/// <summary>
/// Constructor: Create the program factory that will be used by derived classes
/// to create the individual programs.
/// </summary>
/// <param name="Config"></param>
/// <param name="InputDimension"></param>
public GPGeneratePopulation(GPModelerServer Config, short InputDimension)
{
m_Config = Config;
//
// Create a program tree factor that will be used for creating new
// program trees.
m_TreeFactory = new GPProgramTreeFactory(Config, InputDimension);
}
public GPProgramTreeFactory(GPModelerServer Config, int InputDimension)
{
m_Config = Config;
m_InputDimension = InputDimension;
m_OperatorADF = new GPProgramBranchFactoryADF(null, Config);
m_OperatorADL = new GPProgramBranchFactoryADL(null, Config);
m_OperatorADR = new GPProgramBranchFactoryADR(null, Config);
m_OperatorRPB = new GPProgramBranchFactoryRPB(null, Config);
}
/// <summary>
/// Default constructor - Prepare the memory for storing results.
/// </summary>
/// <param name="Config">Modeling configuration</param>
/// <param name="TrainingData">Reference to the training data</param>
/// <param name="Tolerance">Allowable tolerance around a resulting value for exact matching</param>
/// <param name="UseInputHistory">True, if the InputHistory parameter is in use</param>
public GPFitness(GPModelerServer Config, GPTrainingData TrainingData, double Tolerance, bool UseInputHistory)
{
m_Config = Config;
m_TrainingData = TrainingData;
m_Tolerance = Tolerance;
m_UseInputHistory = UseInputHistory;
//
// Create the contained program fitness selection object
if (Config.Profile.SPEA2MultiObjective)
{
m_FitnessSelection = new GPFitnessSPEA2(Config.Profile.PopulationSize);
}
else
{
m_FitnessSelection = new GPFitnessSingle(Config.Profile.PopulationSize);
}
//
// Given the training data, compute the maximum possible error, we need
// this for the adaptive parsimony pressure.
m_MaximumError = ComputeMaximumError(TrainingData);
ComputeTrainingStats(TrainingData);
//
// Create room for the fitness measures
InitializeStorage(Config.Profile.PopulationSize);
m_PrevPopulationSize = Config.Profile.PopulationSize;
//
// Have to convert the training data version of the historical inputs
// into the form that programs utilize.
TransformHistoricalInputs(TrainingData);
//
// The input history for the custom fitness functions is a little
// different than UDFs because there is no time step during fitness computation,
// so need to do a little dance to handle that.
PrepareFitnessInputHistory(TrainingData);
//
// Create the processing threads, one for each processor
InitializeProcessingThreads(Environment.ProcessorCount);
}
public GPProgramBranchFactoryRPB(GPProgramBranchRPB RPB, GPModelerServer Config)
: base(RPB, Config)
{
}
public GPProgramBranchFactoryADF(GPProgramBranchADF ADF, GPModelerServer Config)
: base(ADF, Config)
{
m_BranchADF = ADF;
}
public GPGeneratePopulationRamped(GPModelerServer Config, short InputDimension)
: base(Config, InputDimension)
{
}
public GPProgramBranchFactoryADR(GPProgramBranchADR ADR, GPModelerServer Config)
: base(ADR, Config)
{
m_BranchADR = ADR;
}
public GPProgramBranchFactory(GPProgramBranch Branch, GPModelerServer Config)
{
m_Branch = Branch;
m_Config = Config;
}
/// <summary>
/// Basic constructor, accepts the configuration and prepares the
/// container for the programs.
/// </summary>
/// <param name="Config"></param>
public GPPopulation(GPModelerServer Config)
{
m_Config = Config;
m_Programs = new List <GPProgram>();
}
/// <summary>
/// Standard constructor, accepts the GP configuration along with how
/// many user input parameters are specified.
/// </summary>
/// <param name="ModelerConfig"></param>
/// <param name="InputDimension"></param>
public GPPopulationFactory(GPModelerServer ModelerConfig, int InputDimension)
{
m_ModelerConfig = ModelerConfig;
m_InputDimension = InputDimension;
}
public GPProgramBranchFactoryADL(GPProgramBranchADL ADL, GPModelerServer Config)
: base(ADL, Config)
{
m_BranchADL = ADL;
}