return false;
}
}
else if ( token == "tt_barrierJump" )
{
if ( !ParseInt( src, tt_barrierJump ) )
{
return false;
}
}
else if ( token == "tt_startCrouching" )
{
if ( !ParseInt( src, tt_startCrouching ) )
{
return false;
}
}
else if ( token == "tt_waterJump" )
{
if ( !ParseInt( src, tt_waterJump ) )
{
return false;
}
}
else if ( token == "tt_startWalkOffLedge" )
{
if ( !ParseInt( src, tt_startWalkOffLedge ) )
{
return false;
}
}
else
{
src.Error( "invalid token '%s'", token.c_str() );
}
}
if ( numBoundingBoxes <= 0 )
{
src.Error( "no valid bounding box" );
}
return true;
}
/*
================
ImportMD5AnimBaseFrame
================
*/
bool ImportMD5AnimBaseFrame( const char *filename, Model *model ) {
Lexer lexer(LEXER_NO_BOM_WARNING);
if ( !lexer.LoadFile( filename ) ) {
delete model;
return false;
}
try {
// MD5Version must be the first keyword
lexer.ExpectToken( "MD5Version" );
int fileVersion = lexer.ReadInt();
if ( fileVersion != MD5_VERSION_DOOM3 && fileVersion != MD5_VERSION_QUAKEWARS )
lexer.Error( Format("MD5Version is $*, should be $* or $*") << fileVersion << MD5_VERSION_DOOM3 << MD5_VERSION_QUAKEWARS );
const Token *token;
String key;
const char *p;
bool inHierarchyGroup = false;
bool inBoundsGroup = false;
bool inBaseFrameGroup = false;
bool inFrameGroup = false;
int numJoints = -1;
int frameRate, numFrames, currentFrame;
bool noAnimate = false;
bool readVertexColor = false;
Color vertexColor;
ListEx<MD5Vertex> vertexList;
ListEx<MD5Weight> weightList;
Vec3 vTemp;
int boneIndex = 0;
while ( (token = lexer.ReadToken()) != NULL ) {
p = token->GetString();
if ( !p || !*p )
continue;
if ( inHierarchyGroup ) {
if ( *p == '}' ) {
inHierarchyGroup = false;
continue;
}
Bone &bone = model->bones.Alloc();
bone.name = p;
bone.idParent = lexer.ReadInt();
bone.flags = lexer.ReadInt();
lexer.ReadInt(); // start index ?
} else if ( inBaseFrameGroup ) {
if ( *p == '}' ) {
inBaseFrameGroup = false;
break; //! @todo should be continue when loading all frames.
}
lexer.UnreadToken();
Bone &bone = model->bones[boneIndex++];
ParseVector( lexer, &bone.origin.x, 3 );
ParseVector( lexer, &bone.quat.x, 3 );
bone.origin *= MD5_MODEL_SCALE;
// Compute w
bone.quat.w = 1.0f - (bone.quat.x * bone.quat.x) - (bone.quat.y * bone.quat.y) - (bone.quat.z * bone.quat.z);
bone.quat.w = ( bone.quat.w <= 0.0f ) ? 0.0f : -Math::Sqrt( bone.quat.w );
} else if ( inBoundsGroup ) {
if ( *p == '}' ) {
inBoundsGroup = false;
continue;
}
lexer.UnreadToken();
ParseVector( lexer, &vTemp.x, 3 );
ParseVector( lexer, &vTemp.x, 3 );
} else if ( inFrameGroup ) {
if ( *p == '}' ) {
inFrameGroup = false;
continue;
}
//! @todo why was here a fixme ?
} else {
if ( String::Icmp( p, "commandline" ) == 0 ) {
// Skip value, we don't need it
lexer.ReadToken();
} else if ( String::Icmp( p, "frameRate" ) == 0 ) {
frameRate = lexer.ReadInt();
} else if ( String::Icmp( p, "numAnimatedComponents" ) == 0 ) {
// Skip value, we don't need it
lexer.ReadToken();
} else if ( String::Icmp( p, "numJoints" ) == 0 ) {
numJoints = lexer.ReadInt();
if ( numJoints > 0 ) {
model->bones.SetGranularity( numJoints );
model->bones.CheckSize( numJoints );
}
} else if ( String::Icmp( p, "numFrames" ) == 0 ) {
numFrames = lexer.ReadInt();
if ( numFrames <= 0 )
lexer.Error("Zero frames on model");
//! @todo why was here a fixme ?
} else if ( String::Icmp( p, "hierarchy" ) == 0 ) {
if ( numJoints == -1 )
lexer.Error("numJoins not set!");
lexer.ExpectToken( "{" );
inHierarchyGroup = true;
} else if ( String::Icmp( p, "bounds" ) == 0 ) {
lexer.ExpectToken( "{" );
inBoundsGroup = true;
} else if ( String::Icmp( p, "baseframe" ) == 0 ) {
lexer.ExpectToken( "{" );
inBaseFrameGroup = true;
} else if ( String::Icmp( p, "frame" ) == 0 ) {
currentFrame = lexer.ReadInt();
lexer.ExpectToken( "{" );
inFrameGroup = true;
} else {
lexer.Error( Format("Unexpected '$*'") << p );
}
}
}
if ( inHierarchyGroup || inBoundsGroup || inFrameGroup || numJoints == -1 )
throw LexerError( LexerError::END_OF_FILE );
return true;
}
catch( LexerError err ) {
delete model;
String errStr;
err.ToString( errStr );
User::Error( ERR_LEXER_FAILURE, errStr.c_str(), filename );
return false;
}
}
/**
* @brief The current text pointer is at the explicit text definition of the
* shader. Parse it into the global shader variable. Later functions
* will optimize it.
* @param[in,out] _text
* @return
*/
qboolean ParseShaderR1(char *_text)
{
char **text = &_text;
char *token;
int s = 0;
shader.explicitlyDefined = qtrue;
token = COM_ParseExt2(text, qtrue);
if (token[0] != '{')
{
Ren_Warning("WARNING: expecting '{', found '%s' instead in shader '%s'\n", token, shader.name);
return qfalse;
}
while (1)
{
token = COM_ParseExt2(text, qtrue);
if (!token[0])
{
Ren_Warning("WARNING: no concluding '}' in shader %s\n", shader.name);
return qfalse;
}
// end of shader definition
if (token[0] == '}')
{
break;
}
// stage definition
else if (token[0] == '{')
{
if (s >= MAX_SHADER_STAGES)
{
Ren_Warning("WARNING: too many stages in shader %s (max is %i)\n", shader.name, MAX_SHADER_STAGES);
return qfalse;
}
if (!ParseStage(&stages[s], text))
{
Ren_Warning("WARNING: can't parse stages of shader %s @[%.50s ...]\n", shader.name, _text);
return qfalse;
}
stages[s].active = qtrue;
s++;
continue;
}
// skip stuff that only the QuakeEdRadient needs
else if (!Q_stricmpn(token, "qer", 3))
{
SkipRestOfLine(text);
continue;
}
// skip description
else if (!Q_stricmp(token, "description"))
{
SkipRestOfLine(text);
continue;
}
// skip renderbump
else if (!Q_stricmp(token, "renderbump"))
{
SkipRestOfLine(text);
continue;
}
// skip unsmoothedTangents
else if (!Q_stricmp(token, "unsmoothedTangents"))
{
Ren_Warning("WARNING: unsmoothedTangents keyword not supported in shader '%s'\n", shader.name);
continue;
}
// skip guiSurf
else if (!Q_stricmp(token, "guiSurf"))
{
SkipRestOfLine(text);
continue;
}
// skip decalInfo
else if (!Q_stricmp(token, "decalInfo"))
{
Ren_Warning("WARNING: decalInfo keyword not supported in shader '%s'\n", shader.name);
SkipRestOfLine(text);
continue;
}
// skip Quake4's extra material types
else if (!Q_stricmp(token, "materialType"))
{
Ren_Warning("WARNING: materialType keyword not supported in shader '%s'\n", shader.name);
SkipRestOfLine(text);
continue;
}
// skip Prey's extra material types
else if (!Q_stricmpn(token, "matter", 6))
{
//Ren_Warning( "WARNING: materialType keyword not supported in shader '%s'\n", shader.name);
SkipRestOfLine(text);
continue;
}
// sun parms
else if (!Q_stricmp(token, "xmap_sun") || !Q_stricmp(token, "q3map_sun"))
{
float a, b;
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing parm for 'xmap_sun' keyword in shader '%s'\n", shader.name);
continue;
}
tr.sunLight[0] = atof(token);
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing parm for 'xmap_sun' keyword in shader '%s'\n", shader.name);
continue;
}
tr.sunLight[1] = atof(token);
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing parm for 'xmap_sun' keyword in shader '%s'\n", shader.name);
continue;
}
tr.sunLight[2] = atof(token);
VectorNormalize(tr.sunLight);
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing parm for 'xmap_sun' keyword in shader '%s'\n", shader.name);
continue;
}
a = atof(token);
VectorScale(tr.sunLight, a, tr.sunLight);
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing parm for 'xmap_sun' keyword in shader '%s'\n", shader.name);
continue;
}
a = atof(token);
a = a / 180 * M_PI;
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing parm for 'xmap_sun' keyword in shader '%s'\n", shader.name);
continue;
}
b = atof(token);
b = b / 180 * M_PI;
tr.sunDirection[0] = cos(a) * cos(b);
tr.sunDirection[1] = sin(a) * cos(b);
tr.sunDirection[2] = sin(b);
continue;
}
// noShadows
else if (!Q_stricmp(token, "noShadows"))
{
shader.noShadows = qtrue;
continue;
}
// noSelfShadow
else if (!Q_stricmp(token, "noSelfShadow"))
{
Ren_Warning("WARNING: noSelfShadow keyword not supported in shader '%s'\n", shader.name);
continue;
}
// forceShadows
else if (!Q_stricmp(token, "forceShadows"))
{
Ren_Warning("WARNING: forceShadows keyword not supported in shader '%s'\n", shader.name);
continue;
}
// forceOverlays
else if (!Q_stricmp(token, "forceOverlays"))
{
Ren_Warning("WARNING: forceOverlays keyword not supported in shader '%s'\n", shader.name);
continue;
}
// noPortalFog
else if (!Q_stricmp(token, "noPortalFog"))
{
Ren_Warning("WARNING: noPortalFog keyword not supported in shader '%s'\n", shader.name);
continue;
}
// fogLight
else if (!Q_stricmp(token, "fogLight"))
{
Ren_Warning("WARNING: fogLight keyword not supported in shader '%s'\n", shader.name);
shader.fogLight = qtrue;
continue;
}
// blendLight
else if (!Q_stricmp(token, "blendLight"))
{
Ren_Warning("WARNING: blendLight keyword not supported in shader '%s'\n", shader.name);
shader.blendLight = qtrue;
continue;
}
// ambientLight
else if (!Q_stricmp(token, "ambientLight"))
{
Ren_Warning("WARNING: ambientLight keyword not supported in shader '%s'\n", shader.name);
shader.ambientLight = qtrue;
continue;
}
// volumetricLight
else if (!Q_stricmp(token, "volumetricLight"))
{
shader.volumetricLight = qtrue;
continue;
}
// translucent
else if (!Q_stricmp(token, "translucent"))
{
shader.translucent = qtrue;
continue;
}
// forceOpaque
else if (!Q_stricmp(token, "forceOpaque"))
{
shader.forceOpaque = qtrue;
continue;
}
// forceSolid
else if (!Q_stricmp(token, "forceSolid") || !Q_stricmp(token, "solid"))
{
continue;
}
else if (!Q_stricmp(token, "deformVertexes") || !Q_stricmp(token, "deform"))
{
ParseDeform(text);
continue;
}
else if (!Q_stricmp(token, "tesssize"))
{
SkipRestOfLine(text);
continue;
}
// skip noFragment
if (!Q_stricmp(token, "noFragment"))
{
continue;
}
// skip stuff that only the xmap needs
else if (!Q_stricmpn(token, "xmap", 4) || !Q_stricmpn(token, "q3map", 5))
{
SkipRestOfLine(text);
continue;
}
// skip stuff that only xmap or the server needs
else if (!Q_stricmp(token, "surfaceParm"))
{
ParseSurfaceParm(text);
continue;
}
// no mip maps
else if (!Q_stricmp(token, "nomipmap") || !Q_stricmp(token, "nomipmaps"))
{
shader.filterType = FT_LINEAR;
shader.noPicMip = qtrue;
continue;
}
// no picmip adjustment
else if (!Q_stricmp(token, "nopicmip"))
{
shader.noPicMip = qtrue;
continue;
}
// RF, allow each shader to permit compression if available
else if (!Q_stricmp(token, "allowcompress"))
{
shader.uncompressed = qfalse;
continue;
}
else if (!Q_stricmp(token, "nocompress"))
{
shader.uncompressed = qtrue;
continue;
}
// polygonOffset
else if (!Q_stricmp(token, "polygonOffset"))
{
shader.polygonOffset = qtrue;
continue;
}
// parallax mapping
else if (!Q_stricmp(token, "parallax"))
{
shader.parallax = qtrue;
continue;
}
// entityMergable, allowing sprite surfaces from multiple entities
// to be merged into one batch. This is a savings for smoke
// puffs and blood, but can't be used for anything where the
// shader calcs (not the surface function) reference the entity color or scroll
else if (!Q_stricmp(token, "entityMergable"))
{
shader.entityMergable = qtrue;
continue;
}
// fogParms
else if (!Q_stricmp(token, "fogParms"))
{
if (!ParseVector(text, 3, shader.fogParms.color))
{
return qfalse;
}
//shader.fogParms.colorInt = ColorBytes4(shader.fogParms.color[0] * tr.identityLight,
// shader.fogParms.color[1] * tr.identityLight,
// shader.fogParms.color[2] * tr.identityLight, 1.0);
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: 'fogParms' incomplete - missing opacity value in shader '%s' set to 1\n", shader.name);
shader.fogParms.depthForOpaque = 1;
}
else
{
shader.fogParms.depthForOpaque = atof(token);
shader.fogParms.depthForOpaque = shader.fogParms.depthForOpaque < 1 ? 1 : shader.fogParms.depthForOpaque;
}
//shader.fogParms.tcScale = 1.0f / shader.fogParms.depthForOpaque;
shader.fogVolume = qtrue;
shader.sort = SS_FOG;
// skip any old gradient directions
SkipRestOfLine(text);
continue;
}
// noFog
else if (!Q_stricmp(token, "noFog"))
{
shader.noFog = qtrue;
continue;
}
// portal
else if (!Q_stricmp(token, "portal"))
{
shader.sort = SS_PORTAL;
shader.isPortal = qtrue;
token = COM_ParseExt2(text, qfalse);
if (token[0])
{
shader.portalRange = atof(token);
}
else
{
shader.portalRange = 256;
}
continue;
}
// portal or mirror
else if (!Q_stricmp(token, "mirror"))
{
shader.sort = SS_PORTAL;
shader.isPortal = qtrue;
continue;
}
// skyparms <cloudheight> <outerbox> <innerbox>
else if (!Q_stricmp(token, "skyparms"))
{
ParseSkyParms(text);
continue;
}
// This is fixed fog for the skybox/clouds determined solely by the shader
// it will not change in a level and will not be necessary
// to force clients to use a sky fog the server says to.
// skyfogvars <(r,g,b)> <dist>
else if (!Q_stricmp(token, "skyfogvars"))
{
vec3_t fogColor;
if (!ParseVector(text, 3, fogColor))
{
return qfalse;
}
token = COM_ParseExt(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing density value for sky fog\n");
continue;
}
if (atof(token) > 1)
{
Ren_Warning("WARNING: last value for skyfogvars is 'density' which needs to be 0.0-1.0\n");
continue;
}
RE_SetFog(FOG_SKY, 0, 5, fogColor[0], fogColor[1], fogColor[2], atof(token));
continue;
}
// ET waterfogvars
else if (!Q_stricmp(token, "waterfogvars"))
{
vec3_t watercolor;
float fogvar;
if (!ParseVector(text, 3, watercolor))
{
return qfalse;
}
token = COM_ParseExt(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing density/distance value for water fog\n");
continue;
}
fogvar = atof(token);
// right now allow one water color per map. I'm sure this will need
// to change at some point, but I'm not sure how to track fog parameters
// on a "per-water volume" basis yet.
if (fogvar == 0)
{ // '0' specifies "use the map values for everything except the fog color
// TODO
}
else if (fogvar > 1)
{ // distance "linear" fog
RE_SetFog(FOG_WATER, 0, fogvar, watercolor[0], watercolor[1], watercolor[2], 1.1);
}
else
{ // density "exp" fog
RE_SetFog(FOG_WATER, 0, 5, watercolor[0], watercolor[1], watercolor[2], fogvar);
}
continue;
}
// ET fogvars
else if (!Q_stricmp(token, "fogvars"))
{
vec3_t fogColor;
float fogDensity;
int fogFar;
if (!ParseVector(text, 3, fogColor))
{
return qfalse;
}
token = COM_ParseExt(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing density value for the fog\n");
continue;
}
// NOTE: fogFar > 1 means the shader is setting the farclip, < 1 means setting
// density (so old maps or maps that just need softening fog don't have to care about farclip)
fogDensity = atof(token);
if (fogDensity > 1)
{ // linear
fogFar = fogDensity;
}
else
{
fogFar = 5;
}
RE_SetFog(FOG_MAP, 0, fogFar, fogColor[0], fogColor[1], fogColor[2], fogDensity);
RE_SetFog(FOG_CMD_SWITCHFOG, FOG_MAP, 50, 0, 0, 0, 0);
continue;
}
// ET sunshader <name>
else if (!Q_stricmp(token, "sunshader"))
{
size_t tokenLen;
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing shader name for 'sunshader'\n");
continue;
}
// Don't call tr.sunShader = R_FindShader(token, SHADER_3D_STATIC, qtrue);
// because it breaks the computation of the current shader
tokenLen = strlen(token) + 1;
tr.sunShaderName = (char *)ri.Hunk_Alloc(sizeof(char) * tokenLen, h_low);
Q_strncpyz(tr.sunShaderName, token, tokenLen);
}
else if (!Q_stricmp(token, "lightgridmulamb"))
{
// ambient multiplier for lightgrid
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing value for 'lightgrid ambient multiplier'\n");
continue;
}
if (atof(token) > 0)
{
tr.lightGridMulAmbient = atof(token);
}
}
else if (!Q_stricmp(token, "lightgridmuldir"))
{
// directional multiplier for lightgrid
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing value for 'lightgrid directional multiplier'\n");
continue;
}
if (atof(token) > 0)
{
tr.lightGridMulDirected = atof(token);
}
}
// light <value> determines flaring in xmap, not needed here
else if (!Q_stricmp(token, "light"))
{
(void) COM_ParseExt2(text, qfalse);
continue;
}
// cull <face>
else if (!Q_stricmp(token, "cull"))
{
token = COM_ParseExt2(text, qfalse);
if (token[0] == 0)
{
Ren_Warning("WARNING: missing cull parms in shader '%s'\n", shader.name);
continue;
}
if (!Q_stricmp(token, "none") || !Q_stricmp(token, "twoSided") || !Q_stricmp(token, "disable"))
{
shader.cullType = CT_TWO_SIDED;
}
else if (!Q_stricmp(token, "back") || !Q_stricmp(token, "backside") || !Q_stricmp(token, "backsided"))
{
shader.cullType = CT_BACK_SIDED;
}
else if (!Q_stricmp(token, "front"))
{
// CT_FRONT_SIDED is set per default see R_FindShader - nothing to do just don't throw a warning
}
else
{
Ren_Warning("WARNING: invalid cull parm '%s' in shader '%s'\n", token, shader.name);
}
continue;
}
// distancecull <opaque distance> <transparent distance> <alpha threshold>
else if (!Q_stricmp(token, "distancecull"))
{
int i;
for (i = 0; i < 3; i++)
{
token = COM_ParseExt(text, qfalse);
if (token[0] == 0)
{
Ren_Warning("WARNING: missing distancecull parms in shader '%s'\n", shader.name);
}
else
{
shader.distanceCull[i] = atof(token);
}
}
if (shader.distanceCull[1] - shader.distanceCull[0] > 0)
{
// distanceCull[ 3 ] is an optimization
shader.distanceCull[3] = 1.0f / (shader.distanceCull[1] - shader.distanceCull[0]);
}
else
{
shader.distanceCull[0] = 0;
shader.distanceCull[1] = 0;
shader.distanceCull[2] = 0;
shader.distanceCull[3] = 0;
}
continue;
}
// twoSided
else if (!Q_stricmp(token, "twoSided"))
{
shader.cullType = CT_TWO_SIDED;
continue;
}
// backSided
else if (!Q_stricmp(token, "backSided"))
{
shader.cullType = CT_BACK_SIDED;
continue;
}
// clamp
else if (!Q_stricmp(token, "clamp"))
{
shader.wrapType = WT_CLAMP;
continue;
}
// edgeClamp
else if (!Q_stricmp(token, "edgeClamp"))
{
shader.wrapType = WT_EDGE_CLAMP;
continue;
}
// zeroClamp
else if (!Q_stricmp(token, "zeroclamp"))
{
shader.wrapType = WT_ZERO_CLAMP;
continue;
}
// alphaZeroClamp
else if (!Q_stricmp(token, "alphaZeroClamp"))
{
shader.wrapType = WT_ALPHA_ZERO_CLAMP;
continue;
}
// sort
else if (!Q_stricmp(token, "sort"))
{
ParseSort(text);
continue;
}
// implicit default mapping to eliminate redundant/incorrect explicit shader stages
else if (!Q_stricmpn(token, "implicit", 8))
{
//Ren_Warning( "WARNING: keyword '%s' not supported in shader '%s'\n", token, shader.name);
//SkipRestOfLine(text);
// set implicit mapping state
if (!Q_stricmp(token, "implicitBlend"))
{
implicitStateBits = GLS_DEPTHMASK_TRUE | GLS_SRCBLEND_SRC_ALPHA | GLS_DSTBLEND_ONE_MINUS_SRC_ALPHA;
implicitCullType = CT_TWO_SIDED;
}
else if (!Q_stricmp(token, "implicitMask"))
{
implicitStateBits = GLS_DEPTHMASK_TRUE | GLS_ATEST_GE_128;
implicitCullType = CT_TWO_SIDED;
}
else // "implicitMap"
{
implicitStateBits = GLS_DEPTHMASK_TRUE;
implicitCullType = CT_FRONT_SIDED;
}
// get image
token = COM_ParseExt(text, qfalse);
if (token[0] != '\0')
{
Q_strncpyz(implicitMap, token, sizeof(implicitMap));
}
else
{
implicitMap[0] = '-';
implicitMap[1] = '\0';
}
continue;
}
// spectrum
else if (!Q_stricmp(token, "spectrum"))
{
Ren_Warning("WARNING: spectrum keyword not supported in shader '%s'\n", shader.name);
token = COM_ParseExt2(text, qfalse);
if (!token[0])
{
Ren_Warning("WARNING: missing parm for 'spectrum' keyword in shader '%s'\n", shader.name);
continue;
}
shader.spectrum = qtrue;
shader.spectrumValue = atoi(token);
continue;
}
// diffuseMap <image>
else if (!Q_stricmp(token, "diffuseMap"))
{
ParseDiffuseMap(&stages[s], text);
s++;
continue;
}
// normalMap <image>
else if (!Q_stricmp(token, "normalMap") || !Q_stricmp(token, "bumpMap"))
{
ParseNormalMap(&stages[s], text);
s++;
continue;
}
// specularMap <image>
else if (!Q_stricmp(token, "specularMap"))
{
ParseSpecularMap(&stages[s], text);
s++;
continue;
}
// glowMap <image>
else if (!Q_stricmp(token, "glowMap"))
{
ParseGlowMap(&stages[s], text);
s++;
continue;
}
// reflectionMap <image>
else if (!Q_stricmp(token, "reflectionMap"))
{
ParseReflectionMap(&stages[s], text);
s++;
continue;
}
// reflectionMapBlended <image>
else if (!Q_stricmp(token, "reflectionMapBlended"))
{
ParseReflectionMapBlended(&stages[s], text);
s++;
continue;
}
// lightMap <image>
else if (!Q_stricmp(token, "lightMap"))
{
Ren_Warning("WARNING: obsolete lightMap keyword not supported in shader '%s'\n", shader.name);
SkipRestOfLine(text);
continue;
}
// lightFalloffImage <image>
else if (!Q_stricmp(token, "lightFalloffImage"))
{
ParseLightFalloffImage(&stages[s], text);
s++;
continue;
}
// Doom 3 DECAL_MACRO
else if (!Q_stricmp(token, "DECAL_MACRO"))
{
shader.polygonOffset = qtrue;
shader.sort = SS_DECAL;
SurfaceParm("discrete");
SurfaceParm("noShadows");
continue;
}
// Prey DECAL_ALPHATEST_MACRO
else if (!Q_stricmp(token, "DECAL_ALPHATEST_MACRO"))
{
// what's different?
shader.polygonOffset = qtrue;
shader.sort = SS_DECAL;
SurfaceParm("discrete");
SurfaceParm("noShadows");
continue;
}
else if (SurfaceParm(token))
{
continue;
}
else
{
Ren_Warning("WARNING: unknown general shader parameter '%s' in '%s'\n", token, shader.name);
SkipRestOfLine(text);
continue;
}
}
// ignore shaders that don't have any stages, unless it is a sky or fog
if (s == 0 && !shader.forceOpaque && !shader.isSky && !(shader.contentFlags & CONTENTS_FOG) && implicitMap[0] == '\0')
{
return qfalse;
}
return qtrue;
}
