public void AcquireCtrlDecisionsList()
{
m_ctrlDecisionList = new List <CtrlAction>();
m_remedialVSA = new List <VoltageSecurityAssessor>();
for (int i = 0; i < Math.Pow(2, m_numOfCapBanks); i++)
{
VoltageSecurityAssessor vsa = new VoltageSecurityAssessor()
{
BaseVoltage = m_baseVoltage,
//InputFrame = m_inputFrame,
TreeIndex = i,
TreeFilePath = Path.Combine(m_trainedTreeFolder, $"DecisionTreeModel_ControlForLowVoltage_{i}_train"),
VoltMeasMagFrame = m_voltMeasMagFrame
};
vsa.Assess();
if ((vsa.AssessResult == "SECURE") && (vsa.TreeIndex != m_capBankCombinationIndex))
{
CtrlAction ctrlact = new CtrlAction()
{
Index = vsa.TreeIndex,
CtrlTreeName = $"DecisionTreeModel_ControlForLowVoltage_{i}_train",
CurrentCapBankCombinationArray = m_capBankCombinationArray,
CtrlCapBankCominationArray = ConvertCapBankCombinationIndexToArray(vsa.TreeIndex, m_numOfCapBanks)
};
ctrlact.Initialize();
m_ctrlDecisionList.Add(ctrlact);
}
m_remedialVSA.Add(vsa);
}
}
public void AssessVoltageSecurity()
{
m_preventiveVSA = new VoltageSecurityAssessor()
{
BaseVoltage = m_baseVoltage,
//InputFrame = m_inputFrame,
TreeIndex = m_capBankCombinationIndex,
TreeFilePath = Path.Combine(m_trainedTreeFolder, m_trainedTreeName),
VoltMeasMagFrame = m_voltMeasMagFrame
};
m_preventiveVSA.Assess();
m_currentSecurityStatus = m_preventiveVSA.AssessResult;
}