ElmPvsys attributesPowerFactory PV System

Every attribute of the PowerFactory PV System (ElmPvsys): 371 input parameters and 927 result variables, with units and meaning. Copy a name into GetAttribute or SetAttribute.

What ElmPvsys is

A PV system: a photovoltaic plant and its inverter. Its power inputs are in kW and kVA, not MW.

Class: ElmPvsys, element class
PowerFactory name: PV System
Terminal suffix: :bus1 terminal
Attributes: 371 input parameters and 927 result variables, in 7 calculations

Most used ElmPvsys attributes

Attribute	Unit	Description	Where
`m:P:bus1`	MW	Active Power	Load flow
`m:Q:bus1`	Mvar	Reactive Power	Load flow
`c:loading`	%	Loading	Load flow
`pgini`	kW	Active poweractive power, kW	input data
`qgini`	kvar	Reactive power	input data
`sgn`	kVA	Rated apparent powerrating, kVA	input data
`av_mode`	·	Local controller	input data
`ngnum`	·	parallel inverters	input data
`outserv`	·	Out of Service	input data

Read and write ElmPvsys in Python

import powerfactory

app = powerfactory.GetApplication()          # GetApplicationExt() from outside PowerFactory
app.GetFromStudyCase("ComLdf").Execute()      # results exist after a calculation

for pv in app.GetCalcRelevantObjects("*.ElmPvsys"):
    p_bus1 = pv.GetAttribute("m:P:bus1")          # Active Power, MW
    q_bus1 = pv.GetAttribute("m:Q:bus1")          # Reactive Power, Mvar
    print(pv.loc_name, p_bus1, q_bus1)

pv = app.GetCalcRelevantObjects("*.ElmPvsys")[0]
pv.SetAttribute("pgini", 800)                 # dispatch 800 kW

A result at a terminal of the pv system needs the terminal in its name: m:P:bus1, not m:P, which raises AttributeError.
An input parameter is read and written with or without its e: prefix: GetAttribute("outserv") and GetAttribute("e:outserv") give the same value.
RMS and EMT variables change over time: record them in a results object (ElmRes) to read the whole curve. GetAttribute after a run gives the value at the last time step.

Input parameters371
Load flow results211
Short-circuit results253
RMS simulation results184
EMT simulation results93
DC load flow results37
Modal analysis results22
Optimal power flow results127
Basic data3

ElmPvsys input parameters

The element data, as typed in GetAttribute and SetAttribute (the e: prefix is optional). Setting one changes the model.

Attribute	Unit	Description
`loc_name`	·	Name
`chr_name`	·	Characteristic Name
`for_name`	·	Foreign Key
`dat_src`	·	Data source
`timezone`	·	Time zone (offset)
`psutype`	·	Power station unit type
`sernum`	·	Serial Number
`commissionDate`	·	Commissioning Date
`appr_modby`	·	Modified by
`mode_inp`	·	Input mode
`outserv`	·	Out of Service
`ctrlStruct`	·	Control strategy
`ngnum`	·	parallel inverters
`npnum`	·	Panels per inverter
`mode_pgi`	·	Model
`iLV`	·	Consider coincidence
`indivPower`	·	Individual power generation
`lvpfrecap`	·	Power factor
`iCoincFrom`	·	Used coincidence definition
`iopt_loc`	·	Used coordinates
`mount`	·	Mounting system
`iopt_rad`	·	Specified components
`iopt_glo`	·	Global irradiance data
`iopt_dir`	·	Direct irradiance data
`iopt_dif`	·	Diffuse irradiance data
`iconfed`	·	Static converter-fed drive
`iNoShcContr`	·	No short-circuit contribution
`searchBlockTrf`	·	Externally modelled unit transformer
`iShcModel`	·	Short-Circuit Model
`shcDeadband`	·	Voltage deadband
`pinput`	·	Active power signal
`qinput`	·	Reactive power signal
`ictrltp`	·	Model
`icurref`	·	Harmonic currents referred to
`iSimModel`	·	Model
`iDelay`	·	dq-reference angle delay (if dq-reference signals not connected)
`iUseZsr`	·	Use series reactor impedance, if negative sequence voltage signals are connected
`iUseNegSeqAngle`	·	Current source model
`ictpg`	·	Active Power
`ictqg`	·	Reactive Power
`iOPFCPmin`	·	Min.
`iOPFCPmax`	·	Max.
`iOPFCQmin`	·	Min.
`iOPFCQmax`	·	Max.
`QtargetBase`	·	Base
`iInterPol`	·	Approximation
`polyDegree`	·	Polynomial degree
`isVRE`	·	Generator usage
`isCtrlP`	·	Active power
`isCtrlQ`	·	Reactive power
`isLimPmax`	·	Max.
`isLimPmin`	·	Min.
`isLimQmax`	·	Max.
`isLimQmin`	·	Min.
`isMustRunUC`	·	Must run
`isCtrlFixedToLdfVal`	·	Fix controls to Load Flow values
`is4SpinReserve`	·	Consider for region spinning reserve
`allowConsumMode`	·	Separate consumption mode
`isConsCostOp`	·	Operating costs
`discMethCostOp`	·	Piecewise linearisation for LP
`numBreakpointsCostOp`	·	Number of breakpoints
`isConsCostsRedispatch`	·	Additional active power redispatch costs
`isConsStartUpCost`	·	Start-up costs
`isConsShutDownCost`	·	Shut-down costs
`isConstrRamp`	·	Ramp rate constraints
`isConstrUpDown`	·	Start-up/shut-down time constraints
`isDiscreteCtrlP`	·	Restriction to discrete active power values
`isPcurrAllowed`	·	Allow current active power value
`consCostsRedispatchQ`	·	Additional reactive power redispatch costs
`refValueQ`	·	Reference value for redispatch costs
`refValueLdfQ`	·	Reference value for redispatch costs
`refValueV`	·	Reference value for redispatch costs
`ctrlUsageP`	·	Active Power
`ctrlUsageQ`	·	Reactive Power
`isConsCostOp_Q`	·	Reactive power operating costs
`iInterPol_Q`	·	Approximation
`polyDegree_Q`	·	Polynomial degree
`discMethCostOp_Q`	·	Piecewise linearisation for LP
`iestp`	·	Estimate active power
`iestq`	·	Estimate reactive power
`ip_ctrl`	·	Reference machine
`constr`	·	Year of Construction
`appr_status`	·	Status
`iAstabint`	·	A-stable integration algorithm
`iopt_tdr`	·	Use separate droop values for over-/underexcited operation
`priority`	·	Merit order
`fixed`	·	Must run
`outServPzero`	·	Out of service when active power is zero
`nneutral`	·	N-Connection
`isCtrlPplacement`	·	Optimise active power
`sgn`	kVA	Rated apparent power
`cosn`	·	Rated power factor
`scale0`	·	Scaling factor
`Egpv`	W/m^2	Global irradiance, PV system
`orient`	deg	Orientation angle
`tilt`	deg	Tilt angle
`inveff`	%	Efficiency factor
`ghi`	W/m^2	Global horizontal irradiance
`dhi`	W/m^2	Direct horizontal irradiance
`dni`	W/m^2	Direct normal irradiance
`kt`	·	Clearness index
`Tamb`	degC	Ambient temperature
`shfdir`	·	Shading factor (direct)
`shfdiff`	·	Shading factor (diffuse)
`albedo`	·	Ground albedo
`Skss`	kVA	Subtransient Short-Circuit Level
`Sks`	kVA	Transient Short-Circuit Level
`rtox`	·	R to X'' ratio
`Kfactor`	·	K Factor
`imax`	p.u.	Max. Current
`uDeadband`	p.u.	Deadband
`r0`	p.u.	Resistance, r0
`x0`	p.u.	Reactance, x0
`r2`	p.u.	Resistance r2
`x2`	p.u.	Reactance x2
`r2shc`	p.u.	Resistance, r2
`x2shc`	p.u.	Reactance, x2
`tdss`	s	Td''
`tds`	s	Td'
`Sk`	kVA	Steady-State Short-Circuit Level
`r1hmc`	p.u.	Resistance, r1h
`x1hmc`	p.u.	Reactance, x1h
`r2hmc`	p.u.	Resistance, r2h
`x2hmc`	p.u.	Reactance, x2h
`r0hmc`	p.u.	Resistance, r0h
`x0hmc`	p.u.	Reactance, x0h
`r1hthev`	p.u.	Resistance, r1
`x1hthev`	p.u.	Reactance, x1
`P1hrm`	kW	Active power
`Q1hrm`	kvar	Reactive power
`u1hrm`	p.u.	Positive sequence voltage
`Kd`	·	Kd
`Kq`	·	Kq
`Td`	s	Td
`Tq`	s	Tq
`uk`	%	Short circuit impedance
`Pcu`	kW	Copper losses
`R0toR1`	·	R0/R1 ratio
`X0toX1`	·	X0/X1 ratio
`umin`	p.u.	Switch-off threshold
`uonthr`	p.u.	Switch-on threshold
`Tondelay`	s	Switch-on delay
`Tdelay`	s	Delay time constant
`Kp_pllu`	·	Proportional gain
`Ki_pllu`	·	Integration gain
`T1_pllu`	ms	Low-Pass filter time constant
`Kp_plli`	·	Proportional gain
`Ki_plli`	·	Integration gain
`T1_plli`	ms	Low-Pass filter time constant
`smoothfac`	%	Smoothing factor
`smoothfac_Q`	%	Smoothing Factor
`usetp`	p.u.	Voltage
`usp_max`	p.u.	Max. voltage setpoint
`usp_min`	p.u.	Min. voltage setpoint
`phiini`	deg	Angle
`ddroop`	%	Droop
`q_min`	p.u.	Min.
`q_max`	p.u.	Max.
`pmaxratf`	·	Rating factor
`Pmax_uc`	kW	Max.
`Pmin_uc`	kW	Min.
`Kpf`	kW/Hz	Prim. frequency bias
`ddroopue`	%	Droop (underexcited)
`Qfu_min`	kvar	Q min
`Qfu_max`	kvar	Q max
`udeadbup`	p.u.	Upper limit
`udeadblow`	p.u.	Lower limit
`pf_under`	·	Min. power factor
`pf_over`	·	Min. power factor
`p_under`	kW	Active power
`p_over`	kW	Active power
`GPSlat`	deg	Latitude / Northing
`GPSlon`	deg	Longitude / Easting
`Ikss3PF`	A	Three-phase faults, Ik"3PF
`Ikss2PF`	A	Two-phase faults, Ik"2PF
`Ikss1PF`	A	Single-phase faults, Ik"1PF
`IkPFmax`	A	Maximum current
`IkPFmin`	A	Minimum current
`r2iec`	p.u.	Resistance, r2
`x2iec`	p.u.	Reactance, x2
`r0iec`	p.u.	Resistance, r0
`x0iec`	p.u.	Reactance, x0
`QtargetRPR`	%	Q target value
`genShiftKey`	%	Generation shift key
`PminInv`	kW	Min.
`PmaxInv`	kW	Max.
`costCurtailment`	USD/kWh	Costs for curtailment
`penaltyCosts`	USD/kWh	Penalty costs
`fixedCosts`	USD/h	Fixed costs
`consumCosts`	USD/kWh	Consumption costs
`costRedispatchUp`	USD/kWh	Upward active power redispatch costs
`costRedispatchDown`	USD/kWh	Downward active power redispatch costs
`costRedispatchQ`	USD/kvarh	Costs for reactive power deviation
`cost_up`	USD	Warm-start costs
`costColdStart`	USD	Cold-start costs
`coldStartTime`	h	Cold-start time
`costShutDown`	USD	Shut-down costs
`limRampUp`	kW/h	Ramp-up limit
`limRampDown`	kW/h	Ramp-down limit
`limRampStartUp`	kW	Start-up ramp limit
`limRampShutDown`	kW	Shut-down ramp limit
`minUpTime`	h	Minimum up-time
`minDownTime`	h	Minimum down-time
`targetQ`	kvar	Q target value
`targetV`	p.u.	Target voltage setpoint
`fixedCostsSetpChangeQ`	USD	Fixed costs per setpoint deviation
`zeroFixedCostsSetpChangeQ`	USD	Fixed costs per setpoint deviation
`costRedispatchV`	USD/p.u.	Costs for voltage setpoint deviation
`curativeLimP`	kW	Max. curative active power deviation
`curativeLimQ`	kvar	Max. curative reactive power deviation
`curativeCosts`	USD/kVAh	Costs for curative power deviation
`penaltyCosts_Q`	USD/kvarh	Penalty costs
`scaleQmin`	%	Scaling factor (min.)
`scaleQmax`	%	Scaling factor (max.)
`dpl1`	·	dpl1
`dpl2`	·	dpl2
`dpl3`	·	dpl3
`dpl4`	·	dpl4
`dpl5`	·	dpl5
`appr_modif`	·	Modified
`cpower`	kW	Power
`ccost`	USD/h	Costs
`vecBreakpointsP`	kW	Power
`vecStartUpTimes`	>=h	Down-time
`vecStartUpCosts`	USD	Start-up costs
`vecDiscreteCtrlPvals`	%	Valid active power values
`cpower_Q`	kvar	Power
`ccost_Q`	USD/h	Costs
`vecBreakpointsQ`	kvar	Power
`cimRdfId`	·	RDF ID
`desc`	·	Description
`sOpComment`	·	Operator comment
`typ_id`	·	TypeObject: TypPvpanel
`bus1`	·	TerminalObject: StaCubic
`bus1n`	·	NeutralObject: StaCubic
`pCoincDef`	·	Individual coincidence definitionObject: IntCoincdef
`phmcv`	·	Harmonic voltagesObject: TypHmcvolt,TypHmcopvolt
`phmc`	·	Harmonic CurrentsObject: TypHmccur,TypHmcopcur
`fcharr1`	ChaPol,ChaVec,ChaMat,ChaOpfreq	Frequency-dependence, r1h(f)
`fcharx1`	ChaPol,ChaVec,ChaMat,ChaOpfreq	Frequency-dependence, x1h(f)
`fcharr2`	ChaPol,ChaVec,ChaMat,ChaOpfreq	Frequency-dependence, r2h(f)
`fcharx2`	ChaPol,ChaVec,ChaMat,ChaOpfreq	Frequency-dependence, x2h(f)
`fcharr0`	ChaPol,ChaVec,ChaMat,ChaOpfreq	Frequency-dependence, r0h(f)
`fcharx0`	ChaPol,ChaVec,ChaMat,ChaOpfreq	Frequency-dependence, x0h(f)
`pFlicker`	·	Flicker coefficientsObject: TypFlicker
`efficiencyCurveGen`	·	Efficiency curve (generation)Object: IntEffcurve
`efficiencyCurveConsum`	·	Efficiency curve (consumption)Object: IntEffcurve
`pOpCostCurve`	·	Generator cost curveObject: IntCostcurvegen
`doc_id`	·	Additional Data
`pOwner`	·	OwnerObject: ElmOwner
`pOperator`	·	OperatorObject: ElmOperator
`pSubModel`	·	SubmodelObject: ElmSubmodel
`pQlimType`	·	Capability curveObject: IntQlim
`pQPcurve`	·	Q(P)-CurveObject: IntQpcurve
`pQVcurve`	·	Q(V)-CurveObject: IntQvcurve
`pBMU`	·	Virtual power plantObject: ElmBmu
`pGRStoch`	StoGen	Stochastic Model
`bus1_bar`	·	Terminal
`bus1n_bar`	·	Neutral
`cpZone`	·	ZoneObject: ElmZone
`cpArea`	·	AreaObject: ElmArea
`pgini`	kW	Active power
`qgini`	kvar	Reactive power
`cosgini`	·	Power factor
`pf_recap`	·	Power factor
`Inom`	kA	Nominal current
`cPmaxLV`	kW	Active power, P, with coincidence
`cSmaxLV`	kVA	Apparent power, S, with coincidence
`cPsumLV`	kW	Active power, P, theoretical
`cSsumLV`	kVA	Apparent power, S, theoretical
`cGPSlat`	deg	Latitude
`cGPSlon`	deg	Longitude
`cTimezone`	·	Time zone (offset)
`orient_a`	deg	Orientation angle (act.)
`tilt_a`	deg	Tilt angle (act.)
`ghi_a`	W/m^2	Global horizontal irradiance (act.)
`dhi_a`	W/m^2	Direct horizontal irradiance (act.)
`dni_a`	W/m^2	Direct normal irradiance (act.)
`kt_a`	·	Clearness index (act.)
`Tamb_a`	degC	Amb. temp. (act.)
`shfdir_a`	·	Shading factor (dir.) (act.)
`shfdiff_a`	·	Shading factor (diff.) (act.)
`albedo_a`	·	Albedo (act.)
`pblocktrf`	·	Unit transformerObject: ElmTr2
`Ikss`	A	Subtransient Short-Circuit Current
`Iks`	A	Transient Short-Circuit Current
`xtor`	·	X'' to R ratio
`Ik`	A	Steady-state shc. current
`cTypHmc`	·	Type of harmonic sources
`Irated`	kA	Rated Current
`R1hmc`	Ohm	Resistance, R1h
`X1hmc`	Ohm	Reactance, X1h
`R2hmc`	Ohm	Resistance, R2h
`X2hmc`	Ohm	Reactance, X2h
`R0hmc`	Ohm	Resistance, R0h
`X0hmc`	Ohm	Reactance, X0h
`r1h`	p.u.	Resistance, r1h
`x1h`	p.u.	Reactance, x1h
`r2h`	p.u.	Resistance, r2h
`x2h`	p.u.	Reactance, x2h
`r0h`	p.u.	Resistance, r0h
`x0h`	p.u.	Reactance, x0h
`islandOperRMS`	·	Enable operation if part of an isolated area
`islandOperEMT`	·	Enable operation if part of an isolated area
`avgCosts`	USD/kWh	Average costs
`costRedispatchP`	USD/kWh	Costs for active power deviation
`cStorage`	·	Storage modelObject: ElmStorage
`cIsMustRunUC`	·	Must run
`efficiencyLPgen`	·	Used efficiency (generation)
`efficiencyLPconsum`	·	Used efficiency (consumption)
`allowGenMode`	·	Separate generation mode
`PminInvPU`	p.u.	Min.
`PmaxInvPU`	p.u.	Max.
`avgCostsUc`	USD/kWh	Average costs
`cfixedCosts`	USD/h	Fixed costs
`limRampUpPU`	p.u./h	Ramp-up limit
`limRampDownPU`	p.u./h	Ramp-down limit
`limRampStartUpPU`	p.u.	Start-up ramp limit
`limRampShutDownPU`	p.u.	Shut-down ramp limit
`cIsDiscreteCtrlP`	·	Restriction to discrete active power values
`cVecDiscreteCtrlPvals`	%	Valid active power values
`cIsPcurrAllowed`	·	Allow current active power value
`cCtrlUsageP`	·	Active Power
`cCtrlUsageQ`	·	Reactive Power
`cCurativeLimP_PU`	p.u.	Max. curative active power deviation
`cCurativeLimQ_PU`	p.u.	Max. curative reactive power deviation
`avgCostsUc_Q`	USD/kvarh	Average costs
`avgCostsUc_posQ`	USD/kvarh	Average costs (pos. range)
`avgCostsUc_negQ`	USD/kvarh	Average costs (neg. range)
`av_mode`	·	Local controller
`c_psecc`	·	External secondary controllerObject: ElmSecctrl
`c_pstac`	·	External station controllerObject: ElmStactrl
`qdslCtrl`	·	Quasi-dynamic modelObject: ElmQdsl
`c_pCtrlHV`	·	Controlled HV-busbarObject: ElmTerm
`Uctrl`	kV	HV-Voltage setpoint
`cQ_min`	kvar	Minimum
`cQ_max`	kvar	Maximum
`Pnom`	kW	Pr(rated)
`P_max`	kW	Max.
`Pmax_ucPU`	p.u.	Max.
`Pmin_ucPU`	p.u.	Min.
`u0qvref`	p.u.	Reference voltage
`ddroopoe`	%	Droop (overexcited)
`dispatch`	·	Generator dispatch
`Qmin_a`	kvar	Qmin(act.)
`Qmax_a`	kvar	Qmax(act.)
`Pmin_a`	kW	Pmin(act.)
`Pmax_a`	kW	Pmax(act.)
`c_pmod`	·	ModelObject: ElmComp
`phtech`	·	Technology
`pgini_a`	kW	Active power (act.)
`qgini_a`	kvar	Reactive power (act.)
`sgini_a`	kVA	Apparent power (act.)
`cosgini_a`	·	Power factor (act.)
`pf_recap_a`	·	Power factor ind/cap (act.)
`scale0_a`	·	Scaling factor(act.)
`Pngrel`	kW	Based on rated active power (Pr)
`FAY`	h/a	Full availability expectancy
`FOE`	h/a	Forced outage expectancy
`EDS`	h/a	Expectancy of derated states
`Egh_a`	W/m^2	Global horizontaliIrradiance (act.)
`Ebh_a`	W/m^2	Direct horizontal irradiance (act.)
`Edh_a`	W/m^2	Diffuse horizontal irradiance (act.)
`Egpv_a`	W/m^2	Global irradiance, PV panel (act.)
`Ebpv_a`	W/m^2	Direct irradiance, PV panel (act.)
`Edpv_a`	W/m^2	Diffuse irradiance, PV panel (act.)
`Erpv_a`	W/m^2	Reflected irradiance, PV panel (act.)
`RelEff_a`	·	Relative efficiency (act.)
`ktc_a`	W/m^2	Calculated clearness index
`solalt_a`	deg	Solar altitude angle (act.)
`anginc_a`	deg	Angle of incidence (act.)

ElmPvsys load flow results

Read after ComLdf with GetAttribute. m: currents, voltages and powers, c: calculation parameter, n: bus result at a terminal, s: signal (state or model variable).

Attribute	Unit	Description
`m:urnet:bus1`	p.u.	Voltage, Real Part, referred to network
`m:uinet:bus1`	p.u.	Voltage, Imaginary Part, referred to network
`m:u1r:bus1`	p.u.	Positive-Sequence-Voltage, Real Part
`m:u1i:bus1`	p.u.	Positive-Sequence-Voltage, Imaginary Part
`m:u1:bus1`	p.u.	Positive-Sequence-Voltage, Magnitude
`m:U1:bus1`	kV	Line-Ground Positive-Sequence-Voltage, Magnitude
`m:U1l:bus1`	kV	Line-Line Positive-Sequence-Voltage, Magnitude
`m:phiu1:bus1`	deg	Positive-Sequence-Voltage, Angle
`m:irnet:bus1`	p.u.	Current, Real Part, referred to network
`m:iinet:bus1`	p.u.	Current, Imaginary Part, referred to network
`m:inet:bus1`	p.u.	Current, Magnitude, referred to network
`m:I:bus1`	kA	Current, Magnitude
`m:phii:bus1`	deg	Current, Angle
`m:i1r:bus1`	p.u.	Positive-Sequence Current, Real Part
`m:i1i:bus1`	p.u.	Positive-Sequence Current, Imaginary Part
`m:i1:bus1`	p.u.	Positive-Sequence Current, Magnitude
`m:I1:bus1`	kA	Positive-Sequence Current, Magnitude
`m:phii1:bus1`	deg	Positive-Sequence Current, Angle
`m:P:bus1`	MW	Active Power
`m:Q:bus1`	Mvar	Reactive Power
`m:S:bus1`	MVA	Apparent Power
`m:cosphi:bus1`	·	Power Factor
`m:tanphi:bus1`	·	tan(phi)
`m:Psum:bus1`	MW	Total Active Power
`m:Qsum:bus1`	Mvar	Total Reactive Power
`m:Ssum:bus1`	MVA	Total Apparent Power
`m:cosphisum:bus1`	·	Total Power Factor
`m:tanphisum:bus1`	·	Total tan(phi)
`m:i1P:bus1`	p.u.	Positive-Sequence Active Current
`m:i1Q:bus1`	p.u.	Positive-Sequence Reactive Current
`m:I1P:bus1`	kA	Positive-Sequence Active Current
`m:I1Q:bus1`	kA	Positive-Sequence Reactive Current
`m:ur:bus1`	p.u.	Voltage, Real Part
`m:ui:bus1`	p.u.	Voltage, Imaginary Part
`m:u:bus1`	p.u.	Voltage, Magnitude
`m:ir:bus1`	p.u.	Current, Real Part
`m:ii:bus1`	p.u.	Current, Imaginary Part
`m:i:bus1`	p.u.	Current, Magnitude
`m:phiui:bus1`	deg	Angle between Voltage and Current
`m:phiu1i1:bus1`	deg	Angle between Voltage and Current in positive sequence system
`m:Tfct:bus1`	s	Fault Clearing Time
`m:Brkload:bus1`	%	Breaker Loading
`m:Spu:bus1`	MVA/p.u.	Apparent Power per p.u. Voltage
`m:urnet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, Real Part, referred to network
`m:uinet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, Imaginary Part, referred to network
`m:u0:bus1`	p.u.	Zero-Sequence-Voltage, Magnitude
`m:phiu0:bus1`	deg	Zero-Sequence-Voltage, Angle
`m:u2:bus1`	p.u.	Negative-Sequence-Voltage, Magnitude
`m:phiu2:bus1`	deg	Negative-Sequence-Voltage, Angle
`m:irnet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Real Part, referred to network
`m:iinet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Imaginary Part, referred to network
`m:inet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Magnitude, referred to network
`m:I:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Phase Current, Magnitude
`m:phii:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Phase Current, Angle
`m:i0r:bus1`	p.u.	Zero-Sequence Current, Real Part
`m:i0i:bus1`	p.u.	Zero-Sequence Current, Imaginary Part
`m:i0:bus1`	p.u.	Zero-Sequence Current, Magnitude
`m:I0:bus1`	kA	Zero-Sequence Current, Magnitude
`m:I0x3:bus1`	kA	3*I0
`m:phii0:bus1`	deg	Zero-Sequence Current, Angle
`m:i2r:bus1`	p.u.	Negative-Sequence Current, Real Part
`m:i2i:bus1`	p.u.	Negative-Sequence Current, Imaginary Part
`m:i2:bus1`	p.u.	Negative-Sequence Current, Magnitude
`m:I2:bus1`	kA	Negative-Sequence Current, Magnitude
`m:phii2:bus1`	deg	Negative-Sequence Current, Angle
`m:ubfacI:bus1`	%	Current Unbalance Factor
`m:ubfacS:bus1`	%	Power Unbalance Factor
`m:P:bus1:A`per phase :A, :B, :C, unbalanced only	MW	Active Power
`m:Q:bus1:A`per phase :A, :B, :C, unbalanced only	Mvar	Reactive Power
`m:S:bus1:A`per phase :A, :B, :C, unbalanced only	MVA	Apparent Power
`m:cosphi:bus1:A`per phase :A, :B, :C, unbalanced only	·	Power Factor
`m:tanphi:bus1:A`per phase :A, :B, :C, unbalanced only	·	tan(phi)
`m:Pln:bus1:A`per phase :A, :B, :C, unbalanced only	MW	Active Power (Line-Neutral)
`m:Qln:bus1:A`per phase :A, :B, :C, unbalanced only	Mvar	Reactive Power (Line-Neutral)
`m:P1:bus1`	MW	Positive Sequence Active Power
`m:Q1:bus1`	Mvar	Positive Sequence Reactive Power
`m:P2:bus1`	MW	Negative Sequence Active Power
`m:Q2:bus1`	Mvar	Negative Sequence Reactive Power
`m:P0:bus1`	MW	Zero Sequence Active Power
`m:Q0:bus1`	Mvar	Zero Sequence Reactive Power
`m:i2P:bus1`	p.u.	Negative-Sequence Active Current
`m:i2Q:bus1`	p.u.	Negative-Sequence Reactive Current
`m:I2P:bus1`	kA	Negative-Sequence Active Current
`m:I2Q:bus1`	kA	Negative-Sequence Reactive Current
`m:ur:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, Real Part
`m:ui:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, Imaginary Part
`m:u:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, Magnitude
`m:ir:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Real Part
`m:ii:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Imaginary Part
`m:i:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Magnitude
`m:phiui:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Angle between Voltage and Current
`m:phiu0i0:bus1`	deg	Angle between Voltage and Current in zero-sequence system
`m:phiu2i2:bus1`	deg	Angle between Voltage and Current in negative sequence system
`m:TfctPh:bus1:A`per phase :A, :B, :C, unbalanced only	s	Fault Clearing Time
`m:BrkloadPh:bus1:A`per phase :A, :B, :C, unbalanced only	%	Breaker Loading
`c:sgnn`	MVA	Total rated apparent power (ngnum*sgn)
`c:cosn`	·	Nominal-Power factor
`c:p`	MW	Total Active Power
`c:q`	Mvar	Total Reactive Power
`c:Pnom`	MW	Total Nominal Active power
`c:c2`	·	Voltage Coefficient (uknom/ugn)
`c:uini`	p.u.	Voltage Setpoint for PV and Slack
`c:phiini`	·	Initial Angle
`c:phirelref`	rad	Relative reference angle
`c:loading`	%	Loading
`c:iPowerOn`	·	Flag
`c:Qmin`	Mvar	Lower limit of reactive power
`c:Qmax`	Mvar	Upper limit of reactive power
`c:Qsparelead`	Mvar	Q spare lead
`c:Qsparelag`	Mvar	Q spare lag
`c:i_qlim`	·	Reactive power limit reached
`c:i_vlim`	·	Voltage setpoint limit reached
`c:Pmin`	MW	Lower limit of active power
`c:Pmax`	MW	Upper limit of active power
`c:i_plim`	·	Active power limit reached
`c:sm`	MVA	Complex Power
`c:u1`	p.u.	Internal
`c:Kp`	p.u.	Active Power Participation
`c:Kq`	p.u.	Reactive Power Participation
`c:Kpf`	MW/Hz	Frequency Bias
`c:iRefElement`	·	Reference Element
`c:Nnom`	·	Number of parallel units
`c:zonewscale`	·	Wind generation zone scaling factor
`c:Pmism`	MW	Active Power Mismatch
`c:nCtrlIter`	·	No. of CTRL-iterations
`c:Ploss`	MW	Losses (total)
`c:Qloss`	Mvar	Reactive-Losses (total)
`c:Plossld`	MW	Losses (load)
`c:Qlossld`	Mvar	Reactive-Losses (load)
`c:Plossnld`	MW	Losses (no load)
`c:Qlossnld`	Mvar	Reactive-Losses (no load)
`c:Snom`	MVA	Nom. Apparent Power (1 mach.)
`n:ur:bus1`	p.u.	Voltage, Real Part
`n:ui:bus1`	p.u.	Voltage, Imaginary Part
`n:u:bus1`	p.u.	Voltage, Magnitude
`n:upc:bus1`	%	Voltage, Magnitude
`n:du:bus1`	%	Voltage Deviation
`n:U:bus1`	kV	Line-Ground Voltage, Magnitude
`n:phiu:bus1`	deg	Voltage, Angle
`n:phiurel:bus1`	deg	Voltage, Relative Angle
`n:Ul:bus1`	kV	Line-Line Voltage, Magnitude
`n:u1:bus1`	p.u.	Voltage, Magnitude
`n:u1pc:bus1`	%	Voltage, Magnitude
`n:u1r:bus1`	p.u.	Positive-Sequence Voltage, Real Part
`n:u1i:bus1`	p.u.	Positive-Sequence Voltage, Imaginary Part
`n:Pgen:bus1`	MW	Generation, Active Power
`n:Qgen:bus1`	Mvar	Generation, Reactive Power
`n:Pmot:bus1`	MW	Motor Load, Active Power
`n:Qmot:bus1`	Mvar	Motor Load, Reactive Power
`n:Pload:bus1`	MW	General Load, Active Power
`n:Qload:bus1`	Mvar	General Load, Reactive Power
`n:Pcomp:bus1`	MW	Compensation (Losses)
`n:Qcomp:bus1`	Mvar	Compensation
`n:Pnet:bus1`	MW	External Networks, Active Power
`n:Qnet:bus1`	Mvar	External Networks, Reactive Power
`n:Pflow:bus1`	MW	Power Flow, Active Power
`n:Qflow:bus1`	Mvar	Power Flow, Reactive Power
`n:Pout:bus1`	MW	Outgoing Flow, Active Power
`n:Qout:bus1`	Mvar	Outgoing Power, Reactive Power
`n:Sout:bus1`	MVA	Outgoing Power, Apparent Power
`n:cosphiout:bus1`	·	Outgoing Power, Power Factor
`n:Pbalance:bus1`	MW	Active Power Balance (=0)
`n:Qbalance:bus1`	Mvar	Reactive Power Balance (=0)
`n:LossPdown:bus1`	MW	Losses, downstream
`n:LossQdown:bus1`	Mvar	Losses, downstream (Reactive Power)
`n:LossPdownload:bus1`	MW	Load losses, downstream
`n:LossQdownload:bus1`	Mvar	Load losses, downstream
`n:LossPdownnoload:bus1`	MW	No load losses, downstream
`n:LossQdownnoload:bus1`	Mvar	No load losses, downstream
`n:du_feed:bus1`	%	Difference from voltage at start of feeder
`n:ur:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Ground Voltage, Real Part
`n:ui:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Ground Voltage, Imaginary Part
`n:u:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Ground Voltage, Magnitude
`n:upc:bus1:A`per phase :A, :B, :C, unbalanced only	%	Line-Ground Voltage, Magnitude
`n:du:bus1:A`per phase :A, :B, :C, unbalanced only	%	Voltage Deviation
`n:U:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Ground Voltage, Magnitude
`n:phiu:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Line-Ground Voltage, Angle
`n:ul:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Line Voltage, Magnitude
`n:ulpc:bus1:A`per phase :A, :B, :C, unbalanced only	%	Line-Line Voltage, Magnitude
`n:Ul:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Line Voltage, Magnitude
`n:phiul:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Line-Line Voltage, Angle
`n:u0:bus1`	p.u.	Zero-Sequence Voltage, Magnitude
`n:U0:bus1`	kV	Zero-Sequence Voltage, Magnitude
`n:U0x3:bus1`	kV	3*U0
`n:phiu0:bus1`	deg	Zero-Sequence Voltage, Angle
`n:U1:bus1`	kV	Line-Ground Positive-Sequence Voltage, Magnitude
`n:phiu1:bus1`	deg	Positive-Sequence Voltage, Angle
`n:u2:bus1`	p.u.	Negative-Sequence Voltage, Magnitude
`n:U2:bus1`	kV	Line-Ground Negative-Sequence Voltage, Magnitude
`n:phiu2:bus1`	deg	Negative-Sequence Voltage, Angle
`n:U1l:bus1`	kV	Line-Line Positive-Sequence Voltage, Magnitude
`n:U2l:bus1`	kV	Line-Line Negative-Sequence Voltage, Magnitude
`n:uln:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Neutral Voltage, Magnitude
`n:Uln:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Neutral Voltage, Magnitude
`n:phiuln:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Line-Neutral Voltage, Angle
`n:un:bus1`	p.u.	Neutral-Ground Voltage, Magnitude
`n:Un:bus1`	kV	Neutral-Ground Voltage, Magnitude
`n:phiun:bus1`	deg	Neutral-Ground Voltage, Angle
`n:upht:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Technology dependent Voltage, Magnitude
`n:Upht:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Phase Technology dependent Voltage, Magnitude
`n:um:bus1`	p.u.	Average-Voltage, Magnitude
`n:Um:bus1`	kV	Average-Voltage, Magnitude
`n:uphtmin:bus1`	p.u.	Minimum of Phase Technology dependent Voltage, Magnitude
`n:uphtmax:bus1`	p.u.	Maximum of Phase Technology dependent Voltage, Magnitude
`n:ubfac:bus1`	%	Unbalance Factor
`s:pset`	MW	Active Power Setpoint
`s:qset`	Mvar	Reactive Power Setpoint
`s:dFin`	Hz	Frequency Deviation
`s:phiset`	rad	Voltage Angle Setpoint
`s:i2r_set`	p.u.	Negative sequence current setpoint, Real Part
`s:i2i_set`	p.u.	Negative sequence current setpoint, Imaginary Part

ElmPvsys short-circuit results

Read after ComShc with GetAttribute. m: currents, voltages and powers, c: calculation parameter, n: bus result at a terminal.

Attribute	Unit	Description
`m:I:bus1`	kA	Short-Circuit Current, Magnitude
`m:phii:bus1`	deg	Phase Current, Angle
`m:i1:bus1`	p.u.	Positive-Sequence Current, Magnitude
`m:I1:bus1`	kA	Positive-Sequence Current, Magnitude
`m:phii1:bus1`	deg	Positive-Sequence Current, Angle
`m:P:bus1`	MW	Active Power
`m:Q:bus1`	Mvar	Reactive Power
`m:i1P:bus1`	p.u.	Positive-Sequence Active Current
`m:i1Q:bus1`	p.u.	Positive-Sequence Reactive Current
`m:I1P:bus1`	kA	Positive-Sequence Active Current
`m:I1Q:bus1`	kA	Positive-Sequence Reactive Current
`m:phiui:bus1`	deg	Angle between Voltage and Current
`m:phiu1i1:bus1`	deg	Angle between Voltage and Current in Positive-Sequence System
`m:Tfct:bus1`	s	Fault Clearing Time
`m:Ikss:bus1`	kA	Initial Short-Circuit Current
`m:ikss:bus1`	p.u.	Initial Short-Circuit Current, Magnitude
`m:Skss:bus1`	MVA	Initial Short-Circuit Power
`m:ip:bus1`	kA	Peak Short-Circuit Current
`m:maxIkss:bus1`	kA	Max. Initial Short-Circuit Current
`m:maxip:bus1`	kA	Max. Peak Short-Circuit Current
`m:maxIth:bus1`	kA	Max. Thermal equivalent Short-Circuit Current
`m:maxIb:bus1`	kA	Max. Breaking Current
`m:R:bus1`	Ohm	Fault Impedance, Real Part
`m:X:bus1`	Ohm	Fault Impedance, Imaginary Part
`m:Z:bus1`	Ohm	Fault Impedance, Magnitude
`m:phiz:bus1`	deg	Fault Impedance, Angle
`m:Rs:bus1`	Ohm	Source Impedance, Real Part
`m:Xs:bus1`	Ohm	Source Impedance, Imaginary Part
`m:Zs:bus1`	Ohm	Source Impedance, Magnitude
`m:phizs:bus1`	deg	Source Impedance, Angle
`m:BrkIpload:bus1`	%	Breaker Loading (peak)
`m:Ib:bus1`	kA	Short-Circuit Breaking Current
`m:Sb:bus1`	MVA	Short-Circuit Breaking Power
`m:Ith:bus1`	kA	Thermal equivalent Short-Circuit Current
`m:zSbase:bus1`	p.u.	Fault Impedance, Magnitude
`m:XtoR:bus1`	·	X/R ratio
`m:cosphiui:bus1`	·	cosphi
`m:BrkIbload:bus1`	%	Breaker Loading (breaking)
`m:BrkmaxIb:bus1`	kA	Max. Breaking Current (breaker time)
`m:Ik:bus1`	kA	Steady-State Short-Circuit Current
`m:I:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Short-Circuit Current, Magnitude
`m:phii:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Phase Current, Angle
`m:I0:bus1`	kA	Zero-Sequence Current, Magnitude
`m:I0x3:bus1`	kA	3*I0
`m:phii0:bus1`	deg	Zero-Sequence Current, Angle
`m:I2:bus1`	kA	Negative-Sequence Current, Magnitude
`m:phii2:bus1`	deg	Negative-Sequence Current, Angle
`m:P:bus1:A`per phase :A, :B, :C, unbalanced only	MW	Active Power
`m:Q:bus1:A`per phase :A, :B, :C, unbalanced only	Mvar	Reactive Power
`m:Psum:bus1`	MW	Total Active Power
`m:Qsum:bus1`	Mvar	Total Reactive Power
`m:cosphisum:bus1`	·	Total Power Factor
`m:P2:bus1`	MW	P2
`m:Q2:bus1`	Mvar	Q2
`m:P0:bus1`	MW	P0
`m:phiui:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Angle between Voltage and Current
`m:phiu0i0:bus1`	deg	Angle between Voltage and Current in Zero-Sequence System
`m:phiu2i2:bus1`	deg	Angle between Voltage and Current in Negative-Sequence System
`m:TfctPh:bus1:A`per phase :A, :B, :C, unbalanced only	s	Fault Clearing Time
`m:Ikss:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Initial Short-Circuit Current
`m:ikss:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Initial Short-Circuit Current, Magnitude
`m:Skss:bus1:A`per phase :A, :B, :C, unbalanced only	MVA	Initial Short-Circuit Power
`m:Skssx3:bus1:A`per phase :A, :B, :C, unbalanced only	MVA	3*Initial Short-Circuit Power
`m:ip:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Peak Short-Circuit Current
`m:Z:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Fault Impedance, Magnitude
`m:phiz:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Fault Impedance, Angle
`m:Zl:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Line-Line Fault Impedance, Magnitude
`m:phizl:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Line-Line Fault Impedance, Angle
`m:Z0:bus1`	Ohm	Zero-Sequence Fault Impedance, Magnitude
`m:phiz0:bus1`	deg	Zero-Sequence Fault Impedance, Angle
`m:z0Sbase:bus1`	p.u.	Zero-Sequence Fault Impedance, Magnitude
`m:cosphiu1i1:bus1`	·	Positive-Sequence cosphi
`m:I0x3watt:bus1`	kA	Earth-Fault Residual Current
`m:I0x3var:bus1`	kA	Capacitive Earth-Fault Current
`m:Q0cap:bus1`	Mvar	Q0 capacitive
`m:Rfrel:bus1`	Ohm	Relay Impedance, Real Part
`m:Xfrel:bus1`	Ohm	Relay Impedance, Imaginary Part
`m:Zfrel:bus1`	Ohm	Relay Impedance, Magnitude
`m:phizfrel:bus1`	deg	Relay Impedance, Angle
`m:Zf:bus1`	Ohm	Meas. Fault Impedance, Magnitude
`m:phizf:bus1`	deg	Meas. Fault Impedance, Angle
`c:uini`	p.u.	Internal positive-sequence voltage
`c:z1`	p.u.	Positive-sequence impedance
`c:imax`	p.u.	Max. current
`c:Zwd`	p.u.	Impedance of doubly-fed asynchronous generator
`c:z0`	p.u.	Zero-sequence impedance
`c:z2`	p.u.	Negative-sequence impedance
`c:Kfactor`	·	K Factor
`c:icurlim`	·	Current limited reached
`n:ur:bus1`	p.u.	Voltage, Real Part
`n:ui:bus1`	p.u.	Voltage, Imaginary Part
`n:u:bus1`	p.u.	Voltage, Magnitude
`n:upc:bus1`	%	Voltage, Magnitude
`n:du:bus1`	%	Voltage Deviation
`n:U:bus1`	kV	Line-Ground Voltage, Magnitude
`n:phiu:bus1`	deg	Voltage, Angle
`n:Ul:bus1`	kV	Line-Line Voltage, Magnitude
`n:u1:bus1`	p.u.	Voltage, Magnitude
`n:u1pc:bus1`	%	Voltage, Magnitude
`n:u1r:bus1`	p.u.	Positive-Sequence Voltage, Real Part
`n:u1i:bus1`	p.u.	Positive-Sequence Voltage, Imaginary Part
`n:Ikss:bus1`	kA	Initial Short-Circuit Current
`n:I:bus1`	kA	Short-Circuit Current
`n:phii:bus1`	deg	Phase Current, Angle
`n:Skss:bus1`	MVA	Initial Short-Circuit Power
`n:ip:bus1`	kA	Peak Short-Circuit Current
`n:Ib:bus1`	kA	Short-Circuit Breaking Current
`n:Sb:bus1`	MVA	Short-Circuit Breaking Power
`n:idc:bus1`	kA	Decaying Component
`n:Ith:bus1`	kA	Thermal equivalent Short-Circuit Current
`n:R1toX1:bus1`	·	R1/X1 ratio (Zk")
`n:X1toR1:bus1`	·	X1/R1 ratio (Zk")
`n:R:bus1`	Ohm	Short-Circuit Impedance, Real Part
`n:X:bus1`	Ohm	Short-Circuit Impedance, Imaginary Part
`n:Z:bus1`	Ohm	Short-Circuit Impedance, Magnitude
`n:phiz:bus1`	deg	Short-Circuit Impedance, Angle
`n:urpref:bus1`	p.u.	Pre-fault Voltage, Real Part
`n:uipref:bus1`	p.u.	Pre-fault Voltage, Imaginary Part
`n:upref:bus1`	p.u.	Pre-fault Voltage, Magnitude
`n:uprefpc:bus1`	%	Pre-fault Voltage, Magnitude
`n:Upref:bus1`	kV	Line-Ground Pre-fault Voltage, Magnitude
`n:Ulpref:bus1`	kV	Line-Line Pre-fault Voltage, Magnitude
`n:phiupref:bus1`	deg	Pre-fault Voltage, Angle
`n:phiui:bus1`	deg	Angle between Voltage and Current
`n:Ithload:bus1`	%	Loading, Thermal equivalent Current
`n:Ipload:bus1`	%	Loading, Peak Short-Circuit Current
`n:Ithrtk:bus1`	kA	Rated Short-Time Current (Tk)
`n:XtoR:bus1`	·	X/R ratio (peak)
`n:RtoX:bus1`	·	R/X ratio (peak)
`n:XtoR_b:bus1`	·	X/R ratio (dc)
`n:RtoX_b:bus1`	·	R/X ratio (dc)
`n:fctof_b:bus1`	·	Equivalent Frequency fc/f (dc)
`n:rSbase:bus1`	p.u.	Short-Circuit Impedance, Real Part
`n:xSbase:bus1`	p.u.	Short-Circuit Impedance, Imaginary Part
`n:zSbase:bus1`	p.u.	Short-Circuit Impedance, Magnitude
`n:Tn:bus1`	ms	Grid Time Constant
`n:Ik:bus1`	kA	Steady-State Short-Circuit Current
`n:cfac:bus1`	·	Voltage Factor
`n:Iasy:bus1`	kA	Asymmetrical Breaking Current
`n:ur:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Ground Voltage, Real Part
`n:ui:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Ground Voltage, Imaginary Part
`n:u:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Ground Voltage, Magnitude
`n:upc:bus1:A`per phase :A, :B, :C, unbalanced only	%	Line-Ground Voltage, Magnitude
`n:du:bus1:A`per phase :A, :B, :C, unbalanced only	%	Voltage Deviation
`n:U:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Ground Voltage, Magnitude
`n:phiu:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Line-Ground Voltage, Angle
`n:ul:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Line Voltage, Magnitude
`n:ulpc:bus1:A`per phase :A, :B, :C, unbalanced only	%	Line-Line Voltage, Magnitude
`n:Ul:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Line Voltage, Magnitude
`n:phiul:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Line-Line Voltage, Angle
`n:u0:bus1`	p.u.	Zero-Sequence Voltage, Magnitude
`n:U0:bus1`	kV	Zero-Sequence Voltage, Magnitude
`n:U0x3:bus1`	kV	3*U0
`n:phiu0:bus1`	deg	Zero-Sequence Voltage, Angle
`n:U1:bus1`	kV	Line-Ground Positive-Sequence Voltage, Magnitude
`n:phiu1:bus1`	deg	Positive-Sequence Voltage, Angle
`n:u2:bus1`	p.u.	Negative-Sequence Voltage, Magnitude
`n:U2:bus1`	kV	Line-Ground Negative-Sequence Voltage, Magnitude
`n:phiu2:bus1`	deg	Negative-Sequence Voltage, Angle
`n:U1l:bus1`	kV	Line-Line Positive-Sequence Voltage, Magnitude
`n:U2l:bus1`	kV	Line-Line Negative-Sequence Voltage, Magnitude
`n:uln:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Neutral Voltage, Magnitude
`n:Uln:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Neutral Voltage, Magnitude
`n:phiuln:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Line-Neutral Voltage, Angle
`n:un:bus1`	p.u.	Neutral-Ground Voltage, Magnitude
`n:Un:bus1`	kV	Neutral-Ground Voltage, Magnitude
`n:phiun:bus1`	deg	Neutral-Ground Voltage, Angle
`n:upht:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Technology dependent Voltage, Magnitude
`n:Upht:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Phase Technology dependent Voltage, Magnitude
`n:Ikss:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Initial Short-Circuit Current
`n:I:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Short-Circuit Current
`n:phii:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Phase Current, Angle
`n:Skss:bus1:A`per phase :A, :B, :C, unbalanced only	MVA	Initial Short-Circuit Power
`n:Skssx3:bus1:A`per phase :A, :B, :C, unbalanced only	MVA	3*Initial Short-Circuit Power
`n:ip:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Peak Short-Circuit Current
`n:Ib:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Short-Circuit Breaking Current
`n:Sb:bus1:A`per phase :A, :B, :C, unbalanced only	MVA	Short-Circuit Breaking Power
`n:Ith:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Thermal equivalent Short-Circuit Current
`n:Ithmax:bus1`	kA	Max. Thermal equivalent Short-Circuit Current
`n:R0:bus1`	Ohm	Zero-Sequence Impedance, Real Part
`n:X0:bus1`	Ohm	Zero-Sequence Impedance, Imaginary Part
`n:Z0:bus1`	Ohm	Zero-Sequence Impedance, Magnitude
`n:phiz0:bus1`	deg	Zero-Sequence Impedance, Angle
`n:r0Sbase:bus1`	p.u.	Zero-Sequence Impedance, Real Part
`n:x0Sbase:bus1`	p.u.	Zero-Sequence Impedance, Imaginary Part
`n:z0Sbase:bus1`	p.u.	Zero-Sequence Impedance, Magnitude
`n:R1:bus1`	Ohm	Positive-Sequence Impedance, Real Part
`n:X1:bus1`	Ohm	Positive-Sequence Impedance, Imaginary Part
`n:Z1:bus1`	Ohm	Positive-Sequence Impedance, Magnitude
`n:phiz1:bus1`	deg	Positive-Sequence Impedance, Angle
`n:r1Sbase:bus1`	p.u.	Positive-Sequence Impedance, Real Part
`n:x1Sbase:bus1`	p.u.	Positive-Sequence Impedance, Imaginary Part
`n:z1Sbase:bus1`	p.u.	Positive-Sequence Impedance, Magnitude
`n:R2:bus1`	Ohm	Negative-Sequence Impedance, Real Part
`n:X2:bus1`	Ohm	Negative-Sequence Impedance, Imaginary Part
`n:Z2:bus1`	Ohm	Negative-Sequence Impedance, Magnitude
`n:phiz2:bus1`	deg	Negative-Sequence Impedance, Angle
`n:r2Sbase:bus1`	p.u.	Negative-Sequence Impedance, Real Part
`n:x2Sbase:bus1`	p.u.	Negative-Sequence Impedance, Imaginary Part
`n:z2Sbase:bus1`	p.u.	Negative-Sequence Impedance, Magnitude
`n:R0toX0:bus1`	·	R0/X0 ratio (Zk")
`n:X0toR0:bus1`	·	X0/R0 ratio (Zk")
`n:R2toX2:bus1`	·	R2/X2 ratio (Zk")
`n:X2toR2:bus1`	·	X2/R2 ratio (Zk")
`n:R:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Network Resistance, Line-Ground
`n:X:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Network Reactance, Line-Ground
`n:Z:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Network Impedance, Line-Ground
`n:phiz:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Angle of Network Impedance, Line-Ground
`n:Rl:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Network Resistance, Line-Line
`n:Xl:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Network Reactance, Line-Line
`n:Zl:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Network Impedance, Line-Line
`n:phizl:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Angle of Network Impedance, Line-Line
`n:Rln:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Network Resistance, Line-Neutral
`n:Xln:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Network Reactance, Line-Neutral
`n:Zln:bus1:A`per phase :A, :B, :C, unbalanced only	Ohm	Network Impedance, Line-Neutral
`n:phizln:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Angle of Network Impedance, Line-Neutral
`n:Rn:bus1`	Ohm	Network Resistance, Neutral
`n:Xn:bus1`	Ohm	Network Reactance, Neutral
`n:Zn:bus1`	Ohm	Network Impedance, Neutral
`n:phizn:bus1`	deg	Angle of Network Impedance, Neutral
`n:eff:bus1:A`per phase :A, :B, :C, unbalanced only	·	Earth Fault Factor
`n:X0toX1:bus1`	·	X0/X1
`n:In:bus1`	kA	Neutral Current, Magnitude
`n:phiin:bus1`	deg	Neutral Current, Angle
`n:I0:bus1`	kA	Zero-Sequence Current, Magnitude
`n:I0x3:bus1`	kA	3*I0
`n:phii0:bus1`	deg	Zero-Sequence Current, Angle
`n:I1:bus1`	kA	Positive-Sequence Current, Magnitude
`n:phii1:bus1`	deg	Positive-Sequence Current, Angle
`n:I2:bus1`	kA	Negative-Sequence Current, Magnitude
`n:phii2:bus1`	deg	Negative-Sequence Current, Angle
`n:urpref:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Pre-fault Voltage, Real Part
`n:uipref:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Pre-fault Voltage, Imaginary Part
`n:upref:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Pre-fault Voltage, Magnitude
`n:uprefpc:bus1:A`per phase :A, :B, :C, unbalanced only	%	Pre-fault Voltage, Magnitude
`n:Upref:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Ground Pre-fault Voltage, Magnitude
`n:Ulpref:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Line Pre-fault Voltage, Magnitude
`n:phiupref:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Pre-fault Voltage, Angle
`n:phiui:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Angle between Voltage and Current
`n:phiu1i1:bus1`	deg	Angle between Voltage and Current in positive sequence system
`n:phiu2i2:bus1`	deg	Angle between Voltage and Current in negative sequence system
`n:phiu0i0:bus1`	deg	Angle between Voltage and Current in zero-sequence system
`n:Ik:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Steady-State Short-Circuit Current
`n:in:bus1`	p.u.	Neutral Current, Magnitude
`n:i0r:bus1`	p.u.	Zero-Sequence Current, Real Part
`n:i0i:bus1`	p.u.	Zero-Sequence Current, Imaginary Part
`n:i0:bus1`	p.u.	Zero-Sequence Current, Magnitude
`n:i1r:bus1`	p.u.	Positive-Sequence Current, Real Part
`n:i1i:bus1`	p.u.	Positive-Sequence Current, Imaginary Part
`n:i1:bus1`	p.u.	Positive-Sequence Current, Magnitude
`n:i2r:bus1`	p.u.	Negative-Sequence Current, Real Part
`n:i2i:bus1`	p.u.	Negative-Sequence Current, Imaginary Part
`n:i2:bus1`	p.u.	Negative-Sequence Current, Magnitude

ElmPvsys rms simulation results

Read after ComInc (RMS) with GetAttribute. m: currents, voltages and powers, c: calculation parameter, n: bus result at a terminal, s: signal (state or model variable).

Attribute	Unit	Description
`m:urnet:bus1`	p.u.	Voltage, Real Part, referred to network
`m:uinet:bus1`	p.u.	Voltage, Imaginary Part, referred to network
`m:u1r:bus1`	p.u.	Positive-Sequence-Voltage, Real Part
`m:u1i:bus1`	p.u.	Positive-Sequence-Voltage, Imaginary Part
`m:u1:bus1`	p.u.	Positive-Sequence-Voltage, Magnitude
`m:U1:bus1`	kV	Line-Ground Positive-Sequence-Voltage, Magnitude
`m:U1l:bus1`	kV	Line-Line Positive-Sequence-Voltage, Magnitude
`m:phiu1:bus1`	deg	Positive-Sequence-Voltage, Angle
`m:irnet:bus1`	p.u.	Current, Real Part, referred to network
`m:iinet:bus1`	p.u.	Current, Imaginary Part, referred to network
`m:inet:bus1`	p.u.	Current, Magnitude, referred to network
`m:I:bus1`	kA	Current, Magnitude
`m:phii:bus1`	deg	Current, Angle
`m:i1r:bus1`	p.u.	Positive-Sequence Current, Real Part
`m:i1i:bus1`	p.u.	Positive-Sequence Current, Imaginary Part
`m:i1:bus1`	p.u.	Positive-Sequence Current, Magnitude
`m:I1:bus1`	kA	Positive-Sequence Current, Magnitude
`m:phii1:bus1`	deg	Positive-Sequence Current, Angle
`m:P:bus1`	MW	Active Power
`m:Q:bus1`	Mvar	Reactive Power
`m:S:bus1`	MVA	Apparent Power
`m:cosphi:bus1`	·	Power Factor
`m:tanphi:bus1`	·	tan(phi)
`m:Psum:bus1`	MW	Total Active Power
`m:Qsum:bus1`	Mvar	Total Reactive Power
`m:Ssum:bus1`	MVA	Total Apparent Power
`m:cosphisum:bus1`	·	Total Power Factor
`m:tanphisum:bus1`	·	Total tan(phi)
`m:i1P:bus1`	p.u.	Positive-Sequence Active Current
`m:i1Q:bus1`	p.u.	Positive-Sequence Reactive Current
`m:I1P:bus1`	kA	Positive-Sequence Active Current
`m:I1Q:bus1`	kA	Positive-Sequence Reactive Current
`m:ur:bus1`	p.u.	Voltage, Real Part
`m:ui:bus1`	p.u.	Voltage, Imaginary Part
`m:u:bus1`	p.u.	Voltage, Magnitude
`m:ir:bus1`	p.u.	Current, Real Part
`m:ii:bus1`	p.u.	Current, Imaginary Part
`m:i:bus1`	p.u.	Current, Magnitude
`m:phiui:bus1`	deg	Angle between Voltage and Current
`m:phiu1i1:bus1`	deg	Angle between Voltage and Current in positive sequence system
`m:Tfct:bus1`	s	Fault Clearing Time
`m:Brkload:bus1`	%	Breaker Loading
`m:Spu:bus1`	MVA/p.u.	Apparent Power per p.u. Voltage
`m:urnet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, Real Part, referred to network
`m:uinet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, Imaginary Part, referred to network
`m:u0:bus1`	p.u.	Zero-Sequence-Voltage, Magnitude
`m:phiu0:bus1`	deg	Zero-Sequence-Voltage, Angle
`m:u2:bus1`	p.u.	Negative-Sequence-Voltage, Magnitude
`m:phiu2:bus1`	deg	Negative-Sequence-Voltage, Angle
`m:irnet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Real Part
`m:iinet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Imaginary Part
`m:inet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Magnitude
`m:I:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Phase Current, Magnitude
`m:phii:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Phase Current, Angle
`m:i0r:bus1`	p.u.	Zero-Sequence Current, Real Part
`m:i0i:bus1`	p.u.	Zero-Sequence Current, Imaginary Part
`m:i0:bus1`	p.u.	Zero-Sequence Current, Magnitude
`m:I0:bus1`	kA	Zero-Sequence Current, Magnitude
`m:I0x3:bus1`	kA	3*I0
`m:phii0:bus1`	deg	Zero-Sequence Current, Angle
`m:i2r:bus1`	p.u.	Negative-Sequence Current, Real Part
`m:i2i:bus1`	p.u.	Negative-Sequence Current, Imaginary Part
`m:i2:bus1`	p.u.	Negative-Sequence Current, Magnitude
`m:I2:bus1`	kA	Negative-Sequence Current, Magnitude
`m:phii2:bus1`	deg	Negative-Sequence Current, Angle
`m:P:bus1:A`per phase :A, :B, :C, unbalanced only	MW	Active Power
`m:Q:bus1:A`per phase :A, :B, :C, unbalanced only	Mvar	Reactive Power
`m:S:bus1:A`per phase :A, :B, :C, unbalanced only	MVA	Apparent Power
`m:cosphi:bus1:A`per phase :A, :B, :C, unbalanced only	·	Power Factor
`m:tanphi:bus1:A`per phase :A, :B, :C, unbalanced only	·	tan(phi)
`m:Pln:bus1:A`per phase :A, :B, :C, unbalanced only	MW	Active Power (Line-Neutral)
`m:Qln:bus1:A`per phase :A, :B, :C, unbalanced only	Mvar	Reactive Power (Line-Neutral)
`m:P1:bus1`	MW	Positive Sequence Active Power
`m:Q1:bus1`	Mvar	Positive Sequence Reactive Power
`m:P2:bus1`	MW	Negative Sequence Active Power
`m:Q2:bus1`	Mvar	Negative Sequence Reactive Power
`m:P0:bus1`	MW	Zero Sequence Active Power
`m:Q0:bus1`	Mvar	Zero Sequence Reactive Power
`m:i2P:bus1`	p.u.	Negative-Sequence Active Current
`m:i2Q:bus1`	p.u.	Negative-Sequence Reactive Current
`m:I2P:bus1`	kA	Negative-Sequence Active Current
`m:I2Q:bus1`	kA	Negative-Sequence Reactive Current
`m:ur:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, Real Part
`m:ui:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, Imaginary Part
`m:u:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, Magnitude
`m:ir:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Real Part
`m:ii:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Imaginary Part
`m:i:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, Magnitude
`m:phiui:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Angle between Voltage and Current
`m:phiu0i0:bus1`	deg	Angle between Voltage and Current in zero-sequence system
`m:phiu2i2:bus1`	deg	Angle between Voltage and Current in negative sequence system
`m:TfctPh:bus1:A`per phase :A, :B, :C, unbalanced only	s	Fault Clearing Time
`m:BrkloadPh:bus1:A`per phase :A, :B, :C, unbalanced only	%	Breaker Loading
`c:sgnn`	MVA	Total rated apparent power (ngnum*sgn)
`c:cosn`	·	Nominal-Power factor
`c:umin`	p.u.	iconfed
`c:pf_recap`	·	Power Factor ind/cap
`c:hpi`	rad/s	Nominal angular frequency
`c:phiu`	rad	Voltage angle
`n:ur:bus1`	p.u.	Voltage, Real Part
`n:ui:bus1`	p.u.	Voltage, Imaginary Part
`n:u:bus1`	p.u.	Voltage, Magnitude
`n:upc:bus1`	%	Voltage, Magnitude
`n:du:bus1`	%	Voltage Deviation
`n:U:bus1`	kV	Line-Ground Voltage, Magnitude
`n:phiu:bus1`	deg	Voltage, Angle
`n:phiurel:bus1`	deg	Voltage, Relative Angle
`n:Ul:bus1`	kV	Line-Line Voltage, Magnitude
`n:u1:bus1`	p.u.	Voltage, Magnitude
`n:u1pc:bus1`	%	Voltage, Magnitude
`n:u1r:bus1`	p.u.	Positive-Sequence Voltage, Real Part
`n:u1i:bus1`	p.u.	Positive-Sequence Voltage, Imaginary Part
`n:ishc:bus1`	p.u.	Short-Circuit Current, magnitude
`n:Ishc:bus1`	kA	Short-Circuit Current, magnitude
`n:fe:bus1`	p.u.	Electrical Frequency
`n:dfehz:bus1`	Hz	Deviation of the El. Frequency
`n:fehz:bus1`	Hz	Electrical Frequency
`n:frnom:bus1`	Hz	Nominal Frequency
`n:ishcr:bus1`	p.u.	Short-Circuit Current, real
`n:ishci:bus1`	p.u.	Short-Circuit Current, imag
`n:dfedt:bus1`	p.u./s	Derivative of El. Frequency
`n:ur:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Ground Voltage, Real Part
`n:ui:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Ground Voltage, Imaginary Part
`n:u:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Ground Voltage, Magnitude
`n:upc:bus1:A`per phase :A, :B, :C, unbalanced only	%	Line-Ground Voltage, Magnitude
`n:du:bus1:A`per phase :A, :B, :C, unbalanced only	%	Voltage Deviation
`n:U:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Ground Voltage, Magnitude
`n:phiu:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Line-Ground Voltage, Angle
`n:ul:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Line Voltage, Magnitude
`n:ulpc:bus1:A`per phase :A, :B, :C, unbalanced only	%	Line-Line Voltage, Magnitude
`n:Ul:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Line Voltage, Magnitude
`n:phiul:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Line-Line Voltage, Angle
`n:u0:bus1`	p.u.	Zero-Sequence Voltage, Magnitude
`n:U0:bus1`	kV	Zero-Sequence Voltage, Magnitude
`n:U0x3:bus1`	kV	3*U0
`n:phiu0:bus1`	deg	Zero-Sequence Voltage, Angle
`n:U1:bus1`	kV	Line-Ground Positive-Sequence Voltage, Magnitude
`n:phiu1:bus1`	deg	Positive-Sequence Voltage, Angle
`n:u2:bus1`	p.u.	Negative-Sequence Voltage, Magnitude
`n:U2:bus1`	kV	Line-Ground Negative-Sequence Voltage, Magnitude
`n:phiu2:bus1`	deg	Negative-Sequence Voltage, Angle
`n:U1l:bus1`	kV	Line-Line Positive-Sequence Voltage, Magnitude
`n:U2l:bus1`	kV	Line-Line Negative-Sequence Voltage, Magnitude
`n:uln:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Neutral Voltage, Magnitude
`n:Uln:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Neutral Voltage, Magnitude
`n:phiuln:bus1:A`per phase :A, :B, :C, unbalanced only	deg	Line-Neutral Voltage, Angle
`n:un:bus1`	p.u.	Neutral-Ground Voltage, Magnitude
`n:Un:bus1`	kV	Neutral-Ground Voltage, Magnitude
`n:phiun:bus1`	deg	Neutral-Ground Voltage, Angle
`n:upht:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Technology dependent Voltage, Magnitude
`n:Upht:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Phase Technology dependent Voltage, Magnitude
`n:um:bus1`	p.u.	Average-Voltage, Magnitude
`n:Um:bus1`	kV	Average-Voltage, Magnitude
`n:ishc:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Short-Circuit Current, magnitude
`n:Ishc:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Short-Circuit Current, magnitude
`n:inshc:bus1`	p.u.	Neutral Short-Circuit Current, magnitude
`n:Inshc:bus1`	kA	Neutral Short-Circuit Current, magnitude
`n:ishcr:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Short-Circuit Current, real
`n:ishci:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Short-Circuit Current, imag
`s:Pext`	MW	Active Power Input
`s:Qext`	Mvar	Reactive Power Input
`s:scale`	·	Scale Factor
`s:f0`	p.u.	Frequency input
`s:F0Hz`	Hz	Frequency input (Hz)
`s:fref`	p.u.	Reference frequency
`s:id_ref`	p.u.	d-axis current reference
`s:iq_ref`	p.u.	q-axis current reference
`s:u1r_in`	p.u.	Voltage input, real part
`s:u1i_in`	p.u.	Voltage input, imaginary part
`s:cosref`	·	cos(dq-reference angle)
`s:sinref`	·	sin(dq-reference angle)
`s:simModel`	·	0 - Current source model, 1 - Voltage source model
`s:xspeed`	p.u.	Frequency
`s:id`	p.u.	Current, d-Axis
`s:iq`	p.u.	Current, q-Axis
`s:i2d_ref`	p.u.	Negative sequence current, d-axis reference
`s:i2q_ref`	p.u.	Negative sequence current, q-axis reference
`s:u2r_in`	p.u.	Negative sequence voltage input, real part
`s:u2i_in`	p.u.	Negative sequence voltage input, imaginary part
`s:cos2ref`	·	cos(negative sequence dq-reference angle)
`s:sin2ref`	·	sin(negative sequence dq-reference angle)
`s:u0r_in`	p.u.	Zero sequence voltage input, real part
`s:u0i_in`	p.u.	Zero sequence voltage input, imaginary part
`s:phiu`	rad	Voltage-Angle

ElmPvsys emt simulation results

Read after ComInc (EMT) with GetAttribute. m: currents, voltages and powers, c: calculation parameter, n: bus result at a terminal, s: signal (state or model variable).

Attribute	Unit	Description
`m:u0:bus1`	p.u.	Zero-Sequence-Voltage
`m:u1r:bus1`	p.u.	Voltage Phasor, Real Part
`m:u1i:bus1`	p.u.	Voltage Phasor, Imaginary Part
`m:u1:bus1`	p.u.	Voltage Phasor, Magnitude
`m:U1:bus1`	kV	Line-Ground Voltage Phasor, Magnitude
`m:U1l:bus1`	kV	Line-Line Voltage Phasor, Magnitude
`m:phiu1:bus1`	deg	Voltage Phasor, Angle
`m:inet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current, referred to network
`m:I:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Phase Current
`m:i0:bus1`	p.u.	Zero-Sequence Current
`m:I0:bus1`	kA	Zero-Sequence Current
`m:I0x3:bus1`	kA	3*I0
`m:i1r:bus1`	p.u.	Current Phasor, Real Part
`m:i1i:bus1`	p.u.	Current Phasor, Imaginary Part
`m:i1:bus1`	p.u.	Current Phasor, Magnitude
`m:I1:bus1`	kA	Current Phasor, Magnitude
`m:phii1:bus1`	deg	Current Phasor, Angle
`m:P:bus1:A`per phase :A, :B, :C, unbalanced only	MW	Active Power
`m:Psum:bus1`	MW	Power-Phasor, Active Power
`m:Qsum:bus1`	Mvar	Power Phasor, Reactive Part
`m:Ssum:bus1`	MVA	Power Phasor, Apparent Power
`m:i1P:bus1`	p.u.	Current Phasor, Active Current
`m:i1Q:bus1`	p.u.	Current Phasor, Reactive Current
`m:I1P:bus1`	kA	Current Phasor, Active Current
`m:I1Q:bus1`	kA	Current Phasor, Reactive Current
`m:u:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage
`m:i:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Current
`m:phiu1i1:bus1`	deg	Angle between Voltage and Current Phasor
`m:Tfct:bus1`	s	Fault Clearing Time
`m:TfctPh:bus1:A`per phase :A, :B, :C, unbalanced only	s	Fault Clearing Time
`m:unet:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage, referred to network
`m:cosphi1:bus1`	·	Power-Phasor, Power-Factor
`c:sgnn`	MVA	Total rated apparent power (ngnum*sgn)
`c:cosn`	·	Nominal power factor
`c:hpi`	rad/s	Nominal angular frequency
`c:u1_pll`	p.u.	PLL Voltage
`n:u:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Phase Voltage
`n:upc:bus1:A`per phase :A, :B, :C, unbalanced only	%	Phase Voltage
`n:U:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Phase Voltage
`n:ul:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Line Voltage
`n:ulpc:bus1:A`per phase :A, :B, :C, unbalanced only	%	Line-Line Voltage
`n:Ul:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Line Voltage
`n:u0:bus1`	p.u.	Zero-Sequence-Voltage
`n:U0:bus1`	kV	Zero-Sequence-Voltage
`n:U0x3:bus1`	kV	3*U0
`n:u1:bus1`	p.u.	Voltage Phasor, Magnitude
`n:u1pc:bus1`	%	Voltage Phasor, Magnitude
`n:u1r:bus1`	p.u.	Voltage Phasor, Real Part
`n:u1i:bus1`	p.u.	Voltage Phasor, Imaginary Part
`n:U1:bus1`	kV	Voltage Phasor, Magnitude
`n:phiu1:bus1`	deg	Voltage Phasor, Angle
`n:U1l:bus1`	kV	Line-Line Voltage Phasor, Magnitude
`n:uln:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Line-Neutral Voltage
`n:Uln:bus1:A`per phase :A, :B, :C, unbalanced only	kV	Line-Neutral Voltage
`n:un:bus1`	p.u.	Neutral-Ground Voltage
`n:Un:bus1`	kV	Neutral-Ground Voltage
`n:ishc:bus1:A`per phase :A, :B, :C, unbalanced only	p.u.	Short-Circuit Current
`n:Ishc:bus1:A`per phase :A, :B, :C, unbalanced only	kA	Short-Circuit Current
`n:inshc:bus1`	p.u.	Neutral Short-Circuit Current, magnitude
`n:Inshc:bus1`	kA	Neutral Short-Circuit Current, magnitude
`n:fe:bus1`	p.u.	Electrical Frequency
`n:dfehz:bus1`	Hz	Deviation of the El. Frequency
`n:fehz:bus1`	Hz	Electrical Frequency
`n:frnom:bus1`	Hz	Nominal Frequency
`s:f0`	p.u.	Frequency input
`s:F0Hz`	Hz	Frequency input (Hz)
`s:fref`	p.u.	Reference frequency
`s:id_ref`	p.u.	d-axis current reference
`s:iq_ref`	p.u.	q-axis current reference
`s:i2d_ref`	p.u.	Negative sequence current, d-axis reference
`s:i2q_ref`	p.u.	Negative sequence current, q-axis reference
`s:u1r_in`	p.u.	Voltage input, real part
`s:u1i_in`	p.u.	Voltage input, imaginary part
`s:cosref`	·	cos(dq-reference angle)
`s:sinref`	·	sin(dq-reference angle)
`s:simModel`	·	0 - Current source model, 1 - Voltage source model
`s:id`	p.u.	Current, d-axis
`s:iq`	p.u.	Current, q-axis
`s:phiu`	rad	Voltage angle
`s:iin_a`	p.u.	Current, phase A
`s:iin_b`	p.u.	Current, phase B
`s:iin_c`	p.u.	Current, phase C
`s:xd`	p.u.	State variable, current controller d-axis
`s:xq`	p.u.	State variable, current controller q-axis
`s:u0_in`	p.u.	Voltage input, zero sequence component
`s:x1_pllu`	·	x1 State Variable (Voltage PLL)
`s:x2_pllu`	rad	x2 State Variable (Voltage PLL)
`s:xd_pllu`	·	xd State Variable (Voltage PLL)
`s:xq_pllu`	·	xq State Variable (Voltage PLL)
`s:x1_plli`	·	x1 State Variable (Current PLL)
`s:x2_plli`	rad	x2 State Variable (Current PLL)
`s:xd_plli`	·	xd State Variable (Current PLL)
`s:xq_plli`	·	xq State Variable (Current PLL)

ElmPvsys dc load flow results

Read after ComLdf (DC) with GetAttribute. m: currents, voltages and powers, c: calculation parameter, n: bus result at a terminal, s: signal (state or model variable).

Attribute	Unit	Description
`m:P:bus1`	MW	Active Power
`m:Q:bus1`	Mvar	Reactive Power
`c:sgnn`	MVA	Total rated apparent power (ngnum*sgn)
`c:cosn`	·	Nominal-Power factor
`c:p`	MW	Total Active Power
`c:Pnom`	MW	Total Nominal Active power
`c:phiini`	·	Initial Angle
`c:loading`	%	Loading
`c:iPowerOn`	·	Flag
`c:Pmin`	MW	Lower limit of active power
`c:Pmax`	MW	Upper limit of active power
`c:i_plim`	·	Active power limit reached
`c:Kp`	p.u.	Active Power Participation
`c:Kpf`	MW/Hz	Frequency Bias
`c:iRefElement`	·	Reference Element
`c:Nnom`	·	Number of parallel units
`c:zonewscale`	·	Wind generation zone scaling factor
`c:Pmism`	MW	Active Power Mismatch
`c:Ploss`	MW	Losses (total)
`c:Qloss`	Mvar	Reactive-Losses (total)
`c:Snom`	MVA	Nom. Apparent Power (1 mach.)
`c:cst_disp`	USD/h	Operating Costs
`n:u:bus1`	p.u.	Voltage, Magnitude
`n:upc:bus1`	%	Voltage, Magnitude
`n:U:bus1`	kV	Line-Ground Voltage, Magnitude
`n:phiu:bus1`	deg	Voltage, Angle
`n:phiurel:bus1`	deg	Voltage, Relative Angle
`n:Ul:bus1`	kV	Line-Line Voltage, Magnitude
`n:u1:bus1`	p.u.	Voltage, Magnitude
`n:Pgen:bus1`	MW	Generation, Active Power
`n:Pmot:bus1`	MW	Motor Load, Active Power
`n:Pload:bus1`	MW	General Load, Active Power
`n:Pcomp:bus1`	MW	Compensation (Losses)
`n:Pnet:bus1`	MW	External Networks, Active Power
`n:Pflow:bus1`	MW	Power Flow, Active Power
`s:pset`	MW	Active Power Setpoint
`s:dFin`	Hz	Frequency Deviation

Read after ComMod with GetAttribute. c: calculation parameter, s: signal (state or model variable).

Attribute	Unit	Description
`c:sgnn`	MVA	Total rated apparent power (ngnum*sgn)
`c:cosn`	·	Nominal-Power factor
`c:umin`	p.u.	iconfed
`c:pf_recap`	·	Power Factor ind/cap
`c:hpi`	rad/s	Nominal angular frequency
`c:phiu`	rad	Voltage angle
`s:Pext`	MW	Active Power Input
`s:Qext`	Mvar	Reactive Power Input
`s:scale`	·	Scale Factor
`s:f0`	p.u.	Frequency input
`s:F0Hz`	Hz	Frequency input (Hz)
`s:fref`	p.u.	Reference frequency
`s:id_ref`	p.u.	d-axis current reference
`s:iq_ref`	p.u.	q-axis current reference
`s:u1r_in`	p.u.	Voltage input, real part
`s:u1i_in`	p.u.	Voltage input, imaginary part
`s:cosref`	·	cos(dq-reference angle)
`s:sinref`	·	sin(dq-reference angle)
`s:simModel`	·	0 - Current source model, 1 - Voltage source model
`s:xspeed`	p.u.	Frequency
`s:id`	p.u.	Current, d-Axis
`s:iq`	p.u.	Current, q-Axis

ElmPvsys optimal power flow results

Read after ComOpf with GetAttribute. m: currents, voltages and powers, c: calculation parameter, n: bus result at a terminal.

Attribute	Unit	Description
`m:urnet:bus1`	p.u.	Voltage, Real Part, referred to network
`m:uinet:bus1`	p.u.	Voltage, Imaginary Part, referred to network
`m:u1r:bus1`	p.u.	Positive-Sequence-Voltage, Real Part
`m:u1i:bus1`	p.u.	Positive-Sequence-Voltage, Imaginary Part
`m:u1:bus1`	p.u.	Positive-Sequence-Voltage, Magnitude
`m:U1:bus1`	kV	Line-Ground Positive-Sequence-Voltage, Magnitude
`m:U1l:bus1`	kV	Line-Line Positive-Sequence-Voltage, Magnitude
`m:phiu1:bus1`	deg	Positive-Sequence-Voltage, Angle
`m:irnet:bus1`	p.u.	Current, Real Part, referred to network
`m:iinet:bus1`	p.u.	Current, Imaginary Part, referred to network
`m:inet:bus1`	p.u.	Current, Magnitude, referred to network
`m:I:bus1`	kA	Current, Magnitude
`m:phii:bus1`	deg	Current, Angle
`m:i1r:bus1`	p.u.	Positive-Sequence Current, Real Part
`m:i1i:bus1`	p.u.	Positive-Sequence Current, Imaginary Part
`m:i1:bus1`	p.u.	Positive-Sequence Current, Magnitude
`m:I1:bus1`	kA	Positive-Sequence Current, Magnitude
`m:phii1:bus1`	deg	Positive-Sequence Current, Angle
`m:P:bus1`	MW	Active Power
`m:Q:bus1`	Mvar	Reactive Power
`m:S:bus1`	MVA	Apparent Power
`m:cosphi:bus1`	·	Power Factor
`m:tanphi:bus1`	·	tan(phi)
`m:Psum:bus1`	MW	Total Active Power
`m:Qsum:bus1`	Mvar	Total Reactive Power
`m:Ssum:bus1`	MVA	Total Apparent Power
`m:cosphisum:bus1`	·	Total Power Factor
`m:tanphisum:bus1`	·	Total tan(phi)
`m:i1P:bus1`	p.u.	Positive-Sequence Active Current
`m:i1Q:bus1`	p.u.	Positive-Sequence Reactive Current
`m:I1P:bus1`	kA	Positive-Sequence Active Current
`m:I1Q:bus1`	kA	Positive-Sequence Reactive Current
`m:ur:bus1`	p.u.	Voltage, Real Part
`m:ui:bus1`	p.u.	Voltage, Imaginary Part
`m:u:bus1`	p.u.	Voltage, Magnitude
`m:ir:bus1`	p.u.	Current, Real Part
`m:ii:bus1`	p.u.	Current, Imaginary Part
`m:i:bus1`	p.u.	Current, Magnitude
`m:phiui:bus1`	deg	Angle between Voltage and Current
`m:phiu1i1:bus1`	deg	Angle between Voltage and Current in positive sequence system
`m:Tfct:bus1`	s	Fault Clearing Time
`m:Brkload:bus1`	%	Breaker Loading
`m:Spu:bus1`	MVA/p.u.	Apparent Power per p.u. Voltage
`c:sgnn`	MVA	Total rated apparent power (ngnum*sgn)
`c:cosn`	·	Nominal-Power factor
`c:p`	MW	Total Active Power
`c:q`	Mvar	Total Reactive Power
`c:Pnom`	MW	Total Nominal Active power
`c:c2`	·	Voltage Coefficient (uknom/ugn)
`c:uini`	p.u.	Voltage Setpoint for PV and Slack
`c:phiini`	·	Initial Angle
`c:phirelref`	rad	Relative reference angle
`c:loading`	%	Loading
`c:iPowerOn`	·	Flag
`c:Qmin`	Mvar	Lower limit of reactive power
`c:Qmax`	Mvar	Upper limit of reactive power
`c:Qsparelead`	Mvar	Q spare lead
`c:Qsparelag`	Mvar	Q spare lag
`c:i_qlim`	·	Reactive power limit reached
`c:i_vlim`	·	Voltage setpoint limit reached
`c:Pmin`	MW	Lower limit of active power
`c:Pmax`	MW	Upper limit of active power
`c:i_plim`	·	Active power limit reached
`c:sm`	MVA	Complex Power
`c:u1`	p.u.	Internal
`c:Kp`	p.u.	Active Power Participation
`c:Kq`	p.u.	Reactive Power Participation
`c:Kpf`	MW/Hz	Frequency Bias
`c:iRefElement`	·	Reference Element
`c:Nnom`	·	Number of parallel units
`c:zonewscale`	·	Wind generation zone scaling factor
`c:Pmism`	MW	Active Power Mismatch
`c:nCtrlIter`	·	No. of CTRL-iterations
`c:Ploss`	MW	Losses (total)
`c:Qloss`	Mvar	Reactive-Losses (total)
`c:Plossld`	MW	Losses (load)
`c:Qlossld`	Mvar	Reactive-Losses (load)
`c:Plossnld`	MW	Losses (no load)
`c:Qlossnld`	Mvar	Reactive-Losses (no load)
`c:Snom`	MVA	Nom. Apparent Power (1 mach.)
`c:cst_disp`	USD/h	Operating Costs
`c:Qtarget`	Mvar	Q target value
`c:QtargetDelta`	Mvar	Deviation from Q target value
`c:Ptarget`	MW	P target value
`c:Pmax_uc`	MW	Maximum Power
`c:Pmin_uc`	MW	Minimum Power
`c:totRedispatchP`	MWh	Total redispatched energy
`c:totRedispatchQ`	Mvarh	Total redispatched energy
`c:totRedispatchCosts`	USD	Total redispatch costs
`n:ur:bus1`	p.u.	Voltage, Real Part
`n:ui:bus1`	p.u.	Voltage, Imaginary Part
`n:u:bus1`	p.u.	Voltage, Magnitude
`n:upc:bus1`	%	Voltage, Magnitude
`n:du:bus1`	%	Voltage Deviation
`n:U:bus1`	kV	Line-Ground Voltage, Magnitude
`n:phiu:bus1`	deg	Voltage, Angle
`n:phiurel:bus1`	deg	Voltage, Relative Angle
`n:Ul:bus1`	kV	Line-Line Voltage, Magnitude
`n:u1:bus1`	p.u.	Voltage, Magnitude
`n:u1pc:bus1`	%	Voltage, Magnitude
`n:u1r:bus1`	p.u.	Positive-Sequence Voltage, Real Part
`n:u1i:bus1`	p.u.	Positive-Sequence Voltage, Imaginary Part
`n:Pgen:bus1`	MW	Generation, Active Power
`n:Qgen:bus1`	Mvar	Generation, Reactive Power
`n:Pmot:bus1`	MW	Motor Load, Active Power
`n:Qmot:bus1`	Mvar	Motor Load, Reactive Power
`n:Pload:bus1`	MW	General Load, Active Power
`n:Qload:bus1`	Mvar	General Load, Reactive Power
`n:Pcomp:bus1`	MW	Compensation (Losses)
`n:Qcomp:bus1`	Mvar	Compensation
`n:Pnet:bus1`	MW	External Networks, Active Power
`n:Qnet:bus1`	Mvar	External Networks, Reactive Power
`n:Pflow:bus1`	MW	Power Flow, Active Power
`n:Qflow:bus1`	Mvar	Power Flow, Reactive Power
`n:Pout:bus1`	MW	Outgoing Flow, Active Power
`n:Qout:bus1`	Mvar	Outgoing Power, Reactive Power
`n:Sout:bus1`	MVA	Outgoing Power, Apparent Power
`n:cosphiout:bus1`	·	Outgoing Power, Power Factor
`n:Pbalance:bus1`	MW	Active Power Balance (=0)
`n:Qbalance:bus1`	Mvar	Reactive Power Balance (=0)
`n:LossPdown:bus1`	MW	Losses, downstream
`n:LossQdown:bus1`	Mvar	Losses, downstream (Reactive Power)
`n:LossPdownload:bus1`	MW	Load losses, downstream
`n:LossQdownload:bus1`	Mvar	Load losses, downstream
`n:LossPdownnoload:bus1`	MW	No load losses, downstream
`n:LossQdownnoload:bus1`	Mvar	No load losses, downstream
`n:du_feed:bus1`	%	Difference from voltage at start of feeder

ElmPvsys basic data

b: values are worked out from the input data. Read them; they are not set.

Attribute	Unit	Description
`b:loc_name`	·	Name
`b:iWindGen`	·	Wind Generator
`b:sgnn`	MVA	Total rated apparent power (ngnum*sgn)

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