class battery { enumeration {POWER_VOLTAGE_HYBRID=7, VOLTAGE_CONTROLLED=6, POWER_DRIVEN=5, SUPPLY_DRIVEN=4, CONSTANT_PF=3, CONSTANT_PQ=2, CONSTANT_V=1, UNKNOWN=0} generator_mode; enumeration {LINEAR_TEMPERATURE=1, NONE=0} additional_controls; enumeration {ONLINE=2, OFFLINE=1} generator_status; enumeration {LARGE=4, MED_HIGH_ENERGY=3, MED_COMMERCIAL=2, SMALL=1, HOUSEHOLD=5} rfb_size; enumeration {DC=1, AC=2} power_type; enumeration {CONFLICTED=5, EMPTY=4, FULL=3, WAITING=0, DISCHARGING=2, CHARGING=1} battery_state; double number_battery_state_changes; double monitored_power[W]; double power_set_high[W]; double power_set_low[W]; double power_set_high_highT[W]; double power_set_low_highT[W]; double check_power_low[W]; double check_power_high[W]; double voltage_set_high[V]; double voltage_set_low[V]; double deadband[V]; double sensitivity; double high_temperature; double midpoint_temperature; double low_temperature; double scheduled_power[W]; double Rinternal[Ohm]; double V_Max[V]; complex I_Max[A]; double E_Max[Wh]; double P_Max[W]; double power_factor; double Energy[Wh]; double efficiency[unit]; double base_efficiency[unit]; double parasitic_power_draw[W]; double Rated_kVA[kVA]; complex V_Out[V]; complex I_Out[A]; complex VA_Out[VA]; complex V_In[V]; complex I_In[A]; complex V_Internal[V]; complex I_Internal[A]; complex I_Prev[A]; double power_transferred; bool use_internal_battery_model; enumeration {LEAD_ACID=2, LI_ION=1, UNKNOWON=0} battery_type; double nominal_voltage[V]; double rated_power[W]; double battery_capacity[Wh]; double round_trip_efficiency[pu]; double state_of_charge[pu]; double battery_load[W]; double reserve_state_of_charge[pu]; } class central_dg_control { char32 controlled_dgs; // the group ID of the dg objects the controller controls. object feederhead_meter; // the name of the meter. enumeration {PEAK_SHAVING=2, CONSTANT_PF=1, NO_CONTROL=0} control_mode_0; enumeration {PEAK_SHAVING=2, CONSTANT_PF=1, NO_CONTROL=0} control_mode_1; enumeration {PEAK_SHAVING=2, CONSTANT_PF=1, NO_CONTROL=0} control_mode_2; enumeration {PEAK_SHAVING=2, CONSTANT_PF=1, NO_CONTROL=0} control_mode_3; double peak_S[W]; double pf_low[unit]; double pf_high[unit]; } class dc_dc_converter { enumeration {BUCK_BOOST=2, BOOST=1, BUCK=0} dc_dc_converter_type; enumeration {SUPPLY_DRIVEN=5, CONSTANT_PF=4, CONSTANT_PQ=2, CONSTANT_V=1, UNKNOWN=0} generator_mode; complex V_Out[V]; complex I_Out[A]; complex Vdc[V]; complex VA_Out[VA]; double P_Out; double Q_Out; double service_ratio; complex V_In[V]; complex I_In[A]; complex VA_In[VA]; set {S=112, N=8, C=4, B=2, A=1} phases; } class diesel_dg { function interupdate_gen_object(); function postupdate_gen_object(); enumeration {CONSTANTP=2, CONSTANTPQ=3, CONSTANTE=1, UNKNOWN=0} Gen_mode; enumeration {ONLINE=2, OFFLINE=1, UNKNOWN=0} Gen_status; enumeration {DYN_SYNCHRONOUS=3, SYNCHRONOUS=2, INDUCTION=1} Gen_type; // Dynamics-capable implementation of synchronous diesel generator double pf; // desired power factor double GenElecEff; // calculated electrical efficiency of generator complex TotalOutputPow[VA]; // total complex power generated double TotalRealPow[W]; // total real power generated double TotalReacPow[VAr]; // total reactive power generated double speed[1/min]; // speed of an engine double cylinders; // Total number of cylinders in a diesel engine double stroke; // category of internal combustion engines double torque[N]; // Net brake load double pressure[N/m^2]; // double time_operation[min]; // double fuel[kg]; // fuel consumption double w_coolingwater[kg]; // weight of cooling water supplied per minute double inlet_temperature[degC]; // Inlet temperature of cooling water in degC double outlet_temperature[degC]; // outlet temperature of cooling water in degC double air_fuel[kg]; // Air used per kg fuel double room_temperature[degC]; // Room temperature in degC double exhaust_temperature[degC]; // exhaust gas temperature in degC double cylinder_length[m]; // length of the cylinder, used in efficiency calculations double cylinder_radius[m]; // inner radius of cylinder, used in efficiency calculations double brake_diameter[m]; // diameter of brake, used in efficiency calculations double calotific_fuel[kJ/kg]; // calorific value of fuel double steam_exhaust[kg]; // steam formed per kg of fuel in the exhaust double specific_heat_steam[kJ/kg/K]; // specific heat of steam in exhaust double specific_heat_dry[kJ/kg/K]; // specific heat of dry exhaust gases double indicated_hp[W]; // Indicated horse power is the power developed inside the cylinder double brake_hp[W]; // brake horse power is the output of the engine at the shaft measured by a dynamometer double thermal_efficiency; // thermal efficiency or mechanical efiiciency of the engine is efined as bp/ip double energy_supplied[kJ]; // energy supplied during the trail double heat_equivalent_ip[kJ]; // heat equivalent of IP in a given time of operation double energy_coolingwater[kJ]; // energy carried away by cooling water double mass_exhaustgas[kg]; // mass of dry exhaust gas double energy_exhaustgas[kJ]; // energy carried away by dry exhaust gases double energy_steam[kJ]; // energy carried away by steam double total_energy_exhaustgas[kJ]; // total energy carried away by dry exhaust gases is the sum of energy carried away bt steam and energy carried away by dry exhaust gases double unaccounted_energyloss[kJ]; // unaccounted for energy loss double Pconv[kW]; // Converted power = Mechanical input - (F & W loasses + Stray losses + Core losses) double Rated_V[V]; // nominal line-line voltage in Volts double Rated_VA[VA]; // nominal capacity in VA complex power_out_A[VA]; // Output power of phase A complex power_out_B[VA]; // Output power of phase B complex power_out_C[VA]; // Output power of phase C double Rs; // internal transient resistance in p.u. double Xs; // internal transient impedance in p.u. double Rg; // grounding resistance in p.u. double Xg; // grounding impedance in p.u. complex voltage_A[V]; // voltage at generator terminal, phase A complex voltage_B[V]; // voltage at generator terminal, phase B complex voltage_C[V]; // voltage at generator terminal, phase C complex current_A[A]; // current generated at generator terminal, phase A complex current_B[A]; // current generated at generator terminal, phase B complex current_C[A]; // current generated at generator terminal, phase C complex EfA[V]; // induced voltage on phase A complex EfB[V]; // induced voltage on phase B complex EfC[V]; // induced voltage on phase C double omega_ref[rad/s]; // Reference frequency of generator (rad/s) double inertia; // Inertial constant (H) of generator double damping; // Damping constant (D) of generator double number_poles; // Number of poles in the generator double Ra[pu]; // Stator resistance (p.u.) double Xd[pu]; // d-axis reactance (p.u.) double Xq[pu]; // q-axis reactance (p.u.) double Xdp[pu]; // d-axis transient reactance (p.u.) double Xqp[pu]; // q-axis transient reactance (p.u.) double Xdpp[pu]; // d-axis subtransient reactance (p.u.) double Xqpp[pu]; // q-axis subtransient reactance (p.u.) double Xl[pu]; // Leakage reactance (p.u.) double Tdp[s]; // d-axis short circuit time constant (s) double Tdop[s]; // d-axis open circuit time constant (s) double Tqop[s]; // q-axis open circuit time constant (s) double Tdopp[s]; // d-axis open circuit subtransient time constant (s) double Tqopp[s]; // q-axis open circuit subtransient time constant (s) double Ta[s]; // Armature short-circuit time constant (s) complex X0[pu]; // Zero sequence impedance (p.u.) complex X2[pu]; // Negative sequence impedance (p.u.) double rotor_speed_convergence[rad]; // Convergence criterion on rotor speed used to determine when to exit deltamode double rotor_angle[rad]; // rotor angle state variable double rotor_speed[rad/s]; // machine speed state variable double field_voltage[pu]; // machine field voltage state variable double flux1d[pu]; // machine transient flux on d-axis state variable double flux2q[pu]; // machine subtransient flux on q-axis state variable complex EpRotated[pu]; // d-q rotated E-prime internal voltage state variable complex VintRotated[pu]; // d-q rotated Vint voltage state variable complex Eint_A[V]; // Unrotated, unsequenced phase A internal voltage complex Eint_B[V]; // Unrotated, unsequenced phase B internal voltage complex Eint_C[V]; // Unrotated, unsequenced phase C internal voltage complex Irotated[pu]; // d-q rotated sequence current state variable complex pwr_electric[VA]; // Current electrical output of machine double pwr_mech[W]; // Current mechanical output of machine double torque_mech[N*m]; // Current mechanical torque of machine double torque_elec[N*m]; // Current electrical torque output of machine enumeration {SEXS=2, NO_EXC=1} Exciter_type; // Simplified Excitation System double KA[pu]; // Exciter gain (p.u.) double TA[s]; // Exciter time constant (seconds) double TB[s]; // Exciter transient gain reduction time constant (seconds) double TC[s]; // Exciter transient gain reduction time constant (seconds) double EMAX[pu]; // Exciter upper limit (p.u.) double EMIN[pu]; // Exciter lower limit (p.u.) double Vterm_max[pu]; // Upper voltage limit for super-second (p.u.) double Vterm_min[pu]; // Lower voltage limit for super-second (p.u.) double vset[pu]; // Exciter voltage set point state variable double bias; // Exciter bias state variable double xe; // Exciter state variable double xb; // Exciter state variable enumeration {GAST=3, DEGOV1=2, NO_GOV=1} Governor_type; // GAST Gas Turbine Governor double DEGOV1_R[pu]; // Governor droop constant (p.u.) double DEGOV1_T1[s]; // Governor electric control box time constant (s) double DEGOV1_T2[s]; // Governor electric control box time constant (s) double DEGOV1_T3[s]; // Governor electric control box time constant (s) double DEGOV1_T4[s]; // Governor actuator time constant (s) double DEGOV1_T5[s]; // Governor actuator time constant (s) double DEGOV1_T6[s]; // Governor actuator time constant (s) double DEGOV1_K[pu]; // Governor actuator gain double DEGOV1_TMAX[pu]; // Governor actuator upper limit (p.u.) double DEGOV1_TMIN[pu]; // Governor actuator lower limit (p.u.) double DEGOV1_TD[s]; // Governor combustion delay (s) double DEGOV1_wref[pu]; // Governor reference frequency state variable double DEGOV1_x1; // Governor electric box state variable double DEGOV1_x2; // Governor electric box state variable double DEGOV1_x4; // Governor electric box state variable double DEGOV1_x5; // Governor electric box state variable double DEGOV1_x6; // Governor electric box state variable double DEGOV1_throttle; // Governor electric box state variable double GAST_R[pu]; // Governor droop constant (p.u.) double GAST_T1[s]; // Governor electric control box time constant (s) double GAST_T2[s]; // Governor electric control box time constant (s) double GAST_T3[s]; // Governor temperature limiter time constant (s) double GAST_AT[s]; // Governor Ambient Temperature load limit (units) double GAST_KT[pu]; // Governor temperature control loop gain double GAST_VMAX[pu]; // Governor actuator upper limit (p.u.) double GAST_VMIN[pu]; // Governor actuator lower limit (p.u.) double GAST_x1; // Governor electric box state variable double GAST_x2; // Governor electric box state variable double GAST_x3; // Governor electric box state variable double GAST_throttle; // Governor electric box state variable set {S=112, N=8, C=4, B=2, A=1} phases; // Specifies which phases to connect to - currently not supported and assumes three-phase connection } class diesel_dg { function interupdate_gen_object(); function postupdate_gen_object(); enumeration {CONSTANTP=2, CONSTANTPQ=3, CONSTANTE=1, UNKNOWN=0} Gen_mode; enumeration {ONLINE=2, OFFLINE=1, UNKNOWN=0} Gen_status; enumeration {DYN_SYNCHRONOUS=3, SYNCHRONOUS=2, INDUCTION=1} Gen_type; // Dynamics-capable implementation of synchronous diesel generator double pf; // desired power factor double GenElecEff; // calculated electrical efficiency of generator complex TotalOutputPow[VA]; // total complex power generated double TotalRealPow[W]; // total real power generated double TotalReacPow[VAr]; // total reactive power generated double speed[1/min]; // speed of an engine double cylinders; // Total number of cylinders in a diesel engine double stroke; // category of internal combustion engines double torque[N]; // Net brake load double pressure[N/m^2]; // double time_operation[min]; // double fuel[kg]; // fuel consumption double w_coolingwater[kg]; // weight of cooling water supplied per minute double inlet_temperature[degC]; // Inlet temperature of cooling water in degC double outlet_temperature[degC]; // outlet temperature of cooling water in degC double air_fuel[kg]; // Air used per kg fuel double room_temperature[degC]; // Room temperature in degC double exhaust_temperature[degC]; // exhaust gas temperature in degC double cylinder_length[m]; // length of the cylinder, used in efficiency calculations double cylinder_radius[m]; // inner radius of cylinder, used in efficiency calculations double brake_diameter[m]; // diameter of brake, used in efficiency calculations double calotific_fuel[kJ/kg]; // calorific value of fuel double steam_exhaust[kg]; // steam formed per kg of fuel in the exhaust double specific_heat_steam[kJ/kg/K]; // specific heat of steam in exhaust double specific_heat_dry[kJ/kg/K]; // specific heat of dry exhaust gases double indicated_hp[W]; // Indicated horse power is the power developed inside the cylinder double brake_hp[W]; // brake horse power is the output of the engine at the shaft measured by a dynamometer double thermal_efficiency; // thermal efficiency or mechanical efiiciency of the engine is efined as bp/ip double energy_supplied[kJ]; // energy supplied during the trail double heat_equivalent_ip[kJ]; // heat equivalent of IP in a given time of operation double energy_coolingwater[kJ]; // energy carried away by cooling water double mass_exhaustgas[kg]; // mass of dry exhaust gas double energy_exhaustgas[kJ]; // energy carried away by dry exhaust gases double energy_steam[kJ]; // energy carried away by steam double total_energy_exhaustgas[kJ]; // total energy carried away by dry exhaust gases is the sum of energy carried away bt steam and energy carried away by dry exhaust gases double unaccounted_energyloss[kJ]; // unaccounted for energy loss double Pconv[kW]; // Converted power = Mechanical input - (F & W loasses + Stray losses + Core losses) double Rated_V[V]; // nominal line-line voltage in Volts double Rated_VA[VA]; // nominal capacity in VA complex power_out_A[VA]; // Output power of phase A complex power_out_B[VA]; // Output power of phase B complex power_out_C[VA]; // Output power of phase C double Rs; // internal transient resistance in p.u. double Xs; // internal transient impedance in p.u. double Rg; // grounding resistance in p.u. double Xg; // grounding impedance in p.u. complex voltage_A[V]; // voltage at generator terminal, phase A complex voltage_B[V]; // voltage at generator terminal, phase B complex voltage_C[V]; // voltage at generator terminal, phase C complex current_A[A]; // current generated at generator terminal, phase A complex current_B[A]; // current generated at generator terminal, phase B complex current_C[A]; // current generated at generator terminal, phase C complex EfA[V]; // induced voltage on phase A complex EfB[V]; // induced voltage on phase B complex EfC[V]; // induced voltage on phase C double omega_ref[rad/s]; // Reference frequency of generator (rad/s) double inertia; // Inertial constant (H) of generator double damping; // Damping constant (D) of generator double number_poles; // Number of poles in the generator double Ra[pu]; // Stator resistance (p.u.) double Xd[pu]; // d-axis reactance (p.u.) double Xq[pu]; // q-axis reactance (p.u.) double Xdp[pu]; // d-axis transient reactance (p.u.) double Xqp[pu]; // q-axis transient reactance (p.u.) double Xdpp[pu]; // d-axis subtransient reactance (p.u.) double Xqpp[pu]; // q-axis subtransient reactance (p.u.) double Xl[pu]; // Leakage reactance (p.u.) double Tdp[s]; // d-axis short circuit time constant (s) double Tdop[s]; // d-axis open circuit time constant (s) double Tqop[s]; // q-axis open circuit time constant (s) double Tdopp[s]; // d-axis open circuit subtransient time constant (s) double Tqopp[s]; // q-axis open circuit subtransient time constant (s) double Ta[s]; // Armature short-circuit time constant (s) complex X0[pu]; // Zero sequence impedance (p.u.) complex X2[pu]; // Negative sequence impedance (p.u.) double rotor_speed_convergence[rad]; // Convergence criterion on rotor speed used to determine when to exit deltamode double rotor_angle[rad]; // rotor angle state variable double rotor_speed[rad/s]; // machine speed state variable double field_voltage[pu]; // machine field voltage state variable double flux1d[pu]; // machine transient flux on d-axis state variable double flux2q[pu]; // machine subtransient flux on q-axis state variable complex EpRotated[pu]; // d-q rotated E-prime internal voltage state variable complex VintRotated[pu]; // d-q rotated Vint voltage state variable complex Eint_A[V]; // Unrotated, unsequenced phase A internal voltage complex Eint_B[V]; // Unrotated, unsequenced phase B internal voltage complex Eint_C[V]; // Unrotated, unsequenced phase C internal voltage complex Irotated[pu]; // d-q rotated sequence current state variable complex pwr_electric[VA]; // Current electrical output of machine double pwr_mech[W]; // Current mechanical output of machine double torque_mech[N*m]; // Current mechanical torque of machine double torque_elec[N*m]; // Current electrical torque output of machine enumeration {SEXS=2, NO_EXC=1} Exciter_type; // Simplified Excitation System double KA[pu]; // Exciter gain (p.u.) double TA[s]; // Exciter time constant (seconds) double TB[s]; // Exciter transient gain reduction time constant (seconds) double TC[s]; // Exciter transient gain reduction time constant (seconds) double EMAX[pu]; // Exciter upper limit (p.u.) double EMIN[pu]; // Exciter lower limit (p.u.) double Vterm_max[pu]; // Upper voltage limit for super-second (p.u.) double Vterm_min[pu]; // Lower voltage limit for super-second (p.u.) double vset[pu]; // Exciter voltage set point state variable double bias; // Exciter bias state variable double xe; // Exciter state variable double xb; // Exciter state variable enumeration {GAST=3, DEGOV1=2, NO_GOV=1} Governor_type; // GAST Gas Turbine Governor double DEGOV1_R[pu]; // Governor droop constant (p.u.) double DEGOV1_T1[s]; // Governor electric control box time constant (s) double DEGOV1_T2[s]; // Governor electric control box time constant (s) double DEGOV1_T3[s]; // Governor electric control box time constant (s) double DEGOV1_T4[s]; // Governor actuator time constant (s) double DEGOV1_T5[s]; // Governor actuator time constant (s) double DEGOV1_T6[s]; // Governor actuator time constant (s) double DEGOV1_K[pu]; // Governor actuator gain double DEGOV1_TMAX[pu]; // Governor actuator upper limit (p.u.) double DEGOV1_TMIN[pu]; // Governor actuator lower limit (p.u.) double DEGOV1_TD[s]; // Governor combustion delay (s) double DEGOV1_wref[pu]; // Governor reference frequency state variable double DEGOV1_x1; // Governor electric box state variable double DEGOV1_x2; // Governor electric box state variable double DEGOV1_x4; // Governor electric box state variable double DEGOV1_x5; // Governor electric box state variable double DEGOV1_x6; // Governor electric box state variable double DEGOV1_throttle; // Governor electric box state variable double GAST_R[pu]; // Governor droop constant (p.u.) double GAST_T1[s]; // Governor electric control box time constant (s) double GAST_T2[s]; // Governor electric control box time constant (s) double GAST_T3[s]; // Governor temperature limiter time constant (s) double GAST_AT[s]; // Governor Ambient Temperature load limit (units) double GAST_KT[pu]; // Governor temperature control loop gain double GAST_VMAX[pu]; // Governor actuator upper limit (p.u.) double GAST_VMIN[pu]; // Governor actuator lower limit (p.u.) double GAST_x1; // Governor electric box state variable double GAST_x2; // Governor electric box state variable double GAST_x3; // Governor electric box state variable double GAST_throttle; // Governor electric box state variable set {S=112, N=8, C=4, B=2, A=1} phases; // Specifies which phases to connect to - currently not supported and assumes three-phase connection } class energy_storage { enumeration {SUPPLY_DRIVEN=4, CONSTANT_PF=3, CONSTANT_PQ=2, CONSTANT_V=1, UNKNOWN=0} generator_mode; enumeration {ONLINE=2, OFFLINE=1} generator_status; enumeration {DC=0, AC=1} power_type; double Rinternal; double V_Max[V]; complex I_Max[A]; double E_Max; double Energy; double efficiency; double Rated_kVA[kVA]; complex V_Out[V]; complex I_Out[A]; complex VA_Out[VA]; complex V_In[V]; complex I_In[A]; complex V_Internal[V]; complex I_Internal[A]; complex I_Prev[A]; set {S=112, N=8, C=4, B=2, A=1} phases; } class inverter { function interupdate_gen_object(); function postupdate_gen_object(); enumeration {FOUR_QUADRANT=4, PWM=3, TWELVE_PULSE=2, SIX_PULSE=1, TWO_PULSE=0} inverter_type; enumeration {GROUP_LOAD_FOLLOWING=7, GENERIC_DROOP=6, LOAD_FOLLOWING=5, CONSTANT_PF=2, CONSTANT_PQ=1, NONE=0} four_quadrant_control_mode; enumeration {EXCLUDED=2, INCLUDED=1} pf_reg; enumeration {ONLINE=2, OFFLINE=1} generator_status; enumeration {SUPPLY_DRIVEN=5, CONSTANT_PF=4, CONSTANT_PQ=2, CONSTANT_V=1, UNKNOWN=0} generator_mode; enumeration {ISLANDING_DROOP=1, CONTROL_SWITCH_NONE=0} control_mode_switch; enumeration {COUPLING_LCL=2, COUPLING_L=1, NONE=0} coupling_inductance_type; double inverter_convergence_criterion; complex V_In[V]; complex I_In[A]; complex VA_In[VA]; complex VA_Out[VA]; double Vdc[V]; complex phaseA_V_Out[V]; complex phaseB_V_Out[V]; complex phaseC_V_Out[V]; complex phaseA_I_Out[V]; complex phaseB_I_Out[V]; complex phaseC_I_Out[V]; complex power_A[VA]; complex power_B[VA]; complex power_C[VA]; double P_Out[VA]; double Q_Out[VAr]; double power_in[W]; double rated_power[VA]; double rated_battery_power[W]; double inverter_efficiency; double battery_soc[pu]; double soc_reserve[pu]; double power_factor[unit]; double nominal_frequency[Hz]; double nominal_VRMSLG[V]; bool islanded_state; double droop_P1[W]; double droop_P2[W]; double droop_Q1[VAr]; double droop_Q2[VAr]; double droop_f1[Hz]; double droop_f2[Hz]; double droop_V1[V]; double droop_V2[V]; double constant_PQ_KPPLL[unit]; double constant_PQ_KIPLL[unit]; double constant_PQ_KPP[unit]; double constant_PQ_KIP[unit]; double constant_PQ_KPQ[unit]; double constant_PQ_KIQ[unit]; double constant_PQ_T_MeasP[s]; double constant_PQ_T_MeasQ[s]; double constant_PQ_T_MeasV[s]; double constant_PQ_TPRefFilter[s]; double constant_PQ_TQRefFilter[s]; double constant_PQ_vt_max_angle_ref[rad]; double constant_PQ_vt_min_angle_ref[rad]; double constant_PQ_vt_max_mag_ref[pu]; double constant_PQ_vt_min_mag_ref[pu]; double droop_PQ_KPPLL[unit]; double droop_PQ_KIPLL[unit]; double droop_PQ_KPP[unit]; double droop_PQ_KIP[unit]; double droop_PQ_KPQ[unit]; double droop_PQ_KIQ[unit]; double droop_PQ_T_MeasP[s]; double droop_PQ_T_MeasQ[s]; double droop_PQ_T_MeasV[s]; double droop_PQ_TPRefFilter[s]; double droop_PQ_TQRefFilter[s]; double droop_PQ_vt_max_angle_ref[rad]; double droop_PQ_vt_min_angle_ref[rad]; double droop_PQ_vt_max_mag_ref[pu]; double droop_PQ_vt_min_mag_ref[pu]; double coupling_L1[H]; double coupling_L2[H]; double coupling_C[F]; double initial_inverter_frequency[Hz]; double measured_VRMSLL[V]; double filtered_reference_output_P[VA]; double filtered_reference_output_Q[VAr]; double inverter_measured_terminal_P[W]; double inverter_measured_terminal_Q[VAr]; double inverter_measured_coupling_P[W]; double inverter_measured_coupling_Q[VAr]; double inverter_true_coupling_P[W]; double inverter_true_coupling_Q[VAr]; double PLL_measured_frequency[Hz]; complex internal_vt_a[V]; complex internal_vt_synch_a[V]; complex vO_a[V]; complex vO_synch_a[V]; complex norton_i_a[A]; complex iO_a[A]; complex vO_dq[V]; double theta_PLL[rad]; set {S=112, N=8, C=4, B=2, A=1} phases; bool use_multipoint_efficiency; enumeration {XANTREX=3, SMA=2, FRONIUS=1, NONE=0} inverter_manufacturer; double maximum_dc_power; double maximum_dc_voltage; double minimum_dc_power; double c_0; double c_1; double c_2; double c_3; object sense_object; // name of the object the inverter is trying to mitigate the load on (node/link) in LOAD_FOLLOWING double max_charge_rate[W]; // maximum rate the battery can be charged in LOAD_FOLLOWING double max_discharge_rate[W]; // maximum rate the battery can be discharged in LOAD_FOLLOWING double charge_on_threshold[W]; // power level at which the inverter should try charging the battery in LOAD_FOLLOWING double charge_off_threshold[W]; // power level at which the inverter should cease charging the battery in LOAD_FOLLOWING double discharge_on_threshold[W]; // power level at which the inverter should try discharging the battery in LOAD_FOLLOWING double discharge_off_threshold[W]; // power level at which the inverter should cease discharging the battery in LOAD_FOLLOWING double excess_input_power[W]; // Excess power at the input of the inverter that is otherwise just lost, or could be shunted to a battery double charge_lockout_time[s]; // Lockout time when a charging operation occurs before another LOAD_FOLLOWING dispatch operation can occur double discharge_lockout_time[s]; // Lockout time when a discharging operation occurs before another LOAD_FOLLOWING dispatch operation can occur double pf_reg_activate; // Lowest acceptable power-factor level below which power-factor regulation will activate. double pf_reg_deactivate; // Lowest acceptable power-factor above which no power-factor regulation is needed. double pf_reg_activate_lockout_time[s]; // Mandatory pause between the deactivation of power-factor regulation and it reactivation double charge_threshold[W]; // Level at which all inverters in the group will begin charging attached batteries. Regulated minimum load level. double discharge_threshold[W]; // Level at which all inverters in the group will begin discharging attached batteries. Regulated maximum load level. double group_max_charge_rate[W]; // Sum of the charge rates of the batteries involved in the group load-following. double group_max_discharge_rate[W]; // Sum of the discharge rates of the batteries involved in the group load-following. double group_rated_power[W]; // Sum of the inverter power ratings of the inverters involved in the group power-factor regulation. } class microturbine { enumeration {SUPPLY_DRIVEN=5, CONSTANT_PF=4, CONSTANT_PQ=2, CONSTANT_V=1, UNKNOWN=0} generator_mode; enumeration {ONLINE=2, OFFLINE=1} generator_status; enumeration {DC=1, AC=2} power_type; double Rinternal; double Rload; double V_Max[V]; complex I_Max[A]; double frequency[Hz]; double Max_Frequency[Hz]; double Min_Frequency[Hz]; double Fuel_Used[kVA]; double Heat_Out[kVA]; double KV; double Power_Angle; double Max_P[kW]; double Min_P[kW]; complex phaseA_V_Out[kV]; complex phaseB_V_Out[kV]; complex phaseC_V_Out[kV]; complex phaseA_I_Out[A]; complex phaseB_I_Out[A]; complex phaseC_I_Out[A]; complex power_A_Out; complex power_B_Out; complex power_C_Out; complex VA_Out; double pf_Out; complex E_A_Internal; complex E_B_Internal; complex E_C_Internal; double efficiency; double Rated_kVA[kVA]; set {S=112, N=8, C=4, B=2, A=1} phases; } class power_electronics { enumeration {SUPPLY_DRIVEN=5, CONSTANT_PF=4, CONSTANT_PQ=2, CONSTANT_V=1, UNKNOWN=0} generator_mode; enumeration {ONLINE=2, OFFLINE=1} generator_status; enumeration {CURRENT_SOURCED=2, VOLTAGE_SOURCED=1} converter_type; enumeration {DARLINGTON=7, IBJT=6, JFET=5, SCR=4, MOSFET=3, BJT=2, IDEAL_SWITCH=1} switch_type; enumeration {BAND_PASS=4, BAND_STOP=3, HIGH_PASS=2, LOW_PASS=1} filter_type; enumeration {PARALLEL_RESONANT=5, SERIES_RESONANT=4, INDUCTIVE=3, CAPACITVE=2, IDEAL_FILTER=1} filter_implementation; enumeration {F240HZ=3, F180HZ=2, F120HZ=1} filter_frequency; enumeration {DC=1, AC=2} power_type; double Rated_kW[kW]; double Max_P[kW]; double Min_P[kW]; double Rated_kVA[kVA]; double Rated_kV[kV]; set {S=112, N=8, C=4, B=2, A=1} phases; } class rectifier { enumeration {TWELVE_PULSE=4, SIX_PULSE=3, THREE_PULSE=2, TWO_PULSE=1, ONE_PULSE=0} rectifier_type; enumeration {SUPPLY_DRIVEN=5, CONSTANT_PF=4, CONSTANT_PQ=2, CONSTANT_V=1, UNKNOWN=0} generator_mode; complex V_Out[V]; double V_Rated[V]; complex I_Out[A]; complex VA_Out[VA]; double P_Out; double Q_Out; complex Vdc[V]; complex voltage_A[V]; complex voltage_B[V]; complex voltage_C[V]; complex current_A[V]; complex current_B[V]; complex current_C[V]; complex power_A_In[VA]; complex power_B_In[VA]; complex power_C_In[VA]; set {S=112, N=8, C=4, B=2, A=1} phases; } class solar { enumeration {SUPPLY_DRIVEN=5, CONSTANT_PF=4, CONSTANT_PQ=2, CONSTANT_V=1, UNKNOWN=0} generator_mode; enumeration {ONLINE=2, OFFLINE=1} generator_status; enumeration {CONCENTRATOR=5, THIN_FILM_GA_AS=4, AMORPHOUS_SILICON=3, MULTI_CRYSTAL_SILICON=2, SINGLE_CRYSTAL_SILICON=1} panel_type; enumeration {DC=1, AC=2} power_type; enumeration {GROUND_MOUNTED=2, ROOF_MOUNTED=1} INSTALLATION_TYPE; enumeration {PLAYERVALUE=2, SOLPOS=1, DEFAULT=0} SOLAR_TILT_MODEL; // solar tilt model used to compute insolation values enumeration {FLATPLATE=1, DEFAULT=0} SOLAR_POWER_MODEL; double a_coeff; // a coefficient for module temperature correction formula double b_coeff[s/m]; // b coefficient for module temperature correction formula double dT_coeff[m*m*degC/kW]; // Temperature difference coefficient for module temperature correction formula double T_coeff[%/degC]; // Maximum power temperature coefficient for module temperature correction formula double NOCT[degF]; double Tmodule[degF]; double Tambient[degC]; double wind_speed[mph]; double ambient_temperature[degF]; // Current ambient temperature of air double Insolation[W/sf]; double Rinternal[Ohm]; double Rated_Insolation[W/sf]; double Pmax_temp_coeff; double Voc_temp_coeff; complex V_Max[V]; complex Voc_Max[V]; complex Voc[V]; double efficiency[unit]; double area[sf]; double soiling[pu]; // Soiling of array factor - representing dirt on array double derating[pu]; // Panel derating to account for manufacturing variances double Tcell[degC]; double Rated_kVA[kVA]; complex P_Out[kW]; complex V_Out[V]; complex I_Out[A]; complex VA_Out[VA]; object weather; double shading_factor[pu]; // Shading factor for scaling solar power to the array double tilt_angle[deg]; // Tilt angle of PV array double orientation_azimuth[deg]; // Facing direction of the PV array bool latitude_angle_fix; // Fix tilt angle to installation latitude value enumeration {FIXED_AXIS=1, DEFAULT=0} orientation; set {S=112, N=8, C=4, B=2, A=1} phases; } class windturb_dg { enumeration {ONLINE=2, OFFLINE=1} Gen_status; // Generator is currently available to supply power enumeration {SYNCHRONOUS=2, INDUCTION=1} Gen_type; // Standard synchronous generator; is also used to 'fake' a doubly-fed induction generator for now enumeration {CONSTANTPQ=3, CONSTANTP=2, CONSTANTE=1} Gen_mode; // Maintains the real and reactive output at the terminals - currently unsupported enumeration {BERGEY_10kW=9, GE_25MW=8, VESTAS_V82=7, USER_DEFINED=6, GENERIC_IND_LARGE=5, GENERIC_IND_MID=4, GENERIC_IND_SMALL=3, GENERIC_SYNCH_LARGE=2, GENERIC_SYNCH_MID=1, GENERIC_SYNCH_SMALL=0} Turbine_Model; // Sets all defaults to represent the power output of a Bergey 10kW turbine double turbine_height[m]; // Describes the height of the wind turbine hub above the ground double roughness_length_factor; // European Wind Atlas unitless correction factor for adjusting wind speed at various heights above ground and terrain types, default=0.055 double blade_diam[m]; // Diameter of blades double blade_diameter[m]; // Diameter of blades double cut_in_ws[m/s]; // Minimum wind speed for generator operation double cut_out_ws[m/s]; // Maximum wind speed for generator operation double ws_rated[m/s]; // Rated wind speed for generator operation double ws_maxcp[m/s]; // Wind speed at which generator reaches maximum Cp double Cp_max[pu]; // Maximum coefficient of performance double Cp_rated[pu]; // Rated coefficient of performance double Cp[pu]; // Calculated coefficient of performance double Rated_VA[VA]; // Rated generator power output double Rated_V[V]; // Rated generator terminal voltage double Pconv[W]; // Amount of electrical power converted from mechanical power delivered double P_converted[W]; // Amount of electrical power converted from mechanical power delivered double GenElecEff[%]; // Calculated generator electrical efficiency double generator_efficiency[%]; // Calculated generator electrical efficiency double TotalRealPow[W]; // Total real power output double total_real_power[W]; // Total real power output double TotalReacPow[VA]; // Total reactive power output double total_reactive_power[VA]; // Total reactive power output complex power_A[VA]; // Total complex power injected on phase A complex power_B[VA]; // Total complex power injected on phase B complex power_C[VA]; // Total complex power injected on phase C double WSadj[m/s]; // Speed of wind at hub height double wind_speed_adjusted[m/s]; // Speed of wind at hub height double Wind_Speed[m/s]; // Wind speed at 5-15m level (typical measurement height) double wind_speed[m/s]; // Wind speed at 5-15m level (typical measurement height) double air_density[kg/m^3]; // Estimated air density double R_stator[pu*Ohm]; // Induction generator primary stator resistance in p.u. double X_stator[pu*Ohm]; // Induction generator primary stator reactance in p.u. double R_rotor[pu*Ohm]; // Induction generator primary rotor resistance in p.u. double X_rotor[pu*Ohm]; // Induction generator primary rotor reactance in p.u. double R_core[pu*Ohm]; // Induction generator primary core resistance in p.u. double X_magnetic[pu*Ohm]; // Induction generator primary core reactance in p.u. double Max_Vrotor[pu*V]; // Induction generator maximum induced rotor voltage in p.u., e.g. 1.2 double Min_Vrotor[pu*V]; // Induction generator minimum induced rotor voltage in p.u., e.g. 0.8 double Rs[pu*Ohm]; // Synchronous generator primary stator resistance in p.u. double Xs[pu*Ohm]; // Synchronous generator primary stator reactance in p.u. double Rg[pu*Ohm]; // Synchronous generator grounding resistance in p.u. double Xg[pu*Ohm]; // Synchronous generator grounding reactance in p.u. double Max_Ef[pu*V]; // Synchronous generator maximum induced rotor voltage in p.u., e.g. 0.8 double Min_Ef[pu*V]; // Synchronous generator minimum induced rotor voltage in p.u., e.g. 0.8 double pf[pu]; // Desired power factor in CONSTANTP mode (can be modified over time) double power_factor[pu]; // Desired power factor in CONSTANTP mode (can be modified over time) complex voltage_A[V]; // Terminal voltage on phase A complex voltage_B[V]; // Terminal voltage on phase B complex voltage_C[V]; // Terminal voltage on phase C complex current_A[A]; // Calculated terminal current on phase A complex current_B[A]; // Calculated terminal current on phase B complex current_C[A]; // Calculated terminal current on phase C complex EfA[V]; // Synchronous generator induced voltage on phase A complex EfB[V]; // Synchronous generator induced voltage on phase B complex EfC[V]; // Synchronous generator induced voltage on phase C complex Vrotor_A[V]; // Induction generator induced voltage on phase A in p.u. complex Vrotor_B[V]; // Induction generator induced voltage on phase B in p.u. complex Vrotor_C[V]; // Induction generator induced voltage on phase C in p.u. complex Irotor_A[V]; // Induction generator induced current on phase A in p.u. complex Irotor_B[V]; // Induction generator induced current on phase B in p.u. complex Irotor_C[V]; // Induction generator induced current on phase C in p.u. set {S=112, N=8, C=4, B=2, A=1} phases; // Specifies which phases to connect to - currently not supported and assumes three-phase connection }