Mircom LT-6500-OpenBAS User manual

Type
User manual
Programming Manual
LT-6500 Rev. 0
June 2017
CONTENTS
1.0 UnderstandingtheBuildingAutomationControllerSoftware...................................................................................4
1.1 OpenBASHVNX10PDatabaseDescription............................................................................................................4
1.2 OpenBASConfigurationToolDescription...............................................................................................................9
1.3 CommunicationSetup...........................................................................................................................................10
1.4 DeviceStatus.........................................................................................................................................................12
1.5 ActiveProjectSelection........................................................................................................................................13
1.6 ViewLocalandSlavesInputsandOutputsand
ManualOutputCommanding....................................................14
1.7 AnalogI/OViewingandSetupTypeandCalibration............................................................................................15
1.8 DigitalI/OViewingandCommanding...................................................................................................................19
1.9 RemotePointsandFieldbusCommunications.....................................................................................................22
1.10LabelingandTaggingHardwareandSoftwareObjects........................................................................................26
1.11SchedulingforLightingandGeneralPurposeUses..............................................................................................
28
1.12DataLoggingandGraphics....................................................................................................................................32
1.13VirtualWebServerEnabling.................................................................................................................................34
1.14PLC(ProgrammableLogicController)...................................................................................................................36
1.15DatabaseParametersViewingandModifying......................................................................................................37
1.15.1 ADF32bitregistersstoredinEEPROM......................................................................................................38
1.15.2 ADI16bitregistersstoredinEEPROM.......................................................................................................
39
1.15.3 ADB8bitregistersstoredinEEPROM........................................................................................................40
1.15.4 RES_BIT1bitresultregistersstoredinRAM...............................................................................................41
1.15.5 RES_FLT32bitresultregistersstoredinRAM..............................................................................................42
1.15.6 TMR16bitsystemtimersstoredinRAM...................................................................................................43
1.15.7 MIN/MAXSettingofMinimumandMaximum
limitsfordataregisters......................................................43
1.16GeneralSystemConfiguration..............................................................................................................................45
1.16.1 ConfiguretheFieldbusCommunicationPorts..............................................................................................46
1.16.2 SetupRemotePointsinFieldbuses..............................................................................................................48
1.16.3 SetupExpandedRemotePointsinFieldbuses.............................................................................................48
1.16.4 SetupDualCoreRemotePointsinFieldbuses.............................................................................................48
1.16.5 SetupWirelessRemotePointsforWirelessThermostats...........................................................................49
1.16.6 ServiceEEPROMviewingandProgramming.................................................................................................49
2
1.16.7 ResetcontrollertoFactoryDefaultValues...................................................................................................51
1.16.8 SetupwhathappenstoMemoryandI/OonPowerOn..............................................................................52
1.16.9 SetuprealTimeClock...................................................................................................................................53
1.16.10 SetupDaylightSavingTime......................................................................................................................53
1.16.11 SetupHolidaysforSchedulingoperation.................................................................................................54
1.16.12 Create
andEditLabelTagsforidentifyingallyourI/OandDatabasevariables.......................................54
1.16.13 CreateandEditLabelTagsforRemotepointstoshowonLCDandBACnetnames................................55
1.16.14 SetupalarmmessagesforLCDoperatordisplay.....................................................................................56
1.16.15 Setuppersonalizedscreensforuser
interactionforLCDoperatordisplay.............................................57
1.16.16 SetupSMSmessagestosendovertheOpenBASNWKSMSGSM/SMSmodule....................................59
1.16.17 SetupIPparametersforNetworkCardandemailsforeventandalarmreporting...............................60
1.16.18 SetupPasswordsfordifferentlevelsOperator,Technicaland
Administratoraccounts.........................64
1.16.19 CreatebackupsorrestoreallyourBuildingAutomationControllerprogramming.................................65
1.16.20 Viewhistoriclogofeventsofyourcontroller...........................................................................................66
1.16.21 Resetremotelycontrollerandsetupfirmwareupdates..........................................................................67
1.17Reviewingversionhistory.....................................................................................................................................69
1.18OpenPasswordaccessfor
Passwordlockedcontroller........................................................................................69
2.0 PLCLadderProgrammingBasics...............................................................................................................................70
2.1 PLCLadderProgrammingIntroduction.................................................................................................................73
2.2 OpenBASHVNX10PPLCCanvas..........................................................................................................................76
2.3 MovingThroughyour PLCLadderLogicProgram.................................................................................................77
2.4 CopyandPasteofaPLCInstruction.....................................................................................................................78
2.5 Createa
newPLCInstruction................................................................................................................................78
2.6 Disabling,Enabling,andErasingPLCInstructions.................................................................................................79
2.7 Copy,MoveorEraseaBlockifPLCInstructions...................................................................................................79
2.8 SearchaspecificInstructionorDatabaseVariableinyourPLCProgram.............................................................80
2.9 SaveandRestoreyourPLCLadderLogicProgramto
andfromDiskinyourPC..................................................81
3
2.10GenerateyourPLCDocumentation......................................................................................................................82
2.11LibraryImportandExport.....................................................................................................................................85
2.12TemplateBasedprogramming..............................................................................................................................87
2.13ScriptBasedProgramming....................................................................................................................................88
2.14AdvancedCProgrammingforrepetitiveandadvancedusers.............................................................................89
3.0 PLCLadderProgrammingDetailedProgrammingDescription.................................................................................91
3.1 LogicalBoolean
Instructions,AND,NAND,OR,NOR,XOR,NXOR,INVERT..........................................................92
3.2 Hysteresis/InRangecompare.............................................................................................................................95
3.2.1 HYSTERESISMODE........................................................................................................................................95
3.2.2 INRANGEMODE...........................................................................................................................................97
3.3 StartstopinstructionEasystart/stopwithemergencystop..............................................................................99
3.4 CombinedlogicANDORCombinedlogic
instruction......................................................................................100
3.5 MathInstructions,...............................................................................................................................................103
3.6 Compareinstructions,>,>=,<,<=,==(Equal),!=(NotEqual)...........................................................................105
3.7 JumpInstructions,ConditionalandUnconditionalProgramBranching.............................................................107
3.8 SubroutineCalls,ConditionalandUn conditionalSubroutineCalling.................................................................109
3.9 Totalizer,TotalAccumulator,PeriodTotalization,EnergyTotalization
.............................................................111
3.10LightingGroups, CreatingaLightingGroup........................................................................................................116
3.11TimerInstructions,Timer,FreerunOsci llator,ValuetoFrequencyConverter..................................................120
3.12OutputAssignment,makingthingshappenintherealworld............................................................................125
3.13ProportionalControl,PIDforAutomationandHVACapplica tions....................................................................129
3.14Alternateand
Paralleling,AlternateandParallelingofPumpsandMachinery.................................................132
3.15AHUandRTUstaging,CreateeasilySimple orComplexHVACsequences........................................................136
3.16HourCounter,Createanhourcounter...............................................................................................................141
3.17SectionLabels,OrganizeandDocumentyourPLCprograms.............................................................................143
3.18SpecialUserProgramsLinkyourinterface
touser“Clanguage”createdInstructions.....................................144
3.19ProgramEndInsertENDinstructionstoterminatePLCorexitsubroutinecalls..............................................144
4
1.0 UnderstandingtheBuildingAutomationControllerSoftware
1.1 OpenBASHVNX10PDatabaseDescription
TheinternaldatabaseoftheOpenBASHVNX10Pisacollectionofobjectsthatcanbereadorwrittenby
thecontrolleritself,aswellasbyanyofthecommunicationchannels.Inthepicturebelowthelistofthis
collectionofobjectsisshown.
RAM
1 25 50 75 100 125 150 175 200 225 250
Hardware I/O
EEPROM
1..40
1..40
1..10
1..40
41..60
1..100
1..100
1..100
AI
BI
AO
BO
275 300 325 350 375 400
1..400
1..400
1..400
1..200
1..50
1..8
UI
ADF
32b
ADI
16b
ADB
8b
PLC
PLC2
PLC3
Labels
LCD Lab.
Alarms
Lighting groups 1-20
1..255
1..255
1..40
41..255
1..16 17..32
1..50
RMT-51..255
51..255
RMT-51..255
1..16 Stored in USB2 vault: RES_FLT-41..255 + RMT-51..255
Res_bit
Res_flt
TMR
RMT-CV
Res_bit2
Graphics
Symbols
LOG 1..200
Standad
Dual Core
NVRAM
Schedules
1..200 (Lighting) 1..200 (General)
RMT-51..255
RMT-51..255
RES_FLT-41..255
RMT-cfg 1..50
RES_FLT-41..255
RES_FLT-51..255
RES_FLT-51..255
System and
COMM port
configuration
Real time clock
and calendar
InthefirstsectioninYELLOW,alltheHARDWAREobjectscanbeseen,evenwhileasingleOpenBASHV
NX10Pcontrolleronlyhasthefollowingphysicalhardware:
(8)Universalinputs(ThatcanbeAnalogorBinaryInputs)
(8)BinaryOutputs
(2)AnalogOutputs
5
However,thelogicoftheOpenBAsHVNX10Pcanaddressupto:
(40)AnalogInputs (SharedwiththeBinaryInputsthroughtheUniversalInputs)
(40)BinaryInputs (SharedwiththeAnalogInputsthroughtheUniversalInputs)
(60)BinaryOutputs (40physicalrelaysand20virtualLightingGroups)
(10)AnalogOutputs.
This is possible because eachOpenBASHVNX10P controller can have four additional slave devices via
the communication Fieldbuses, and the operating system handles all necessary logic so that the
programmercanusethisadditionalhardwaredirectly.Thefollowingpictureshowsthisrelationship.
1 2
on
off
Master Slave
BUS-MASTER Slave address 100
Slave
Slave address 101
Slave
Slave address 102
Slave
Slave address 103
1 2
on
off
12
on
off
12
on
off
12
on
off
DIP-SW
for slave
address
Whenconfiguringthecontroller´scommunicationports(seesection6.3CommunicationSetup)eachof
theadditionalexpansionboardscanbeconfiguredasa MasterorasaSlave.Ifconfiguredasaslave,the
address can be input directly by software or leave that field as ZERO and select the slave address by
meansofsettingDIPSW(2)tothepositionsdepictedintheaboveimage.
ThefollowingpictureshowsthisI/OrelationshipintheMaster&Slavedevices.
BI-1
BI-8
BI-9
BI-16
BI-17
BI-24
BI-25
BI-32
BI-33
BI-40
Binary Inputs BI-1..40
Master Slave-100 Slave-101 Slave-102 Slave-103
AI-1
AI-8
AI-9
AI-16
AI-17
AI-24
AI-25
AI-32
AI-33
AI-40
Analog Inputs AI-1..40
Master Slave-100 Slave-101 Slave-102 Slave-103
BO-1
BO-8
BO-9
BO-16
BO-17
BO-24
BO-25
BO-32
BO-33
BO-40
BO-41
BO-60
Binary Outputs (Relays) BO-1..40 Lighting Groups 1..20 = BO-41..60
Master Slave-100 Slave-101 Slave-102 Slave-103 Virtual Lighting Groupsin RAM memory
AO-1
AO-2
AO-3
AO-4
AO-5
AO-6
AO-7
AO-8
AO-9
Analog Outputs AO-1..10
Master Slave-100 Slave-101 Slave-102 Slave-103
AO-10
Hardware mapping
Master and Slaves
Universal Inputs
UI-1..40
6
TheEEPROMsectionthatishighlightedinCYANcontainsthecoreofthedatabase.Thefirstthreeobject
types contain 300 data registers of 32 bits (ADF), 16 bits (ADI) and 8 bits (ADB) that can be read or
written.ItsmainuseisassetpointsastheyareEEPROMbasedandtheirvalueswillremainevenifthe
batteryisdischarged.
1 25 50 75 100 125 150 175 200 225 250 275 300 325 350 375 400
EEPROM
ADF
32b
ADI
16b
ADB
8b
PLC
PLC2
PLC3
Labels
LCD Lab.
Alarms
Graphics
LOG
Schedules
1..100
1..100
1..100
1..400
1..400
1..400
1..200
1..50
1..8
1..16 Stored in USB2 vault: RES_FLT-41..255 + RMT-51..255
1..200
1..200 (Lighting) 1..200 (General)
RMT-51..255
RMT-51..255
RES_FLT-41..255
RES_FLT-51..255
System and
COMM port
configuration
RMT-cfg 1..50
Thenfollowing this300 dataregisters,goesthe PLCinstructions, thestandard OpenBASHVNX10Phas
400 INSTRUCTIONS, sometimes often referred as BLOCKS or EQUATIONS. If a Dual Core is installed, a
secondPLC2addsadditional400INSTRUCTIONSthatareruninsidethemainorfirstcoreprocessor.Also
athirdPLC3adds400additionalINSTRUCTIONSthatruninthesecondcore.
Then comes 200 text labels used to tag all the objects in the database, these tags provide the
programmer a
clear text to label each of the objects used in the program. Following are 50 additional
textlabelsusedtodisplayontheLCDthetaggednamesoftheremotepoints.Thistextisalsoavailable
whenreadingthisremotepointsviatheBACnetprotocol.
TheLCDoperator displaysup
toeightalarmsthatcanbeshown,andthe textthatis tobedisplayed is
storedinthissectionofthedatabase.
The following is a historical LOG event of 200 registers that keeps track of events such as: power off,
poweron,SMSmessagessent,batteryfailure,clock
settingetc.
Thencomesasectionthatkeepsinformationofupto400schedules,divided into200mainlytargetedas
lightingschedules,and200forgeneralschedulinguse.
The remote (RMT) point configuration is stored also in EEPROM whereas the remote current value is
storedinRAM.
7
At the end of the EEPROM parameters comes the graphic configuration and the graphic data is
also stored here. For each graphic, up to 246 samples can be stored, with the addition of the
OpenBAS-ACC-EE256 256K Bytes external EEPROM up to 1000 samples can be stored for
each of the 16 graphics.
If a Dual Core processor is installed also the following information is stored without restrictions
of size, as it is only limited by the USB memory installed.
Unlimited storage of the 16 basic graphics.
Unlimited storage of the 256 remote points and the 256 result float registers.
Unlimited storage of the 40 Binary Inputs, 40 Binary outputs.
USB insertion and extraction log.
All configuration pertaining the controller configuration and the Fieldbuses are stored in this
EEPROM area.
RAM based database figure.
1 25 50 75 100 125 150 175 200 225 250 275 300 325 350 375 400
RAM
Res_bit
Res_flt
TMR
RMT-CV
Res_bit2
1..255
1..255
1..40
41..255
1..16 17..32
1..50
RMT-51..255
51..255
RMT-51..255
RES_FLT-41..255
RES_FLT-51..255
Real time clock
and calendar
The RAM section of the database is backed up by a rechargeable battery that when fully charged can
keepthisinformationstoredfuruptosevendays.Afterthebatteryfullydischarges,alltheregistersare
set to ZERO on power up. The RTCC (Real Time Clock and Calendar) is backed up every 15 minutes in
EEPROMwhilethecontrollerisenergized,sointheeventthedeviceis
powere doffformorethanseven
daysandthebatteryfullydischarges,thecontentsoftheclockatthemomentofthelastpoweroffwill
remainstoredforreference.
IntheRAMarestoredvaluesthatchangefreque ntly.TheEEPROMhasthelimitationthatthevaluescan
onlybe
changed1,000,000 times,after thistheEEPROM cells wear outand the datacannot longer be
stored.WhereastheRAMhasunlimitedread/writecyclesbutmustbebatterybackedup.
The first objects stored in RAM are 255 RES_BIT (Result Bit) registers that keep results of binary
operations
andcanonlybe0/1.IftheDualCoreisinstalled255additional RES_BIT2 registersexist,but
becausetheyareinsidetheDualCoreanditsRAMhasnobatterybackup,allvaluesaresettoZEROona
powerfailure.
8
Then comes a block of 40 RES_FLT (Result Float) registers, that keeps storage of operations with real
values stored in IEEE 32 bit registers. Also if the Dual Core is installed, additional RES_FLT registers
41..255 are present in the Dual Core RAM and are also not battery backed up and
set to ZERO on a
poweroffevent.
The controller has 16 system timers that de crement to ZERO in 1/10 of a sec or 1 second intervals
dependingontheirsetup,andthisreversecountersarealsostoredinRAM.Anadditional16timersare
presentintheDualCore
RAMandarealsonotbatterybackedupandsettoZEROonapoweroffevent.
The remote points CURRENT VALUES that are acquired via the Fieldbus communication ports are also
storedinRAM,REMT1..50arebatterybackedup.RMT51..255andRES_FLT41..255thatarepresentif
the Dual Core is installed are in their RAM and are also not battery backed up and set to ZERO on a
poweroff event. Theexce ption to thisis if insteadof theDualCorethe OpenBASACCNV32K memory
expansion is installed. These additional remote points CURRENT VALUES
are stored in NON VOLATILE
RAMandtheirvaluespersis tbetweenpoweroffevents.
TheRTCC(RealTimeClockandCalendar)isalsobackedupbythesamebatterythatkeepsRAM,andas
the RTCC resides physically inside of the main processor and shares it´s storage with the
microcontroller´s
RAM, both memories are backed up by the rechargeable 3.6 Volt 300 mA/h
rechargeablebattery.
The battery is only needed by master controllers, slave controllers usually don´t need the battery
installed,unlesstheyalsoactasmastersinanyoftheirField busesorhaveaPLCprogramthatdepends
on
schedules.Thefollowingpictureshowsthelocationofthebatteryonthecontrollerboa r d.
9
1.2 OpenBASConfigurationToolDescription
To program the OpenBASHVNX10P series of controllers a companion software is available. The
OpenBASSWCFGTLconfigurationtoolallowstofullyprogrameverydetailofthecontroller,toperform
the duty it is assigned to do. The following image shows the program´s main screen, in the following
sectionseachofthemaincomponentswillbedescribedinfulldetail.
Theconfigurationtoolcurrentlysupportssixlanguagesandbyselectingthedropdownlist,theinterface
oftheprogramisautomaticallychangedtotheselectedlanguage.
10
1.3 CommunicationSetup
The first section of the configuration tool is the communication section where the method for
connectingtothecontrollermustbeselected
.
Direct communication via USB cable Communication via Network card IP
Address the master Address a slave Address the master Address a slave
Thefirst stepistoselectifwewanttocommunicatewiththemastercontrollerorwithanyoftheslaves
connectedthruthemaster’sFieldbuses. ByselectingtheUSBcheckbox,theaddressischangedto“255”
andnowcommunicationiswiththeMASTER(orthedevice physicallyattachedtothe
otherendofthe
USBcable)thisiscalledDIRECTCONNECTION.
If the USB checkbox is deselected, then the address field is enabled, and the address of the slave
connectedtothemaster’sFieldbuswillbenowaddressed.Forthesoftwaretobeabletocommunicate
toaslave
thefollowingmustbepreviouslyconfigured:
TheFieldbusofthemastermustbesetasmasterwiththecorrectsettingsofprotocolandbaud
rate.
Theremotepointsmustbeaddedinthemaster,soitknowswhichmasteritmustlookfor.
Theslavesmustbe
setaccordinglyandconnectedinthenetworkandbepowered.
Once the slaves come“online” in the master, they canbe accessed indirectly via the master as ifthey
wereconnecteddirectlyusingtheUSBport.
Seethefollowingsectionsformoreinformationonhowtosetupslaves:
6.16.1 ConfiguretheFieldbusCommunicationPorts
6.16.2 SetupRemotePointsinFieldbuses
11
Thefollowingdiagramillustratestheconnectionsmadewithdifferentselections:
USB cable
Fieldbus
Direct USB
connection
Master (255)
Slave (101)
Fieldbus
Master or slave
SPI
link
Master (255)
Slave (101)
SPI
link
Network
card
IP Connection
Network
card
IP Connection
Case 2:
Indirect connection via USB cable using slave address 101
Case 3:
Connection via IP via network card
using USB (bridging via SPI) address 255
Case 4:
Connection via IP via network card using
using slave address 101
ADDRESSED DEVICE
ADDRESSED DEVICE
ADDRESSED DEVICE
USB cable
Direct USB
connection
Master or slave
Case 1:
Direct connection via USB cable using USB address 255
12
1.4 DeviceStatus
On the bottom left of the screen, the DEVICE STATE group gives graphical information of the current
statusofthedevicebeingaddressed.
Icon showing "Extended Instructions Bootloader" is present
Icon showing "Standard controller is ON-LINE"
Icon showing "Everithing Normal"
Software revision of OpenBAS-SW-CFGTL configuration tool
Software revision firmware loaded in OpenBAS-HV-NX10P controller
Real Time Clock and Calendar information (RTCC)
Name of the controller (Text ID description)
Icon showing "Standard Instructions Bootloader" is present
if this is the case the bootloader bust be invoked by software,
see section:
6.16.21 6.16.21 Reset remotely controller and set up firmware updates
Icon showing "Dual Core controller is ON-LINE"
Icon showing "OFF-LINE"
or controller
has not
been found
Check IP or
USB connection
Icon showing PLC is
curently disabled
(Instructions not being
executed)
Icon showing
there is an ALARM
present, the alarm
button appears to
show active
alarms
13
1.5 ActiveProjectSelection
On the bottom of the program screen is a section called ACTIVE PROJECT, when interacting with the
OpenBASHVNX10PcontrollertheLIVEorONLINEdatabaseisalwaysbeingaccessed.
Whenthereistheneedtosavethecurrentchangestodisk, aprojectmustbeselectedwherethe
files
thatcontainthechangesmadeonlinecanbestoredandlaterretrievedforrestoringifneeded.
Current project directory is shown on this field
Pressing CHANGE allows a
new project to be selected
Therearetwobuttons:CHANGEthatallowstheusertoselectanewexistingprojectandLISTthatbrings
alistofmostrecentlyusedprojects.
Tocreateanewproject,refertosection:
6.16.19CreatebackupsorrestoreallyourBuildingAutomationControllerprogramming
14
1.6 ViewLocalandSlavesInputsandOutputsandManualOutput
Commanding
Whenonthemainscreen,pressingtheCOMMANDbutton,opensascreenwherethestatusandvalues
ofalltheHARDWAREdatabaseI/Ocanbeviewedandtheoutputscommandedoroverridden.
Whenonthemainscreen,pressingtheCOMMANDbuttonopensascreenwherethestatusandvalues
oftheentireHARDWAREdatabaseI/Ocanbeviewedandtheoutputscommandedoroverridden.
Master or slaves selection buttons
Binary Inputs
names and current
status
Analog Inputs
names and current
status
Binary Outputs, names
and current status
Local (RED) and remote (YELLOW)
override icons, show if outputs are
overriden, Local overrided done at the
LCD operator have the highest priority,
and can only be liberated locally.
Analog Outputs, names
and current values
Remote overrides via
communications of
Binary and Analog
Outputs
15
1.7 AnalogI/OViewingandSetupTypeandCalibration
Whenonthemainscreen,pressingtheVIEWSTATUSbuttonopensascreenwherethecurrentvalueof
theanaloginputscanbeviewedandtheanaloginputscanbeconfiguredandcalibrated.
TheactualstatusoftheAnalogInputsAI1..40andtheanalogoutputsAO1..10canbeviewedalong
withanylabeltagthathasbeensetup.Thetwobuttonsatthebottomallowtovisualizethe>>following
10orthe<<previous10.
Toselectthetypeofanaloginputandadjustthecalibrationselectthebutton:CALIBRATEANALOGINPUTS,inthescreen
that we see on the next page, select the Analog Input number, the type and the value that indicates the multiplier /
offsetisthecalibrationvaluecanbeadjusted.
16
Iftheselectedtypeisofaresistivetemperaturesensortypeorthermocouple,thecalibrationvaluewillbeanoffsetthat
willaddorsubtract(incaseofbeingnegative)tothecurrentvalue.Fortheothertypes,itwillbeamultipliertoconvert
thevalueofinputto
arealvalue.
IMPORTANT, if the input type is resistive 1000 ohms in Fahrenheit d egrees or Celsius, you should set the
correspondingDIPSWtotheONpositionsothatitreadsthevaluecorrectly.ForalltheothertypestheDIPSWmust
beintheOFFposition.
Forexample,foravoltagesignalof010 voltsthatrepresentsapressureof0250PSI,thevalueofthemultiplierwillbe
of25.Sowhenreadingthecontrol10volts,itwillmultiplyitby25andtheshowedvaluewillbe250.
Forthetypeof
420ma.WithamultiplierofONE(1.0)thevaluewillmeasure0100percentofthevalue.Iffollowingthe
previous example, we use a pressure transducer in which the range of 420 milliamperes represents 0250 PSI, the
multipliervaluemustbeof2.5,beingthat
the100% thevaluewhenthereis20mA.multipliedby2.5willgiveperresult
thecorrectvalueof250.
IMPORTANT,if theinput type420 ma,between theinputand thecommonof0V youmust installa resistorof 250
ohms@½watt1%,forthemeasurementtobecorrect,viewtheconnectionsectionforthewiringdetail.
Youcanadjustinsmallfractionsusingtheruleofthreebetweenthecurrentvalueandwhatyoureadwithanaccurate
referenceifyouwanttofurthercalibratethemeasurement.
Itisalsoagoodpracticetoavoidmistakes,toputthemultiplierinitiallyonONE(1.0),thencalculatethe
ratioofvalueof
themultiplierbydividingthegivenreadvaluewiththecurrentmeasuredvalue.
The buttons <<and >>allows us visualizethe previous or the followinginput, or can keyin directly the desiredinput
numbertosee,andselectthebuttonREAD.
17
AfterselectingtheAnalog Inputtypeofthelist,orchangingthecalibrationvalue,selectSAVEtosendthechangestothe
controller.
YoucansavetheconfigurationtothePCtoBACKUPortotransfertoanothercontrol.Theadjustedvaluesarestoredin
thearchiveCALIB_AI.INI.Don’tmodifythisfilemanually,
IntheSYSTEMADJUSTsectionthereisanoptiontomodifytheINTEGRATIONTIMEfortheanaloginputs.Increase
itif
themeasurementvariesduetothenatureoftheprocessorduetointerferencesinthefield,orreduceitifyouneeda
fastresponseofthevariable’smeasurement.IftheintegrationvalueisZERO,themeasurementwillbeinstantlywithno
integrationatall.
Thescanning
timeoftheAnalogInputsis200milliseconds.Withthattheywillbeablehavefivereadingspersecond.If
the process variable varies tooquickly, the integration rangeof 0..250 (1/5 ofsecond) will give an integrationtime of
ZEROupto50seconds.
Itisrecommendedtouseintegration
valuesof10secondsorhigherforHVACprocesslikepressurecontrolsloops.
ThereisanewfeaturebypressingtheINFObuttononthemainscreenthattheindividualintegrationtimeforeachof
theAnalogInputscanbeset.Seethepictureinthefollowingpag e.
18
HeretheintegrationtimecanbesetindividuallyperAnalogInput,andaresolutionof50millisecondsis
available
.
Asthisisa softwarefilteringfeatureavailable onlytolocalhardwareAnalogInputs, onlyAI1..8canbe
adjusted,whereasthesettingonthepr eviouspageappliestoallAnalogInputsAI1..40.
The setting on this screen has precedence over the general setting. For example the value set here
is
ZERO,theAI willuse thegeneralintegration value,butif setwith avalue between1..255then the AI
1..8withthatnonZEROvaluewillusethenewintegrationconstant.
ThiscanhelptofilteraspecificAnalogInputthatisaffectedbynoisewithoutaffectingthe
settingofthe
restoftheAnalogInputs.
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Mircom LT-6500-OpenBAS User manual

Type
User manual

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