// internal
void asCScriptFunction::JITCompile()
{
if( funcType != asFUNC_SCRIPT )
return;
asASSERT( scriptData );
asIJITCompiler *jit = engine->GetJITCompiler();
if( !jit )
return;
// Make sure the function has been compiled with JitEntry instructions
// For functions that has JitEntry this will be a quick test
asUINT length;
asDWORD *byteCode = GetByteCode(&length);
asDWORD *end = byteCode + length;
bool foundJitEntry = false;
while( byteCode < end )
{
// Determine the instruction
asEBCInstr op = asEBCInstr(*(asBYTE*)byteCode);
if( op == asBC_JitEntry )
{
foundJitEntry = true;
break;
}
// Move to next instruction
byteCode += asBCTypeSize[asBCInfo[op].type];
}
if( !foundJitEntry )
{
asCString msg;
msg.Format(TXT_NO_JIT_IN_FUNC_s, GetDeclaration());
engine->WriteMessage("", 0, 0, asMSGTYPE_WARNING, msg.AddressOf());
}
// Release the previous function, if any
if( scriptData->jitFunction )
{
engine->jitCompiler->ReleaseJITFunction(scriptData->jitFunction);
scriptData->jitFunction = 0;
}
// Compile for native system
int r = jit->CompileFunction(this, &scriptData->jitFunction);
if( r < 0 )
asASSERT( scriptData->jitFunction == 0 );
}
void FMeshParticleVertexFactory::InitRHI()
{
FVertexDeclarationElementList Elements;
const bool bInstanced = GetFeatureLevel() >= ERHIFeatureLevel::SM4;
if (Data.bInitialized)
{
if(bInstanced)
{
// Stream 0 - Instance data
{
checkf(DynamicVertexStride != -1, TEXT("FMeshParticleVertexFactory does not have a valid DynamicVertexStride - likely an empty one was made, but SetStrides was not called"));
FVertexStream VertexStream;
VertexStream.VertexBuffer = NULL;
VertexStream.Stride = 0;
VertexStream.Offset = 0;
Streams.Add(VertexStream);
// @todo metal: this will need a valid stride when we get to instanced meshes!
Elements.Add(FVertexElement(0, Data.TransformComponent[0].Offset, Data.TransformComponent[0].Type, 8, DynamicVertexStride, Data.TransformComponent[0].bUseInstanceIndex));
Elements.Add(FVertexElement(0, Data.TransformComponent[1].Offset, Data.TransformComponent[1].Type, 9, DynamicVertexStride, Data.TransformComponent[1].bUseInstanceIndex));
Elements.Add(FVertexElement(0, Data.TransformComponent[2].Offset, Data.TransformComponent[2].Type, 10, DynamicVertexStride, Data.TransformComponent[2].bUseInstanceIndex));
Elements.Add(FVertexElement(0, Data.SubUVs.Offset, Data.SubUVs.Type, 11, DynamicVertexStride, Data.SubUVs.bUseInstanceIndex));
Elements.Add(FVertexElement(0, Data.SubUVLerpAndRelTime.Offset, Data.SubUVLerpAndRelTime.Type, 12, DynamicVertexStride, Data.SubUVLerpAndRelTime.bUseInstanceIndex));
Elements.Add(FVertexElement(0, Data.ParticleColorComponent.Offset, Data.ParticleColorComponent.Type, 14, DynamicVertexStride, Data.ParticleColorComponent.bUseInstanceIndex));
Elements.Add(FVertexElement(0, Data.VelocityComponent.Offset, Data.VelocityComponent.Type, 15, DynamicVertexStride, Data.VelocityComponent.bUseInstanceIndex));
}
// Stream 1 - Dynamic parameter
{
checkf(DynamicParameterVertexStride != -1, TEXT("FMeshParticleVertexFactory does not have a valid DynamicParameterVertexStride - likely an empty one was made, but SetStrides was not called"));
FVertexStream VertexStream;
VertexStream.VertexBuffer = NULL;
VertexStream.Stride = 0;
VertexStream.Offset = 0;
Streams.Add(VertexStream);
Elements.Add(FVertexElement(1, 0, VET_Float4, 13, DynamicParameterVertexStride, true));
}
}
if(Data.PositionComponent.VertexBuffer != NULL)
{
Elements.Add(AccessStreamComponent(Data.PositionComponent,0));
}
// only tangent,normal are used by the stream. the binormal is derived in the shader
uint8 TangentBasisAttributes[2] = { 1, 2 };
for(int32 AxisIndex = 0;AxisIndex < 2;AxisIndex++)
{
if(Data.TangentBasisComponents[AxisIndex].VertexBuffer != NULL)
{
Elements.Add(AccessStreamComponent(Data.TangentBasisComponents[AxisIndex],TangentBasisAttributes[AxisIndex]));
}
}
// Vertex color
if(Data.VertexColorComponent.VertexBuffer != NULL)
{
Elements.Add(AccessStreamComponent(Data.VertexColorComponent,3));
}
else
{
//If the mesh has no color component, set the null color buffer on a new stream with a stride of 0.
//This wastes 4 bytes of bandwidth per vertex, but prevents having to compile out twice the number of vertex factories.
FVertexStreamComponent NullColorComponent(&GNullColorVertexBuffer, 0, 0, VET_Color);
Elements.Add(AccessStreamComponent(NullColorComponent,3));
}
if(Data.TextureCoordinates.Num())
{
const int32 BaseTexCoordAttribute = 4;
for(int32 CoordinateIndex = 0;CoordinateIndex < Data.TextureCoordinates.Num();CoordinateIndex++)
{
Elements.Add(AccessStreamComponent(
Data.TextureCoordinates[CoordinateIndex],
BaseTexCoordAttribute + CoordinateIndex
));
}
for(int32 CoordinateIndex = Data.TextureCoordinates.Num();CoordinateIndex < MAX_TEXCOORDS;CoordinateIndex++)
{
Elements.Add(AccessStreamComponent(
Data.TextureCoordinates[Data.TextureCoordinates.Num() - 1],
BaseTexCoordAttribute + CoordinateIndex
));
}
}
if(Streams.Num() > 0)
{
InitDeclaration(Elements,Data);
check(IsValidRef(GetDeclaration()));
}
}
}
void ScriptEngine::generateReference()
{
if (!m_engine)
return;
std::ofstream out("AngelScript reference.txt");
out << "*** Globals ***" << std::endl << std::endl;
int nb = m_engine->GetGlobalFunctionCount();
for (int i = 0; i < nb; ++i)
{
auto func = m_engine->GetGlobalFunctionByIndex(i);
out << "\t" << func->GetDeclaration(true, false, true) << std::endl;
}
out << std::endl << "*** Types ***" << std::endl << std::endl;
nb = m_engine->GetObjectTypeCount();
for (int i = 0; i < nb; ++i)
{
auto info = m_engine->GetObjectTypeByIndex(i);
out << " * " << info->GetName() << std::endl;
int nb2 = info->GetPropertyCount();
for (int j = 0; j < nb2; ++j)
{
const char* name;
int typeId;
bool isPrivate, isProtected, isReference;
auto prop = info->GetProperty(j, &name, &typeId, &isPrivate, &isProtected, nullptr, &isReference);
out << "\t";
if (isProtected)
out << "protected ";
if (isPrivate)
out << "private ";
out << m_engine->GetTypeDeclaration(typeId);
if (isReference)
out << "&";
out << " ";
out << name << std::endl;
}
if (nb2 != 0)
out << std::endl;
nb2 = info->GetBehaviourCount();
bool hasBehaviour = false;
for (int j = 0; j < nb2; ++j)
{
asEBehaviours behaviour;
auto func = info->GetBehaviourByIndex(j, &behaviour);
if (behaviour == asBEHAVE_CONSTRUCT || behaviour == asBEHAVE_DESTRUCT)
{
hasBehaviour = true;
out << "\t" << func->GetDeclaration(false, false, true) << std::endl;
}
}
if (hasBehaviour)
out << std::endl;
nb2 = info->GetFactoryCount();
for (int j = 0; j < nb2; ++j)
{
auto func = info->GetFactoryByIndex(j);
out << "\t" << func->GetDeclaration(false, false, true) << std::endl;
}
if (nb2 != 0)
out << std::endl;
nb2 = info->GetMethodCount();
for (int j = 0; j < nb2; ++j)
{
auto func = info->GetMethodByIndex(j);
out << "\t" << func->GetDeclaration(false, false, true) << std::endl;
}
out << std::endl;
}
}
