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• EnergySourceOrBuilder.java

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com.zepben.protobuf.cim.iec61970.base.wires.EnergySourceOrBuilder Maven / Gradle / Ivy

// Generated by the protocol buffer compiler.  DO NOT EDIT!
// source: zepben/protobuf/cim/iec61970/base/wires/EnergySource.proto

package com.zepben.protobuf.cim.iec61970.base.wires;

public interface EnergySourceOrBuilder extends
    // @@protoc_insertion_point(interface_extends:zepben.protobuf.cim.iec61970.base.wires.EnergySource)
    com.google.protobuf.MessageOrBuilder {

  /**
   * 
   **
   * ConductingEquipment fields for this EnergySource.
   * 
   *
   * .zepben.protobuf.cim.iec61970.base.wires.EnergyConnection ec = 1;
   * @return Whether the ec field is set.
   */
  boolean hasEc();
  /**
   * 
   **
   * ConductingEquipment fields for this EnergySource.
   * 
   *
   * .zepben.protobuf.cim.iec61970.base.wires.EnergyConnection ec = 1;
   * @return The ec.
   */
  com.zepben.protobuf.cim.iec61970.base.wires.EnergyConnection getEc();
  /**
   * 
   **
   * ConductingEquipment fields for this EnergySource.
   * 
   *
   * .zepben.protobuf.cim.iec61970.base.wires.EnergyConnection ec = 1;
   */
  com.zepben.protobuf.cim.iec61970.base.wires.EnergyConnectionOrBuilder getEcOrBuilder();

  /**
   * 
   **
   * The individual phase information of the energy source.
   * 
   *
   * repeated string energySourcePhasesMRIDs = 2;
   * @return A list containing the energySourcePhasesMRIDs.
   */
  java.util.List
      getEnergySourcePhasesMRIDsList();
  /**
   * 
   **
   * The individual phase information of the energy source.
   * 
   *
   * repeated string energySourcePhasesMRIDs = 2;
   * @return The count of energySourcePhasesMRIDs.
   */
  int getEnergySourcePhasesMRIDsCount();
  /**
   * 
   **
   * The individual phase information of the energy source.
   * 
   *
   * repeated string energySourcePhasesMRIDs = 2;
   * @param index The index of the element to return.
   * @return The energySourcePhasesMRIDs at the given index.
   */
  java.lang.String getEnergySourcePhasesMRIDs(int index);
  /**
   * 
   **
   * The individual phase information of the energy source.
   * 
   *
   * repeated string energySourcePhasesMRIDs = 2;
   * @param index The index of the value to return.
   * @return The bytes of the energySourcePhasesMRIDs at the given index.
   */
  com.google.protobuf.ByteString
      getEnergySourcePhasesMRIDsBytes(int index);

  /**
   * 
   **
   * High voltage source active injection. Load sign convention is used, i.e. positive sign means flow out from a node.
   * Starting value for steady state solutions.
   * 
   *
   * double activePower = 3;
   * @return The activePower.
   */
  double getActivePower();

  /**
   * 
   **
   * High voltage source reactive injection. Load sign convention is used, i.e. positive sign means flow out from a node.
   * Starting value for steady state solutions.
   * 
   *
   * double reactivePower = 4;
   * @return The reactivePower.
   */
  double getReactivePower();

  /**
   * 
   **
   * Phase angle of a-phase open circuit used when voltage characteristics need to be imposed at the node associated with
   * the terminal of the energy source, such as when voltages and angles from the transmission level are used as input to
   * the distribution network. The attribute shall be a positive value or zero.
   * 
   *
   * double voltageAngle = 5;
   * @return The voltageAngle.
   */
  double getVoltageAngle();

  /**
   * 
   **
   * Phase-to-phase open circuit voltage magnitude used when voltage characteristics need to be imposed at the node
   * associated with the terminal of the energy source, such as when voltages and angles from the transmission level
   * are used as input to the distribution network. The attribute shall be a positive value or zero.
   * 
   *
   * double voltageMagnitude = 6;
   * @return The voltageMagnitude.
   */
  double getVoltageMagnitude();

  /**
   * 
   **
   * Positive sequence Thevenin resistance.
   * 
   *
   * double r = 7;
   * @return The r.
   */
  double getR();

  /**
   * 
   **
   * Positive sequence Thevenin reactance.
   * 
   *
   * double x = 8;
   * @return The x.
   */
  double getX();

  /**
   * 
   **
   * This is the maximum active power that can be produced by the source. Load sign convention is used,
   * i.e. positive sign means flow out from a TopologicalNode (bus) into the conducting equipment.
   * 
   *
   * double pMax = 9;
   * @return The pMax.
   */
  double getPMax();

  /**
   * 
   **
   * This is the minimum active power that can be produced by the source. Load sign convention is used,
   * i.e. positive sign means flow out from a TopologicalNode (bus) into the conducting equipment.
   * 
   *
   * double pMin = 10;
   * @return The pMin.
   */
  double getPMin();

  /**
   * 
   **
   * Zero sequence Thevenin resistance.
   * 
   *
   * double r0 = 11;
   * @return The r0.
   */
  double getR0();

  /**
   * 
   **
   * Negative sequence Thevenin resistance.
   * 
   *
   * double rn = 12;
   * @return The rn.
   */
  double getRn();

  /**
   * 
   **
   * Zero sequence Thevenin reactance.
   * 
   *
   * double x0 = 13;
   * @return The x0.
   */
  double getX0();

  /**
   * 
   **
   * Negative sequence Thevenin reactance.
   * 
   *
   * double xn = 14;
   * @return The xn.
   */
  double getXn();

  /**
   * 
   **
   * True if this energy source represents the higher-level power grid connection to an external grid
   * that normally is modelled as the slack bus for power flow calculations.
   * 
   *
   * bool isExternalGrid = 15;
   * @return The isExternalGrid.
   */
  boolean getIsExternalGrid();

  /**
   * 
   **
   * Minimum positive sequence Thevenin resistance.
   * 
   *
   * double rMin = 16;
   * @return The rMin.
   */
  double getRMin();

  /**
   * 
   **
   * Minimum negative sequence Thevenin resistance
   * 
   *
   * double rnMin = 17;
   * @return The rnMin.
   */
  double getRnMin();

  /**
   * 
   **
   * Minimum zero sequence Thevenin resistance.
   * 
   *
   * double r0Min = 18;
   * @return The r0Min.
   */
  double getR0Min();

  /**
   * 
   **
   * Minimum positive sequence Thevenin reactance.
   * 
   *
   * double xMin = 19;
   * @return The xMin.
   */
  double getXMin();

  /**
   * 
   **
   * Minimum negative sequence Thevenin reactance.
   * 
   *
   * double xnMin = 20;
   * @return The xnMin.
   */
  double getXnMin();

  /**
   * 
   **
   * Minimum zero sequence Thevenin reactance.
   * 
   *
   * double x0Min = 21;
   * @return The x0Min.
   */
  double getX0Min();

  /**
   * 
   **
   * Maximum positive sequence Thevenin resistance.
   * 
   *
   * double rMax = 22;
   * @return The rMax.
   */
  double getRMax();

  /**
   * 
   **
   * Maximum negative sequence Thevenin resistance.
   * 
   *
   * double rnMax = 23;
   * @return The rnMax.
   */
  double getRnMax();

  /**
   * 
   **
   * Maximum zero sequence Thevenin resistance.
   * 
   *
   * double r0Max = 24;
   * @return The r0Max.
   */
  double getR0Max();

  /**
   * 
   **
   * Maximum positive sequence Thevenin reactance.
   * 
   *
   * double xMax = 25;
   * @return The xMax.
   */
  double getXMax();

  /**
   * 
   **
   * Maximum negative sequence Thevenin resistance.
   * 
   *
   * double xnMax = 26;
   * @return The xnMax.
   */
  double getXnMax();

  /**
   * 
   **
   * Maximum zero sequence Thevenin reactance.
   * 
   *
   * double x0Max = 27;
   * @return The x0Max.
   */
  double getX0Max();
}