/** Write code for code fragements and @a NonTerminal's to file
Note: for LLgen style code generation, each @a NonTerminal is written to
the output file corresponding to the input file in which it was declared.
*/
static void generateCode(void) {
int i;
Declaration *declaration;
FileListItem *output;
for (i = 0; i < listSize(declarations); i++) {
declaration = (Declaration *) listIndex(declarations, i);
switch (declaration->subtype) {
case CODE:
output = findOutput(declaration->uCode->fileName);
outputCode(output->output, declaration->uCode, false);
break;
case DIRECTIVE:
/* output = findOutput(declaration->uDirective->token[0]->fileName); */
break;
case NONTERMINAL:
output = findOutput(declaration->uNonTerminal->token->fileName);
/* Generate the declarations for all generated NonTerminal
functions right before the first one (for each file), so we
always declare them before use. */
if (output->firstNonTerminal) {
output->firstNonTerminal = false;
generatePrototypes(output->output);
}
generateNonTerminalCode(output->output, declaration->uNonTerminal);
break;
default:
PANIC();
}
}
}
void RPDeferredLightingNode::onObjectLoaded()
{
__super::onObjectLoaded();
// find input socket
delete m_normalsInput;
delete m_specularInput;
delete m_depthInput;
delete m_sceneColorInput;
delete m_materialIndicesInput;
delete m_materialsDescInput;
delete m_finalLightColorTargetOutput;
delete m_shadowDepthTextureOutput;
delete m_screenSpaceShadowMapOutput;
m_normalsInput = static_cast< RPTextureInput* >( findInput( "Normals" ) );
m_specularInput = static_cast< RPTextureInput* >( findInput( "Specular" ) );
m_depthInput = static_cast< RPTextureInput* >( findInput( "Depth" ) );
m_sceneColorInput = static_cast< RPTextureInput* >( findInput( "SceneColor" ) );
m_materialIndicesInput = static_cast< RPTextureInput* >( findInput( "MaterialsIndices" ) );
m_materialsDescInput = static_cast< RPTextureInput* >( findInput( "MaterialsDescr" ) );
m_finalLightColorTargetOutput = static_cast< RPTextureOutput* >( findOutput( "LitScene" ) );
m_shadowDepthTextureOutput = static_cast< RPTextureOutput* >( findOutput( "ShadowDepthBuffer" ) );
m_screenSpaceShadowMapOutput = static_cast< RPTextureOutput* >( findOutput( "SS_ShadowMap" ) );
}
void GNSpatialEntity::onObjectLoaded()
{
__super::onObjectLoaded();
// find the existing inputs
m_worldMtx = DynamicCast< GSMatrixOutput >( findOutput( "world" ) );
m_worldViewMtx = DynamicCast< GSMatrixOutput >( findOutput( "worldView" ) );
}
void MNSurfaceProperties::onObjectLoaded()
{
__super::onObjectLoaded();
// find the existing inputs
m_ambient = DynamicCast< MSVec4Output >( findOutput( "ambient" ) );
m_diffuse = DynamicCast< MSVec4Output >( findOutput( "diffuse" ) );
m_specular = DynamicCast< MSVec4Output >( findOutput( "specular" ) );
m_specularPower = DynamicCast< MSFloatOutput >( findOutput( "specularPower" ) );
m_emissive = DynamicCast< MSVec4Output >( findOutput( "emissive" ) );
}
void MNBool::onObjectLoaded()
{
__super::onObjectLoaded();
// find the existing inputs
m_output = DynamicCast< MSBoolOutput >( findOutput( "Value" ) );
}
void MNVec4::onObjectLoaded()
{
MaterialNode::onObjectLoaded();
// find the existing inputs
m_output = static_cast< MSVec4Output* >( findOutput( "Vec" ) );
}
MNVec4::MNVec4( const MNVec4& rhs )
: MaterialNode( rhs )
, m_vector( rhs.m_vector )
, m_output( NULL )
{
m_output = static_cast< MSVec4Output* >( findOutput( "Vec" ) );
}
void MNColor::onObjectLoaded()
{
MaterialNode::onObjectLoaded();
// find the existing inputs
m_output = static_cast< MSColorOutput* >( findOutput( "Color" ) );
}
MNColor::MNColor( const MNColor& rhs )
: MaterialNode( rhs )
, m_color( rhs.m_color )
, m_output( NULL )
{
m_output = static_cast< MSColorOutput* >( findOutput( "Color" ) );
}
SAGetRandomAnnotation::SAGetRandomAnnotation( const SAGetRandomAnnotation& rhs )
: StoryAction( rhs )
, m_out( NULL )
, m_spawnPoint( rhs.m_spawnPoint )
, m_annotationName( rhs.m_annotationName )
{
m_out = static_cast< SAAnnotationOutput* >( findOutput( "Out" ) );
}
void MNTexture::onObjectLoaded()
{
MaterialNode::onObjectLoaded();
// find the existing inputs
m_uvInput = static_cast< MSVec2Input* >( findInput( "UV" ) );
m_output = static_cast< MSColorOutput* >( findOutput( "Color" ) );
if ( m_texture )
{
m_renderableTexture->setTexture( m_texture );
}
}
MNTexture::MNTexture( const MNTexture& rhs )
: MaterialNode( rhs )
, m_texture( rhs.m_texture )
, m_samplerSettings( rhs.m_samplerSettings )
, m_output( NULL )
, m_renderableTexture( new RenderableTexture() )
{
m_uvInput = static_cast< MSVec2Input* >( findInput( "UV" ) );
m_output = static_cast< MSColorOutput* >( findOutput( "Color" ) );
if ( m_texture )
{
m_renderableTexture->setTexture( m_texture );
}
}
void MNCamera::onObjectLoaded()
{
__super::onObjectLoaded();
// find the existing inputs
m_nearZ = DynamicCast< MSFloatOutput >( findOutput( "nearZ" ) );
m_farZ = DynamicCast< MSFloatOutput >( findOutput( "farZ" ) );
m_viewportWidth = DynamicCast< MSFloatOutput >( findOutput( "width" ) );
m_viewportHeight = DynamicCast< MSFloatOutput >( findOutput( "height" ) );
m_invView = DynamicCast< MSMatrixOutput >( findOutput( "invView" ) );
m_invProj = DynamicCast< MSMatrixOutput >( findOutput( "invProj" ) );
}
void SAGetRandomAnnotation::onObjectLoaded()
{
m_out = static_cast< SAAnnotationOutput* >( findOutput( "Out" ) );
}
