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Dynamic control valve with energy metering · BACnet points list

Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP) BACnet points list

Updated 4 November 2026

Short answer

The Intelligent Valve is a hydronic control valve with a built-in flow sensor and temperature inputs, so it reports flow, power, energy and operating statistics. It talks BACnet IP (Modbus RTU runs in parallel) and can run as a dynamic control valve, a changeover valve, a flow temperature controller, a heating circuit controller or a differential pressure controller. Over BACnet IP the valve follows SpRel (AV 16), a 0-100 % setpoint that becomes a position, flow or power setpoint depending on CtlMod (MV 39).

This page lists 226 BACnet objects for the Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP) — 112 of them writable — with each object’s type, instance number, name, engineering units and access. It is re-typed from Siemens’s own free documentation, linked below.

Manufacturer
Siemens
Model
Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP)
Equipment
Dynamic control valve with energy metering
Equipment type
Valves & actuators
BACnet objects
226 (112 writable)
Transport
BACnet IP
Firmware
09.54.14.14; APP=1.23.11989 (application HvacFnct34 v2.614)
Also known as
EVG4U10E, EVF4U20E, EVG4U10A, EVF4U20A, EXG4U10E, EXF4U20E, ASE4U10E, ASE4U10A, Siemens Intelligent Valve
Source document
Intelligent Valve, BACnet Objects · A6V11757108 · rev. 2026-06-23
Download CSV 226 rows Download EDE B.I.G.-EU JSON Manufacturer PDF ↗ Compare with your scan Download Easy BACnet Mobile App Google Play

Reference only, provided as-is: verify against Siemens’s current documentation and the live device before use. Not official Siemens information. Terms of use.

BMS integration notes: Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP)

Integration in brief

Commission the valve as a dynamic control valve with the setpoint coming over BACnet IP, so PrSpSrc (MV 54) reads 3. The BMS then writes SpRel (AV 16) and reads flow, power, the primary temperatures, valve position and the main fault code MnFlt (MV 57). The guide's own short list for integration also includes the present flow and power setpoints and the control state.

Minimum points to map

The short list most integrators start with — enough to run the unit from a BMS. Map more as the job needs.

ObjectNameWhyAccess
AV 16SpRelRelative setpoint, 0-100 %Write
MV 54PrSpSrcMust read 3 (Relative setpoint remote) for BACnet IPRead
MV 40CtlStaActive control stateRead
AV 39PrVflPresent volume flow, m³/hRead
AV 40PrPwrPresent power, kWRead
AI 3TFlPrimPrimary flow temperature, °CRead
AI 2TRtPrimPrimary return temperature, °CRead
AI 1VlvPosFbValve position, %Read
MV 57MnFltMain fault code (1 = no fault)Read

Enable & remote start

The application and setpoint source are set at commissioning; PrSpSrc (MV 54) shows the result. Option 3 (Relative setpoint remote) means the dynamic control valve takes SpRel (AV 16) from BACnet IP; options 7 and 8 do the same for flow temperature and differential pressure setpoints. VovrMod (MV 92) can override the valve (fully open, fully closed, minimum or maximum flow and so on).

Heartbeat & communication loss

BckpMod (MV 42) sets what the valve does when its setpoint is missing, for example when no remote setpoint is present: None (default), Last setpoint, or Predefined setpoint from AV 34-36. BckpModDly (PIV 0, seconds) is the delay before backup mode starts. Backup mode applies to the dynamic control valve and flow temperature applications only.

Network setup

Watch out for

Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP) BACnet objects

Type: AI, AO, AV, BI, BO, BV, MI/MO/MV (multi-state) · Access: Read read-only, Write writable, Command writable with a priority array.

226 of 226 shown
Type
Multi-state
Access
Show
Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP) BACnet Points List
DescriptionStates
AImin2TRtPrimPrimary return temperature°CRead
AImin3TFlPrimPrimary flow temperature°CRead
MV53HCStaHeating/cooling stateRead1=Neither; 2=Heating; 3=Cooling
MV64HCStaHeating/cooling state (Δp control)Read1=Neither; 2=Heating; 3=Cooling
MVmin40CtlStaControl stateRead1=Position; 2=Volume flow; 3=Power; 4=Maximum power limit; 5=Minimum volume flow limit; 6=Maximum volume flow limit; 7=Minimum return temperature limitation; 8=Maximum return temperature limitation; 9=Flow/return temperature difference limitation; 10=Override
MV63CtlStaControl state (Δp control)Read1=Position; 2=Volume flow; 3=Power; 4=Maximum power limit; 5=Minimum volume flow limit; 6=Maximum volume flow limit; 7=Minimum return temperature limitation; 8=Maximum return temperature limitation; 9=Flow/return temperature difference limitation; 10=Override
AVmin16SpRelRelative setpoint%Write
AV99PrAdaVflMaxPresent adapted maximum volume flowm³/hRead
AV162PrAdaPwrMaxPresent adapted maximum powerkWRead
AV37PrSpVflPresent setpoint volume flowm³/hRead
AVmin39PrVflPresent volume flowm³/hRead
AV70PrVflPresent volume flow (Δp control)m³/hRead
AV38PrSpPwrPresent setpoint powerkWRead
AVmin40PrPwrPresent powerkWRead
AV71PrPwrPresent power (Δp control)kWRead
AV41PrDiffPVlvPresent differential pressure of valvekPaRead
AImin1VlvPosFbValve position feedback%Read
MV38VlvTypValve typeRead1=EVG4U10E015; 2=EVG4U10E020; 3=EVG4U10E025; 4=EVG4U10E032; 5=EVG4U10E040; 6=EVG4U10E050; 7=EVF4U20E065; 8=EVF4U20E080; 9=EVF4U20E100; 10=EVF4U20E125; 11=CDV21EVF4U20E150; 12=EXG4U10E015; 13=EXG4U10E020; 14=EXG4U10E025; 15=EXG4U10E032; 16=EXG4U10E040; 17=EXG4U10E050; 18=EXF4U20E065; 19=EXF4U20E080; 20=EXF4U20E100; 21=EVG4U10A015; 22=EVG4U10A020; 23=EVG4U10A025; 24=EVG4U10A032; 25=EVG4U10A040; 26=EVG4U10A050; 27=EVF4U20A065; 28=EVF4U20A080; 29=EVF4U20A100; 30=EVF4U20A125; 31=EXG4U10A015; 32=EXG4U10A020; 33=EXG4U10A025; 34=EXG4U10A032; 35=EXG4U10A040; 36=EXG4U10A050; 37=EXF4U20A065; 38=EXF4U20A080; 39=EXF4U20A100; 40=EVG4U10A050/1
MV62VlvTypValve type (Δp control)Read1=EVG4U10E015; 2=EVG4U10E020; 3=EVG4U10E025; 4=EVG4U10E032; 5=EVG4U10E040; 6=EVG4U10E050; 7=EVF4U20E065; 8=EVF4U20E080; 9=EVF4U20E100; 10=EVF4U20E125; 11=CDV21EVF4U20E150; 12=EXG4U10E015; 13=EXG4U10E020; 14=EXG4U10E025; 15=EXG4U10E032; 16=EXG4U10E040; 17=EXG4U10E050; 18=EXF4U20E065; 19=EXF4U20E080; 20=EXF4U20E100; 21=EVG4U10A015; 22=EVG4U10A020; 23=EVG4U10A025; 24=EVG4U10A032; 25=EVG4U10A040; 26=EVG4U10A050; 27=EVF4U20A065; 28=EVF4U20A080; 29=EVF4U20A100; 30=EVF4U20A125; 31=EXG4U10A015; 32=EXG4U10A020; 33=EXG4U10A025; 34=EXG4U10A032; 35=EXG4U10A040; 36=EXG4U10A050; 37=EXF4U20A065; 38=EXF4U20A080; 39=EXF4U20A100; 40=EVG4U10A050/1
AV17NomPipeSizeNominal pipe sizemmRead
MV92VovrModValve override modeWrite1=None; 2=Fully open; 3=Fully close; 4=Minimum volume flow; 5=Nominal volume flow; 6=Maximum volume flow; 7=Design power; 8=Maximum power; 9=Keep position
MV97VovrModValve override mode (changeover valve)Write1=None; 2=Fully open; 3=Fully close; 4=Minimum volume flow; 5=Nominal volume flow; 6=Maximum volume flow; 7=Design power; 8=Maximum power; 9=Keep position; 10=Not used (fail-safe position); 11=Minimum volume flow cooling; 12=Maximum volume flow cooling
AI28PSenX1Pressure sensor X1 (ID depends on signal type)kPaRead
AI29PSenX1Pressure sensor X1 (ID depends on signal type)kPaRead
AI30PSenX1Pressure sensor X1 (ID depends on signal type)kPaRead
AI31PSenX3Pressure sensor X3 (ID depends on signal type)kPaRead
AI32PSenX3Pressure sensor X3 (ID depends on signal type)kPaRead
AI33PSenX3Pressure sensor X3 (ID depends on signal type)kPaRead
AV21SpDiffPSetpoint for differential pressure controlkPaWrite
AI24DiffPPrimPrimary differential pressure (ID depends on signal type)kPaRead
AI25DiffPPrimPrimary differential pressure (ID depends on signal type)kPaRead
AI26DiffPPrimPrimary differential pressure (ID depends on signal type)kPaRead
AI27DiffPPrimPrimary differential pressure (ID depends on signal type)kPaRead
AV159PrDiffPPrimPresent primary differential pressurekPaRead
AV47OphDevOperating hours devicehRead
AV115OphHOperating hours heatinghRead
AV116OphCOperating hours coolinghRead
AV120RelOphHMthRelative operating hours heating month%Read
AV121RelOphHPmthRelative operating hours heating previous month%Read
AV126RelOphCMthRelative operating hours cooling month%Read
AV127RelOphCPmthRelative operating hours cooling previous month%Read
AV129OphVlvOpnMthOperating hours valve fully open monthhRead
AV130OphVlvOpnPmthRel. op. hours valve fully open prev. month%Read
AV131OphVflMaxMthOperating hours max. volume flow monthhRead
AV132OphVflMaxPmthRel. op. hours max. volume flow prev. month%Read
AV133OphVflaMaxMthOperating hours adapted max. volume flow monthhRead
AV134OphVflaMaxPmthRel. op. hours adapted max. volume flow prev. month%Read
AV135OphTRtLimMthOperating hours return temp. limit. monthhRead
AV136OphTRtLimPmthRel. op. hours return temp. limit. prev. month%Read
AV137OphTFlRtLmMthOperating hours flow/return temp. limit. monthhRead
AV138OphTFlRtLmPmthRel. op. hours flow/return temp. limit. prev. month%Read
AV139OphPwrMaxMthOperating hours maximum power monthhRead
AV140OphPwrMaxPmthRel. op. hours max. power previous month%Read
AV164OphPwraMaxMthOperating hours adapted max. power monthhRead
AV165OphPwraMaxPmthRel. op. hours adapted max. power prev. month%Read
AV48TotHVflTotal heating volume flowm³Read
AV49TotCVflTotal cooling volume flowm³Read
AV147VflDevMthAbsolute volume flow deviation monthm³Read
AV148VflDevPrvMthAbsolute volume flow deviation prev. monthm³Read
AV149RelVflDevMthRel. volume flow deviation month%Read
AV150RelVflDevPrvMthRel. volume flow deviation prev. month%Read
AV50TotHEngyTotal heating energykWhRead
AV51TotCEngyTotal cooling energykWhRead
AV117TotHEngyMthTotal heating energy monthkWhRead
AV118TotHEngyPmthTotal heating energy previous monthkWhRead
AV123TotCEngyMthTotal cooling energy monthkWhRead
AV124TotCEngyPmthTotal cooling energy previous monthkWhRead
AV141AvrgTFlRtMthAverage temp. diff. flow and return monthKRead
AV142AvrgTFlRtPmthAverage temp. diff. flow/return prev. monthKRead
AV143AvrgVlvPosMthAverage valve position month%Read
AV144AvrgVlvPosPmthAverage valve position previous month%Read
AV145MaxVlvPosMthMax. valve position month%Read
AV146MaxVlvPosPmthMax. valve position previous month%Read
PIV19VlvClsdPosLtiValve fully closed lifetimeRead
AV158ExpdRmgLifeTiExpected remaining lifetimeyearsRead
MVmin57MnFltMain faultRead1=No fault; 2=Primary flow temperature, sensor fault; 3=Primary return temperature, sensor fault; 4=Flow temperature, sensor fault; 5=Return temperature, sensor fault; 6=Volume flow, sensor fault; 7=Valve actuator fault; 8=Valve actuator, position feedback fault; 9=Valve actuator, no position feedback; 10=Relative setpoint, fault; 11=Flow temperature, setpoint fault; 12=Primary differential pressure, sensor fault; 13=Volume flow, wrong flow direction; 14=Volume flow, air bubbles in hydraulics; 15=Volume flow, cannot reach maximum value; 16=Valve differential pressure above max. value; 17=Volume flow sensor, communication error; 18=Outside air temperature, sensor fault; 19=Volume flow, cannot reach setpoint; 20=Pressure (sensor fault)
BV6Alm1004Outside air temperature, sensor faultRead0=Active; 1=Inactive
BV7Alm1050Primary flow temperature, sensor faultRead0=Active; 1=Inactive
BV8Alm1051Primary return temperature, sensor faultRead0=Active; 1=Inactive
BV9Alm1052Flow temperature, sensor faultRead0=Active; 1=Inactive
BV10Alm1054Volume flow, sensor faultRead0=Active; 1=Inactive
BV11Alm1055Valve actuator faultRead0=Active; 1=Inactive
BV12Alm1056Valve actuator, position feedback faultRead0=Active; 1=Inactive
BV13Alm1057Valve actuator, no position feedbackRead0=Active; 1=Inactive
BV14Alm1058Relative setpoint, faultRead0=Active; 1=Inactive
BV15Alm1059Flow temperature, setpoint faultRead0=Active; 1=Inactive
BV16Alm1060Primary differential pressure, sensor faultRead0=Active; 1=Inactive
BV17Alm2050Volume flow, wrong flow directionRead0=Active; 1=Inactive
BV18Alm2051Volume flow, air bubbles in hydraulicsRead0=Active; 1=Inactive
BV19Alm2052Volume flow, cannot reach maximum valueRead0=Active; 1=Inactive
BV20Alm2053Valve differential pressure above maximum valueRead0=Active; 1=Inactive
BV23Alm2054Volume flow, cannot reach setpointRead0=Active; 1=Inactive
BV21Alm3050Volume flow sensor, communication errorRead0=Active; 1=Inactive
AI12TOaOutside air temperature (ID depends on signal type)°CRead
AI13TOaOutside air temperature (ID depends on signal type)°CRead
AI14TOaOutside air temperature (ID depends on signal type)°CRead
AV14SpTFlFlow temperature setpoint (flow temp. control)°CCommand
AV6SpTFlFlow temperature setpoint (heating circuit)°CCommand
AO22SpTFlPrimOutPrimary flow temperature setpoint output (ID depends on signal type)°CCommand
AO23SpTFlPrimOutPrimary flow temperature setpoint output (ID depends on signal type)°CCommand
AO24SpTFlPrimOutPrimary flow temperature setpoint output (ID depends on signal type)°CCommand
AI17TFlFlow temperature (ID depends on signal type)°CRead
AI18TFlFlow temperature (ID depends on signal type)°CRead
AI19TFlFlow temperature (ID depends on signal type)°CRead
AI20TFlFlow temperature (ID depends on signal type)°CRead
AV11TOaDsgnDesign outside temperature°CWrite
AV10TOaHiOutside temperature high°CWrite
AV9SpTFlDsFlow temperature setpoint for design outside°CWrite
AV8SpTFlHiFlow temperature setpoint for high outside°CWrite
MV87DrygFnctStaDrying function stateRead1=Not executed; 2=Running; 3=Executed
AV102TiEldDrygElapsed time dryingdaysWrite
BO0HcrPuCmdHeating circuit pump commandRead0=Active; 1=Inactive
SCH1ROpModSchedRoom operation mode schedulerWrite
MV80PrROpModPresent room operation modeRead1=Comfort; 2=Pre-Comfort; 3=Economy; 4=Protection
MV79RsnPrOpModReason for present operating modeRead1=Exception; 2=Room low temperature protection; 3=Operating mode selection; 4=Manual operating mode selection; 5=Heating limit; 6=OSSC model; 7=Heating limit economy; 8=Quick setback; 9=Scheduler
MV55ROpModRoom operating modeWrite1=Comfort; 2=Pre-Comfort; 3=Economy; 4=Protection
AV2SpHCmfHeating setpoint for comfort°CWrite
AV3SpHPcfHeating setpoint for pre-comfort°CWrite
AV4SpHEcoHeating setpoint for economy°CWrite
AV5SpHPrtHeating setpoint for protection°CWrite
AV87SbstTRSubstitute room temperature°CWrite
MV45SlfTstSelf-testWrite1=Ready; 2=Start; 3=Stop
MV65SlfTstSelf-test (Δp control)Write1=Ready; 2=Start; 3=Stop
MV58FrcVflMaxForce maximum volume flowWrite1=Ready; 2=Start; 3=Stop
MV75FrcVflMaxForce maximum volume flow (Δp control)Write1=Ready; 2=Start; 3=Stop
AV18VflNomVlvNominal volume flow for valvem³/hRead
AV63VflNomVlvNominal volume flow for valve (Δp control)m³/hRead
AV22VflMaxMaximum volume flowm³/hWrite
AV67VflMaxMaximum volume flow (Δp control)m³/hWrite
AV23VflMaxRelRelative maximum volume flow%Write
AV68VflMaxRelRelative maximum volume flow (Δp control)%Write
BV4EnVflMinEnable minimum volume flowWrite0=No; 1=Yes
AV24VflMinMinimum volume flowm³/hWrite
AV25VflMinRelRelative minimum volume flow%Write
AV103VflMaxCMaximum volume flow coolingm³/hWrite
AV104VflMaxRelCRelative maximum volume flow cooling%Write
BV32EnVflMinCEnable minimum volume flow coolingWrite0=No; 1=Yes
AV105VflMinCMinimum volume flow coolingm³/hWrite
AV106VflMinRelCRelative minimum volume flow cooling%Write
MV56LqdTypType of liquidWrite1=Water; 2=Ethylene glycol; 3=Propylene glycol
AV33LqdCnctrConcentration of liquid%Write
MV24VlvDsgnValve designWrite1=2-port; 2=3-port
BV3VlvMountPosValve mounting positionWrite0=Flow; 1=Return
BV26VlvMountPosValve mounting position (Δp control)Write0=Flow; 1=Return
MV39CtlModControl modeWrite1=Position; 2=Volume flow; 3=Power
BV30EnAdaVflMaxEnable adapted maximum volume flowWrite0=No; 1=Yes
BV35EnAdaVflMaxCEnable adapted maximum volume flow coolingWrite0=No; 1=Yes
MV41CmpModCompensation modeWrite1=Volume flow linear; 2=Volume flow exponential; 3=Heat exchanger characteristic
AV31CmpVflCoefCompensation volume flow coefficientWrite
AV32CmpHxCoefCompensation heat exchanger coefficientWrite
AV58DiffPPrimPrcv2Process value 2 for differential pressure primarykPaWrite
AV29TFlPrimDsgnDesign primary flow temperature°CWrite
AV30TRtPrimDsgnDesign primary return temperature°CWrite
AV109TFlPrimDsgnCDesign primary flow temperature cooling°CWrite
AV110TRtPrimDsgnCDesign primary return temperature cooling°CWrite
AV26PwrDsgnDesign powerkWRead
AV27PwrMaxMaximum powerkWWrite
AV28PwrMaxRelRelative maximum power%Write
AV112PwrDsgnCDesign power coolingkWRead
AV107PwrMaxCMaximum cooling powerkWWrite
AV108PwrMaxRelCRelative maximum power, cooling%Write
BV42EnAdaPwrMaxEnable adapted maximum powerWrite0=No; 1=Yes
BV43EnAdaPwrMaxCEnable adapted maximum power for coolingWrite0=No; 1=Yes
BV5EnTRtLmEnable return temperature limitationWrite0=Active; 1=Inactive
AV52SpHTRtReturn temperature setpoint for heating°CWrite
AV53SpCTRtReturn temperature setpoint for cooling°CWrite
AV62GainTRtCtrGain for return temperature controller%/°CWrite
PIV5TnTRtCtrTn for return temperature controllersWrite
BV24EnTDiffFlRtLmEnable flow/return temperature difference limitationWrite0=Active; 1=Inactive
AV92SpTDiffFlRtLmSetpoint flow/return temperature differenceKWrite
AV93GainTDiffFlRtCtrGain for flow/return temperature difference%/KWrite
PIV11TnTDiffFlRtCtrTn for flow/return temperature differencesWrite
BV33EnTRtLmCEnable return temperature limitation, coolingWrite0=Active; 1=Inactive
BV34EnTDiffFlRtLmCEnable flow/return temperature difference limitation, coolingWrite0=Active; 1=Inactive
AV111SpTDiffFlRtLmCFlow/return temperature difference setpoint, coolingKWrite
BV38EnTRtLmWgdEnable weighted return temperature limitationWrite0=No; 1=Yes
BV37EnTRtLmWgdCEnable weighted return temperature limitation for coolingWrite0=No; 1=Yes
AV160PPrcv1Process value 1 for pressurekPaWrite
AV161PPrcv2Process value 2 for pressurekPaWrite
AV80GainDiffPCtrGain for differential pressure controller%/KWrite
PIV9TnDiffPCtrTn for differential pressure controllersWrite
AV13SpTFlMaxHcrMaximum flow temperature setpoint for heating°CWrite
AV12SpTFlMinHcrMinimum flow temperature setpoint for heating°CWrite
AV88ExpRadRadiator exponentWrite
PIV7TcnBldgTime constant of buildinghWrite
AV89HtgLmHeating limit°CWrite
AV90HtgLmEcoHeating limit for economy°CWrite
BV25EnPltFrPrtEnable plant frost protectionWrite0=No; 1=Yes
PIV13DlyOffHcrPuSwitch-off delay for heating circuit pumpsWrite
BV1EnKickEnable kickWrite0=No; 1=Yes
AV82GainHcrTFlVlvcGain for flow temperature controller valve position (flow temp. control)%/KWrite
AV81GainHcrTFlVlvcGain for flow temperature controller valve position (heating circuit)%/KWrite
MV86DrygFnctDrying functionWrite1=Off; 2=Constant; 3=Profile
AV98SpTFlDrygConMFlow temperature setpoint for drying constant°CRead
AV19SpIncrTFlSetpoint increase for flow temperatureKWrite
AV20TFlPmOutPrcv2Process value 2 for primary flow temperature°CWrite
AV113TFlPmOutPrcv2Process value 2 for primary flow temperature°CWrite
AV114TFlPmOutPrcv2Process value 2 for primary flow temperature°CWrite
BV22EnQckSetbckEnable quick setbackWrite1=No; 2=Yes
BV27EnOscFnctEnable optimum start controlWrite1=No; 2=Yes
AV97SpTRShftBstHRoom temperature setpoint shift for boost heating°CWrite
AV96WarmUpGrdntWarm-up gradientK/hWrite
MV42BckpModBackup modeWrite1=None; 2=Last setpoint; 3=Predefined setpoint
PIV0BckpModDlyBackup mode activation delaysWrite
AV34BckpModValPosBackup mode value for position%Write
AV35BckpModValVflBackup mode value for volume flow%Write
AV36BckpModValPwrBackup mode value for power%Write
AV91BckpModValTFlBackup mode value for flow temperature°CRead
MVmin54PrSpSrcPresent setpoint sourceRead1=Relative setpoint terminal; 2=Relative setpoint Modbus; 3=Relative setpoint remote; 4=Heating circuit outside temperature compensated; 5=Flow temperature setpoint terminal; 6=Flow temperature setpoint Modbus; 7=Flow temperature setpoint remote; 8=Differential pressure setpoint remote; 9=Differential pressure setpoint Modbus
MV59PrX1SelPresent selection for X1Read1=None; 2=Relative setpoint terminal; 3=Flow temperature setpoint; 7=Outside air temperature
MV81PrX1SelSigTypPresent signal type selection for X1Read1=None; 2=0…10 V; 3=2…10 V; 4=4…20 mA; 5=Ni1000 (DIN); 6=LG-Ni1000; 8=Pt1000 (EU)
MV60PrX2SelPresent selection for X2Read4=Primary flow temperature; 5=Primary return temperature; 8=Temperature difference between flow and return; 10=Relative volume flow; 11=Valve position; 12=Relative power
MV82PrX2SelSigTypPresent signal type selection for X2Read1=Disabled; 2=0…10 V; 3=2…10 V; 4=4…20 mA
MV61PrX3SelPresent selection for X3Read1=Disabled; 4=Flow temperature; 5=Differential pressure primary
MV84PrX3SelSigTypPresent signal type selection for X3Read5=Ni1000 (DIN); 6=LG-Ni1000; 8=Pt1000 (EU); 1=QBE3000-D1.6; 2=QBE3000-D2.5; 3=QBE3000-D4; 4=Freely adjustable span of pressure measurement
MV83PrX3SelSigTypPresent signal type selection for X3 (Δp control)Read5=Ni1000 (DIN); 6=LG-Ni1000; 8=Pt1000 (EU); 1=QBE3000-D1.6; 2=QBE3000-D2.5; 3=QBE3000-D4; 4=Freely adjustable span of pressure measurement
BV31MbPort1LnTrmntModbus port 1 line terminationWrite0=Inactive; 1=Active
PIV14MbPort1AdrModbus port 1 addressWrite
MV93MbPort1BaudModbus port 1 baud rateWrite1=9600; 2=19200; 3=38400; 4=57600; 5=76800; 6=115200
MV94MbPort1StpBitModbus port 1 stop bitWrite1=1; 2=2
MV95MbPort1ParityModbus port 1 parityWrite1=No; 2=Even; 3=Odd
MV96MbPort1SetApyModbus port 1 apply settingWrite1=Ready; 2=Apply
BV29EnDemoModEnable demonstration modeWrite1=Off; 2=On
AV84NomPpSizeDmoNominal pipe size demonstration modemmWrite
AV83GainDPPrimDmoGain for differential pressure primary demonstration%Write
AV15TOaDmoOutside temperature for demonstration mode°CWrite
Object ID lookup: Siemens Intelligent Valve EVG4/EVF4 point IDs by name

Integration notes

Check it against the live device. A points list tells you what the controller can expose; the unit in front of you may differ by firmware or installed options. This list is provided as-is for reference only and may contain mistakes — confirming it before you write, map or commission anything is up to you (terms). Easy BACnet scans a network for BACnet IP devices from an Android phone, reads every object on the Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP) and exports what it actually has to Excel — free. New to BACnet? Start with what a BACnet points list is and what the object types mean.

Questions about the Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP)

How many BACnet points does the Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP) have?

This list has 226 BACnet objects: 20 analog inputs, 3 analog outputs, 121 analog values, 1 binary output, 37 binary values, 1 schedule, 35 multi-state values, 8 positive integer values. The exact set on a given unit depends on its firmware, installed options and configuration.

Which Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP) BACnet points are writable?

112 of the 226 objects accept a write. Points marked Command have a priority array: a write holds until it is released, so release it back to automatic when you are done.

Where is the official Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP) BACnet documentation?

The source is Intelligent Valve, BACnet Objects (A6V11757108), revision 2026-06-23, published free by Siemens at https://sid.siemens.com/api/khub/documents/Z90WHO9nj7QdzVxuByXoDQ/content.

What are the minimum BACnet points to integrate the Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP)?

Start with AV 16 SpRel (Relative setpoint, 0-100 %); MV 54 PrSpSrc (Must read 3 (Relative setpoint remote) for BACnet IP); MV 40 CtlSta (Active control state); AV 39 PrVfl (Present volume flow, m³/h); AV 40 PrPwr (Present power, kW); AI 3 TFlPrim (Primary flow temperature, °C); AI 2 TRtPrim (Primary return temperature, °C); AI 1 VlvPosFb (Valve position, %); MV 57 MnFlt (Main fault code (1 = no fault)).

How do I enable BMS control of the Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP)?

The application and setpoint source are set at commissioning; PrSpSrc (MV 54) shows the result. Option 3 (Relative setpoint remote) means the dynamic control valve takes SpRel (AV 16) from BACnet IP; options 7 and 8 do the same for flow temperature and differential pressure setpoints. VovrMod (MV 92) can override the valve (fully open, fully closed, minimum or maximum flow and so on).

Does the Siemens Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP) need a BACnet heartbeat or have a communication timeout?

BckpMod (MV 42) sets what the valve does when its setpoint is missing, for example when no remote setpoint is present: None (default), Last setpoint, or Predefined setpoint from AV 34-36. BckpModDly (PIV 0, seconds) is the delay before backup mode starts. Backup mode applies to the dynamic control valve and flow temperature applications only.

How do I check these points on the real Intelligent Valve EVG4U10E / EVF4U20E (BACnet IP)?

Scan the network with a BACnet IP browser such as Easy BACnet, open the device and compare its object list with this table. Anything missing is usually an option that isn't installed or a point that is disabled in the controller's configuration.

More Siemens BACnet points lists

Source: Intelligent Valve, BACnet Objects · A6V11757108 · rev. 2026-06-23. Object names, instances and units are reproduced as published; descriptions are our own.