Emerson Micro Motion 9739 MVD Configuration And Use Manual

CongurationandUseManual

P/NMMI-20016855,Rev .AA

June2010

MicroMotion®9739MVDTransmitters
CongurationandUseManual

CongurationOperationMaintenance

MicroMotioncustomerservice

LocationTelephoneNumber

U.S.A.800-522-MASS(800-522-6277)(tollfree)

CanadaandLatinAmerica[phone](U.S.A.)

Japan35769-6803 Asia

Allotherlocations[phone](Singapore)

U.K.08702401978(toll-free) Europe

Allotherlocations[phone](TheNetherlands)

CustomersoutsidetheU.S.A.canalsosendanemailto[e-mail].

Copyrightsandtrademarks

©2010MicroMotion,Inc.Allrightsreserved.TheMicroMotionandEmersonlogosaretrademarksandservicemarksofEmersonElectricCo.

MicroMotion,ELITE,MVD,ProLink,MVDDirectConnect,andPlantWebaremarksofoneoftheEmersonProcessManagementfamilyof

companies.Allothertrademarksarepropertyoftheirrespectiveowners.

Contents

IGettingstarted............................................................................................................1

Chapter1Beforeyoubegin........................................................................................................3

1.1Safetymessages.............................................................................................3

1.2Obtainversioninformation................................................................................3

1.3Availablecommunicationstools........................................................................3

1.4Additionaldocumentationandresources...........................................................4

1.59739MVDtransmittercongurationworksheet..................................................4

Chapter2Quickstartwiththedisplay.......................................................................................19

2.1Applypower..................................................................................................19

2.2Congurationtipsandtricks...........................................................................19

2.3ConguretheprimarymAoutputtoreportmassowrateinauser-selected

measurementunit..........................................................................................20

2.4Performalooptest........................................................................................21

2.5Zerotheowmeter.........................................................................................23

Chapter3QuickstartwithProLinkII.........................................................................................25

3.1Applypower..................................................................................................25

3.2ConnectwithProLinkII..................................................................................25

3.3Congurationtipsandtricks...........................................................................40

3.4ConguretheprimarymAoutputtoreportmassowrateinauser-selected

measurementunit..........................................................................................41

3.5Performalooptest........................................................................................41

3.6TrimmAoutputs............................................................................................43

3.7Zerotheowmeter.........................................................................................43

3.8Testortunethesystemusingsensorsimulation..............................................44

3.9Backuptransmitterconguration....................................................................46

3.10Enable/disableHARTsecurity........................................................................47

Chapter4QuickstartwiththeFieldCommunicator...................................................................49

4.1Applypower..................................................................................................49

4.2ConnectwiththeFieldCommunicator.............................................................49

4.3Congurationtipsandtricks...........................................................................52

4.4ConguretheprimarymAoutputtoreportmassowrateinauser-selected

measurementunit..........................................................................................53

4.5Performalooptest........................................................................................54

4.6TrimmAoutputs............................................................................................55

4.7Zerotheowmeter.........................................................................................55

4.8Testortunethesystemusingsensorsimulation..............................................56

4.9Enable/disableHARTsecurity........................................................................58

IIReferenceinformationforcommissioning.................................................................59

Chapter5Configureprocessmeasurement...............................................................................61

5.1Characterizetheowmeter.............................................................................61

5.2Conguremassowmeasurement.................................................................64

5.3Congurevolumeowmeasurementforliquidapplications..............................69

5.4Conguregasstandardvolumeowmeasurement..........................................74

i

5.5CongureFlowDirection....................................................................................79

5.6Conguredensitymeasurement.....................................................................84

5.7Conguretemperaturemeasurement..............................................................88

5.8Congurepressurecompensation..................................................................90

5.9Congurethepetroleummeasurementapplication...........................................91

5.10Conguretheconcentrationmeasurementapplication.....................................93

Chapter6Configuredeviceoptionsandpreferences..................................................................99

6.1Congurethetransmitterdisplay.....................................................................99

6.2Enableordisableoperatoractionsfromthedisplay.......................................103

6.3Conguresecurityforthedisplaymenus......................................................105

6.4Congurethespeedofthetransmitter’sresponsetochangesinprocess

data............................................................................................................107

6.5Congurealarmhandling.............................................................................108

6.6Congureinformationalparameters..............................................................1 12

Chapter7Integratethemeterwiththecontrolsystem............................................................117

7.1CongurethemAoutputs.............................................................................1 17

7.2Congurethefrequencyoutput.....................................................................124

7.3Congurethediscreteoutput........................................................................129

7.4Congurethediscreteinput..........................................................................134

7.5CongurethemAinput................................................................................136

7.6Conguredigitalcommunications.................................................................138

7.7Congureevents.........................................................................................146

7.8Setuppollingforpressure............................................................................148

7.9Setuppollingfortemperature.......................................................................150

IIIOperations,maintenance,andtroubleshooting......................................................153

Chapter8Transmitteroperation.............................................................................................155

8.1Recordtheprocessvariables.......................................................................155

8.2Viewprocessvariables................................................................................155

8.3Viewtransmitterstatus.................................................................................157

8.4Viewandacknowledgestatusalarms............................................................157

8.5Startandstoptotalizersandinventories........................................................161

8.6Resetmassandvolumetotalizers................................................................162

8.7ResetmassandvolumeinventoriesusingProLinkII......................................163

Chapter9Measurementsupport.............................................................................................165

9.1Optionsformeasurementsupport.................................................................165

9.2Validatethemeter........................................................................................165

9.3Performa(standard)D1andD2densitycalibration.......................................168

9.4PerformaD3andD4densitycalibration(T-Seriessensorsonly)....................171

9.5Performtemperaturecalibration....................................................................174

Chapter10Troubleshooting.....................................................................................................177

10.1TransmitterstatusLEDstates.......................................................................177

10.2Statusalarms..............................................................................................178

10.3Flowproblems.............................................................................................184

10.4Densityproblems.........................................................................................187

10.5Temperatureproblems.................................................................................187

10.6Milliampoutputproblems.............................................................................188

ii

10.7Frequencyoutputproblems..........................................................................189

10.8Usesensorsimulationfortroubleshooting.....................................................190

10.9Checkpowersupplywiring...........................................................................190

10.10Checksensor-to-transmitterwiring................................................................191

10.11Checkgrounding.........................................................................................191

10.12Checkforradiofrequencyinterference..........................................................191

10.13CheckHARTcommunicationloop.................................................................192

10.14CheckHARTAddressandLoopCurrentMode.......................................................192

10.15CheckHARTburstmode..............................................................................193

10.16CheckmAoutputtrim..................................................................................193

10.17CheckLowerRangeValueandUpperRangeValue.................................................193

10.18CheckmAOutputFaultAction............................................................................193

10.19CheckFrequencyOutputMode...........................................................................193

10.20CheckFrequencyOutputMaximumPulseWidthandFrequencyOutputScaling

Method.........................................................................................................194

10.21CheckFrequencyOutputFaultAction...................................................................194

10.22CheckFlowDirection.......................................................................................194

10.23Checkcutoffs..............................................................................................194

10.24Checkforslugow......................................................................................195

10.25Checkthedrivegain....................................................................................195

10.26Checkthepickoffvoltage.............................................................................197

10.27Checkforelectricalshorts............................................................................198

Appendicesandreference.......................................................................................201

AppendixADefaultvaluesandranges........................................................................................203

A.1Defaultvaluesandranges............................................................................203

AppendixBTransmittercomponentsandinstallationwiring......................................................207

B.1Transmittercomponents...............................................................................207

B.2Transmitter-to-sensorwiring.........................................................................209

B.3Powersupplyterminals................................................................................209

B.4Input/output(I/O)terminals...........................................................................210

AppendixCUsingthetransmitterdisplay...................................................................................213

C.1Componentsofthetransmitterinterface........................................................213

C.2Accessandusethedisplaymenusystem.....................................................215

C.3Displaycodesforprocessvariables..............................................................219

C.4Codesandabbreviationsusedindisplaymenus............................................220

C.5Menumapsforthetransmitterdisplay...........................................................223

AppendixDUsingProLinkIIwiththe9739MVDtransmitter.......................................................231

D.1BasicinformationabouttheProLinkIIsoftwaretool.......................................231

D.2MenumapsforProLinkII.............................................................................232

AppendixEUsingtheFieldCommunicatorwiththe9739MVDtransmitter.................................237

E.1BasicinformationabouttheFieldCommunicator...........................................237

E.2MenumapsfortheFieldCommunicator........................................................238

iii

I

I I

Gettingstarted

Chapterscoveredinthispart:

♦Beforeyoubegin
♦Quickstartwiththedisplay
♦QuickstartwithProLinkII
♦QuickstartwiththeFieldCommunicator

Chapter1

Beforeyoubegin

Topicscoveredinthischapter:

♦Safetymessages
♦Obtainversioninformation
♦Availablecommunicationstools
♦Additionaldocumentationandresources

9739MVDtransmittercongurationworksheet

♦

1.1Safetymessages

Safetymessagesareprovidedthroughoutthismanualtoprotectpersonnelandequipment.Readeach
safetymessagecarefullybeforeproceedingtothenextstep.

1.2Obtainversioninformation

Tocongure,use,andtroubleshootthetransmitter,youmayneedtoknowtheversioninformationof
yourtransmittersoftware,ProLinkIIsoftwareapplication,and/orHARTdevicedescription.

Procedure

SeeTable1-1forinformationonhowtoobtaintheversioninformation.

Table1-1Methodstoobtainversioninformation

ComponentWithdisplayWithProLinkIIWithFieldCommunicator

TransmittersoftwareOFF-LINEMAINT→VER

ProLinkIINotapplicableHelp→AboutProLinkIINotapplicable

HARTdevicedescriptionNotapplicableNotapplicable

View→Installed
Options→SoftwareRevisions

Overview→Shortcu­ts→DeviceInforma­tion→Revisions→Xmtr
SoftwareRev

Overview→Short­cuts→DeviceInforma­tion→Revisions→DDRe­vision

1.3Availablecommunicationstools

Youcanuseavarietyofcommunicationstoolstointerfacewiththe9739MVDtransmitter.

ConfigurationandUseManual

3

Beforeyoubegin

Thefollowingcommunicationstoolsaresupported:

•Transmitterdisplay,ifthetransmitterwasorderedwithadisplay

ProLinkIIsoftware(v2.91orlater)

•

•FieldCommunicator(DDv2orlater)

Tip

YoumaybeabletouseothertoolsfromEmersonProcessManagement,suchasAMSSuite:Intelligent
DeviceManagerortheSmartWirelessTHUM™Adapter.UseofAMSortheSmartWirelessTHUM
Adapterisnotdiscussedinthismanual.Foryourreference,theAMSinterfaceissimilartothe
interface.FormoreinformationontheSmartWirelessTHUMAdapter,refertothedocumentation
availableatwww.micromotion.com.

Thismanualprovidesbasicinformationonusingthetransmitterdisplay,ProLinkII,andthe
FieldCommunicator.FormoreinformationonusingProLinkII,seetheProLinkIIusermanualavailable
ontheMicroMotionwebsite(www.micromotion.com)orontheMicroMotionuserdocumentationCD.For
moreinformationonusingFieldCommunicator,seetheFieldCommunicatordocumentationavailable
onthe

MicroMotionwebsite(www.micromotion.com).

ProLinkII

1.4Additionaldocumentationandresources

MicroMotionprovidesadditionaldocumentationtosupporttheinstallationandoperationofthe9739
MVDtransmitter.

SeeTable1-2forthedocumentationresourcesavailabletosupportthe9739MVDtransmitter.All
documentationresourcesareavailableontheMicroMotionwebsiteatwww.micromotion.comoronthe
MicroMotionuserdocumentationCD.

Table1-2Additionaldocumentationandresources

TopicDocument

SensorSensordocumentation

TransmitterinstallationMicroMotion9739MVDTransmitters:Installation

Manual

Hazardousareainstallation

TransmitterelectronicsmoduleupgradeMicroMotion9739MVDT ransmitterElectronicsModule

Seetheapprovaldocumentationshippedwiththe
transmitter,ordownloadtheappropriatedocumentation
fromthe

InstallationGuide

MicroMotionwebsiteatwww.micromotion.com.

1.59739MVDtransmitterconfigurationworksheet

Usethe9739MVDtransmittercongurationworksheetforbothplanningandrecordingthetransmitter
conguration.

Additionally,thecongurationworksheetshowstheparametersthatareaccessiblefromthedifferent
communicationstools.Chooseacommunicationstoolthatprovidesaccesstotheparametersthat
youplantocongure.

4

MicroMotion9739MVDTransmitters

Table1-39739MVDtransmitterconfigurationsettings

Beforeyoubegin

Configurablewith:

Configuration
parameterSettingDisplayProLinkII

SensorType

Flowcalibration
factor

D1

D2

Density
temperature
coefcient(DT)

K1

K2

FD

Temperature
calibrationfactor

Massow
measurement
unit

Ifmassowisa
specialunit

Flowdamping

Massowcutoff

Volumetype

StandardGas
Density

Volumeow
measurement
unit

qT-Series(StraightTube)

qOther(CurvedTube)

Basemassunit:

Basetimeunit:

Conversionfactor:

Flowtext:

Totaltext:

qLiquidVolume

qStdGasVolume

üüü

üüü

üüü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

FieldCommuni­cator

ConfigurationandUseManual

5

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

Basemassunit:

Basetimeunit:

Ifvolumeowis
aspecialunit

Volumeow
cutoff

Flowdirection

Conversionfactor:

Flowtext:

Totaltext:

qAbsoluteValue

qBidirectional

qForward

qNegateBidirectional

qNegateForward

qReverse

Density
measurement
unit

Slugowlow
limit

Slugowhigh
limit

Slugduration

Densitydamping

Densitycutoff

Temperature
measurement
unit

q°C

q°F

q°R

qKelvin

Temperature
damping

Pressureunits:

Pressure
compensation

Flowfactor:

Densityfactor:

Calibrationpressure:

continued

Configurablewith:

ProLinkII

üü

üü

üü

üü

üü

üü

üü

üüü

üü

üü

üü

üü

üü

üüü

üü

üüü

üü

üü

üü

FieldCommuni­cator

6

MicroMotion9739MVDTransmitters

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

APItabletype:

qDegreesAPI,reference

temperature60°F

qRelativeDensity/Specic

Gravity,referencetemperature
60°F

Petroleum
measurement
application(if
available)

qkg/m

APIUnits:

3

atuser-dened
referencetemperature
(Temperature:____)

qGeneralizedCrudeorJP4

(APIChapter11.1“A”T ables)

qGeneralizedProducts(API

Chapter11.1“B”T ables)

qUserDenedTEC(API

Chapter11.1“C”T ables)

Concentration
measurement
application(if
available)

Weights&
Measures
application(if
available)

Activecurve:

Derivedvariable:

Totalizerresetoptions:

qNotresettablefromdisplayor

digitalcommunications

qResettablefromdigital

communicationsonly

qResettablefrodisplayand

digitalcommunications

qResettablefromdisplayonly

Language:

qEnglish

Transmitter
display

qFrench

qGerman

qSpanish

continued

Configurablewith:

üü

ProLinkII

üü

üü

üü

üü

ü

FieldCommuni­cator

ConfigurationandUseManual

7

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

Displayvariables:

•Var1:

•Var2:

•Var3:

•Var4:

•Var5:

•Var6:

•Var7:

•Var8:

•Var9:

•Var10:

•Var11:

•Var12:

•Var13:

•Var14:

•Var15:

Updateperiod(100millisecondsto
10,000millisecondsrange;defaultis
200milliseconds):

Autoscroll:

qEnable

qDisable

Autoscrollrate(defaultis10
seconds):

Backlight:

qOn

qOff

Totalizerstart/stop:

qEnabled

qDisabled

Totalizerreset:

qEnabled

qDisabled

continued

Configurablewith:

ProLinkII

üü

üüü

üü

üü

üü

üü

üü

FieldCommuni­cator

8

MicroMotion9739MVDTransmitters

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplayProLinkII

Acknowledgeallalarms:

qEnabled

qDisabled

Ofinemenu:

qEnabled

qDisabled

Alarmpassword:

qEnabled

qDisabled

Responsetime:

qNormal

qSpecial

Tag:

Descriptor:

Message:

Date:

Informational
parameters

mAOutput1

Sensorserialnumber:

Sensormodel:

Material:

Flange:

Liner:

ProcessVariable:

Measurementunit:

Lowerrangevalue(LRV):

Upperrangevalue(URV):

Massowcutoff:

Addeddamping:

Faultaction:

qUpscale

qDownscale

qInternalzero

qNone

continued

Configurablewith:

üü

üü

üü

ü

üü

üü

ü

üü

üü

üü

üüü

üüü

üüü

üüü

üü

üü

üü

FieldCommuni­cator

ü

ü

ü

ConfigurationandUseManual

9

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplayProLinkII

FaultLevel:

ProcessVariable:

Measurementunit:

Lowerrangevalue(LRV):

Upperrangevalue(URV):

Massowcutoff:

mAOutput2

Frequency
output

Addeddamping:

Faultaction:

qUpscale

qDownscale

qInternalzero

qNone

Faultlevel:

Processvariable:

Scalingmethod:

qFreqency=Flow

qPulses/Unit

qUnits/Pulse

Pulsewidth:

qActiveHigh

qActiveLow

Polarity:

qActiveHigh

qActiveLow

Faultaction:

qUpscale

qDownscale

qInternalzero

qNone

Faultlevel:

Powertype:

qInternal

qExternal

continued

Configurablewith:

üü

üüü

üüü

üüü

üüü

üü

üü

üü

üü

üüü

üüü

üü

üüü

üü

üü

üüü

FieldCommuni­cator

10MicroMotion9739MVDTransmitters

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

Assignment:

qCalibrationinprogress

qDiscreteevent1

qDiscreteevent2

qDiscreteevent3

qDiscreteevent4

qDiscreteevent5

qEvent1

qEvent2

qFaultconditionindication

qFlowswitchindication

Discreteoutput

qForward/Reverseindication

Polarity:

qActiveHigh

qActiveLow

Powertype:

qInternal

qExternal

Faultaction:

qUpscale

qDownscale

qNone

Polarity:

qActiveHigh

qActiveLow

Assignment:

qStartzero:

Discreteinput

qStart/stoptotalizers:

qResetmasstotal:

qResetgasstandardvolume

total:

qResetalltotals:

qResetAPItemperature-

correctedvolumetotal:

continued

Configurablewith:

ProLinkII

üüü

üüü

üüü

üü

üüü

üüü

FieldCommuni­cator

ConfigurationandUseManual

11

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

Processvariable:

qExternalpressure

qInternalpressure

mAinput

HARTAddress
orModbus
Address

Loopcurrent
mode(ProLinkII)
ormAoutputac-

FieldCom-

tion(
municator)

ModbusASCII

qNone

Lowerrangevalue(LRV):

Upperrangevalue(URV):

qEnable

qDisable

qEnable

qDisable

Burstmode

qEnable

qDisable

Burstmode
output

qDynamicvariablesandPV

current

qPrimaryvariable

qPVcurrentandpercentageof

range

qReaddevicevariableswith

status

qTransmittervariables

HARTvariables

•Primaryvariable(PV):

•Secondaryvariable(SV):

•Tertiaryvariable(TV):

•Quaternaryvariable(QV):

continued

Configurablewith:

ProLinkII

üüü

üüü

üüü

üü

üü

ü

üü

üü

üü

FieldCommuni­cator

12MicroMotion9739MVDTransmitters

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

Digital
Communications
FaultActions
Settings

qUpscale

qDownscale

qReportNAN(NotANumber)

qFlowRatesgotozerovalue=

zeroow

qFlowRatesgotozerovalue

=zeroow.Densityand
Temperaturegotozero.

qNoAction

Outputassignment:

Processvariable:

Event1

Type:

qHighalarm

qLowalarm

Setpoint:

Outputassignment:

Processvariable:

Event2

Type:

qHighalarm

qLowalarm

Setpoint:

EventType:

qHI

qLO

qIN

DiscreteEvent1

qOUT

ProcessVariable:

SetpointA:

SetpointB:

continued

Configurablewith:

ProLinkII

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

üü

FieldCommuni­cator

ConfigurationandUseManual

13

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

Action:

qNone(default)

qStartSensorZero

qStart/stopalltotalizers

qResetmasstotal

qResetvolumetotal

qResetgasstandardvolume

total

qResetalltotals

qResettemperature-corrected

volumetotal

qResetCMreferencevolume

total

qResetCMnetmasstotal

qResetCMnetvolumetotal

qIncrementCMmatrix

EventType:

qHI

qLO

qIN

DiscreteEvent2

qOUT

ProcessVariable:

SetpointA:

SetpointB:

continued

Configurablewith:

ProLinkII

üü

üü

üü

üü

üü

FieldCommuni­cator

14

MicroMotion9739MVDTransmitters

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

Action:

qNone(default)

qStartSensorZero

qStart/stopalltotalizers

qResetmasstotal

qResetvolumetotal

qResetgasstandardvolume

total

qResetalltotals

qResettemperature-corrected

volumetotal

qResetCMreferencevolume

total

qResetCMnetmasstotal

qResetCMnetvolumetotal

qIncrementCMmatrix

EventType:

qHI

qLO

qIN

DiscreteEvent3

qOUT

ProcessVariable:

SetpointA:

SetpointB:

continued

Configurablewith:

ProLinkII

üü

üü

üü

üü

üü

FieldCommuni­cator

ConfigurationandUseManual

15

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

Action:

qNone(default)

qStartSensorZero

qStart/stopalltotalizers

qResetmasstotal

qResetvolumetotal

qResetgasstandardvolume

total

qResetalltotals

qResettemperature-corrected

volumetotal

qResetCMreferencevolume

total

qResetCMnetmasstotal

qResetCMnetvolumetotal

qIncrementCMmatrix

EventType:

qHI

qLO

qIN

DiscreteEvent4

qOUT

ProcessVariable:

SetpointA:

SetpointB:

continued

Configurablewith:

ProLinkII

üü

üü

üü

üü

üü

FieldCommuni­cator

16

MicroMotion9739MVDTransmitters

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

Action:

qNone(default)

qStartSensorZero

qStart/stopalltotalizers

qResetmasstotal

qResetvolumetotal

qResetgasstandardvolume

total

qResetalltotals

qResettemperature-corrected

volumetotal

qResetCMreferencevolume

total

qResetCMnetmasstotal

qResetCMnetvolumetotal

qIncrementCMmatrix

EventType:

qHI

qLO

qIN

DiscreteEvent5

qOUT

ProcessVariable:

SetpointA:

SetpointB:

continued

Configurablewith:

ProLinkII

üü

üü

üü

üü

üü

FieldCommuni­cator

ConfigurationandUseManual

17

Beforeyoubegin

Table1-39739MVDtransmitterconfigurationsettings

Configuration
parameterSettingDisplay

Action:

qNone(default)

qStartSensorZero

qStart/stopalltotalizers

qResetmasstotal

qResetvolumetotal

qResetgasstandardvolume

total

qResetalltotals

qResettemperature-corrected

volumetotal

qResetCMreferencevolume

total

qResetCMnetmasstotal

qResetCMnetvolumetotal

qIncrementCMmatrix

Pollingcontrol:

qNone

qPollAsPrimary

qPollAsSecondary

Polledvariable1

ExternalTag:

Variabletype:

qExternalpressure

qExternaltemperature

qNone

Pollingcontrol:

qNone

qPollAsPrimary

qPollAsSecondary

Polledvariable2

ExternalTag:

Variabletype:

qExternalpressure

qExternaltemperature

qNone

continued

Configurablewith:

ProLinkII

üü

üü

üü

üü

üü

üü

üü

FieldCommuni­cator

18

MicroMotion9739MVDTransmitters

Chapter2

Quickstartwiththedisplay

Topicscoveredinthischapter:

♦Applypower
♦Congurationtipsandtricks
♦ConguretheprimarymAoutputtoreportmassowrateinauser-selected

measurementunit
♦Performalooptest
♦Zerotheowmeter

2.1Applypower

Prerequisites

Beforeyouapplypowertotheowmeter,closeandtightenallhousingcovers.

Topreventignitionofammableorcombustibleatmospheres,makesureallcoversare
tightlyclosed.Forhazardousareainstallations,applyingpowertotheunitwhilehousing
coversareremovedorloosecancauseanexplosion.

Procedure

Turnontheelectricalpoweratthepowersupply.

Theowmeterwillautomaticallyperformdiagnosticroutines.Fortransmitterswithadisplay,thestatus

LEDwillturngreenandbegintoashwhenthestartupdiagnosticsarecomplete.IfthestatusLED

exhibitsdifferentbehavior,analarmconditionispresent.

Postrequisites

Allowtheelectronicstowarmupforapproximately10minutesbeforerelyingonprocessmeasurements.

Althoughthesensorisreadytoreceiveprocessuidshortlyafterpower-up,theelectronicscantakeup

to10minutestowarmupcompletely.

2.2Configurationtipsandtricks

Reviewthesetipsbeforebeginningconguration.

2.2.1AccesstoOFFLINEmenu

AccesstotheOFFLINEmenumaybedisabled.Tocongurethetransmitterusingthedisplay,youmust

enableaccesstotheOFFLINEmenu.

ConfigurationandUseManual

19

Quickstartwiththedisplay

2.2.2Defaultvaluesandranges

DefaultvaluesandrangesforthemostcommonlyusedparametersareprovidedinAppendixA.

2.3ConfiguretheprimarymAoutputtoreportmassflow

rateinauser-selectedmeasurementunit

Thisprocedureshowsyouhowtoperformthesetasksusingthedisplay.Forallotherconguration

tasks,includingotheroptionsforthemAoutput,seethecongurationsectionsofthismanual.

Note

Thisprocedureassumesthatyouarestartingfromthefactory-defaultconguration.

Procedure

1.Navigatetothecongurationmenu.

a.Atthetransmitterdisplay,activatetheScrollandSelectopticalswitchessimultaneouslyuntil

SEEALARMappearsonthedisplay .

b.ActivateScrollrepeatedlyuntilOFF-LINEMAINTappearsonthedisplay,thenactivateSelect.

c.ActivateScroll-Select-Scroll.

Thisoperatorsequenceisasafetyprecaution,designedtoprotectthetransmitterfrom
accidentalcongurationchangescausedbyunintentionalactivationoftheoff-linemenu.

Important

Ifyouhaveenabledadisplaypassword,theScroll-Select-Scrolloperatorsequenceisdisabled.
Youarerequiredtoenterapasswordbeforeyoucancontinue.Thedefaultpasswordis1234.

d.ActivateScrolluntilOFF-LINECONFGappearsonthedisplay,thenactivateSelect.

2.SetMassFlowMeasurementUnitasdesired.

a.WhenCONFIGUNITSappearsonthedisplay,activateSelect.

b.WhenUNITSMASSappearsonthedisplay,activateSelect.

c.ActivateScrolltoviewtheoptionsforMassFlowMeasurementUnit.Whenyouseethe

measurementunityouwanttouse,activateSelect.
activateSelect.

d.ActivateScrolluntilUNITSEXITappearsonthedisplay ,thenactivateSelect.

3.SetmAOutputProcessVariabletoMassFlowRate.

a.ActivateScrolluntilCONFIGIOappearsonthedisplay ,thenactivateSelect.

IfSTORE/YES?ashesonthedisplay ,

b.WhenAO1appearsonthedisplay,activateSelect.

c.WhenAO1SRCappearsonthedisplay,activateSelect.

d.ActivateScrolltoviewtheoptionsformAOutputProcessVariableoptions.WhenyouseeMFLOW,

activateSelect.IfSTORE/YES?ashesonthedisplay,activateSelect.

4.SetLowerRangeValue(LRV).

20MicroMotion9739MVDTransmitters

Quickstartwiththedisplay

LowerRangeValuespeciesthevalueofMassFlowRatetoberepresentedbyanoutputlevelof
0mAor4mA.

a.ActivateScrolluntilAO14mAorAO10mAappearsonthedisplay,thenactivateSelect.

b.DeneeachcharacterinLowerRangeV alue,includingthesign.

UseSelecttohighlightaspeciccharacter.UseScrolltosetthevalueofthecharacter.

c.Whenyouhavesetallcharactersasdesired,activateScrollandSelectsimultaneouslyuntil

SAVE/YES?ashesonthedisplay,thenactivateSelecttowritethevaluetotransmittermemory .

5.SetUpperRangeValue(URV).

UpperRangeValuespeciesthevalueofMassFlowRatetoberepresentedbyanoutputlevelof20mA.

a.ActivateScrolluntilAO120mAappearsonthedisplay ,thenactivateSelect.

b.DeneeachcharacterinUpperRangeV alue,includingthesign.

UseSelecttohighlightaspeciccharacter.UseScrolltosetthevalueofthecharacter.

c.Whenyouhavesetallcharactersasdesired,activateScrollandSelectsimultaneouslyuntil

SAVE/YES?ashesonthedisplay,thenactivateSelecttowritethevaluetotransmittermemory .

6.ActivateScrolluntilAOEXITappearsonthedisplay,thenactivateSelect.

7.Returnthedisplaytonormaloperation(displayingprocessdata).

a.ActivateScrolluntilIOEXITappearsonthedisplay,thenactivateSelect.

b.ActivateScrolluntilCONFIGEXITappearsonthedisplay ,thenactivateSelect.

c.ActivateScrolluntilOFF-LINEEXITappearsonthedisplay,thenactivateSelect.

d.ActivateScrolluntilEXITappearsonthedisplay,thenactivateSelect.

Tip

Anotherwaytoexittheoff-linemenuistorelyonthetime-outfeature.Ifyouhavenotused
theoff-linemenuforapproximately60seconds,thedisplaywillautomaticallyreturntonormal
operation.

2.4Performalooptest

Alooptestisawaytoverifythatthetransmitterandthereceivingdevicearecommunicatingproperly.

AlooptestalsohelpsyouknowwhetheryouneedtotrimmAoutputs.Performingalooptestisnot

arequiredprocedure.However,

outputavailableonyourtransmitter.

Procedure

MicroMotionrecommendsperformingalooptestforeveryinputor

1.TestthemAoutput.

a.ChooseOFFLINEMAINT→SIM→AO1SIM,andselectSET4MAoranothermAoutputvalue.

b.ReadthemAcurrentatthereceivingdeviceandcompareittothetransmitteroutput.

ConfigurationandUseManual

Dotstraversethedisplaywhiletheoutputisxed.

Thereadingsdonotneedtomatchexactly .Ifthevaluesareslightlydifferent,youcancorrect
thediscrepancybytrimmingtheoutput.

21

Quickstartwiththedisplay

c.Atthetransmitter,activateSelect.

d.ScrolltoandselectSET20MA.

Dotstraversethedisplaywhiletheoutputisxed.

e.ReadthemAcurrentatthereceivingdeviceandcompareittothetransmitteroutput.

Thereadingsdonotneedtomatchexactly .Ifthevaluesareslightlydifferent,youcancorrect
thediscrepancybytrimmingtheoutput.

f.Atthetransmitter,activateSelect.

2.TestthesecondarymAoutput.

ChooseOFFLINEMAINT→SIM→AO2SIM,andrepeatthelooptestforthesecondarymAoutput.

3.Testthefrequencyoutput.

a.ChooseOFFLINEMAINT→SIM→FOSIM,andselectthefrequencyoutputvalue.

Thefrequencyoutputcanbesetto1,10,or15kHz.

Note

IftheWeights&Measuresapplicationisenabledonthetransmitter,itisnotpossibleto
performalooptestofthefrequencyoutput,evenwhenthetransmitterisunsecured.

Dotstraversethedisplaywhiletheoutputisxed.

b.Readthefrequencysignalatthereceivingdeviceandcompareittothetransmitteroutput.

c.Atthetransmitter,activateSelect.

4.Testthediscreteoutput.

a.ChooseOFFLINEMAINT→SIM→DOSIM,andselectSETON.

Dotstraversethedisplaywhiletheoutputisxed.

b.Verifythesignalstateatthereceivingdevice.

c.Atthetransmitter,activateSelect.

d.ScrolltoandselectSETOFF.

e.Verifythesignalstateatthereceivingdevice.

f.Atthetransmitter,activateSelect.

5.Readthediscreteinput.

a.Settheremoteinputdevicesothatthedesiredsignalissenttothetransmitter.

b.Atthetransmitter,chooseOFFLINEMAINT→SIM,andselectREADDI.

c.Verifythesignalstateatthetransmitter.

d.Repeattheprocedurefortheothersignalstate.

6.ReadthemAinput.

a.Settheremoteinputdevicesothatthedesiredcurrentissenttothetransmitter.

b.Atthetransmitter,chooseOFFLINEMAINT→SIM,andselectREADMAI.

22MicroMotion9739MVDTransmitters

Quickstartwiththedisplay

c.Verifythecurrentvalue.

Postrequisites

•IfthemAoutputreadingswereslightlyoffatthereceivingdevice,youcancorrectthisdiscrepancy
bytrimmingtheoutput.

•IfthemAoutputreadingwassignicantlyoff(±200microamps),orifatanystepthereadingwas
faulty,verifythewiringbetweenthetransmitterandtheremotedevice,andtryagain.

•IfthemAinputreadingwasslightlyoffatthetransmitter,trimandcalibratetheinputatthe
remoteinputdevice.

2.5Zerotheflowmeter

Zeroingtheowmeterestablishestheowmeter’spointofreferencewhenthereisnoow.

Prerequisites

Toprepareforthezeroprocedure:

1.Allowtheowmetertowarmupforatleast20minutesafterapplyingpower.

2.Runtheprocessuidthroughthesensoruntilthesensortemperaturereachesthenormalprocess
operatingtemperature.

3.Stopowthroughthesensorbyshuttingavalvedownstreamfromthesensor .

4.Ensurethatowhascompletelystoppedthroughthesensor,andthatthesensoriscompletely
fullofprocessuid.

5.Checktheowrate.Iftheowrateisclosetozero,youshouldnotneedtozerotheowmeter.

Important

Themeterwaszeroedatthefactory,andshouldnotrequireaeldzero.

Note

Donotzerotheowmeterifahigh-severityalarmisactive.Correcttheproblem,thenzerothe
owmeter.Youmayzerotheowmeterifalow-severityalarmisactive.

Procedure

1.InitiateowmeterzerobychoosingOFFLINEMAINT→ZERO→CALZERO,andselectCAL/YES?.

Dotstraversethedisplaywhileowmeterzeroisinprogress.

2.Readthezeroresultonthedisplay.

ThedisplaywillreportCALPASSifthezerowassuccessful,orCALFAILifitwasnot.Ifthezerofails,
restorethefactoryzero(ifavailable).

2.5.1Restorefactoryzero

Procedure

Restorethefactoryzerowiththedisplay.

ConfigurationandUseManual

23

Quickstartwiththedisplay

OFFLINEMAINT→RESTOREZERO→RESTORE/YES?

24MicroMotion9739MVDTransmitters

Chapter3

QuickstartwithProLinkII

Topicscoveredinthischapter:

♦Applypower
♦Connectwith
♦Congurationtipsandtricks
♦ConguretheprimarymAoutputtoreportmassowrateinauser-selected

measurementunit
♦Performalooptest
♦TrimmAoutputs
♦Zerotheowmeter
♦T estortunethesystemusingsensorsimulation
♦Backuptransmitterconguration
♦Enable/disableHARTsecurity

3.1Applypower

Prerequisites

Beforeyouapplypowertotheowmeter,closeandtightenallhousingcovers.

ProLinkII

Topreventignitionofammableorcombustibleatmospheres,makesureallcoversare
tightlyclosed.Forhazardousareainstallations,applyingpowertotheunitwhilehousing
coversareremovedorloosecancauseanexplosion.

Procedure

Turnontheelectricalpoweratthepowersupply.

Theowmeterwillautomaticallyperformdiagnosticroutines.Fortransmitterswithadisplay,thestatus

LEDwillturngreenandbegintoashwhenthestartupdiagnosticsarecomplete.IfthestatusLED

exhibitsdifferentbehavior,analarmconditionispresent.

Postrequisites

Allowtheelectronicstowarmupforapproximately10minutesbeforerelyingonprocessmeasurements.

Althoughthesensorisreadytoreceiveprocessuidshortlyafterpower-up,theelectronicscantakeup

to10minutestowarmupcompletely.

3.2ConnectwithProLinkII

AconnectionfromProLinkIItoyourtransmitterallowsyoutoreadprocessdata,congurethe

transmitter,andperformmaintenanceandtroubleshootingtasks.

ConfigurationandUseManual

25

QuickstartwithProLinkII

Prerequisites

YoumusthavethefollowingversionofProLinkIIinstalledonyourcomputer:v2.91orlater.

3.2.1ProLinkIIconnectiontypes

The9739MVDtransmitterhasseveralconnectionsoptionsforcommunicatingviaProLinkII.Y ou

chooseaconnectiontypebasedonwhatyouneedtoaccomplishwiththetransmitterandthedigital

communicationsyouareusing.

The

9739MVDtransmittersupportsthefollowingProLinkIIconnectiontypes:

•Serviceportconnections

•HART/Bell202connections

•HART/RS-485connections

•Modbus/RS-4857-bitconnections(ModbusASCII)

•Modbus/RS-4858-bitconnections(ModbusRTU)

Whenselectingaconnectiontype,considerthefollowing:

•Serviceportconnectionsusestandardconnectionparametersthatarealreadydenedin
ProLinkII,andthereforeyoudonothavetocongurethem.

•HART/Bell202connectionsusestandardHARTconnectionparametersthatarealreadydenedin
ProLinkII.Theonlyparameteryoumustcongureisthetransmitteraddress.

•Theserviceportterminals(AandB)andtheRS-485terminals(26and27)usethesameinternal
wiring.IfyouhavewiredthetransmitterforRS-485digitalcommunications,youcannotmake
aserviceportconnection.

•Serviceportconnectionsrequireaccesstotheserviceportterminals,whicharelocatedonthe
transmitterdisplayandonlyaccessibleafterremovingthehousingcover.Accordingly,service
portconnectionsshouldbeusedonlyfortemporaryconnections,andmayrequireextrasafety
precautions.

•Modbusconnections,includingserviceportconnections,aretypicallyfasterthanHART
connections.

•WhenyouareusingaHARTconnection,
windowatatime.Thisisdonetomanagenetworktrafcandoptimizespeed.

•Youcannotmakeaserviceportconnectionwhileanactiveconnectionexistsbetweenthe
transmitterandModbushost.

ProLinkIIwillnotallowyoutoopenmorethanone

26MicroMotion9739MVDTransmitters

QuickstartwithProLinkII

3.2.2Makeaserviceportconnection

Prerequisites

Youwillneedthefollowing:

•Aninstalled,licensedcopyofProLinkII

•AnavailableserialorUSBport

•Oneofthefollowingtypesofsignalconverters:

−RS-232toRS-485signalconverter

−USBtoRS-485signalconverter

•Adaptersasrequired(e.g.9-pinto25-pin)

Important

TheSP(ServicePort)clipsonthedisplayofthe
theRS-485terminals26and27ofthetransmitter.IfyouhavewiredthetransmitterforRS-485
digitalcommunications,youmustdirectlyconnecttothetransmitterusingtheRS-485terminalblock
connectionsordisconnecttheRS-485terminalconnectionstousetheServicePortconnections.

9739MVDtransmitteraredirectlyconnectedto

Procedure

1.AttachthesignalconvertertoyourPC’sserialorUSBport.

2.Atthetransmitter,removethehousingcovertoaccessthetransmitterdisplay.

Ifthetransmitterisinahazardousarea,donotremovethehousingcoverwhile
powerisbeingsuppliedtotheunit.Removingthehousingcoverwhilepoweris
suppliedtotheunitcouldcauseanexplosion.T oaccesstransmitterinformationina
hazardousenvironment,useacommunicationmethodthatdoesnotrequireremoving
thetransmitterhousingcover.

3.ConnecttheleadsonyoursignalconvertertotheSP(ServicePort)clips(AandB)ontheface
ofthetransmitter.SeeFigure3-1.

Tip

Usually,butnotalways,theblackleadisRS-485/AandtheredleadisRS-485/B.

ConfigurationandUseManual

27

QuickstartwithProLinkII

A

B

C

D

Figure3-1ProLinkIIconnectiontoserviceport

APC

B25-to-9pinadapter,ifnecessary;orRS-232toUSBadapter,ifnecessary

CRS-232toRS-485signalconverter

DTransmitter

Notes

•Thisgureshowsaserialportconnection.AUSBportconnectionisalsoavailable.

4.StartProLinkII.

5.ChooseConnection→ConnecttoDevice.

6.SetProtocoltoServicePort.

Tip

Serviceportconnectionsusestandardconnectionparametersandastandardaddress.Y oudonot
needtocongurethemhere.

7.SettheCOMPortvaluetothePCCOMportthatyouareusingforthisconnection.

8.ClickConnect.

Iftheconnectionissuccessful:

•Thestatusbarinthemainwindowisupdatedtoshowanactiveconnection.

•TheProcessVariableswindoworCommissioningWizardwindowisdisplayed.

28MicroMotion9739MVDTransmitters

Ifanerrormessageappears:

•Switchtheleadsandtryagain.

•EnsurethatyouareusingthecorrectCOMport.

•CheckthephysicalconnectionbetweenthePCandthetransmitter.

3.2.3MakeaHART/Bell202connection

Prerequisites

Youwillneedthefollowing:

•Aninstalled,licensedcopyofProLinkII

•AnavailableserialorUSBport

•Oneofthefollowingtypesofsignalconverters:

−RS-232toBell202signalconverter

−USBtoBell202signalconverter

QuickstartwithProLinkII

•Adaptersasrequired(e.g.9-pinto25-pin)

Important

IftheHARTsecurityswitchissettoON,HARTprotocolcannotbeusedtoperformanyactionthat
requireswritingtothetransmitter.Forexample,youcannotchangetheconguration,resettotalizers,
orperformcalibrationusingthe
HARTsecurityswitchissettoOFF,nofunctionsaredisabled.

YoucanconnectProLinkIItotheHARTclipsonthetransmitter,toanypointinalocalHARTloop,orto
anypointinaHARTmultidropnetwork.

Ifthetransmitterisinahazardousarea,donotremovethehousingcoverwhilepoweris
beingsuppliedtotheunit.Removingthehousingcoverwhilepowerissuppliedtotheunit
couldcauseanexplosion.Toaccesstransmitterinformationinahazardousenvironment,
useacommunicationmethodthatdoesnotrequireremovingthetransmitterhousingcover.

FieldCommunicatororProLinkIIwithaHARTconnection.Whenthe

Procedure

1.ToconnecttotheHARTclips:

a.Removethetransmitterhousingcover.

b.AttachtheleadsfromthesignalconvertertotheHARTclipsonthefaceofthetransmitter

andaddresistanceasnecessary .SeeFigure3-2.

ConfigurationandUseManual

ProLinkIImustbeconnectedacrossaresistanceof250–600Ω.

Tip

HARTconnectionsarepolarity-insensitive.Itdoesnotmatterwhichleadyouattachtowhich
terminal.

29

QuickstartwithProLinkII

A

B

D

C

Figure3-2ProLinkIIconnectiontoHARTclips

APC

BHARTinterface

C250–600Ωresistance

DTransmitter

Notes

•Thisgureshowsaserialportconnection.AUSBportconnectionisalsoavailable.

2.ToconnecttoapointinthelocalHARTloop,attachtheleadsfromthesignalconvertertoany
pointintheloopandaddresistanceasnecessary.SeeFigure3-3.

ProLinkIImustbeconnectedacrossaresistanceof250–600Ω.

30MicroMotion9739MVDTransmitters

Figure3-3ProLinkIIconnectiontolocalHARTloop

A

C

D

B

R1

R3

R3

E

APC

BHARTinterface

CAnycombinationofresistorsR1,R2,andR3asnecessarytomeetHARTcommunicationresistance

requirements

DDCSorPLC

ETransmitter

QuickstartwithProLinkII

Notes

•Thisgureshowsaserialportconnection.AUSBportconnectionisalsoavailable.

3.ToconnecttoapointintheHARTmultidropnetwork,attachtheleadsfromthesignalconverterto
anypointintheloopandaddresistanceasnecessary.SeeFigure3-4.

ProLinkIImustbeconnectedacrossaresistanceof250–600Ω.

ConfigurationandUseManual

31

QuickstartwithProLinkII

B

C

D

A

Figure3-4ProLinkIIconnectiontomultidropnetwork

AHARTinterface(toPC)

B250–600Ωresistance

CDevicesonthenetwork

DMasterdevice

Notes

•Thisgureshowsaserialportconnection.AUSBportconnectionisalsoavailable.

4.StartProLinkII.

5.ChooseConnection→ConnecttoDevice.

6.SetProtocoltoHARTBell202.

Tip

HART/Bell202connectionsusestandardconnectionparameters.Youdonotneedtocongure
themhere.

7.IfyouareusingaUSBportconnection,enableConverterTogglesRTS.

8.SetAddress/TagtotheHARTpollingaddressconguredinthetransmitter.

32MicroMotion9739MVDTransmitters

QuickstartwithProLinkII

Tips

•Ifthisisthersttimeyouareconnectingtothetransmitter,usethedefaultaddress:0.

•IfyouarenotinaHARTmultidropenvironment,theHARTpollingaddressistypicallyleft
atthedefaultvalue.

•Ifyouareunsureofthetransmitter’saddress,clickPoll.ProLinkIIwillsearchthenetworkand
returnalistofthetransmittersthatitdetects.

9.SettheCOMPortvaluetothePCCOMportthatyouareusingforthisconnection.

10.SetMasterasappropriate.

OptionDescription

SecondaryUsethissettingifanotherHARThostsuchas

aDCSisonthenetwork.

PrimaryUsethissettingifnootherhostisonthe

network.TheFieldCommunicatorisnota
host.

11.ClickConnect.

Iftheconnectionissuccessful:

•Thestatusbarinthemainwindowisupdatedtoshowanactiveconnection.

•TheProcessVariableswindoworCommissioningWizardwindowisdisplayed.

Ifanerrormessageappears:

•EnsurethatyouareusingthecorrectCOMport.

•VerifytheHARTpollingaddress.

•CheckthephysicalconnectionbetweenthePCandthetransmitter.

•Increaseordecreaseresistance.

3.2.4MakeaHART/RS-485connection

Prerequisites

Youwillneedthefollowing:

•Aninstalled,licensedcopyofProLinkII

•AnavailableserialorUSBport

•Oneofthefollowingtypesofsignalconverters:

−RS-232toRS-485signalconverter

−USBtoRS-485signalconverter

•Adaptersasrequired(e.g.9-pinto25-pin)

ConfigurationandUseManual

33

QuickstartwithProLinkII

A

B

C

D

Important

IftheHARTsecurityswitchissettoON,HARTprotocolcannotbeusedtoperformanyactionthat
requireswritingtothetransmitter.Forexample,youcannotchangetheconguration,resettotalizers,
orperformcalibrationusingthe

FieldCommunicatororProLinkIIwithaHARTconnection.Whenthe

HARTsecurityswitchissettoOFF,nofunctionsaredisabled.

Procedure

1.AttachthesignalconvertertoyourPC’sserialorUSBport.

2.Atthetransmitter,removethehousingcovertoaccesstheRS-485terminalconnections.

Ifthetransmitterisinahazardousarea,donotremovethehousingcoverwhile
powerisbeingsuppliedtotheunit.Removingthehousingcoverwhilepoweris
suppliedtotheunitcouldcauseanexplosion.T oaccesstransmitterinformationina
hazardousenvironment,useacommunicationmethodthatdoesnotrequireremoving
thetransmitterhousingcover.

3.Toconnectdirectlytothetransmitter,connecttheleadsonyoursignalconvertertoterminals26
(RS-485/A)and27(RS-485/B)onyourtransmitter.SeeFigure3-5.

Figure3-5ProLinkIIconnectiontotransmitterterminals

APC

B25-to-9pinadapter,ifnecessary

CRS-485toRS-232signalconverter

DTransmitter

4.ToconnecttoapointintheRS-485network,connecttheleadsonyoursignalconvertertoany
pointinthenetworkandaddresistanceasnecessary.SeeFigure3-6.

34

MicroMotion9739MVDTransmitters

Figure3-6ProLinkIIconnectiontoanRS-485networkusingHART

A

B

C

D

E

F

APC

B25-to-9pinadapter,ifnecessary

CRS-485toRS-232signalconverter

D120-Ω,1/2-wattterminatingresistorsatbothendsofthesegment,ifnecessary

EDCSorPLC(Auto-detectcommunication)

FTransmitter

QuickstartwithProLinkII

Notes

•Thisgureshowsaserialportconnection.AUSBportconnectionisalsoavailable.

5.Toconnecttoapointinamultidropnetwork,attachtheleadsfromthesignalconvertertoany
pointinthewire.SeeFigure3-7.

ConfigurationandUseManual

35

QuickstartwithProLinkII

B

C

A

Figure3-7ProLinkIIconnectiontoamultidropnetwork

AHARTinterface(toPC)

BDevicesonthenetwork

CMasterdevice

6.StartProLinkII.

7.ChooseConnection→ConnecttoDevice.

8.Ifnecessary,settheconnectionparameterstomatchtheHART/RS-485parametersconguredin
yourtransmitter.

Tominimizecongurationrequirements,the9739MVDtransmitterusesanauto-detectionscheme
whenrespondingtoaconnectionrequest.Thetransmitterwillacceptallconnectionrequests
withinthelimitsdescribedinTable3-1.

Table3-1Auto-detectionlimits

ParameterOption

Protocol

AddressRespondsto:

Baudrate

Stopbits

ParityEven,odd,none

HART ,ModbusASCII,ModbusRTU

•Serviceportaddress(11 1)

•ConguredHARTaddress(default=0)

•ConguredModbusaddress(default=1)

Standardratesbetween1200and38,400

0,1

9.SettheCOMPortvaluetothePCCOMportthatyouareusingforthisconnection.

36

MicroMotion9739MVDTransmitters

10.SetMasterasappropriate:

OptionDescription

SecondaryUsethissettingifanotherhostsuchasaDCS

isonthenetwork.

PrimaryUsethissettingifnootherhostisonthe

network.TheFieldCommunicatorisnota
host.

11.ClickConnect.

Iftheconnectionissuccessful:

•Thestatusbarinthemainwindowisupdatedtoshowanactiveconnection.

•TheProcessVariableswindoworCommissioningWizardwindowisdisplayed.

Ifanerrormessageappears:

•EnsurethatyouareusingthecorrectCOMport.

•CheckthephysicalconnectionbetweenthePCandthetransmitter.

QuickstartwithProLinkII

•Forlong-distancecommunication,orifnoisefromanexternalsourceinterfereswiththe
signal,install120-Ω½-Wterminatingresistorsinparallelwiththeoutputatbothendsofthe
communicationsegment.

3.2.5MakeaModbus/RS-485connection

Prerequisites

Youwillneedthefollowing:

•Aninstalled,licensedcopyofProLinkII

•AnavailableserialorUSBport

•Oneofthefollowingtypesofsignalconverters:

−RS-232toRS-485signalconverter

−USBtoRS-485signalconverter

•Adaptersasrequired(e.g.9-pinto25-pin)

Procedure

1.AttachthesignalconvertertoyourPC’sserialorUSBport.

2.Atthetransmitter,removethehousingcovertoaccesstheRS-485terminalconnections.

Ifthetransmitterisinahazardousarea,donotremovethehousingcoverwhile
powerisbeingsuppliedtotheunit.Removingthehousingcoverwhilepoweris
suppliedtotheunitcouldcauseanexplosion.T oaccesstransmitterinformationina
hazardousenvironment,useacommunicationmethodthatdoesnotrequireremoving
thetransmitterhousingcover.

3.Toconnectdirectlytothetransmitter,connecttheleadsonyoursignalconvertertoterminals26
(RS-485/A)and27(RS-485/B)onyourtransmitter.SeeFigure3-8.

ConfigurationandUseManual

37

QuickstartwithProLinkII

A

B

C

D

Tip

Usually,butnotalways,theblackleadisRS-485/AandtheredleadisRS-485/B.

Figure3-8ProLinkIIconnectiontotransmitterterminals

APC

B25-to-9pinadapter,ifnecessary

CRS-485toRS-232signalconverter

DTransmitter

4.ToconnecttoapointinRS-485network,connecttheleadsonyoursignalconvertertoanypointin
thenetworkandaddresistanceasnecessary.SeeFigure3-9.

Restriction

TheModbushostmustnotbecommunicatingwiththetransmitterwhenyoumaketheProLinkII
connection.T omaketheconnection,waituntilthehostcommunicationiscomplete,orterminate
thehostconnection.

38

MicroMotion9739MVDTransmitters

Figure3-9ProLinkIIconnectiontoRS-485network

A

B

C

D

E

F

APC

B25-to-9pinadapter,ifnecessary

CRS-485toRS-232signalconverter

D120-Ω,1/2-wattterminatingresistorsatbothendsofthesegment,ifnecessary

EDCSorPLC(mustnotbecommunicatingwiththetransmitterduringtheProLinkIIconnection)

FTransmitter

QuickstartwithProLinkII

5.StartProLinkII.

6.ChooseConnection→ConnecttoDevice.

7.Ifnecessary,settheconnectionparameterstomatchtheModbus/RS-485parameterscongured
inyourtransmitter.

Tominimizecongurationrequirements,thetransmitterusesanauto-detectionschemewhen
respondingtoaconnectionrequest.Thetransmitterwillacceptallconnectionrequestswithinthe
auto-detectionlimits(seeT able3-2).

Table3-2Auto-detectionlimits

ParameterOption

Protocol

AddressRespondsto:

Baudrate

Stopbits

Parity

HART,ModbusASCII,ModbusRTU

•Serviceportaddress(11 1)

•ConguredHARTAddress(default=0)

•ConguredModbusAddress(default=1)

Standardratesbetween1200and38,400

0,1

Even,Odd,None

ConfigurationandUseManual

39

QuickstartwithProLinkII

Tip

Ifyoudonotknowthetransmitter’sRS-485communicationsettings,youcanconnectthroughthe
serviceport,whichalwaysusesdefaultsettings,oruseanothercommunicationstooltoviewor
changethesettings.

8.SettheCOMPortvaluetothePCCOMportthatyouareusingforthisconnection.

9.ClickConnect.

Iftheconnectionissuccessful:

•Thestatusbarinthemainwindowisupdatedtoshowanactiveconnection.

•TheProcessVariableswindoworCommissioningWizardwindowisdisplayed.

Ifanerrormessageappears:

•Switchtheleadsandtryagain.

•EnsurethatyouareusingthecorrectCOMport.

•CheckthephysicalconnectionbetweenthePCandthetransmitter.

•Forlong-distancecommunication,orifnoisefromanexternalsourceinterfereswiththe
signal,install120-Ω½-Wterminatingresistorsinparallelwiththeoutputatbothendsofthe
communicationsegment.

3.3Configurationtipsandtricks

Reviewthesetipsbeforebeginningconguration.

3.3.1HARTsecurity

HARTsecuritymaybeenabledonthe9739MVDtransmitter.T ocongurethetransmitterusingHART
protocol,youmustdisableHARTsecurity.

3.3.2Defaultvaluesandranges

DefaultvaluesandrangesforthemostcommonlyusedparametersareprovidedinAppendixA.

3.3.3Restorethefactoryconfiguration

Restoringthefactorycongurationreturnsthetransmittertoaknownoperationalconguration.

Procedure

1.MakeaconnectionfromProLinkIItoyourtransmitter.

2.ChooseProLink→Conguration→Device→RestoreFactoryConguration.

3.IntheCongurationwindow,clicktheDevicetab.

40MicroMotion9739MVDTransmitters

QuickstartwithProLinkII

4.ClickRestoreFactoryConguration.

5.ClickOK.

3.4ConfiguretheprimarymAoutputtoreportmassflow
rateinauser-selectedmeasurementunit

ThisprocedureshowsyouhowtoperformthesetasksusingProLinkII.Forallothercongurationtasks,
includingotheroptionsforthemAoutput,seethecongurationsectionsofthismanual.

Note

Thisprocedureassumesthatyouarestartingfromthefactory-defaultconguration.

Procedure

1.StartProLinkIIandconnecttoyourtransmitter.

2.Setthemeasurementunitformassowrate.

a.ChooseProLink→Conguration.

b.IntheCongurationwindow,clicktheFlowtab.

c.SelectameasurementunitfromtheMassFlowUnitslist,thenclickApply.

3.CongurethemAoutput.

a.IntheCongurationwindow,clicktheAnalogOutputtab.

b.SelectMassFlowRatefromthePrimaryV ariableIslist.

c.EnterappropriatevaluesforLowerRangeValue(LRV)andUpperRangeValue(URV).

LowerRangeValuespeciesthevalueofMassFlowRatetoberepresentedbyanoutputlevelof
0mAor4mA.
anoutputlevelof20mA.

4.ClickOKtoapplythechangesandclosetheCongurationwindow.

5.(Optional)ChooseProLink→OutputLevelsandobservethemAoutputreading.

Itshouldvarybetween0mAor4mAand20mAaccordingtothemassowrateofyourprocess.

UpperRangeValuespeciesthevalueofMassFlowRatetoberepresentedby

3.5Performalooptest

9739MVDTransmitterProLink→Test→FixMilliamp1

ProLink→Test→FixMilliamp2
ProLink→Test→FixFreqOut
ProLink→Test→FixDiscreteOut
ProLink→Test→ReadDiscreteInput
ProLink→Test→ReadMilliampInput

Alooptestisawaytoverifythatthetransmitterandthereceivingdevicearecommunicatingproperly.A
looptestalsohelpsyouknowwhetheryouneedtotrimmAoutputs.

Alooptestisawaytoverifythatthetransmitterandthereceivingdevicearecommunicatingproperly.
AlooptestalsohelpsyouknowwhetheryouneedtotrimmAoutputs.Performingalooptestisnot

ConfigurationandUseManual

41

QuickstartwithProLinkII

arequiredprocedure.However,MicroMotionrecommendsperformingalooptestforeveryinputor
outputavailableonyourtransmitter.

Procedure

1.TestthemAoutput.

a.ChooseProLink→Test→FixMilliamp1.

b.Enter0mAor4mAinSetOutputTo.ClickFixmA.

c.ReadthemAcurrentatthereceivingdeviceandcompareittothetransmitteroutput.

Thereadingsdonotneedtomatchexactly .Ifthevaluesareslightlydifferent,youcancorrect
thediscrepancybytrimmingtheoutput.

d.ClickUnFixmA.

e.Enter20mAinSetOutputT o.ClickFixmA.

f.ReadthemAcurrentatthereceivingdeviceandcompareittothetransmitteroutput.

Thereadingsdonotneedtomatchexactly .Ifthevaluesareslightlydifferent,youcancorrect
thediscrepancybytrimmingtheoutput.

g.ClickUnFixmA.

2.TestthesecondarymAoutput.

ChooseProLink→Test→FixMillamp2,andrepeatthelooptestforthesecondarymAoutput.

3.Testthefrequencyoutput.

Note

IftheWeights&Measuresapplicationisenabledonthetransmitter,itisnotpossibletoperforma
looptestofthefrequencyoutput,evenwhenthetransmitterisunsecured.

a.ChooseProLink→Test→FixFreqOut.

b.EnterthefrequencyoutputvalueinSetOutputTo.ClickFixFrequency.

c.Readthefrequencysignalatthereceivingdeviceandcompareittothetransmitteroutput.

d.ClickUnFixFreq.

4.Testthediscreteoutput.

a.ChooseProLink→Test→FixDiscreteOutput.

b.SelectOn.

c.Verifythesignalstateatthereceivingdevice.

d.ClickUnFix.

e.SelectOff.

f.Verifythesignalstateatthereceivingdevice.

g.ClickUnFix.

5.Readthediscreteinput.

a.Settheremoteinputdevicesothatthedesiredsignalissenttothetransmitter.

b.ChooseProLink→Test→ReadDiscreteInput.

c.Verifythesignalstateatthetransmitter.

42MicroMotion9739MVDTransmitters

QuickstartwithProLinkII

d.Repeattheprocedurefortheothersignalstate.

6.ReadthemAinput.

a.Settheremoteinputdevicesothatthedesiredsignalissenttothetransmitter.

b.ChooseProLink→Test→ReadMAInput.

Postrequisites

•IfthemAoutputreadingswereslightlyoffatthereceivingdevice,youcancorrectthisdiscrepancy
bytrimmingtheoutput.

•IfthemAoutputreadingwassignicantlyoff(±200microamps),orifatanystepthereadingwas
faulty,verifythewiringbetweenthetransmitterandtheremotedevice,andtryagain.

•IfthemAinputreadingwasslightlyoffatthetransmitter,trimandcalibratetheinputatthe
remoteinputdevice.

3.6TrimmAoutputs

TrimmingthemAoutputestablishesacommonmeasurementrangebetweenthetransmitterandthe
devicethatreceivesthemAoutput.

TrimmingthemAoutputsisnotarequiredprocedure.However,ifthereisasmalldiscrepancyinthemA
readingbetweenthetransmitterandthereceivingdevice,trimmingtheoutputwillcorrectthis.

Note

Anytrimmingperformedontheoutputshouldnotexceed±200microamps.Ifmoretrimmingisrequired,
contactMicroMotioncustomersupport.

Procedure

1.ChooseProLink→Calibration→Milliamp1TrimtostartthemAtrimprocedure.

2.FollowtheinstructionsintheguidedmethodtotrimthemAoutput.

3.ChooseProLink→Calibration→Milliamp2TrimtostartthetrimprocedureforthesecondarymAoutput.

4.FollowtheinstructionsintheguidedmethodtotrimthemAoutput.

3.7Zerotheflowmeter

Prerequisites

Toprepareforthezeroprocedure:

1.Allowtheowmetertowarmupforatleast20minutesafterapplyingpower.

2.Runtheprocessuidthroughthesensoruntilthesensortemperaturereachesthenormalprocess
operatingtemperature.

3.Stopowthroughthesensorbyshuttingavalvedownstreamfromthesensor .

4.Ensurethatowhascompletelystoppedthroughthesensor,andthatthesensoriscompletely
fullofprocessuid.

5.Checktheowrate.Iftheowrateisclosetozero,youshouldnotneedtozerotheowmeter.

ConfigurationandUseManual

43

QuickstartwithProLinkII

Important

Themeterwaszeroedatthefactory,andshouldnotrequireaeldzero.

Note

Donotzerotheowmeterifahigh-severityalarmisactive.Correcttheproblem,thenzerothe
owmeter.Youmayzerotheowmeterifalow-severityalarmisactive.

Procedure

1.ChooseProLink→Calibration→ZeroCalibration.

2.ModifyZeroTime,ifrequired.

ZeroTimecontrolstheamountoftimethetransmittertakestodetermineitszero-owreferencepoint.

•Alongzerotimemayproduceamoreaccuratezeroreference,butismorelikelytoresultin

azerofailure.Thisisduetotheincreasedpossibilityofnoisyow,whichcausesincorrect
calibration.

•Ashortzerotimeislesslikelytoresultinazerofailurebutmayproducealessaccuratezero

reference.

ThedefaultZeroTimeis20seconds.Formostapplications,thedefaultZeroTimeisappropriate.

3.ClickPerformAutoZerotoinitiatethezeroprocedure.

TheCalibrationinProgresslightwillturnredduringthezeroprocedure.Attheendoftheprocedure:

•TheCalibrationinProgresslightwillreturntogreenifthezerowassuccessful.

•TheCalibrationFailurelightwillturnredifthezeroprocedurefailed.

4.Incaseoffailure,youhavetwooptions:

OptionDescription

RestorePriorZeroRestorePriorZerorestorestheowmetertothe

zerovalueithadjustpriortostartingthezero
procedure.IfyouclosetheFlowCalibration
window,youwillnolongerbeabletorestore
thepriorzero.

RestoreFactoryZeroRestoreFactoryZeroisavailableonlyifyou

orderedatransmitterandasensortogether.

3.8Testortunethesystemusingsensorsimulation

Sensorsimulationallowsyoutosetspecicvaluesorvaluerangesformassow,density,and
temperature.Thetransmitterwillreportthespeciedvaluesandtakeallappropriateactions,e.g.,apply
acutoff,activateanevent,orpostanalarm.Y oucanusethisfeaturetotestthesystem’sresponsetoa
varietyofprocessconditions,includingboundaryconditions,problemconditions,oralarmconditions,or
totunetheloop.

44

MicroMotion9739MVDTransmitters

QuickstartwithProLinkII

Whenyouenablesensorsimulation,thesimulatedvaluesarestoredinthesamememorylocations
usedforprocessdatafromthesensor.Therefore,thesimulatedvalueswillbeusedthroughout
transmitterfunctioning.Forexample,sensorsimulationwillaffect:

•Allmassow,temperature,ordensityvaluesshownonthedisplayorreportedviaoutputs
ordigitalcommunications

•Themasstotalandmassinventoryvalues

•Allvolumecalculationsanddata,includingreportedvalues,volumetotals,andvolumeinventories

•Allmass,temperature,density,orvolumevaluesloggedtoDataLogger

Sensorsimulationdoesnotaffectanydiagnosticvalues.

Unlikeactualmassowanddensityvalues,thesimulatedvaluesarenottemperature-compensated
(adjustedfortheeffectoftemperatureonthesensor’sowtubes).

Important

Donotenablesensorsimulationunlessyourprocesscantoleratetheeffectsofthesimulatedprocess
values.

Procedure

1.ClickProLink→Conguration→SensorSimulation.

2.Enablesensorsimulation.

3.Formassow,setWaveFormasdesiredandentertherequiredvalues.

OptionRequiredvalues

Fixed

Sawtooth

Sine

4.Fordensity,setWaveFormasdesiredandentertherequiredvalues.

FixedValue

Period

Minimum

Maximum

Period

Minimum

Maximum

ConfigurationandUseManual

45

QuickstartwithProLinkII

OptionRequiredvalues

Fixedvalue

Triangularwave

Sinewave

5.Fortemperature,setWaveFormasdesiredandentertherequiredvalues.

OptionRequiredvalues

Fixedvalue

Triangularwave

FixedValue

Period

Minimum

Maximum

Period

Minimum

Maximum

FixedValue

Period

Minimum

Maximum

Sinewave

6.Observethesystemresponsetothesimulatedvaluesandmakeanyappropriatechangesto
thetransmittercongurationortothesystem.

7.Modifythesimulatedvaluesandrepeat.

8.Whenyouhavenishedtestingortuning,disablesensorsimulation.

Period

Minimum

Maximum

3.9Backuptransmitterconfiguration

ProLinkIIprovidesacongurationupload/downloadfunctionwhichallowsyoutosaveconguration
setstoyourPC.Thisallowsyoutobackupandrestoreyourtransmitterconguration,andisalsoa
convenientwaytoreplicateacongurationacrossmultipledevices.

Procedure

ChooseFile→LoadfromXmtrtoFiletosavethetransmittercongurationtoyourPC.

46

MicroMotion9739MVDTransmitters

QuickstartwithProLinkII

A

B

3.10Enable/disableHARTsecurity

YouusetheHARTsecurityswitchlocatedonthetransmitterdisplaytodisablecongurationofthe
transmitterusingHARTprotocol.WhentheHARTsecurityswitchissettoON,HARTprotocolcannotbe
usedtoperformanyactionthatrequireswritingtothetransmitter.Forexample,youcannotchange
theconguration,resettotalizers,performcalibration,etc.,usingthe
withaHART/Bell202orHART/RS-485connection.WhentheHARTsecurityswitchissettoOFF,no
functionsaredisabled.

Important

TheHARTsecurityswitchdoesnotaffectModbuscommunications.

Ifthetransmitterisinahazardousarea,donotremovethehousingcoverwhilepower
isbeingsuppliedtotheunit.Removingthehousingcoverwhilepowerissuppliedto
theunitcouldcauseanexplosion.ToaccesstheHARTsecurityswitchinahazardous
environment,besuretoremovepowerfromthetransmitterbeforeremovingthehousing
coverandsettingtheHARTsecurityswitch.

FieldCommunicatororProLinkII

Procedure

1.Removepowerfromthetransmitter.

2.Removethetransmitterhousingcover.

3.MovetheHARTsecurityswitchtothedesiredposition(seeFigure3-10).

Figure3-10HARTsecurityswitch(onblankdisplay)

AHARTsecurityswitch

BUnused

4.Replacethetransmitterhousingcover.

5.Restorepowertothetransmitter.

ConfigurationandUseManual

47

Chapter4

QuickstartwiththeFieldCommunicator

Topicscoveredinthischapter:

♦Applypower
♦Connectwiththe
♦Congurationtipsandtricks
♦ConguretheprimarymAoutputtoreportmassowrateinauser-selected

measurementunit
♦Performalooptest
♦TrimmAoutputs
♦Zerotheowmeter
♦T estortunethesystemusingsensorsimulation
♦Enable/disableHARTsecurity

4.1Applypower

Prerequisites

Beforeyouapplypowertotheowmeter,closeandtightenallhousingcovers.

FieldCommunicator

Topreventignitionofammableorcombustibleatmospheres,makesureallcoversare
tightlyclosed.Forhazardousareainstallations,applyingpowertotheunitwhilehousing
coversareremovedorloosecancauseanexplosion.

Procedure

Turnontheelectricalpoweratthepowersupply.

Theowmeterwillautomaticallyperformdiagnosticroutines.Fortransmitterswithadisplay,thestatus

LEDwillturngreenandbegintoashwhenthestartupdiagnosticsarecomplete.IfthestatusLED

exhibitsdifferentbehavior,analarmconditionispresent.

Postrequisites

Allowtheelectronicstowarmupforapproximately10minutesbeforerelyingonprocessmeasurements.

Althoughthesensorisreadytoreceiveprocessuidshortlyafterpower-up,theelectronicscantakeup

to10minutestowarmupcompletely.

4.2ConnectwiththeFieldCommunicator

Prerequisites

ThefollowingHARTdevicedescription(DD)mustbeinstalledontheFieldCommunicator:DDv2.

AconnectionfromtheFieldCommunicatortoyourtransmitterallowsyoutoreadprocessdata,congure

thetransmitter,andperformmaintenanceandtroubleshootingtasks.

ConfigurationandUseManual

49

QuickstartwiththeFieldCommunicator

YoucanconnecttheFieldCommunicatortotheHARTclipsonthetransmitter,toanypointinalocal

HARTloop,ortoanypointinaHARTmultidropnetwork.

Ifthetransmitterisinahazardousarea,donotremovethehousingcoverwhilepoweris
beingsuppliedtotheunit.Removingthehousingcoverwhilepowerissuppliedtotheunit
couldcauseanexplosion.Toaccesstransmitterinformationinahazardousenvironment,
useacommunicationmethodthatdoesnotrequireremovingthetransmitterhousingcover.

Important

IftheHARTsecurityswitchissettoON,HARTprotocolcannotbeusedtoperformanyactionthat

requireswritingtothetransmitter.Forexample,youcannotchangetheconguration,resettotalizers,

orperformcalibrationusingthe

HARTsecurityswitchissettoOFF,nofunctionsaredisabled.

FieldCommunicatororProLinkIIwithaHARTconnection.Whenthe

Procedure

1.ToconnecttotheHARTclips:

a.Removethetransmitterhousingcover.

b.AttachtheleadsfromtheFieldCommunicatortotheHARTclipsonthefaceofthetransmitter

andaddresistanceasnecessary.

TheFieldCommunicatormustbeconnectedacrossaresistanceof250–600Ω.

Tip

HARTconnectionsarepolarity-insensitive.Itdoesnotmatterwhichleadyouattachtowhich
terminal.

50MicroMotion9739MVDTransmitters

Figure4-1FieldCommunicatorconnectiontoHARTclips

C

B

A

A

B

C

AFieldCommunicator

B250–600Ωresistance

CTransmitter

QuickstartwiththeFieldCommunicator

2.ToconnecttoapointinthelocalHARTloop,attachtheleadsfromtheFieldCommunicatortoany
pointintheloopandaddresistanceasnecessary.SeeFigure4-2.

The

FieldCommunicatormustbeconnectedacrossaresistanceof250–600Ω.

Figure4-2FieldCommunicatorconnectiontolocalHARTloop

AFieldCommunicator

B250–600Ωresistance

CTransmitterterminals

ConfigurationandUseManual

51

QuickstartwiththeFieldCommunicator

A

B

C

D

3.ToconnecttoapointintheHARTmultidropnetwork,attachtheleadsfromtheFieldCommunicator
toanypointonthenetwork.SeeFigure4-3.

Figure4-3FieldCommunicatorconnectiontomultidropnetwork

AFieldCommunicator

B250–600Ωresistance

CDevicesonthenetwork

DMasterdevice

4.TurnontheFieldCommunicatorandwaituntilthemainmenuisdisplayed.

5.Ifyouareconnectingacrossamultidropnetwork:

a.SettheFieldCommunicatortopoll.

Thedevicereturnsalladdressesthatarevalid.

b.EntertheappropriateHARTaddress.

ThedefaultHARTaddressis0.However,formultidropoperation,theHARTaddressmustbe
uniqueonthenetwork.

6.(Optional)TonavigatetotheOnlinemenu,pressHARTApplication→2Online.

Mostconguration,maintenance,andtroubleshootingtasksareperformedfromtheOnlinemenu.

Tip

YoumayseemessagesrelatedtotheDDoractivealerts.Presstheappropriatebuttonstoignore
themessageandcontinue.

4.3Configurationtipsandtricks

Reviewthesetipsbeforebeginningconguration.

52MicroMotion9739MVDTransmitters

QuickstartwiththeFieldCommunicator

4.3.1HARTsecurity

HARTsecuritymaybeenabledonthe9739MVDtransmitter.T ocongurethetransmitterusingHART
protocol,youmustdisableHARTsecurity.

4.3.2Defaultvaluesandranges

DefaultvaluesandrangesforthemostcommonlyusedparametersareprovidedinAppendixA.

4.4ConfiguretheprimarymAoutputtoreportmassflow
rateinauser-selectedmeasurementunit

Note

Thisprocedureassumesthatyouarestartingfromthefactory-defaultconguration.

Procedure

1.MakeaconnectionfromtheFieldCommunicatortoyourtransmitter.

2.NavigatetotheOn-LineMenu.

3.Setthemeasurementunitformassowrate.

a.PressCongure→ManualSetup→Measurements→Flow→MassFlowUnit.

b.Selectthedesiredmeasurementunitfromthelist.

c.PresstheleftarrowuntilyouarereturnedtotheManualSetupmenu.

4.CongurethemAoutput.

a.PressInputs/Outputs→mAOutput1→PrimaryVariable.

b.SelectMassFlowRatefromthelist.

c.PressENTERuntilyouarereturnedtothemAOutput1menu.

d.PressmAOutputSettings.

e.PressPVLRVandenteranappropriatevalueforLowerRangeV alue(LRV).

LowerRangeValuespeciesthevalueofMassFlowRatetoberepresentedbyanoutputlevelof
0mAor4mA.

f.PressENTER.

g.PressPVURVandenteranappropriatevalueforUpperRangeValue(LRV).

UpperRangeValuespeciesthevalueofMassFlowRatetoberepresentedbyanoutputlevel
of20mA.

h.PressENTER.

5.(Optional)PressOverview→Shortcuts→Variables→Outputs→Current(mAoutput1)andobservethemA
outputreading.

ConfigurationandUseManual

53

QuickstartwiththeFieldCommunicator

Itshouldvarybetween0mAor4mAand20mAaccordingtothemassowrateofyourprocess.

4.5Performalooptest

Alooptestisawaytoverifythatthetransmitterandthereceivingdevicearecommunicatingproperly.
AlooptestalsohelpsyouknowwhetheryouneedtotrimmAoutputs.Performingalooptestisnot
arequiredprocedure.However,
outputavailableonyourtransmitter.

Procedure

1.TestthemAoutput.

a.PressServiceTools→Simulate→SimulateOutputs→mAOutputLoopTests,andselect4mA.

b.ReadthemAcurrentatthereceivingdeviceandcompareittothetransmitteroutput.

Thereadingsdonotneedtomatchexactly .Ifthevaluesareslightlydifferent,youcancorrect
thediscrepancybytrimmingtheoutput.

c.Select20mA.

MicroMotionrecommendsperformingalooptestforeveryinputor

d.ReadthemAcurrentatthereceivingdeviceandcompareittothetransmitteroutput.

Thereadingsdonotneedtomatchexactly .Ifthevaluesareslightlydifferent,youcancorrect
thediscrepancybytrimmingtheoutput.

2.TestthesecondarymAoutput.

PressServiceTools→Maintenance→SimulateOutputs→mAOutput2LoopTest,andrepeattheloop
testforthesecondarymAoutput.

3.Testthefrequencyoutput.

Note

IftheWeights&Measuresapplicationisenabledonthetransmitter,itisnotpossibletoperforma
looptestofthefrequencyoutput,evenwhenthetransmitterisunsecured.

a.PressServiceTools→Simulate→SimulateOutputs→FrequencyOutputTest,andchoosethe

frequencyoutputlevel.

b.Readthefrequencysignalatthereceivingdeviceandcompareittothetransmitteroutput.

c.ChooseEnd.

4.Testthediscreteoutput.

a.PressServiceTools→Simulate→SimulateOutputs→DiscreteOutputTest.

b.ChooseOff.

c.Verifythesignalstateatthereceivingdevice.

d.ChooseOn.

e.Verifythesignalstateatthereceivingdevice.

54

MicroMotion9739MVDTransmitters

QuickstartwiththeFieldCommunicator

f.ChooseEnd.

Postrequisites

•IfthemAoutputreadingswereslightlyoffatthereceivingdevice,youcancorrectthisdiscrepancy
bytrimmingtheoutput.

•IfthemAoutputreadingwassignicantlyoff(±200microamps),orifatanystepthereadingwas
faulty,verifythewiringbetweenthetransmitterandtheremotedevice,andtryagain.

•IfthemAinputreadingwasslightlyoffatthetransmitter,trimandcalibratetheinputatthe
remoteinputdevice.

4.6TrimmAoutputs

TrimmingthemAoutputsisnotarequiredprocedure.However,ifthereisasmalldiscrepancyinthemA
readingbetweenthetransmitterandthereceivingdevice,trimmingtheoutputwillcorrectthis.

Note

Anytrimmingperformedontheoutputshouldnotexceed±200microamps.Ifmoretrimmingisrequired,
contactMicroMotioncustomersupport.

Procedure

1.PressServiceTools→Maintenance→RoutineMaintenance→TrimmAoutput1tostartthemAtrim
procedure.

2.FollowtheinstructionsintheguidedmethodtotrimthemAoutput.

3.ChooseServiceTools→Maintenance→RoutineMaintenance→TrimmAoutput2tostartthetrimprocedure
forthesecondarymAoutput.

4.FollowtheinstructionsintheguidedmethodtotrimthemAoutput.

4.7Zerotheflowmeter

Prerequisites

Toprepareforthezeroprocedure:

1.Allowtheowmetertowarmupforatleast20minutesafterapplyingpower.

2.Runtheprocessuidthroughthesensoruntilthesensortemperaturereachesthenormalprocess
operatingtemperature.

3.Stopowthroughthesensorbyshuttingavalvedownstreamfromthesensor .

4.Ensurethatowhascompletelystoppedthroughthesensor,andthatthesensoriscompletely
fullofprocessuid.

5.Checktheowrate.Iftheowrateisclosetozero,youshouldnotneedtozerotheowmeter.

Important

Themeterwaszeroedatthefactory,andshouldnotrequireaeldzero.

ConfigurationandUseManual

55

QuickstartwiththeFieldCommunicator

Note

Donotzerotheowmeterifahigh-severityalarmisactive.Correcttheproblem,thenzerothe
owmeter.Youmayzerotheowmeterifalow-severityalarmisactive.

Procedure

Toinitiatetheowmeterzero,pressServiceTools→Maintenance→ZeroCalibration→PerformAutoZero.

ThedisplaywillreportCalibrationinprogress.Whenthecalibrationiscomplete,thedisplayreportsAutozero
completeifthezerowassuccessful,orAutozerofailedifitwasnot.

4.8Testortunethesystemusingsensorsimulation

Sensorsimulationallowsyoutosetspecicvaluesorvaluerangesformassow,density,and
temperature.Thetransmitterwillreportthespeciedvaluesandtakeallappropriateactions,e.g.,apply
acutoff,activateanevent,orpostanalarm.Y oucanusethisfeaturetotestthesystem’sresponsetoa
varietyofprocessconditions,includingboundaryconditions,problemconditions,oralarmconditions,or
totunetheloop.

Whenyouenablesensorsimulation,thesimulatedvaluesarestoredinthesamememorylocations
usedforprocessdatafromthesensor.Therefore,thesimulatedvalueswillbeusedthroughout
transmitterfunctioning.Forexample,sensorsimulationwillaffect:

•Allmassow,temperature,ordensityvaluesshownonthedisplayorreportedviaoutputs
ordigitalcommunications

•Themasstotalandmassinventoryvalues

•Allvolumecalculationsanddata,includingreportedvalues,volumetotals,andvolumeinventories

•Allmass,temperature,density,orvolumevaluesloggedtoDataLogger

Sensorsimulationdoesnotaffectanydiagnosticvalues.

Unlikeactualmassowanddensityvalues,thesimulatedvaluesarenottemperature-compensated
(adjustedfortheeffectoftemperatureonthesensor’sowtubes).

Important

Donotenablesensorsimulationunlessyourprocesscantoleratetheeffectsofthesimulatedprocess
values.

Procedure

1.Navigatetothesensorsimulationmenu:ServiceTools→Simulate→SimulateSensor.

2.Enablesensorsimulation.

3.Formassow,setWaveFormasdesiredandentertherequiredvalues.

56

MicroMotion9739MVDTransmitters

OptionRequiredvalues

QuickstartwiththeFieldCommunicator

Fixed

Sawtooth

SimFixedValue

SimRampLowPoint

SimRampHighPoint

SimRampPeriod

Sine

SimRampLowPoint

SimRampHighPoint

SimRampPeriod

4.Fordensity,setWaveFormasdesiredandentertherequiredvalues.

OptionRequiredvalues

Fixedvalue

Triangularwave

SimFixedValue

SimRampLowPoint

SimRampHighPoint

SimRampPeriod

Sinewave

SimRampLowPoint

SimRampHighPoint

SimRampPeriod

5.Fortemperature,setWaveFormasdesiredandentertherequiredvalues.

OptionRequiredvalues

Fixedvalue

Triangularwave

SimFixedValue

SimRampLowPoint

SimRampHighPoint

SimRampPeriod

Sinewave

SimRampLowPoint

SimRampHighPoint

SimRampPeriod

6.Observethesystemresponsetothesimulatedvaluesandmakeanyappropriatechangesto
thetransmittercongurationortothesystem.

ConfigurationandUseManual

57

QuickstartwiththeFieldCommunicator

A

B

7.Modifythesimulatedvaluesandrepeat.

8.Whenyouhavenishedtestingortuning,disablesensorsimulation.

4.9Enable/disableHARTsecurity

YouusetheHARTsecurityswitchlocatedonthetransmitterdisplaytodisablecongurationofthe
transmitterusingHARTprotocol.WhentheHARTsecurityswitchissettoON,HARTprotocolcannotbe
usedtoperformanyactionthatrequireswritingtothetransmitter.Forexample,youcannotchange
theconguration,resettotalizers,performcalibration,etc.,usingthe
withaHART/Bell202orHART/RS-485connection.WhentheHARTsecurityswitchissettoOFF,no
functionsaredisabled.

Important

TheHARTsecurityswitchdoesnotaffectModbuscommunications.

Ifthetransmitterisinahazardousarea,donotremovethehousingcoverwhilepower
isbeingsuppliedtotheunit.Removingthehousingcoverwhilepowerissuppliedto
theunitcouldcauseanexplosion.ToaccesstheHARTsecurityswitchinahazardous
environment,besuretoremovepowerfromthetransmitterbeforeremovingthehousing
coverandsettingtheHARTsecurityswitch.

FieldCommunicatororProLinkII

Procedure

1.Removepowerfromthetransmitter.

2.Removethetransmitterhousingcover.

3.MovetheHARTsecurityswitchtothedesiredposition(seeFigure4-4).

Figure4-4HARTsecurityswitch(onblankdisplay)

AHARTsecurityswitch

BUnused

4.Replacethetransmitterhousingcover.

5.Restorepowertothetransmitter.

58

MicroMotion9739MVDTransmitters

II

II II

Referenceinformationfor
commissioning

Chapterscoveredinthispart:

♦Congureprocessmeasurement
♦Conguredeviceoptionsandpreferences
♦Integratethemeterwiththecontrolsystem

Chapter5

Configureprocessmeasurement

Topicscoveredinthischapter:

♦Characterizetheowmeter
♦Conguremassowmeasurement
♦Congurevolumeowmeasurementforliquidapplications
♦Conguregasstandardvolumeowmeasurement
♦CongureFlowDirection
♦Conguredensitymeasurement
♦Conguretemperaturemeasurement
♦Congurepressurecompensation
♦Congurethepetroleummeasurementapplication
♦Conguretheconcentrationmeasurementapplication

5.1Characterizetheflowmeter

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Characterize

ProLink→Conguration→DensityProLink→Conguration→Flow

Characterizingtheowmeteradjuststhetransmitter’smeasurementalgorithmstomatchtheunique
traitsofthesensoritispairedwith.Thecharacterizationparameters(alsocalledcalibrationparameters)
describethesensor’ssensitivitytoow,density,andtemperature.Dependingonyoursensortype,
differentparametersarerequired.Valuesforyoursensorareprovidedby
tagorthecalibrationcerticate.

Note

Ifyoursensorandtransmitterwereorderedtogether,thetransmitterhasalreadybeencharacterizedat
thefactory.However,youshouldstillverifycharacterizationparameters.

ConfigurationandUseManual

MicroMotiononthesensor

61

Configureprocessmeasurement

Procedure

1.SpecifySensorType.

•Straight-tube(T-Series)

•Curved-tube(allsensorsexceptT-Series)

2.Settheowcharacterizationparameters.Besuretoincludealldecimalpoints.

•Forstraight-tubesensors,setFCF(FlowCalorFlowCalibrationFactor),FTG,andFFQ.

•Forcurved-tubesensors,setFlowCal(FlowCalibrationFactor).

3.Setthedensitycharacterizationparameters.

•Forstraight-tubesensors,setD1,D2,DT,DTG,K1,K2,FD,DFQ1,andDFQ2.

•Forcurved-tubesensors,setD1,D2,TC,K1,K2,andFD.(TCissometimesshownasDT.)

5.1.1Sourcesandformatsforcharacterizationparameters

Differentsensortagsdisplaycharacterizationparametersdifferently,andoldersensorsmaynothaveall
therequiredparametersonthetag.

Samplesensortags

Samplesensortagsareshowninthefollowingillustrations:

•Figure5-1:Oldercurved-tubesensors(allsensorsexceptT-Series)

•Figure5-2:Newercurved-tubesensors(allsensorsexceptT-Series)

•Figure5-3:Olderstraight-tubesensors(T-Series)

•Figure5-4:Newerstraight-tubesensors(T-Series)

Figure5-1Tagonoldercurved-tubesensors(allsensorsexceptT-Series)

62MicroMotion9739MVDTransmitters

Figure5-2Tagonnewercurved-tubesensors(allsensorsexceptT-Series)

Figure5-3Tagonolderstraight-tubesensor(T-Series)

Configureprocessmeasurement

Figure5-4Tagonnewerstraight-tubesensor(T-Series)

ConfigurationandUseManual

63

Configureprocessmeasurement

Densitycalibrationparameters(D1,D2,K1,K2,FD,DT,TC)

IfyoursensortagdoesnotshowaD1orD2value:

•ForD1,entertheDensAorD1valuefromthecalibrationcerticate.Thisvalueistheline-condition
densityofthelow-densitycalibrationuid.MicroMotionusesair.IfyoucannotndaDensAor
D1value,enter0.001g/cm

•ForD2,entertheDensBorD2valuefromthecalibrationcerticate.Thisvalueistheline-condition
densityofthehigh-densitycalibrationuid.
orD2value,enter0.998g/cm

IfyoursensortagdoesnotshowaK1orK2value:

•ForK1,entertherst5digitsofthedensitycalibrationfactor.InthesampletaginFigure5-1,this
valueisshownas12500.

•ForK2,enterthesecond5digitsofthedensitycalibrationfactor.InthesampletaginFigure5-1,
thisvalueisshownas14286.

3

.

MicroMotionuseswater.IfyoucannotndaDensB

3

.

IfyoursensordoesnotshowanFDvalue,contact

[e-mail].

IfyoursensortagdoesnotshowaDTorTCvalue,enterthelast3digitsofthedensitycalibration
factor.InthesampletaginFigure5-1,thisvalueisshownas4.44.

Flowcalibrationparameters(FCF,FT)

Twoseparatevaluesareusedtodescribeowcalibration:a6-characterFCFvalueanda4-character
FTvalue.Bothvaluescontaindecimalpoints.Duringcharacterization,theseareenteredasasingle
10-characterstringthatincludestwodecimalpoints.ThisparameteriscalledeitherFlowcalorFCF.

IfyoursensortagshowstheFCFandtheFTvaluesseparately ,concatenatethetwovaluestoform
thesingleparametervalue.

tExample:ConcatenatingFCFandFT

FCF=x.xxxx
FT=y.yy
Flowcalibrationparameter:x.xxxxy.yy

5.2Configuremassflowmeasurement

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Flow

OFF-LINEMAINT→OFF-LINECONFG→UNITS→MASS

ProLink→Conguration→Flow

Themassowmeasurementparameterscontrolhowmassowismeasuredandreported.

Themassowmeasurementparametersinclude:

•MassFlowMeasurementUnit

•FlowDamping

•MassFlowCutoff

64

MicroMotion9739MVDTransmitters

5.2.1ConfigureMassFlowMeasurementUnit

Configureprocessmeasurement

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Flow→MassFlowUnit

OFF-LINEMAINT→OFF-LINECONFG→UNITS→MASS

ProLink→Conguration→Flow→MassFlowUnits

MassFlowMeasurementUnitspeciestheunitwillbeusedforthemassowrate.Theunitusedformass
totalandmassinventoryisderivedfromthisunit.

Procedure

SetMassFlowMeasurementUnittothedesiredunit.

ThedefaultsettingforMassFlowMeasurementUnitisg/s(gramspersecond).

Tip

Ifthemeasurementunityouwanttouseisnotavailable,youcandeneaspecialmeasurementunit.

OptionsforMassFlowMeasurementUnit

ThetransmitterprovidesastandardsetofmeasurementunitsforMassFlowMeasurementUnit,plusone
user-denedspecialmeasurementunit.Differentcommunicationstoolusedifferentlabelsfortheunits.

OptionsforMassFlowMeasurementUnitareshowninTable5-1.

Table5-1OptionsforMassFlowMeasurementUnit

Label

UnitdescriptionDisplayProLinkIIFieldCommunicator

GramspersecondG/Sg/sg/s

GramsperminuteG/MINg/ming/min

GramsperhourG/Hg/hrg/h

Kilogramspersecond

Kilogramsperminute

Kilogramsperhour

Kilogramsperday

Metrictonsperminute

Metrictonsperhour

Metrictonsperday

Poundspersecond

Poundsperminute

Poundsperhour

Poundsperday

Shorttons(2000pounds)
perminute

KG/Skg/skg/s

KG/MINkg/minkg/min

KG/Hkg/hrkg/h

KG/Dkg/daykg/d

T/MINmTon/minMetT on/min

T/HmTon/hrMetT on/h

T/DmTon/dayMetT on/d

LB/Slbs/slb/s

LB/MINlbs/minlb/min

LB/Hlbs/hrlb/h

LB/Dlbs/daylb/d

ST/MINsT on/minSTon/min

ConfigurationandUseManual

65

Configureprocessmeasurement

Table5-1OptionsforMassFlowMeasurementUnit

UnitdescriptionDisplayProLinkIIFieldCommunicator

Shorttons(2000pounds)
perhour

Shorttons(2000pounds)
perday

Longtons(2240pounds)
perhour

Longtons(2240pounds)
perday

SpecialunitSPECL

ST/HsT on/hrSTon/h

ST/DsT on/dayST on/d

LT/HlTon/hrLT on/h

LT/DlTon/dayLT on/d

continued

Label

special

Defineaspecialmeasurementunitformassflow

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→SpecialUnits→MassSpecialUnits

ProLink→Conguration→SpecialUnits

Spcl

Aspecialmeasurementunitallowsyoutoreportprocessdata,totalizerdata,andinventorydataina
unitthatisnothard-codedinthetransmitter.Aspecialmeasurementunitiscalculatedfromanexisting
measurementunitusingaconversionfactor.

Restriction

Althoughyoucannotdeneaspecialmeasurementunitusingthedisplay,youcanusethedisplayto
selectanexistingspecialmeasurementunitandtoviewprocessdata.

Procedure

1.SpecifyBaseMassUnit.

BaseMassUnitistheexistingmassunitthatthespecialunitwillbebasedon.

2.SpecifyBaseTimeUnit.

BaseTimeUnitistheexistingtimeunitthatthespecialunitwillbebasedon.

3.CalculateMassFlowConversionFactorasfollows:

a.xbaseunits=yspecialunits

b.MassFlowConversionFactor=x/y

4.EnterMassFlowConversionFactor.

5.SetMassFlowLabeltothelabeltobeusedforthemassowunit.

6.SetMassTotalLabeltothelabeltobeusedforthemasstotalandmassinventoryunit.

Thespecialmeasurementunitisstoredinthetransmitter.Youcancongurethetransmittertousethe
specialmeasurementunitatanytime.

66

MicroMotion9739MVDTransmitters

tExample:Definingaspecialmeasurementunitformassflow

Youwanttomeasuremassowinouncespersecond.

1.SetBaseMassUnittoPounds(lb).

2.SetBaseTimeUnittoSeconds(sec).

3.CalculateMassFlowConversionFactor:

a.1lb/sec=16oz/sec

b.MassFlowConversionFactor=1/16=0.0625

4.SetMassFlowConversionFactorto0.0625.

5.SetMassFlowLabeltooz/sec.

6.SetMassT otalLabeltooz.

5.2.2ConfigureFlowDamping

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Flow→FlowDamping

ProLink→Conguration→Flow→FlowDamp

Configureprocessmeasurement

Dampingisusedtosmoothoutsmall,rapiductuationsinprocessmeasurement.TheDampingValue
speciesthetimeperiod(inseconds)overwhichthetransmitterwillspreadchangesinthereported
processvariable.Attheendoftheinterval,thereportedprocessvariablewillreect63%ofthechange
intheactualmeasuredvalue.

Tips

•Ahighdampingvaluemakestheprocessvariableappearsmootherbecausethereportedvalue
mustchangeslowly .

•Alowdampingvaluemakestheprocessvariableappearmoreerraticbecausethereported
valuechangesmorequickly.

Procedure

SetFlowDampingtothedesiredvalue.

Thedefaultvalueis0.8seconds.Therangeis0to10.24seconds.WhenyouenteravalueforFlow

Damping,thetransmitterautomaticallyroundsitdowntothenearestvalidvalue.ThevalidvaluesforFlow
Dampingare:0,0.04,0.08,0.16,...10.24.

Tips

Forgasapplications,MicroMotionrecommendssettingFlowDampingto2.56orhigher.

ConfigurationandUseManual

67

Configureprocessmeasurement

EffectofFlowDampingonvolumemeasurement

FlowDampingeffectsvolumemeasurementforbothliquidvolumeandgasstandardvolume.Volumedata

iscalculatedfromthedampedmassowdataratherthanthemeasuredowvalue.

InteractionbetweenFlowDampingandAddedDamping

FlowDampingcontrolstherateofchangeinowprocessvariables.AddedDampingcontrolstherateof
changereportedviathemAoutput.IfmAOutputProcessVariableissettoMassFlowRate,andbothFlow
DampingandAddedDampingaresettonon-zerovalues,owdampingisappliedrst,andtheadded

dampingcalculationisappliedtotheresultoftherstcalculation.

5.2.3ConfigureMassFlowCutoff

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Flow→MassFlowCutoff

ProLink→Conguration→Flow→MassFlowCutoff

MassFlowCutoffspeciesthelowestmassowratethatwillreportedasmeasured.Allmassowrates
belowthiscutoffwillbereportedas0.

Procedure

SetMassFlowCutofftothedesiredvalue.

ThedefaultvalueforMassFlowCutoffis0.0g/s.Therecommendedsettingis0.05%ofthesensor's
ratedmaximumowrate.

EffectofMassFlowCutoffonvolumemeasurement

MassFlowCutoffdoesnotaffectvolumemeasurement.Volumedataiscalculatedfromtheactualmass

dataratherthanthereportedvalue.

InteractionbetweenMassFlowCutoffandAOCutoff

MassFlowCutoffaffectsallreportedvaluesandvaluesusedinothertransmitterbehavior(e.g.,events

denedonmassow).

AOCutoffaffectsonlymassowvaluesreportedviathemAoutput.

tExample:Cutoffinteraction

Conguration:

•mAOutputProcessVariablefortheprimarymAoutput:MassFlowRate

•FrequencyOutputProcessVariable:MassFlowRate

•AOCutofffortheprimarymAoutput:10grams/second

•MassFlowCutoff:15grams/second

Result:Ifthemassowratedropsbelow15grams/second,massowwillbereportedas0,and0
willbeusedinallinternalprocessing.

68

MicroMotion9739MVDTransmitters

Configureprocessmeasurement

tExample:Cutoffinteraction

Conguration:

•mAOutputProcessVariablefortheprimarymAoutput:MassFlowRate

•FrequencyOutputProcessVariable:MassFlowRate

•AOCutofffortheprimarymAoutput:15grams/second

•MassFlowCutoff:10grams/second

Result:

•Ifthemassowratedropsbelow15grams/secondbutnotbelow10grams/second:

−TheprimarymAoutputwillreportzeroow.

−Thefrequencyoutputwillreporttheactualowrate,andtheactualowratewillbeused
inallinternalprocessing.

•Ifthemassowratedropsbelow10grams/second,bothoutputswillreportzeroow,and0will
beusedinallinternalprocessing.

5.3Configurevolumeflowmeasurementforliquid applications

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Flow

Thevolumeowmeasurementparameterscontrolhowliquidvolumeowismeasuredandreported.

Thevolumeowmeasurementparametersinclude:

•VolumeFlowType

•VolumeFlowMeasurementUnit

•VolumeFlowCutoff

Restriction

Youcannotimplementbothliquidvolumeowandgasstandardvolumeow.Y oumustchooseoneor
theother.

OFF-LINEMAINT→OFF-LINECONFG→UNITS→VOL

ProLink→Conguration→Flow

5.3.1ConfigureVolumeFlowTypeforliquidapplications

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→GasStandardVolume→VolumeFlowType→Liquid

VolumeFlowTypecontrolswhetherliquidorgasstandardvolumeowmeasurementwillbeimplemented.

ConfigurationandUseManual

OFF-LINEMAINT→OFF-LINECONFG→VOL→VOLTYPELIQUID

ProLink→Conguration→Flow→VolFlowType→LiquidVolume

69

Configureprocessmeasurement

Restriction

Ifyouareusingthepetroleummeasurementapplication,youmustsetVolumeFlowTypetoLiquid.Gas
standardvolumemeasurementisincompatiblewiththepetroleummeasurementapplication.

Restriction

Ifyouareusingtheconcentrationmeasurementapplication,youmustsetVolumeFlowTypetoLiquid.Gas
standardvolumemeasurementisincompatiblewiththeconcentrationmeasurementapplication.

Procedure

SetVolumeFlowTypetoLiquid.

5.3.2ConfigureVolumeFlowMeasurementUnitforliquidapplications

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Flow→VolumeFlowUnit

VolumeFlowMeasurementUnitspeciestheunitwillbeusedforthevolumeowrate.Theunitusedfor
thevolumetotalandthevolumeinventoryisderivedfromthisunit.

OFF-LINEMAINT→OFF-LINECONFG→UNITS→VOL

ProLink→Conguration→Flow→VolFlowUnits

Prerequisites

BeforeyoucongureVolumeFlowMeasurementUnit,besurethatVolumeFlowTypeissettoLiquid.

Procedure

SetVolumeFlowMeasurementUnittothedesiredunit.

ThedefaultsettingforVolumeFlowMeasurementUnitisL/s(literspersecond).

Tip

Ifthemeasurementunityouwanttouseisnotavailable,youcandeneaspecialmeasurementunit.

OptionsforVolumeFlowMeasurementUnitforliquidapplications

ThetransmitterprovidesastandardsetofmeasurementunitsforVolumeFlowMeasurementUnit,plusone
user-denedspecialmeasurementunit.Differentcommunicationstoolusedifferentlabelsfortheunits.

OptionsforVolumeFlowMeasurementUnitareshowninT able5-2.

70MicroMotion9739MVDTransmitters

Table5-2OptionsforVolumeFlowMeasurementUnitforliquidapplications

Label

UnitdescriptionDisplayProLinkIIFieldCommunicator

CubicfeetpersecondCUFT/Sft3/secCuft/s

CubicfeetperminuteCUF/MNft3/minCuft/min

CubicfeetperhourCUFT/Hft3/hrCuft/h

CubicfeetperdayCUFT/Dft3/dayCuft/d

CubicmeterspersecondM3/Sm3/secCum/s

CubicmetersperminuteM3/MINm3/minCum/min

CubicmetersperhourM3/Hm3/hrCum/h

CubicmetersperdayM3/Dm3/dayCum/d

U.S.gallonspersecondUSGPSUSgal/secgal/s

U.S.gallonsperminuteUSGPMUSgal/mingal/min

U.S.gallonsperhourUSGPHUSgal/hrgal/h

U.S.gallonsperdayUSGPDUSgal/dgal/d

MillionU.S.gallonsperdayMILG/DmilUSgal/dayMMgal/d

Literspersecond

Litersperminute

Litersperhour

Millionlitersperday

Imperialgallonsper
second

Imperialgallonsperminute

Imperialgallonsperhour

Imperialgallonsperday

Barrelspersecond

Barrelsperminute

Barrelsperhour

Barrelsperday

Beerbarrelspersecond

Beerbarrelsperminute

Beerbarrelsperhour

Beerbarrelsperday

SpecialunitSPECL

L/Sl/secL/s

L/MINl/minL/min

L/Hl/hrL/h

MILL/Dmill/dayML/d

UKGPSImpgal/secImpgal/s

UKGPMImpgal/minImpgal/min

UKGPHImpgal/hrImpgal/h

UKGPDImpgal/dayImpgal/d

BBL/Sbarrels/secbbl/s

BBL/MNbarrels/minbbl/min

BBL/Hbarrels/hrbbl/h

BBL/Dbarrels/daybbl/d

BBBL/SBeerbarrels/secbbbl/s

BBBL/MNBeerbarrels/minbbbl/min

BBBL/HBeerbarrels/hrbbbl/h

BBBL/DBeerbarrels/daybbbl/d

special

Configureprocessmeasurement

Spcl

ConfigurationandUseManual

71

Configureprocessmeasurement

Defineaspecialmeasurementunitforvolumeflow

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→SpecialUnits→VolumeSpecialUnits

Aspecialmeasurementunitallowsyoutoreportprocessdata,totalizerdata,andinventorydataina
unitthatisnothard-codedinthetransmitter.Aspecialmeasurementunitiscalculatedfromanexisting
measurementunitusingaconversionfactor.

Restriction

Althoughyoucannotdeneaspecialmeasurementunitusingthedisplay,youcanusethedisplayto
selectanexistingspecialmeasurementunitandtoviewprocessdata.

Procedure

1.SpecifyBaseVolumeUnit.

ProLink→Conguration→SpecialUnits

BaseVolumeUnitistheexistingvolumeunitthatthespecialunitwillbebasedon.

2.SpecifyBaseTimeUnit.

BaseTimeUnitistheexistingtimeunitthatthespecialunitwillbebasedon.

3.CalculateVolumeFlowConversionFactorasfollows:

a.xbaseunits=yspecialunits

b.VolumeFlowConversionFactor=x/y

4.EntertheVolumeFlowConversionFactor.

5.SetVolumeFlowLabeltothelabeltobeusedforthevolumeowunit.

6.SetVolumeTotalLabeltothelabeltobeusedforthevolumetotalandvolumeinventoryunit.

Thespecialmeasurementunitisstoredinthetransmitter.Youcancongurethetransmittertousethe
specialmeasurementunitatanytime.

tExample:Definingaspecialmeasurementunitforvolumeflow

Youwanttomeasurevolumeowinpintspersecond.

1.SetBaseVolumeUnittoGallons(gal).

2.SetBaseTimeUnittoSeconds(sec).

3.Calculatetheconversionfactor:

a.1gal/sec=8pints/sec

b.VolumeFlowConversionFactor=1/8=0.1250

4.SetVolumeFlowConversionFactorto0.1250.

5.SetVolumeFlowLabeltopints/sec.

6.SetVolumeTotalLabeltopints.

72MicroMotion9739MVDTransmitters

Configureprocessmeasurement

5.3.3ConfigureVolumeFlowCutoff

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Flow→VolumeFlowCutoff

VolumeFlowCutoffspeciesthelowestvolumeowratethatwillreportedasmeasured.Allvolume
owratesbelowthiscutoffwillbereportedas0.

Procedure

SetVolumeFlowCutofftothedesiredvalue.

ThedefaultvalueforVolumeFlowCutoffis0.0L/s.Thelowerlimitis0.Theupperlimitisthesensor’sow
calibrationfactor,inunitsofL/s,multipliedby0.2.

InteractionbetweenVolumeFlowCutoffandAOCutoff

VolumeFlowCutoffdenesthelowestliquidvolumeowvaluethatthetransmitterwillreportasmeasured.
AOCutoffdenesthelowestowratethatwillbereportedviathemAoutput.IfmAOutputProcessVariableis

settoVolumeFlowRate,thevolumeowratereportedviathemAoutputiscontrolledbythehigherof
thetwocutoffvalues.

ProLink→Conguration→Flow→VolFlowCutoff

VolumeFlowCutoffaffectsbothvolumeowvaluesreportedviaoutputsandvolumeowvaluesusedin
othertransmitterbehavior(e.g.,eventsdenedonvolumeow).

AOCutoffaffectsonlyowvaluesreportedviathemAoutput.

tExample:CutoffinteractionwithAOCutofflowerthanVolumeFlowCutoff

Conguration:

•mAOutputProcessVariablefortheprimarymAoutput:VolumeFlowRate

•FrequencyOutputProcessVariable:VolumeFlowRate

•AOCutofffortheprimarymAoutput:10liters/second

•VolumeFlowCutoff:15liters/second

Result:Ifthemassowratedropsbelow15liters/second,volumeowwillbereportedas0,and0
willbeusedinallinternalprocessing.

tExample:CutoffinteractionwithAOCutoffhigherthanVolumeFlowCutoff

Conguration:

•mAOutputProcessVariablefortheprimarymAoutput:VolumeFlowRate

•FrequencyOutputProcessVariable:VolumeFlowRate

•AOCutofffortheprimarymAoutput:15liters/second

•VolumeFlowCutoff:10liters/second

ConfigurationandUseManual

73

Configureprocessmeasurement

Result:

•Ifthevolumeowratedropsbelow15liters/secondbutnotbelow10liters/second:

−TheprimarymAoutputwillreportzeroow.

−Thefrequencyoutputwillreporttheactualowrate,andtheactualowratewillbeused
inallinternalprocessing.

•Ifthevolumeowratedropsbelow10liters/second,bothoutputswillreportzeroow,and0will
beusedinallinternalprocessing.

5.4Configuregasstandardvolumeflowmeasurement

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→GasStandardVolume

OFF-LINEMAINT→OFF-LINECONFG→VOL→VOLTYPEGAS

ProLink→Conguration→Flow→VolFlowType

Thegasstandardvolumeowmeasurementparameterscontrolhowgasstandardvolumeowis
measuredandreported.

Thegasstandardvolumeowmeasurementparametersinclude:

•VolumeFlowType

•StandardGasDensity

•GasStandardVolumeFlowMeasurementUnit

•GasStandardVolumeFlowCutoff

Restriction

Youcannotimplementbothliquidvolumeowandgasstandardvolumeow.Y oumustchooseoneor
theother.

5.4.1ConfigureVolumeFlowTypeforgasapplications

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→GasStandardVolume→V olumeFlowType→GSV

OFF-LINEMAINT→OFF-LINECONFG→VOL→VOLTYPEGAS

ProLink→Conguration→Flow→VolFlowType→StdGasVolume

VolumeFlowTypecontrolswhetherliquidorgasstandardvolumeowmeasurementwillbeimplemented.

Restriction

Ifyouareusingthepetroleummeasurementapplication,youmustsetVolumeFlowTypetoLiquid.Gas
standardvolumemeasurementisincompatiblewiththepetroleummeasurementapplication.

74

MicroMotion9739MVDTransmitters

Configureprocessmeasurement

Restriction

Ifyouareusingtheconcentrationmeasurementapplication,youmustsetVolumeFlowTypetoLiquid.Gas
standardvolumemeasurementisincompatiblewiththeconcentrationmeasurementapplication.

Procedure

SetVolumeFlowTypetoGasStandardVolume.

5.4.2ConfigureStandardGasDensity

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→GasStandardVolume→GasDensity

StandardGasDensityisusedtoconvertthemeasuredowdatatoreference(standard)values.

Prerequisites

ProLink→Conguration→Flow→StdGasDensity

EnsurethatDensityMeasurementUnitissettotheunitsyouwilluseforStandardGasDensity.

Procedure

EntertheappropriateStandardGasDensityvalueforthegasyouaremeasuring.

Tip

ProLinkIIprovidesaGasWizardthatyoucanusetocalculatethestandarddensityofyourgas,ifyou
donotknowit.

5.4.3ConfigureGasStandardVolumeFlowMeasurementUnit

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→GasStandardVolume→GasVolFlowUnit

GasStandardVolumeFlowMeasurementUnitspeciestheunitwillbeusedforthegasstandardvolume
owrate.Theunitusedforthegasstandardvolumetotalandthegasstandardvolumeinventoryis
derivedfromthisunit.

Prerequisites

OFF-LINEMAINT→OFF-LINECONFG→UNITS→VOL

ProLink→Conguration→Flow→StdGasVolFlowUnits

BeforeyoucongureGasStandardVolumeFlowMeasurementUnit,besurethatVolumeFlowTypeissettoGas
StandardVolume.

Procedure

SetGasStandardVolumeFlowMeasurementUnittothedesiredunit.

ThedefaultsettingforGasStandardVolumeFlowMeasurementUnitisSCFM(standardcubicfeetperminute).

ConfigurationandUseManual

75

Configureprocessmeasurement

Tip

Ifthemeasurementunityouwanttouseisnotavailable,youcandeneaspecialmeasurementunit.

OptionsforGasStandardVolumeFlowMeasurementUnit

ThetransmitterprovidesastandardsetofmeasurementunitsforGasStandardVolumeFlowMeasurement
Unit,plusoneuser-denedspecialmeasurementunit.Differentcommunicationstoolusedifferent

labelsfortheunits.

OptionsforGasStandardVolumeFlowMeasurementUnitareshowninTable5-3.

Table5-3OptionsforGasStandardVolumeMeasurementUnit

Label

UnitdescriptionDisplayProLinkIIFieldCommunicator

Normalcubicmetersper
second

Normalcubicmetersper
minute

Normalcubicmetersper
hour

Normalcubicmetersper
day

Normalliterpersecond

NormalliterperminuteNLPMNLPMNotavailable

NormalliterperhourNLPHNLPHNotavailable

NormalliterperdayNLPDNLPDNotavailable

Standardcubicfeetper
second

Standardcubicfeetper
minute

Standardcubicfeetper
hour

Standardcubicfeetper
day

Standardcubicmetersper
second

Standardcubicmetersper
minute

Standardcubicmetersper
hour

Standardcubicmetersper
day

StandardliterpersecondSLPSSLPS

StandardliterperminuteSLPMSLPM

NM3/SNm3/sec

NM3/MNNm3/min

NM3/HNm3/hr

NM3/DNm3/day

NLPSNLPS

SCFSSCFS

SCFMSCFM

SCFHSCFH

SCFDSCFD

SM3/SSm3/S

SM3/MNSm3/min

SM3/HSm3/hr

SM3/DSm3/day

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

Notavailable

76

MicroMotion9739MVDTransmitters

Configureprocessmeasurement

Table5-3OptionsforGasStandardVolumeMeasurementUnit

UnitdescriptionDisplayProLinkIIFieldCommunicator

StandardliterperhourSLPHSLPH

StandardliterperdaySLPDSLPD

SpecialmeasurementunitSPECL

continued

Label

Notavailable

Notavailable

special

Spcl

DefineaspecialmeasurementunitforGasStandardVolumeflow

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→SpecialUnits→VolumeSpecialUnits

Aspecialmeasurementunitallowsyoutoreportprocessdata,totalizerdata,andinventorydataina
unitthatisnothard-codedinthetransmitter.Aspecialmeasurementunitiscalculatedfromanexisting
measurementunitusingaconversionfactor.

Restriction

Althoughyoucannotdeneaspecialmeasurementunitusingthedisplay,youcanusethedisplayto
selectanexistingspecialmeasurementunitandtoviewprocessdata.

ProLink→Conguration→SpecialUnits

Procedure

1.SpecifyBaseGasStandardVolumeUnit.

BaseGasStandardVolumeUnitistheexistingGasStandardVolumeunitthatthespecialunitwillbe

basedon.

2.SpecifyBaseTimeUnit.

BaseTimeUnitistheexistingtimeunitthatthespecialunitwillbebasedon.

3.CalculateGasStandardVolumeFlowConversionFactorasfollows:

a.xbaseunits=yspecialunits

b.GasStandardVolumeFlowConversionFactor=x/y

4.EntertheGasStandardVolumeFlowConversionFactor.

5.SetGasStandardVolumeFlowLabeltothelabeltobeusedfortheGasStandardVolumeowunit.

6.SetGasStandardVolumeTotalLabeltothelabeltobeusedfortheGasStandardVolumetotaland
GasStandardVolumeinventoryunit.

Thespecialmeasurementunitisstoredinthetransmitter.Youcancongurethetransmittertousethe
specialmeasurementunitatanytime.

tExample:DefiningaspecialmeasurementunitforGasStandardVolumeflow

YouwanttomeasureGasStandardVolumeowinthousandsofstandardcubicfeetperminute.

1.SettheBaseGasStandardVolumeUnittoSCFM.

ConfigurationandUseManual

77

Configureprocessmeasurement

2.SettheBaseTimeUnittominutes(min).

3.Calculatetheconversionfactor:

a.1thousandsofstandardcubicfeetperminute=1000cubicfeetperminute

b.GasStandardVolumeFlowConversionFactor=1/1000=0.001

4.SetGasStandardVolumeFlowConversionFactorto0.001.

5.SetGasStandardVolumeFlowLabeltoKSCFM.

6.SetGasStandardVolumeTotalLabeltoKSCF.

5.4.4ConfigureGasStandardVolumeFlowCutoff

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→GasStandardVolume→GSVCutoff

ProLink→Conguration→Flow→StdGasVolFlowCutoff

GasStandardVolumeFlowCutoffspeciesthelowestvolumeowratethatwillreportedasmeasured.All
volumeowratesbelowthiscutoffwillbereportedas0.

Procedure

SetVolumeFlowCutofftothedesiredvalue.

ThedefaultvalueforGasStandardVolumeFlowCutoffis0.0.Thelowerlimitis0.0.Thereisnoupperlimit.

InteractionbetweenGasStandardVolumeFlowCutoffandAOCutoff

GasStandardVolumeFlowCutoffdenesthelowestGasStandardVolumeowvaluethatthetransmitterwill
reportasmeasured.AOCutoffdenesthelowestowratethatwillbereportedviathemAoutput.If
mAOutputProcessV ariableissettoGasStandardVolumeFlowRate,thevolumeowratereportedviathemA

outputiscontrolledbythehigherofthetwocutoffvalues.

GasStandardVolumeFlowCutoffaffectsbothgasstandardvolumeowvaluesreportedviaoutputsand
gasstandardvolumeowvaluesusedinothertransmitterbehavior(e.g.,eventsdenedongas
standardvolumeow).

AOCutoffaffectsonlyowvaluesreportedviathemAoutput.

tExample:CutoffinteractionwithAOCutofflowerthanGasStandardVolumeFlowCutoff

Conguration:

•mAOutputProcessVariablefortheprimarymAoutput:GasStandardVolumeFlowRate

•FrequencyOutputProcessVariable:GasStandardVolumeFlowRate

•AOCutofffortheprimarymAoutput:10SLPM(standardlitersperminute)

•GasStandardVolumeFlowCutoff:15SLPM

Result:IftheGasStandardVolumeowratedropsbelow15SLPM,volumeowwillbereportedas
0,and0willbeusedinallinternalprocessing.

78

MicroMotion9739MVDTransmitters

Configureprocessmeasurement

tExample:CutoffinteractionwithAOCutoffhigherthanGasStandardVolumeFlowCutoff

Conguration:

•mAOutputProcessVariablefortheprimarymAoutput:GasStandardVolumeFlowRate

•FrequencyOutputProcessVariable:GasStandardVolumeFlowRate

•AOCutofffortheprimarymAoutput:15SLPM(standardlitersperminute)

•GasStandardVolumeFlowCutoff:10SLPM

Result:

•IftheGasStandardVolumeowratedropsbelow15SLPMbutnotbelow10SLPM:

−TheprimarymAoutputwillreportzeroow.

−Thefrequencyoutputwillreporttheactualowrate,andtheactualowratewillbeused
inallinternalprocessing.

•IftheGasStandardVolumeowratedropsbelow10SLPM,bothoutputswillreportzeroow,
and0willbeusedinallinternalprocessing.

5.5ConfigureFlowDirection

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Flow→FlowDirection

FlowDirectioncontrolshowconditionsofforwardowandreverseowaffectowmeasurementand
reporting.

FlowDirectionisdenedwithrespecttotheowarrowonthesensor:

•Forwardow(positiveow)movesinthedirectionoftheowarrowonthesensor.

•Reverseow(negativeow)movesinthedirectionoppositetotheowarrowonthesensor.

Procedure

SetFlowDirectionasdesired.

5.5.1OptionsforFlowDirection

FlowDirectioncontrolshowtheoutputsreportowandhowthetotalizersandinventoriesincrementtotals.

ProLink→Conguration→Flow→FlowDirection

ConfigurationandUseManual

79

Configureprocessmeasurement

Table5-4OptionsforFlowDirection

FlowDirectionsetting

ProLinkIIFieldCommunicator

ForwardForward

ReverseReverse

AbsoluteValueAbsoluteValue

BidirectionalBidirectional

NegateForward

NegateBidirectional

Negate/ForwardOnly

Negate/Bi-directional

5.5.2EffectofFlowDirectionontransmitteroutputsandtotalizers

FlowDirectionandmAoutputs

mAoutputsareaffectedbyFlowDirectiononlyifmAOutputProcessVariableissettoaowvariable.

TheeffectofFlowDirectiononmAoutputsdependontheLowerRangeValueconguredforthemAoutput:

•IfLowerRangeValueissetto0,seeFigure5-5.

•IfLowerRangeValueissettoanegativevalue,seeFigure5-6.

Figure5-5EffectofFlowDirectiononthemAoutput:LowerRangeValue=0

Notes

•LowerRangeValue=0

•UpperRangeValue=x

80MicroMotion9739MVDTransmitters

Figure5-6EffectofFlowDirectiononthemAoutput:LowerRangeValue<0

Notes

•LowerRangeValue=−x

•UpperRangeValue=x

Configureprocessmeasurement

tExample:FlowDirection=ForwardandLowerRangeValue=0

Conguration:

•FlowDirection=Forward

•LowerRangeValue=0g/s

•UpperRangeValue=100g/s

Result:

•Underconditionsofreverseoworzeroow,themAoutputis4mA.

•Underconditionsofforwardow,uptoaowrateof100g/s,themAoutputvariesbetween
4mAand20mAinproportiontotheowrate.

•Underconditionsofforwardow,iftheowrateequalsorexceeds100g/s,themAoutputwillbe
proportionaltotheowrateupto20.5mA,andwillbelevelat20.5mAathigherowrates.

tExample:FlowDirection=ForwardandLowerRangeValue<0

Conguration:

•FlowDirection=Forward

•LowerRangeValue=−100g/s

•UpperRangeValue=+100g/s

ConfigurationandUseManual

81

Configureprocessmeasurement

Result:

•Underconditionsofzeroow,themAoutputis12mA.

•Underconditionsofforwardow,forowratesbetween0and+100g/s,themAoutputvaries
between12mAand20mAinproportionto(theabsolutevalueof)theowrate.

•Underconditionsofforwardow,if(theabsolutevalueof)theowrateequalsorexceeds100g/s,
themAoutputisproportionaltotheowrateupto20.5mA,andwillbelevelat20.5mAathigher
owrates.

•Underconditionsofreverseow,forowratesbetween0and−100g/s,themAoutputvaries
between4mAand12mAininverseproportiontotheabsolutevalueoftheowrate.

•Underconditionsofreverseow,iftheabsolutevalueoftheowrateequalsorexceeds100
g/s,themAoutputisinverselyproportionaltotheowratedownto3.8mA,andwillbelevelat

3.8mAathigherabsolutevalues.

tExample:FlowDirection=Reverse

Conguration:

•FlowDirection=Reverse

•LowerRangeValue=0g/s

•UpperRangeValue=100g/s

Result:

•Underconditionsofforwardoworzeroow,themAoutputis4mA.

•Underconditionsofreverseow,forowratesbetween0and−100g/s,themAoutputlevelvaries
between4mAand20mAinproportiontotheabsolutevalueoftheowrate.

•Underconditionsofreverseow,iftheabsolutevalueoftheowrateequalsorexceeds100g/s,
themAoutputwillbeproportionaltotheabsolutevalueoftheowrateupto20.5mA,andwill
belevelat20.5mAathigherabsolutevalues.

FlowDirectionandfrequencyoutputs

FrequencyoutputsareaffectedbyFlowDirectiononlyifFrequencyOutputProcessVariableissettoaow
variable.FrequencyoutputlevelsfordifferentcombinationsofFlowDirectionandactualowdirection
areshowninT able5-5.

Table5-5EffectoftheFlowDirectionparameterandactualflowdirectiononfrequencyoutputs

Actualflowdirection

FlowDirectionsettingForwardZeroflowReverse

ForwardHz>00Hz0Hz

Reverse0Hz0HzHz>0

BidirectionalHz>00HzHz>0

AbsoluteV alueHz>00HzHz>0

NegateForwardZero

NegateBidirectionalHz>00HzHz>0

(1)

0HzHz>0

(1)Refertothedigitalcommunicationsstatusbitsforanindicationofwhetherowispositiveornegative.

82MicroMotion9739MVDTransmitters

Configureprocessmeasurement

FlowDirectionanddiscreteoutputs

DiscreteoutputsareaffectedbyFlowDirectiononlyifDiscreteOutputSourceissettoFlowDirection.Discrete
outputstatesfordifferentcombinationsofFlowDirectionandactualowdirectionareshowninT able5-6.

Table5-6EffectoftheFlowDirectionparameterandactualflowdirectionondiscreteoutputs

Actualflowdirection

FlowDirectionsettingForwardZeroflowReverse

Forward

Reverse

Bidirectional

AbsoluteV alue

NegateForward

NegateBidirectional

OFFOFFON

OFFOFFON

OFFOFFON

OFFOFFOFF

ONOFFOFF

ONOFFOFF

FlowDirectionanddigitalcommunications

DigitalcommunicationsvaluesfordifferentcombinationsofFlowDirectionandactualowdirectionare
showninT able5-7.

Table5-7EffectoftheFlowDirectionparameterandactualflowdirectiononflowvaluesreported

viadigitalcommunications

Actualflowdirection

FlowDirectionsettingForwardZeroflowReverse

ForwardPositive0Negative

ReversePositive0Negative

BidirectionalPositive0Negative

AbsoluteV aluePositive0Positive

NegateForwardNegative0Positive

NegateBidirectionalNegative0Positive

FlowDirectionandflowtotals

TotalizerandinventorybehaviorsfordifferentcombinationsofFlowDirectionandactualowdirection
areshowninT able5-8.

ConfigurationandUseManual

83

Configureprocessmeasurement

Table5-8EffectoftheFlowDirectionparameterandactualflowdirectiononflowtotals

Actualflowdirection

FlowDirectionsettingForwardZeroflowReverse

ForwardTotalsincreaseTotalsdonotchangeTotalsdonotchange

ReverseTotalsdonotchangeTotalsdonotchangeT otalsincrease

BidirectionalTotalsincreaseTotalsdonotchangeT otalsdecrease

AbsoluteV alueTotalsincreaseTotalsdonotchangeT otalsincrease

NegateForwardTotalsdonotchangeTotalsdonotchangeT otalsincrease

NegateBidirectionalT otalsdecreaseTotalsdonotchangeT otalsincrease

5.6Configuredensitymeasurement

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Density

OFF-LINEMAINT→OFF-LINECONFG→UNITS→DENS

ProLink→Conguration→Density

Thedensitymeasurementparameterscontrolhowdensityismeasuredandreported.

Thedensitymeasurementparametersinclude:

•DensityMeasurementUnit

•Theslugowparameters:

−SlugHighLimit

−SlugLowLimit

−SlugDuration

5.6.1ConfigureDensityMeasurementUnit

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Density→DensityUnit

OFF-LINEMAINT→OFF-LINECONFG→UNITS→DENS

ProLink→Conguration→Density→DensityUnits

DensityMeasurementUnitspeciestheunitthatwillbeusedfordensitymeasurement.

Procedure

SetDensityMeasurementUnittothedesiredoption.

ThedefaultsettingforDensityMeasurementUnitisg/cm3(gramspercubiccentimeter).

OptionsforDensityMeasurementUnit

ThetransmitterprovidesastandardsetofunitsforDensityMeasurementUnit.Differentcommunications
toolsusedifferentlabels.

OptionsforDensityMeasurementUnitareshowninTable5-9.

84

MicroMotion9739MVDTransmitters

Table5-9OptionsforDensityMeasurementUnit

Label

UnitdescriptionDisplayProLinkIIFieldCommunicator

Specicgravityunit(not
temperature-corrected)

Gramspercubic
centimeter

GramsperliterG/Lg/lg/L

GramspermilliliterG/mLg/mlg/mL

Kilogramsperliter

Kilogramspercubicmeter

PoundsperU.S.gallonLB/GALlbs/Usgallb/gal

PoundspercubicfootLB/CUFlbs/ft3lb/Cuft

Poundspercubicinch

APIgravityDAPIdegAPIdegAPI

ShorttonpercubicyardST/CUYsT/yd3ST on/Cuyd

SGUSGUSGU

G/CM3g/cm3g/Cucm

KG/Lkg/lkg/L

KG/M3kg/m3kg/Cum

LB/CUIlbs/in3lb/CuIn

Configureprocessmeasurement

5.6.2Configureslugflowparameters

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Density→SlugLowLimit

Theslugowparameterscontrolhowthetransmitterdetectsandreportstwo-phaseow.

Procedure

1.SetSlugLowLimittothelowestdensityvaluethatisconsiderednormalinyourprocess.

Valuesbelowthiswillcausethetransmittertoperformtheconguredslugowaction.Typically,
thisvalueisthelowestdensityvalueinthenormalrangeofyourprocess.

Tip

Gasentrainmentcancauseyourprocessdensitytodroptemporarily.T oreducetheoccurrence
ofslugowalarmsthatarenotsignicanttoyourprocess,setSlugLowLimitslightlybelowyour
expectedlowestprocessdensity.

ProLink→Conguration→Density→SlugHighLimit
ProLink→Conguration→Density→SlugLowLimit
ProLink→Conguration→Density→SlugDuration

Congure→ManualSetup→Measurements→Density→SlugHighLimit
Congure→ManualSetup→Measurements→Density→SlugDuration

YoumustenterSlugLowLimiting/cm
measurement.

ThedefaultvalueforSlugLowLimitis0.0g/cm

ConfigurationandUseManual

3

,evenifanotherunithasbeenconguredfordensity

3

.Therangeis0.0g/cm

3

to10.0g/cm

3

.

85

Configureprocessmeasurement

2.SetSlugHighLimittothehighestdensityvaluethatisconsiderednormalinyourprocess.

Tip

Toreducetheoccurrenceofslugowalarmsthatarenotsignicanttoyourprocess,setSlugHigh
Limitslightlyaboveyourexpectedhighestprocessdensity.

Valuesabovethiswillcausethetransmittertoperformtheconguredslugowaction.Typically ,
thisvalueisthehighestdensityvalueinthenormalrangeofyourprocess.

YoumustenterSlugHighLimiting/cm

3

,evenifanotherunithasbeenconguredfordensity

measurement.

ThedefaultvalueforSlugHighLimitis5.0g/cm

3

.Therangeis0.0g/cm

3

to10.0g/cm

3

3.SetSlugDurationtothenumberofsecondsthatthetransmitterwillwaitforaslugowconditionto
clearbeforeperformingtheconguredslugowaction.

ThedefaultvalueforSlugDurationis0.0seconds.Therangeis0.0secondsto60.0seconds.

.

Slugflowdetectionandreporting

Slugowistypicallyusedasanindicatoroftwo-phaseow(gasinaliquidprocessorliquidinagas
process).Two-phaseowcancauseavarietyofprocesscontrolissues.Byconguringtheslugow
parametersappropriatelyforyourapplication,youcandetectprocessconditionsthatrequirecorrection.

Tip

Todecreasetheoccurrenceofslugowalarms,lowerSlugLowLimitorraiseSlugHighLimit.

AconditionofslugowoccurswheneverthemeasureddensitygoesbelowSlugLowLimitorabove
SlugHighLimit.Ifthisoccurs:

•Aslugowalarmispostedtotheactivealarmlog.

•Alloutputsthatareconguredtorepresentowrateholdtheirlast“pre-slugow”valueforthe
conguredSlugDuration.

IftheslugowconditionclearsbeforeSlugDurationexpires:

•Outputsthatrepresentowratereverttoreportingactualow.

•Theslugowalarmisdeactivated,butremainsintheactivealarmloguntilitisacknowledged.

IftheslugowconditiondoesnotclearbeforeSlugDurationexpires,outputsthatrepresentowrate
reportaowrateof0.

IfSlugDurationissetto0.0seconds,outputsthatrepresentowratewillreportaowrateof0assoonas
slugowisdetected.

86

MicroMotion9739MVDTransmitters

Configureprocessmeasurement

5.6.3ConfigureDensityDamping

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Density→DensityDamping

Dampingisusedtosmoothoutsmall,rapiductuationsinprocessmeasurement.TheDampingValue
speciesthetimeperiod(inseconds)overwhichthetransmitterwillspreadchangesinthereported
processvariable.Attheendoftheinterval,thereportedprocessvariablewillreect63%ofthechange
intheactualmeasuredvalue.

Tips

•Ahighdampingvaluemakestheprocessvariableappearsmootherbecausethereportedvalue
mustchangeslowly .

•Alowdampingvaluemakestheprocessvariableappearmoreerraticbecausethereported
valuechangesmorequickly.

ProLink→Conguration→Density→DensityDamping

Procedure

SetDensityDampingtothedesiredvalue.

Thedefaultvalueis1.6seconds.Therangeis0to10.24seconds.WhenyouenteravalueforFlow

Damping,thetransmitterautomaticallyroundsitdowntothenearestvalidvalue.ThevalidvaluesforFlow
Dampingare:0,0.04,0.08,0.16,...10.24.

EffectofDensityDampingonvolumemeasurement

DensityDampingaffectsliquidvolumemeasurement.DensityDampingdoesnotaffectgasstandardvolume

measurement.

InteractionbetweenDensityDampingandAddedDamping

DensityDampingcontrolstherateofchangeinthedensityprocessvariable.AddedDampingcontrolsthe
rateofchangereportedviathemAoutput.IfmAOutputProcessVariableissettoDensity,andbothDensity
DampingandAddedDampingaresettonon-zerovalues,densitydampingisappliedrst,andtheadded

dampingcalculationisappliedtotheresultoftherstcalculation.

5.6.4ConfigureDensityCutoff

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Density→DensityCutoff

ProLink→Conguration→Density→LowDensityCutoff

DensityCutoffspeciesthelowestdensityvaluethatwillreportedasmeasured.Alldensityvaluesbelow
thiscutoffwillbereportedas0.

ConfigurationandUseManual

87

Configureprocessmeasurement

Procedure

SetDensityCutofftothedesiredvalue.

ThedefaultvalueforDensityCutoffis0.2g/cm

3

.Therangeis0.0g/cm

3

to0.5g/cm

3

EffectofDensityCutoffonvolumemeasurement

DensityCutoffaffectsliquidvolumemeasurement.IfthedensityvaluegoesbelowDensityCutoff,thevolume

owrategoesto0.DensityCutoffdoesnotaffectgasstandardvolumemeasurement.Gasstandard
volumevaluesarealwayscalculatedfromthemeasureddensityvalue.

5.7Configuretemperaturemeasurement

.

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Temperature

OFF-LINEMAINT→OFF-LINECONFG→UNITS→TEMP

ProLink→Conguration→Density→LowDensityCutoff

Thetemperaturemeasurementparameterscontrolhowtemperaturedatafromthesensorisreported.
Temperaturedataisusedtocompensateowmeasurementfortheeffectoftemperatureonthesensor
tubes.

Thetemperaturemeasurementparametersinclude:

•TemperatureMeasurementUnit

•TemperatureDamping

5.7.1ConfigureTemperatureMeasurementUnit

Display

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Temperature→TemperatureUnit

TemperatureMeasurementUnitspeciestheunitthatwillbeusedfortemperaturemeasurement.

OFF-LINEMAINT→OFF-LINECONFG→UNITS→TEMP

ProLink→Conguration→Temperature→T empUnits

Procedure

SetTemperatureMeasurementUnittothedesiredoption.

ThedefaultsettingisDegreesCelsius.

Tip

IfyouareconguringthemAinputtoreceivetemperaturedatafromanexternalmeasurementdevice,
youmustsetthemeasurementunittomatchthetemperaturemeasurementunitattheexternal
measurementdevice.

OptionsforT emperatureMeasurementUnit

ThetransmitterprovidesastandardsetofunitsforTemperatureMeasurementUnit.Differentcommunications
toolsusedifferentlabels.

88

MicroMotion9739MVDTransmitters

OptionsforTemperatureMeasurementUnitareshowninT able5-10.

Table5-10OptionsforT emperatureMeasurementUnit

Label

DescriptionDisplayProLinkIIFieldCommunicator

DegreesCelsius°CdegCdegC

DegreesFahrenheit

DegreesRankine

Kelvin

°F

°R

°K

degFdegF

degRdegR

degKKelvin

5.7.2ConfigureTemperatureDamping

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→Temperature→TempDamping

ProLink→Conguration→Temperature→T empDamping

Configureprocessmeasurement

Dampingisusedtosmoothoutsmall,rapiductuationsinprocessmeasurement.TheDampingValue
speciesthetimeperiod(inseconds)overwhichthetransmitterwillspreadchangesinthereported
processvariable.Attheendoftheinterval,thereportedprocessvariablewillreect63%ofthechange
intheactualmeasuredvalue.

Tips

•Ahighdampingvaluemakestheprocessvariableappearsmootherbecausethereportedvalue
mustchangeslowly .

•Alowdampingvaluemakestheprocessvariableappearmoreerraticbecausethereported
valuechangesmorequickly.

Procedure

EnterthedesiredvalueforTemperatureDamping.

Thedefaultvalueis4.8seconds.Therangeis0.0secondsto38.4seconds.

WhenyouenteravalueforT emperatureDamping,thetransmitterautomaticallyroundsitdowntothe
nearestvalidvalue.ValidvaluesforTemperatureDampingare0,0.6,1.2,2.4,4.8,…38.4.

EffectofTemperatureDamping

TemperatureDampingaffectstheresponsespeedfortemperaturecompensation.Temperature

compensationadjustsprocessmeasurementtocompensatefortheeffectoftemperatureonsensor
tubestiffness.

ConfigurationandUseManual

89

Configureprocessmeasurement

TemperatureDampingaffectspetroleummeasurementprocessvariablesonlyifthetransmitteriscongured
tousetemperaturedatafromthesensor.Ifanexternaltemperaturevalueisusedforpetroleum
measurement,TemperatureDampingdoesnotaffectpetroleummeasurementprocessvariables.

TemperatureDampingaffectsconcentrationmeasurementprocessvariablesonlyifthetransmitteris
conguredtousetemperaturedatafromthesensor.Ifanexternaltemperaturevalueisusedfor
concentrationmeasurement,TemperatureDampingdoesnotaffectconcentrationmeasurementprocess
variables.

5.8Configurepressurecompensation

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→ExternalCompensation

Pressurecompensationadjustsprocessmeasurementtocompensateforthepressureeffectonthe
sensor’sowtubes.Pressureeffectisdenedasthechangeinthesensor’ssensitivitytoowand
densityassociatedwiththedifferencebetweencalibrationpressureandprocesspressure.

ProLink→Conguration→Pressure→PressureCompensation

Tip

Notallsensorsorapplicationsrequirepressurecompensation.Ifyouareuncertainaboutimplementing
pressurecompensation,contact

[e-mail].

Procedure

1.Enablepressurecompensation.

2.EnterFlowFactorforyoursensor.

FlowFactoristhepercentchangeintheowrateperPSI.FlowFactorforyoursensorisprovidedon
thesensorproductdatasheet.Whenenteringthevalue,reversethesign.

Example:Iftheowfactoris0.000004%perPSI,enter−0.000004%perPSI.

3.EnterDensityFactorforyoursensor.

DensityFactoristhechangeinuiddensity,ing/cm
thesensorproductdatasheet.Whenenteringthevalue,reversethesign.

Example:Ifthedensityfactoris0.000006g/cm

4.EnterCalibrationPressureforyoursensor.

3

/PSI.DensityFactorforyoursensorisprovidedon

3

/PSI,enter−0.000006g/cm3/PSI.

90MicroMotion9739MVDTransmitters

Configureprocessmeasurement

CalibrationPressureisthepressureatwhichyoursensorwascalibrated,andthereforedenesthe
pressureatwhichtherewillbenopressureeffect.CalibrationPressureforyoursensorisprovidedon
thesensorcalibrationsheet.Ifthedataisunavailable,enter20PSI.

5.Decidehowpressuredatawillbeprovidedtothetransmitter,andperformtherequiredsetup.

•Ifyouwillpollanexternalpressuredevice,setuppollingforpressure.

•Ifyouwilluseastaticpressurevalue,setPressureUnitstotheunitsyouareusing,enter
ExternalPressure,andensurethatpollingforpressureisdisabled.

•Ifyouwillusedigitalcommunicationsoradirectanalogcurrenttowritepressuredatatothe
transmitter,setPressureUnitstotheunitstobeusedandensurethatpollingforpressure
isdisabled.Thenensurethattheappropriatevalueiswrittentotransmittermemoryat
appropriateintervals.

•Ifyouwilluseanexternalmeasurementdevice,congurethemAinputtoExternalPressure.
YoumustalsoenableExternalPressureCompensationandsetthePressureUnitstotheunitssetat
theexternalmeasurementdevice.

5.9Configurethepetroleummeasurementapplication

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→PetroleumMeasurement

Thepetroleummeasurementparameterscontrolthevaluesthatwillbeusedinthetransmitter’s
petroleummeasurementapplication.

Thepetroleummeasurementparametersinclude:

•APITableType

•ThermalExpansionCoefcient(TEC)(ifrequiredbyAPITableType)

•ReferenceT emperature(ifrequiredbyAPITableType)

Restriction

Thepetroleummeasurementparametersareavailableonlyifthepetroleummeasurementapplicationhas
beenpurchasedandisenabledonyourtransmitter.

ProLink→Conguration→APISetup

Procedure

1.SelectAPITableType.

2.IfyousetAPITableTypeto53A,53B,53D,or54C,setReferenceTemperaturetotheappropriatevaluefor
yourapplication.Enterthevaluein°C.

3.IfyousetAPIT ableTypeto6C,24C,or54C,setThermalExpansionCoefcienttotheappropriatevalue
foryourapplication.

4.(Optional)Setthetemperatureunitconguredonthetransmittertothetemperatureunitusedby
yourAPIreferencetable.

ConfigurationandUseManual

91

Configureprocessmeasurement

Tip

AlthoughconguringthetemperatureunittomatchthetemperatureunitsusedbyyourAPI
referencetableisnotrequired,

MicroMotionrecommendsit.

5.(Optional)Ifyouwanttousetemperaturedatafromanexternaltemperaturesensor:

a.SetTemperatureSourcetoExternal.

b.Dependingonyourexternalsetup,dooneofthefollowing:

•Setuppollingfortemperature

•Usedigitalcommunicationstowritetemperaturedatatothesensoratappropriateintervals

•CongurethemAinputtoreceivetemperaturedatafromanexternalmeasurementdevice

Youcannowcongureyourtransmittertoreportandhandlepetroleummeasurementprocessvariables
inthesamewaythatitreportsandhandlesotherprocessvariables.

5.9.1Petroleummeasurementapplication

ThepetroleummeasurementapplicationenablesCorrectionfortheeffectofTemperatureonvolumeof
Liquids(CTL),bycalculatingandapplyingaVolumeCorrectionFactor(VCF)tovolumemeasurement.
InternalcalculationsareperformedincompliancewithAmericanPetroleumMeasurement(API)
standards.

APIreferencetablesareusedtocontrolhowCTLiscalculated.Y ourselectionofAPIT ableTypespecies
thetypeofprocessuidthatthecalculationswillassume,andtheCTLsourcedata,thereference
temperature,andthedensityunitthatthecalculationswilluse.DependingonyourselectionofAPIT able
Type,youmayormaynotneedtospecifyReferenceT emperatureandThermalExpansionCoefcient.See
Table5-11foralistingoftheAPIreferencetablesandrelatedinformation.

Table5-11APIreferencetables,associatedprocessfluids,andassociatedcalculationvalues

Reference

TablenameProcessfluidCTLsourcedata

5A

5B

5DLubricatingoils

6C

Generalizedcrude
andJP4

Generalized
products

Liquidswitha
constantdensity
baseorknown
thermalexpansion
coefcient

Observeddensity
andobserved
temperature

Observeddensity
andobserved
temperature

Observeddensity
andobserved
temperature

User-supplied
referencedensity(or
thermalexpansion
coefcient)
andobserved
temperature

temperatureDensityunit

60°F(non­congurable)

60°F(non­congurable)

60°F(non­congurable)

60°F(non­congurable)

DegreesAPI

Range:0to100

DegreesAPI

Range:0to85

DegreesAPI

Range:−0to+40

DegreesAPI

92MicroMotion9739MVDTransmitters

Configureprocessmeasurement

Table5-11APIreferencetables,associatedprocessfluids,andassociatedcalculationvalues

Reference

TablenameProcessfluidCTLsourcedata

23A

23B

23DLubricatingoils

24C

53A

53B

53DLubricatingoils

54C

Generalizedcrude
andJP4

Generalized
products

Liquidswitha
constantdensity
baseorknown
thermalexpansion
coefcient

Generalizedcrude
andJP4

Generalized
products

Liquidswitha
constantdensity
baseorknown
thermalexpansion
coefcient

Observeddensity
andobserved
temperature

Observeddensity
andobserved
temperature

Observeddensity
andobserved
temperature

User-supplied
referencedensity(or
thermalexpansion
coefcient)
andobserved
temperature

Observeddensity
andobserved
temperature

Observeddensity
andobserved
temperature

Observeddensity
andobserved
temperature

User-supplied
referencedensity(or
thermalexpansion
coefcient)
andobserved
temperature

temperatureDensityunit

60°F(non­congurable)

60°F(non­congurable)

60°F(non­congurable)

60°F(non­congurable)

15°C(congurable)

15°C(congurable)

15°C(congurable)

15°C(congurable)

continued

Relativedensity

Range:0.6110to

1.0760

Relativedensity

Range:0.6535to

1.0760

Relativedensity

Range:8520to

1.1640

Relativedensity

Basedensity

Range:610to1075

3

kg/m

Basedensity

Range:653to1075

3

kg/m

Basedensity

Range:825to1164

3

kg/m

Basedensityinkg/m

3

5.10Configuretheconcentrationmeasurementapplication

DisplayNotavailable

ProLinkII

FieldCommunicatorCongure→ManualSetup→Measurements→ConcentrationMeasurement

Theconcentrationmeasurementparameterscontrolhowthetransmittercalculatesconcentration
fromtemperatureanddensitydata.

ConfigurationandUseManual

ProLink→Conguration→CMSetup

93

Configureprocessmeasurement

Theconcentrationmeasurementparametersinclude:

•ActiveCurve

•DerivedVariable

Restriction

Theconcentrationmeasurementparametersareavailableonlyiftheconcentrationmeasurement
applicationhasbeenpurchasedandisenabledonyourtransmitter.

Prerequisites

Beforeyoucancongureconcentrationmeasurement:

•Theconcentrationmeasurementapplicationmustbeenabledonyourtransmitter.

•Thecurveyouwanttousemustbeavailableonyourtransmitter.

Note

Curvescanbemadeavailableonyourtransmittereitherbyloadinganexistingcurveorbyconguring
anewcurve.Uptosixcurvescanbeavailableonyourtransmitter,butonlyonecanbeused
formeasurementatanygiventime.SeeMicroMotionEnhancedDensityApplication:Theory,
Conguration,andUseManualforinformationonloadingorconguringacurve.

Procedure

1.Identifythecurveyouwanttouse.

2.SetDensityMeasurementUnittomatchthedensityunitusedbyyourcurve.

3.SetTemperatureMeasurementUnittomatchthetemperatureunitusedbyyourcurve.

4.SetDerivedVariabletooneofthederivedvariablesavailablewithyourcurve.

Tip

SelectaDerivedVariablethatwillprovidetheconcentrationmeasurementprocessvariablesthatyou
wanttouse.Ifyouareusingoneofthestandardcurvesfrom
MassConc(Dens).Ifyouareusingacustomcurve,seethereferenceinformationforyourcurve.

5.SetActiveCurvetothecurveyouidentiedinStep1.

6.(Optional)Ifyouwanttheconcentrationmeasurementapplicationtousetemperaturedatafroman
externaltemperaturesensor:

a.SetTemperatureSourcetoExternal.

b.Setuppollingfortemperature,orcongurethemAinputtoreceivetemperaturedatafrom

anexternalmeasurementdevice.

Youcannowcongureyourtransmittertoreportandhandleconcentrationprocessvariablesinthe
samewaythatitreportsandhandlesotherprocessvariables.

MicroMotion,setDerivedVariableto

94

MicroMotion9739MVDTransmitters