/// <summary>
/// Adds 'P' to the list of code generator plugins'.
/// If P does not support the right language, throws an exception.
/// Does nothing if 'P' is already on the list.
/// </summary>
public void AddCodeGeneratorPlugin(G25.CodeGeneratorPlugin P)
{
if (P.Language() != Language)
throw new Exception("G25.CodeGeneratorLoader.AddCodeGeneratorPlugin(): the code generator does not generate for language '" + Language + "' but for language '" + P.Language() + "' instead");
// if already on list simply return
for (int i = 0; i < m_codeGeneratorPlugins.Count; i++)
if (m_codeGeneratorPlugins[i].GetType() == P.GetType())
return;
m_codeGeneratorPlugins.Add(P);
}
/// <summary>
/// Sets the main code generator to 'CG'. If CG does not support the right language, throws an exception.
/// </summary>
public void SetMainCodeGenerator(G25.CodeGenerator CG)
{
if (CG.Language() != Language)
throw new Exception("G25.CodeGeneratorLoader.SetMainCodeGenerator(): the code generator does not generate for language '" + Language + "' but for language '" + CG.Language() + "' instead");
if (m_codeGenerator != null)
{
if (m_codeGenerator.GetType() == CG.GetType())
return;
// else: TO DO; // a duplicate of the code generator was detected. Now what? throw an exception? write an error message to console? TO DO!
}
m_codeGenerator = CG;
}
/// <summary>
/// Constructs a new FuncArgInfo class for a specific argument 'argIdx' of function 'F'.
/// </summary>
/// <param name="S">Used for retrieving the G25.VariableType of 'm_typeName'.</param>
/// <param name="F">Function for which this FuncArgInfo describes an argument.</param>
/// <param name="argIdx">Index of argument. Use -1 for artificial 'return argument' used for the C language.</param>
/// <param name="FT">Floating point type of the type of the argument.</param>
/// <param name="defaultTypeName">Name of the type of the argument.</param>
/// <param name="computeMultivectorValue">Set to true to convert the type into symbolic code. Uses 'F' to obtain the actual name of the variable to use inside the symbolic multivector.</param>
public FuncArgInfo(G25.Specification S, G25.fgs F, int argIdx, G25.FloatType FT, string defaultTypeName, bool computeMultivectorValue)
{
m_mvInterface = true;
m_name = F.GetArgumentName(argIdx);
m_typeName = F.GetArgumentTypeName(argIdx, defaultTypeName);
m_type = S.GetType(m_typeName);
m_varType = m_type.GetVariableType();
if (m_varType != VARIABLE_TYPE.FLOAT) m_floatType = FT;
else m_floatType = S.GetFloatType(m_typeName);
// set mangled type name (depends on whether type is scalar or not)
if ((m_varType == VARIABLE_TYPE.FLOAT) || (m_varType == VARIABLE_TYPE.ENUM))
{
m_mangledTypeName = m_typeName;
}
else {
m_mangledTypeName = FT.GetMangledName(S, m_typeName);
// temp (currently disabled) test for C# and Java
// if (S.OutputCSharpOrJava() && (m_varType == VARIABLE_TYPE.GMV))
// m_mangledTypeName = m_mangledTypeName + G25.CG.Shared.Main.IF_SUFFIX;
}
// set pointer / non pointer flag
m_pointer = F.GetArgumentPtr(S, argIdx);
// set array flag
m_array = F.GetArgumentArr(S, argIdx);
m_constant = (argIdx >= 0);
if (computeMultivectorValue) {
if (m_varType == VARIABLE_TYPE.SMV)
{
m_multivectorValue = new RefGA.Multivector[1] { Symbolic.SMVtoSymbolicMultivector(S, (G25.SMV)m_type, m_name, m_pointer) };
}
else if (m_varType == VARIABLE_TYPE.GMV)
m_multivectorValue = Symbolic.GMVtoSymbolicMultivector(S, (G25.GMV)m_type, m_name, m_pointer, -1); // -1 = sym mv for all groups
else if (m_varType == VARIABLE_TYPE.FLOAT)
m_multivectorValue = new RefGA.Multivector[1] { Symbolic.ScalarToSymbolicMultivector(S, (G25.FloatType)m_type, m_name) };
else
{
// OM: do nothing?
m_multivectorValue = null;
}
}
}