/*
================
idRestoreGame::ReadRefSound
================
*/
void idRestoreGame::ReadRefSound( refSound_t &refSound ) {
int index;
ReadInt( index );
refSound.referenceSound = gameSoundWorld->EmitterForIndex( index );
ReadVec3( refSound.origin );
ReadInt( refSound.listenerId );
ReadSoundShader( refSound.shader );
ReadFloat( refSound.diversity );
ReadBool( refSound.waitfortrigger );
ReadFloat( refSound.parms.minDistance );
ReadFloat( refSound.parms.maxDistance );
ReadFloat( refSound.parms.volume );
ReadFloat( refSound.parms.shakes );
ReadInt( refSound.parms.soundShaderFlags );
ReadInt( refSound.parms.soundClass );
}
void KfmEvent::Read( istream & in, unsigned int version ) {
id = ReadUInt(in);
type = ReadUInt(in);
if ( type != 5 ) {
unk_float = ReadFloat(in);
event_strings.resize(ReadUInt(in));
for ( vector<KfmEventString>::iterator it = event_strings.begin(); it != event_strings.end(); it++ ) it->Read(in, version);
unk_int3 = ReadUInt(in);
};
};
void Serializer::InitForReading(void *data, int data_size)
{
ASSERT(mode==SERIALIZE_NONE);
mode=SERIALIZE_READ;
buffer=data;
buffer_size=data_size;
ReadFloat(ver); //shrugs
}
static void ProcessTriangles()
{
int numvertices;
float x, y, z;
numvertices = ReadInt();
glBegin(GL_TRIANGLES);
while (numvertices)
{
x = ReadFloat();
y = ReadFloat();
z = ReadFloat();
glVertex3f(x, y, z);
numvertices--;
}
glEnd();
}
float readTeleopForwards()
{
TFileHandle hFileHandle;
TFileIOResult nIoResult;
float result=0;
short nFileSize=sizeof(baseHeading);
OpenRead(hFileHandle, nIoResult, TELEOPFORWARDSDAT, nFileSize);
ReadFloat(hFileHandle, nIoResult, result);
Close(hFileHandle, nIoResult);
return result;
}
//-----------------------------------------------------------------------------------------------
Vector2 ResourceStream::ReadVector2()
{
Vector2 returnValue;
if( m_internalFormat == RESOURCE_STREAM_FORMAT_BINARY )
{
ReadType( returnValue );
// DEBUGGING - { int q = 5; } //ConsolePrintf( "ReadVector2 at offset %d, value was (%g,%g)\n", m_currentReadOffset, returnValue.x, returnValue.y );
return returnValue;
}
ReadExpectedToken( "Vector2" );
ReadExpectedToken( '(' );
returnValue.x = ReadFloat();
ReadExpectedToken( ',' );
returnValue.y = ReadFloat();
ReadExpectedToken( ')' );
return returnValue;
}
/// Read SMFHeader head from file
void CSMFMapFile::ReadMapHeader(SMFHeader& head, CFileHandler& file)
{
file.Read(head.magic,sizeof(head.magic));
head.version = ReadInt(file);
head.mapid = ReadInt(file);
head.mapx = ReadInt(file);
head.mapy = ReadInt(file);
head.squareSize = ReadInt(file);
head.texelPerSquare = ReadInt(file);
head.tilesize = ReadInt(file);
head.minHeight = ReadFloat(file);
head.maxHeight = ReadFloat(file);
head.heightmapPtr = ReadInt(file);
head.typeMapPtr = ReadInt(file);
head.tilesPtr = ReadInt(file);
head.minimapPtr = ReadInt(file);
head.metalmapPtr = ReadInt(file);
head.featurePtr = ReadInt(file);
head.numExtraHeaders = ReadInt(file);
}
/*
===================
idRestoreGame::ReadContactInfo
===================
*/
void idRestoreGame::ReadContactInfo( contactInfo_t &contactInfo ) {
ReadInt( (int &)contactInfo.type );
ReadVec3( contactInfo.point );
ReadVec3( contactInfo.normal );
ReadFloat( contactInfo.dist );
ReadInt( contactInfo.contents );
ReadMaterial( contactInfo.material );
ReadInt( contactInfo.modelFeature );
ReadInt( contactInfo.trmFeature );
ReadInt( contactInfo.entityNum );
ReadInt( contactInfo.id );
}
/******************************************************************************
* read point information and load it
* point information will be read as x,y,z float coordinates
*****************************************************************************/
int ReadPoint(point *p)
{
if (!ReadFloat(&p->x))
{
PrintError("Number expected");
return 0;
}
SkipWhitespace();
if (!ReadFloat(&p->y))
{
PrintError("Number expected");
return 0;
}
SkipWhitespace();
if (!ReadFloat(&p->z))
{
PrintError("Number expected");
return 0;
}
return 1;
}
void L3DS::ReadMap(const LChunk &chunk, LMap& map)
{
LChunk child;
char str[20];
GotoChunk(chunk);
child = ReadChunk();
while (child.end <= chunk.end)
{
switch (child.id)
{
case INT_PERCENTAGE:
map.strength = ReadPercentage(child);
break;
case MAT_MAPNAME:
ReadASCIIZ(str, 20);
strcpy(map.mapName, str);
break;
case MAT_MAP_TILING:
map.tiling = ReadShort();
break;
case MAT_MAP_USCALE:
map.uScale = ReadFloat();
break;
case MAT_MAP_VSCALE:
map.vScale = ReadFloat();
break;
case MAT_MAP_UOFFSET:
map.uOffset = ReadFloat();
break;
case MAT_MAP_VOFFSET:
map.vOffset = ReadFloat();
break;
case MAT_MAP_ANG:
map.angle = ReadFloat();
break;
}
SkipChunk(child);
child = ReadChunk();
}
}
LColor3 L3DS::ReadColor(const LChunk &chunk)
{
LColor3 col = black;
GotoChunk(chunk);
switch (chunk.id)
{
case COLOR_F:
col.r = ReadFloat();
col.g = ReadFloat();
col.b = ReadFloat();
break;
case COLOR_24:
col.r = ReadByte()/255.0f;
col.g = ReadByte()/255.0f;
col.b = ReadByte()/255.0f;
break;
case LIN_COLOR_F:
col.r = ReadFloat();
col.g = ReadFloat();
col.b = ReadFloat();
break;
case LIN_COLOR_24:
col.r = ReadByte()/255.0f;
col.g = ReadByte()/255.0f;
col.b = ReadByte()/255.0f;
break;
default:
fprintf(stderr, "L3DS::ReadColor - error this is not a color chunk");
}
return col;
}
/*
================
idRestoreGame::ReadRenderView
================
*/
void idRestoreGame::ReadRenderView( renderView_t &view ) {
int i;
ReadInt( view.viewID );
ReadInt( view.x );
ReadInt( view.y );
ReadInt( view.width );
ReadInt( view.height );
ReadFloat( view.fov_x );
ReadFloat( view.fov_y );
ReadVec3( view.vieworg );
ReadMat3( view.viewaxis );
ReadBool( view.cramZNear );
ReadInt( view.time );
for( i = 0; i < MAX_GLOBAL_SHADER_PARMS; i++ ) {
ReadFloat( view.shaderParms[ i ] );
}
}
void VFSPlugin_LWO::read_diff(long length)
{
// Get a ptr to the last surface (hence the current one)
Material *m = m_vb->GetMaterial();
// Read the diffuse value
m->diffuse = ReadFloat();
// Read the envelope
long vxlength;
long envelope = ReadVariableLength(&vxlength);
length -= (vxlength + sizeof(float)*3);
}
void VFSPlugin_LWO::read_shrp(long length)
{
// Get a ptr to the last surface (hence the current one)
Material *m = m_vb->GetMaterial();
// Read how sharp the surface is
m->sharpness = ReadFloat();
// Read the envelope
long vxlength;
long envelope = ReadVariableLength(&vxlength);
length -= (vxlength + sizeof(float)*3);
}
//---------------------------------------------------------------------
// Read all parameters
//---------------------------------------------------------------------
int CNeedleMark::Read(SStream *stream, Tag tag)
{ if (0 == mgg) gtfo("<CNeedleMark: need mother gauge");
switch (tag) {
case 'bmap':
nedl.SetGauge(mgg);
nedl.ReadBMAP(stream);
return TAG_READ;
//--- rotation center --------------
case 'rotc':
nedl.ReadROTC(stream);
return TAG_READ;
//--- minimum value ----------------
case 'dmin':
ReadFloat(&dmin, stream);
return TAG_READ;
//--- maximum value ----------------
case 'dmax':
ReadFloat(&dmax, stream);
return TAG_READ;
//--- Clamp values -----------------
case 'clmp':
ReadFloat(&dmin,stream);
ReadFloat(&dmax,stream);
return TAG_READ;
//--- Current value ----------------
case 'sang':
case 'dval':
ReadFloat(&dval,stream);
SaveValue(dval);
return TAG_READ;
//--- Knob -------------------------
case 'knob':
ReadKNOB(stream);
return TAG_READ;
}
WARNINGLOG("CNeedleMark: tag %s unknowned",TagToString(tag));
return TAG_IGNORED;
}
float L3DS::ReadPercentage(const LChunk &chunk)
{
GotoChunk(chunk);
switch (chunk.id)
{
case INT_PERCENTAGE:
return (ReadShort()/100.0f);
case FLOAT_PERCENTAGE:
return ReadFloat();
}
fprintf(stderr, "L3DS::ReadPercentage - error, the chunk is not a percentage chunk");
return 0;
}
void VFSPlugin_LWO::read_bump(long length)
{
// Get a ptr to the last surface (hence the current one)
Material *m = m_vb->GetMaterial();
// Read the bump intensity of the surface
m->bump = ReadFloat();
// Read the envelope
long vxlength;
long envelope = ReadVariableLength(&vxlength);
length -= (vxlength + sizeof(float)*3);
}
/*
================
idRestoreGame::ReadRenderEntity
================
*/
void idRestoreGame::ReadRenderEntity( renderEntity_t &renderEntity ) {
int i;
int index;
ReadModel( renderEntity.hModel );
ReadInt( renderEntity.entityNum );
ReadInt( renderEntity.bodyId );
ReadBounds( renderEntity.bounds );
// callback is set by class's Restore function
renderEntity.callback = NULL;
renderEntity.callbackData = NULL;
ReadInt( renderEntity.suppressSurfaceInViewID );
ReadInt( renderEntity.suppressShadowInViewID );
ReadInt( renderEntity.suppressShadowInLightID );
ReadInt( renderEntity.allowSurfaceInViewID );
ReadVec3( renderEntity.origin );
ReadMat3( renderEntity.axis );
ReadMaterial( renderEntity.customShader );
ReadMaterial( renderEntity.referenceShader );
ReadSkin( renderEntity.customSkin );
ReadInt( index );
renderEntity.referenceSound = gameSoundWorld->EmitterForIndex( index );
for( i = 0; i < MAX_ENTITY_SHADER_PARMS; i++ ) {
ReadFloat( renderEntity.shaderParms[ i ] );
}
for( i = 0; i < MAX_RENDERENTITY_GUI; i++ ) {
ReadUserInterface( renderEntity.gui[ i ] );
}
// idEntity will restore "cameraTarget", which will be used in idEntity::Present to restore the remoteRenderView
renderEntity.remoteRenderView = NULL;
renderEntity.joints = NULL;
renderEntity.numJoints = 0;
ReadFloat( renderEntity.modelDepthHack );
ReadBool( renderEntity.noSelfShadow );
ReadBool( renderEntity.noShadow );
ReadBool( renderEntity.noDynamicInteractions );
ReadBool( renderEntity.weaponDepthHack );
ReadInt( renderEntity.forceUpdate );
}
/*************
* DESCRIPTION: read a color
* INPUT: color pointer to color
* OUTPUT: -
*************/
static void ParseColor(HANDLER_DATA *data, COLOR *color)
{
CHUNK chunk;
UBYTE c[3];
BeginChunk(data, &chunk);
switch (chunk.id)
{
case ID_COLOR1:
ReadFloat(data, &color->r, 1);
ReadFloat(data, &color->g, 1);
ReadFloat(data, &color->b, 1);
break;
case ID_COLOR255:
ReadChunkBytes(data, &c, 3);
color->r = c[0]/255.0f;
color->g = c[1]/255.0f;
color->b = c[2]/255.0f;
break;
}
EndChunk(data, &chunk);
}
/* EXPORT->LoadStatsFile: load the statistics file output by HERest */
void LoadStatsFile(char *statfile,HMMSet *hset,Boolean otrace)
{
Source src;
char hname[256];
int i,idx,count,N,lnum = 0;
float x;
HMMDef *hmm;
MLink ml;
LabId hmmId;
double occSum = 0.0;
long occN = 0;
StateInfo *si;
Boolean bin=FALSE;
if(InitSource(statfile,&src,NoFilter)<SUCCESS)
HError(7210,"LoadStatsFile: Can't open file %s", statfile);
while(ReadInt(&src,&idx,1,bin)) {
++lnum;
if (!ReadString(&src,hname) || !ReadInt(&src,&count,1,bin))
HError(7250,"LoadStatsFile: Format error in file %s line %d",
statfile,lnum);
/* look up hname and find num states N */
if ((hmmId = GetLabId(hname,FALSE))==NULL)
HError(7251,"LoadStatsFile: unknown name %s at line %d",
hname,lnum);
if ((ml = FindMacroName(hset,'l',hmmId))==NULL)
HError(7251,"LoadStatsFile: unknown model %s at line %d",
hname,lnum);
hmm = (HMMDef *) ml->structure;
N = hmm->numStates;
for (i=2; i<N; i++) {
if (!ReadFloat(&src,&x,1,bin))
HError(7250,"LoadStatsFile: Float format error file %s line %d\n",
statfile,lnum);
si = hmm->svec[i].info;
si->stateCounter = count;/* load the # of times the state occurred */
memcpy(&(si->hook),&x,sizeof(float)); /* !! */
occSum += x; ++occN;
}
}
CloseSource(&src);
if (otrace || (trace & T_OCC)) {
printf(" Stats loaded for %d models\n",lnum);
printf(" Mean Occupation Count = %f\n",occSum/occN);
fflush(stdout);
}
}
/*
================
idRestoreGame::ReadRenderLight
================
*/
void idRestoreGame::ReadRenderLight( renderLight_t &renderLight ) {
int index;
int i;
ReadMat3( renderLight.axis );
ReadVec3( renderLight.origin );
ReadInt( renderLight.suppressLightInViewID );
ReadInt( renderLight.allowLightInViewID );
ReadBool( renderLight.noShadows );
ReadBool( renderLight.pointLight );
ReadBool( renderLight.parallel );
ReadVec3( renderLight.lightRadius );
ReadVec3( renderLight.lightCenter );
ReadVec3( renderLight.target );
ReadVec3( renderLight.right );
ReadVec3( renderLight.up );
ReadVec3( renderLight.start );
ReadVec3( renderLight.end );
ReadBool( renderLight.ambient ); // sikk - Ambient Light Flag
// ---> sikk - Ambient Light Color
ReadVec3( renderLight.ambColor_X_Neg );
ReadVec3( renderLight.ambColor_X_Pos );
ReadVec3( renderLight.ambColor_Y_Neg );
ReadVec3( renderLight.ambColor_Y_Pos );
ReadVec3( renderLight.ambColor_Z_Neg );
ReadVec3( renderLight.ambColor_Z_Pos );
// <--- sikk - Ambient Light Color
ReadVec3( renderLight.ambRotation ); // sikk - Ambient Light Rotation
// only idLight has a prelightModel and it's always based on the entityname, so we'll restore it there
// ReadModel( renderLight.prelightModel );
renderLight.prelightModel = NULL;
ReadInt( renderLight.lightId );
ReadMaterial( renderLight.shader );
for( i = 0; i < MAX_ENTITY_SHADER_PARMS; i++ ) {
ReadFloat( renderLight.shaderParms[ i ] );
}
ReadInt( index );
renderLight.referenceSound = gameSoundWorld->EmitterForIndex( index );
}
void Wheel::LoadFile(std::string filename) {
std::ifstream fd(filename.c_str());
_size_x = ReadFloat(&fd);
_size_y = ReadFloat(&fd);
_max_motor_torque = ReadFloat(&fd);
_side_damping = ReadFloat(&fd);
_linear_damping = ReadFloat(&fd);
_density = ReadFloat(&fd);
_friction = ReadFloat(&fd);
fd.close();
}
/*************
* DESCRIPTION: read mapping coordinates of object
* INPUT: -
* OUTPUT: -
*************/
static void ParseMapping(HANDLER_DATA *data)
{
// read number of mapping coordinates
ReadWord(data, (WORD *)&data->mapcount, 1);
if (data->mapcount == 0)
return;
data->mapping = new VECT2D[data->mapcount]; // Allocate memory
if (!data->mapping)
{
data->err = ERR_MEM;
return;
}
ReadFloat(data, (float *)data->mapping, data->mapcount*2); // Read mapping coordinates
}
void ReadVector(TiXmlElement *element, Point3 &v)
{
double x = (double) v.x;
double y = (double) v.y;
double z = (double) v.z;
element->QueryDoubleAttribute( "x", &x );
element->QueryDoubleAttribute( "y", &y );
element->QueryDoubleAttribute( "z", &z );
v.x = (float) x;
v.y = (float) y;
v.z = (float) z;
float f=1;
ReadFloat( element, f );
v *= f;
}
void ReadColor(TiXmlElement *element, Color &c)
{
double r = (double) c.r;
double g = (double) c.g;
double b = (double) c.b;
element->QueryDoubleAttribute( "r", &r );
element->QueryDoubleAttribute( "g", &g );
element->QueryDoubleAttribute( "b", &b );
c.r = (float) r;
c.g = (float) g;
c.b = (float) b;
float f=1;
ReadFloat( element, f );
c *= f;
}
size_t Particle::deserialize(const Buffer& _src, size_t _offset)
{
_offset = _pm_checkPacketId(_src, _offset);
_offset = ReadString16(_src, _offset, _pf_particleName);
_offset = ReadFloat(_src, _offset, _pf_x);
_offset = ReadFloat(_src, _offset, _pf_y);
_offset = ReadFloat(_src, _offset, _pf_z);
_offset = ReadFloat(_src, _offset, _pf_offsetX);
_offset = ReadFloat(_src, _offset, _pf_offsetY);
_offset = ReadFloat(_src, _offset, _pf_offsetZ);
_offset = ReadFloat(_src, _offset, _pf_particleSpeed);
_offset = ReadInt32(_src, _offset, _pf_numOfParticles);
_pf_initialized = true;
return _offset;
}
void LoadMaterial(TiXmlElement *element)
{
Material *mtl = NULL;
// name
const char* name = element->Attribute("name");
printf("Material [");
if ( name ) printf("%s",name);
printf("]");
// type
const char* type = element->Attribute("type");
if ( type ) {
if ( COMPARE(type,"blinn") ) {
printf(" - Blinn\n");
MtlBlinn *m = new MtlBlinn();
mtl = m;
for ( TiXmlElement *child = element->FirstChildElement(); child!=NULL; child = child->NextSiblingElement() ) {
Color c(1,1,1);
float f=1;
if ( COMPARE( child->Value(), "diffuse" ) ) {
ReadColor( child, c );
m->SetDiffuse(c);
printf(" diffuse %f %f %f\n",c.r,c.g,c.b);
} else if ( COMPARE( child->Value(), "specular" ) ) {
ReadColor( child, c );
m->SetSpecular(c);
printf(" specular %f %f %f\n",c.r,c.g,c.b);
} else if ( COMPARE( child->Value(), "glossiness" ) ) {
ReadFloat( child, f );
m->SetGlossiness(f);
printf(" glossiness %f\n",f);
}
}
} else {
printf(" - UNKNOWN\n");
}
}
if ( mtl ) {
mtl->SetName(name);
materials.push_back(mtl);
}
}
/*************
* DESCRIPTION: read the points
* INPUT: data handler data
* cn iff context node
* OUTPUT: error string
*************/
static char *ReadPoints(HANDLER_DATA *data, struct ContextNode *cn)
{
int count;
// get point count (each point has a size of 12 bytes)
count = (cn->cn_Size)/sizeof(VECTOR);
// Allocate memory
data->pointcount = count;
data->points = ALLOCMEM(VECTOR, count);
if (!data->points)
return errors[ERR_MEM];
// Read points
if(!ReadFloat(data->iff, (float*)data->points, count*3))
return errors[ERR_LWOBFILE];
return NULL;
}
boost::shared_ptr< Expr > ReadExpr( std::list< std::string > & tokens ) {
if( tokens.empty( ) ) {
throw SyntaxError( "ReadExpr: unexpected end of token stream" );
} else {
if( tokens.front( ) == "function" ) {
return ReadFuncDecl( tokens );
/*} else if( tokens.front( ) == "assign" ) {
return ReadAssignExpr( tokens );*/
} else if( tokens.front( ) == "if" ) {
return ReadIfExpr( tokens );
} else if( tokens.front( ) == "while" ) {
return ReadWhileExpr( tokens );
/*} else if( tokens.front( ) == "call" ) {
return ReadFuncCall( tokens );*/
} else if( tokens.front( ) == "false" || tokens.front( ) == "true" ) {
return ReadBool( tokens );
} else if( tokens.front( )[ 0 ] >= '0' && tokens.front( )[ 0 ] <= '9' || tokens.front( )[ 0 ] == '-' || tokens.front( )[ 0 ] == '+' ) {
if( tokens.front( ).find( '.' ) == -1 ) {
return ReadInteger( tokens );
} else {
return ReadFloat( tokens );
}
} else if( tokens.front( )[ 0 ] >= 'A' && tokens.front( )[ 0 ] <= 'Z' || tokens.front( )[ 0 ] >= 'a' && tokens.front( )[ 0 ] <= 'z' || tokens.front( )[ 0 ] == '_' ) {
if( tokens.size( ) == 1 ) {
throw SyntaxError( "ReadExpr: unexpected end of stream" );
} else {
std::list< std::string >::iterator nexttoken = tokens.begin( ); ++nexttoken;
if( *nexttoken == "(" ) {
return ReadFuncCall( tokens );
} else if( *nexttoken == "=" ) {
return ReadAssignExpr( tokens );
} else {
return ReadIdent( tokens );
}
}
} else if( tokens.front( )[ 0 ] == '"' ) {
return ReadStringConst( tokens );
} else {
throw SyntaxError( "ReadExpr: unexpected token " + tokens.front( ) );
}
}
}
/*************
* DESCRIPTION: read a percent value
* INPUT: -
* OUTPUT: float (0..1)
*************/
static float ParsePercentage(HANDLER_DATA *data)
{
CHUNK chunk;
float percent = 0.f;
BeginChunk(data, &chunk);
switch (chunk.id)
{
case ID_PERCENT100:
ReadFloat(data, &percent, 1);
percent*= 0.01f;
break;
case ID_PERCENT1:
ReadChunkBytes(data, &percent, 1);
break;
}
EndChunk(data, &chunk);
return percent;
}