public static void ChangeArterialVolume(ref ArterialData Arterial, float analysisDirectionDemandVol = 800)
{
float minorStreetVolumeRatio = 0.75f;
float leftTurningPctInt = 0.12f;
float rightTurningPctInt = 0.12f;
float[] demandVolumesLeft = { analysisDirectionDemandVol *leftTurningPctInt, analysisDirectionDemandVol *leftTurningPctInt, minorStreetVolumeRatio *analysisDirectionDemandVol *leftTurningPctInt, minorStreetVolumeRatio *analysisDirectionDemandVol *leftTurningPctInt };
float[] demandVolumesThru = { analysisDirectionDemandVol *(1 - (leftTurningPctInt + rightTurningPctInt)), analysisDirectionDemandVol *(1 - (leftTurningPctInt + rightTurningPctInt)), minorStreetVolumeRatio *analysisDirectionDemandVol *(1 - (leftTurningPctInt + rightTurningPctInt)), minorStreetVolumeRatio *analysisDirectionDemandVol *(1 - (leftTurningPctInt + rightTurningPctInt)) };
float[] demandVolumesRight = { analysisDirectionDemandVol *rightTurningPctInt, analysisDirectionDemandVol *rightTurningPctInt, minorStreetVolumeRatio *analysisDirectionDemandVol *rightTurningPctInt, minorStreetVolumeRatio *analysisDirectionDemandVol *rightTurningPctInt };
foreach (SegmentData Segment in Arterial.Segments)
{
foreach (ApproachData Approach in Segment.Intersection.Approaches)
{
int travelDirectionIndex = (int)Approach.Dir;
float totalDemand = demandVolumesLeft[travelDirectionIndex] + demandVolumesThru[travelDirectionIndex] + demandVolumesRight[travelDirectionIndex];
Approach.DemandVolume = totalDemand;
Approach.PctLeftTurns = (demandVolumesLeft[travelDirectionIndex] / totalDemand) * 100;
Approach.PctRightTurns = (demandVolumesRight[travelDirectionIndex] / totalDemand) * 100;
foreach (LaneGroupData LaneGroup in Approach.LaneGroups)
{
if (LaneGroup.Type == LaneMovementsAllowed.LeftOnly)
{
LaneGroup.DischargeVolume = demandVolumesLeft[travelDirectionIndex];
LaneGroup.DemandVolumeVehPerHr = demandVolumesLeft[travelDirectionIndex];
LaneGroup.DemandVolumeVehPerHrSplit[0] = LaneGroup.DemandVolumeVehPerHr;
}
if (LaneGroup.Type == LaneMovementsAllowed.ThruRightShared)
{
LaneGroup.DischargeVolume = demandVolumesThru[travelDirectionIndex] + demandVolumesRight[travelDirectionIndex];
LaneGroup.DemandVolumeVehPerHr = demandVolumesThru[travelDirectionIndex] + demandVolumesRight[travelDirectionIndex];
LaneGroup.PctRightTurns = demandVolumesRight[travelDirectionIndex] / (demandVolumesThru[travelDirectionIndex] + demandVolumesRight[travelDirectionIndex]) * 100;
LaneGroup.DemandVolumeVehPerHrSplit[1] = demandVolumesThru[travelDirectionIndex];
LaneGroup.DemandVolumeVehPerHrSplit[2] = demandVolumesRight[travelDirectionIndex];
}
LaneGroup.AnalysisFlowRate = LaneGroup.CalcAnalysisFlowRate(LaneGroup.DemandVolumeVehPerHr, LaneGroup.PeakHourFactor);
}
}
}
}
public static void ChangeArterialVolume(ref ArterialData Arterial, float analysisDirectionDemandVol = 800)
{
float minorStreetVolumeRatio = 0.75f;
float midSegVolumeRatio = 0.5f;
float midSegAnalysisDirVolumeRatio = 0.1276f;
float leftTurningPctInt = 0.1f; // 0.125f
float rightTurningPctInt = 0.1f; // 0.125f
float leftTurningPctAP = 1f / 20f; // 0.125f
float rightTurningPctAP = 1f / 20f; // 0.125f
float[] demandVolumesLeft = { analysisDirectionDemandVol *leftTurningPctInt, analysisDirectionDemandVol *leftTurningPctInt, minorStreetVolumeRatio *analysisDirectionDemandVol *leftTurningPctInt, minorStreetVolumeRatio *analysisDirectionDemandVol *leftTurningPctInt };
float[] demandVolumesThru = { analysisDirectionDemandVol *(1 - (leftTurningPctInt + rightTurningPctInt)), analysisDirectionDemandVol *(1 - (leftTurningPctInt + rightTurningPctInt)), minorStreetVolumeRatio *analysisDirectionDemandVol *(1 - (leftTurningPctInt + rightTurningPctInt)), minorStreetVolumeRatio *analysisDirectionDemandVol *(1 - (leftTurningPctInt + rightTurningPctInt)) };
float[] demandVolumesRight = { analysisDirectionDemandVol *rightTurningPctInt, analysisDirectionDemandVol *rightTurningPctInt, minorStreetVolumeRatio *analysisDirectionDemandVol *rightTurningPctInt, minorStreetVolumeRatio *analysisDirectionDemandVol *rightTurningPctInt };
float EBApproachAccessPoint = demandVolumesThru[0] + demandVolumesRight[2] + demandVolumesLeft[3];
float WBApproachAccessPoint = demandVolumesThru[1] + demandVolumesRight[3] + demandVolumesLeft[2]; // The + 20 needs to be investigated
float[] demandVolumesAP1EB = { leftTurningPctAP *EBApproachAccessPoint, (1 - (leftTurningPctAP + rightTurningPctAP)) * EBApproachAccessPoint, rightTurningPctAP *EBApproachAccessPoint }; // EBT + NBR + SBL EWNS
float[] demandVolumesAP1WB = { leftTurningPctAP *WBApproachAccessPoint, (1 - (leftTurningPctAP + rightTurningPctAP)) * WBApproachAccessPoint, rightTurningPctAP *WBApproachAccessPoint }; // WBT + NBL + SBR
float[] demandVolumesAP1NB = { midSegVolumeRatio *midSegAnalysisDirVolumeRatio *WBApproachAccessPoint, 0, (1 - midSegVolumeRatio) * midSegAnalysisDirVolumeRatio * EBApproachAccessPoint };
float[] demandVolumesAP1SB = { (1 - midSegVolumeRatio) * midSegAnalysisDirVolumeRatio * EBApproachAccessPoint, 0, midSegVolumeRatio *midSegAnalysisDirVolumeRatio *WBApproachAccessPoint };
EBApproachAccessPoint = demandVolumesAP1EB[1] + demandVolumesAP1NB[2] + demandVolumesAP1SB[0]; // The + 20 needs to be investigated
WBApproachAccessPoint = demandVolumesThru[1] + demandVolumesRight[3] + demandVolumesLeft[2];
float[] demandVolumesAP2EB = { leftTurningPctAP *EBApproachAccessPoint, (1 - (leftTurningPctAP + rightTurningPctAP)) * EBApproachAccessPoint, rightTurningPctAP *EBApproachAccessPoint }; // EBT + NBR + SBL EWNS
float[] demandVolumesAP2WB = { leftTurningPctAP *WBApproachAccessPoint, (1 - (leftTurningPctAP + rightTurningPctAP)) * WBApproachAccessPoint, rightTurningPctAP *WBApproachAccessPoint }; // WBT + NBL + SBR
float[] demandVolumesAP2NB = { midSegVolumeRatio *midSegAnalysisDirVolumeRatio *WBApproachAccessPoint, 0, (1 - midSegVolumeRatio) * midSegAnalysisDirVolumeRatio * EBApproachAccessPoint };
float[] demandVolumesAP2SB = { (1 - midSegVolumeRatio) * midSegAnalysisDirVolumeRatio * EBApproachAccessPoint, 0, midSegVolumeRatio *midSegAnalysisDirVolumeRatio *WBApproachAccessPoint };
float[] demandVolumesAP1 = { demandVolumesAP1EB[0], demandVolumesAP1EB[1], demandVolumesAP1EB[2],
demandVolumesAP1WB[0], demandVolumesAP1WB[1], demandVolumesAP1WB[2],
demandVolumesAP1NB[0], demandVolumesAP1NB[1], demandVolumesAP1NB[2],
demandVolumesAP1SB[0], demandVolumesAP1SB[1], demandVolumesAP1SB[2], };
float[] demandVolumesAP2 = { demandVolumesAP2EB[0], demandVolumesAP2EB[1], demandVolumesAP2EB[2],
demandVolumesAP2WB[0], demandVolumesAP2WB[1], demandVolumesAP2WB[2],
demandVolumesAP2NB[0], demandVolumesAP2NB[1], demandVolumesAP2NB[2],
demandVolumesAP2SB[0], demandVolumesAP2SB[1], demandVolumesAP2SB[2], };
foreach (SegmentData Segment in Arterial.Segments)
{
Segment.Link.AccessPoints[0].Volume = demandVolumesAP1;
Segment.Link.AccessPoints[1].Volume = demandVolumesAP2;
foreach (ApproachData Approach in Segment.Intersection.Approaches)
{
int travelDirectionIndex = (int)Approach.Dir;
float totalDemand = demandVolumesLeft[travelDirectionIndex] + demandVolumesThru[travelDirectionIndex] + demandVolumesRight[travelDirectionIndex];
Approach.DemandVolume = totalDemand;
Approach.PctLeftTurns = (demandVolumesLeft[travelDirectionIndex] / totalDemand) * 100;
Approach.PctRightTurns = (demandVolumesRight[travelDirectionIndex] / totalDemand) * 100;
foreach (LaneGroupData LaneGroup in Approach.LaneGroups)
{
if (LaneGroup.Type == LaneMovementsAllowed.LeftOnly)
{
LaneGroup.DischargeVolume = demandVolumesLeft[travelDirectionIndex];
LaneGroup.DemandVolumeVehPerHr = demandVolumesLeft[travelDirectionIndex];
}
if (LaneGroup.Type == LaneMovementsAllowed.ThruRightShared)
{
LaneGroup.DischargeVolume = demandVolumesThru[travelDirectionIndex] + demandVolumesRight[travelDirectionIndex];
LaneGroup.DemandVolumeVehPerHr = demandVolumesThru[travelDirectionIndex] + demandVolumesRight[travelDirectionIndex];
LaneGroup.PctRightTurns = demandVolumesRight[travelDirectionIndex] / (demandVolumesThru[travelDirectionIndex] + demandVolumesRight[travelDirectionIndex]) * 100;
}
LaneGroup.AnalysisFlowRate = LaneGroup.CalcAnalysisFlowRate(LaneGroup.DemandVolumeVehPerHr, LaneGroup.PeakHourFactor);
}
}
}
}
