Agilent Technologies Output Connections, Current Ratings, Voltage Drops and Lead Resistance

Page 32

3 - Installation

Output Connections

Turn the unit off before connecting any wires.

Output 1

The main output connector (output 1) has a termination for the + and output, the + and sense terminals, and an earth ground terminal. The 5-pin connector is removable and accepts wires sizes from AWG 22 to AWG 12. Disconnect the mating plug from the unit by pulling it straight back.

IMPORTANT: You must connect the sense terminals on Output 1 for the unit to operate properly. Refer to the section on "Open Sense Lead Protection" in this chapter. Install the connector plug with its supplied sense jumpers before applying power to the unit.

Output 2

Agilent 66309B/D units have a second output connector (output 2). It has the same configuration as the main output connector. It has a termination for the + and output, the + and sense terminals, and an earth ground terminal. The 5-pin connector is removable and accepts wires sizes from AWG 22 to AWG

12.Disconnect the mating plug from the unit by pulling it straight back. You must connect the sense terminals on Output 2 for the unit to meet its published specifications.

Current Ratings

Fire Hazard To satisfy safety requirements, load wires must be large enough not to overheat when carrying the maximum short-circuit current of the dc source.

The following table lists the characteristics of AWG (American Wire Gage) copper wire.

Table 3-2. Ampacity and Resistance of Stranded Copper Conductors

AWG No.

24

22

20

18

16

14

12

Maximum Ampacity (in

free air)

3.52

5.0

8.33

15.4

19.4

31.2

40

Resistance (at 20 deg. C)

Ω/mΩ/ft

0.0843

0.0257

0.0531

0.0162

0.0331

0.0101

0.0210

0.00639

0.0132

0.00402

0.0083

0.00252

0.0052

0.00159

Voltage Drops and Lead Resistance

To optimize the performance and transient response in your test system, please observe the following guidelines:

Twist the load leads together and keep them short. The shorter the leads, the better the performance.

When remote sensing, twist the sense leads together but do not bundle them in with the load leads.

For best performance, keep the total cable length to the load to 20 ft or less when remote sensing. (Note that the unit has been tested with cable lengths of up to 40 feet.)

The load wires must also be of a diameter large enough to avoid excessive voltage drops due to the impedance of the wires. In general, if the wires are heavy enough to carry the maximum short circuit current without overheating, excessive voltage drops will not be a problem.

32

Image 32
Contents USER’S Guide Warranty Information CertificationSafety Summary GeneralSafety Symbols Declaration EMCDeclaration of Conformity Acoustic Noise Information Printing HistoryTable of Contents Checkout Procedure Case of Trouble VXIplug&play Power Products Instrument DriversTypes of Scpi Commands DVM ConnectionsTypes of Scpi Messages Scpi Data FormatsIntroduction Programming the Output Triggering Output ChangesInhibit/Fault Indicator Calibration Commands 100Display Commands 103 Measurement Commands 104Output Commands 114 Status Commands 121System Commands 125 Trigger Commands 126Common Commands Additional CommandsSpecifications 143 Supplemental Characteristics 144 Performing the Calibration Procedure 154Error Number List 161 Introduction 165Basic Introduction 177Quick Reference Front Panel At a GlanceRear Panel At a Glance Instrument ConfigurationUse the front panel Address key to configure the interface Front Panel Number Entry Use the Function keys and Entry keys to enter a new valueFront Panel Annunciators Immediate Action KeysFront Panel Menus At a Glance Scpi Programming Commands At a Glance ABORt CALibrateUsing the front panel Using the programming interfaceProgramming the unit using Scpi COMPatibility commands Installing the VXIplug&play instrument driverSafety Considerations Options and AccessoriesOption DescriptionDescription and Model Differences AgilentAgilent 66309B Agilent 66309DRemote Programming Common CapabilitiesFront Panel Controls Output 1 Characteristic Dc Source Output 1 CharacteristicOutput 2 Characteristic Output 2 CharacteristicOption 521 Relay Modes Option 521 Factory SettingsOption 521 Description Agilent 66309B/D only Page Installation and Operation Checklist Check the Operating Settings and ConditionsAdditional Agilent 66311/66309 Operating Settings Checks Check the Phone ConnectionsCleaning InspectionLocation Damage Packaging MaterialConnect the Power Cord Input ConnectionsBench Operation Rack MountingTurn the unit off before connecting any wires Output ConnectionsOutput Current RatingsRemote Sense Connections Remote Sense ConnectionsRemote Sense Connections with External Relays Load Regulation and Voltage Drop in the Remote Sense Leads Maintaining Stability while Remote SensingOpen Sense Lead Protection Local Sensing Message DescriptionOutput Compensation DVM Connections OVP ConsiderationsMeasuring Circuits that are Not Powered by the Main Output Measuring Circuits Not Powered by the Main OutputMeasuring Circuits Floating with Respect to the Main Output External Protection Connections 10. FLT/INH ExamplesFLT/INH DIGital I/O Connector Digital I/O ConnectionsComputer Connections Gpib InterfaceRS-232 Interface Pin Input/Output DescriptionCheckout Procedure Procedure Display ExplanationPress Output On/Off Press ProtectProcedure Display Explanation Selftest Error Messages Case of TroublePress Shift, Channel Enter Number 12, Enter Press Output On/OffRuntime Error Messages Power-On Selftest ErrorsRuntime Error Messages Line FuseIntroduction Front Panel DescriptionFront Panel Operation OFF Display Command FunctionSystem Keys Scrolling Keysq Function KeysImmediate Action Keys Metering Keys Display MeasurementOutput Control Keys Over CurrentEntry Keys Entry KeysUsing the Front Panel Display Examples of Front Panel ProgrammingSelecting an output on Agilent 66309B/D units Selecting the DVM on Agilent 66311D/66309D unitsSet the output voltage Set the output current limitSet the output compensation Typecap HighEnable the output Set the output 2 voltageSet the output 2 current limit Keypad, press Enter Number, 7, EnterQuerying and Clearing Output Protection and Errors Disable Overvoltage Protection as followsQuery and Clear Errors as follows OvercurrentMaking Basic Front Panel Measurements Use the Meter menu for making front panel measurementsDefault Front Panel Measurement Parameters Making Enhanced Front Panel MeasurementsMaking DVM Measurements Agilent 66311D/66309D only Use the Meter menu for making DVM measurementsCurrrang Auto Currdet AcdcSetting the Gpib Address and Programming Language To configure the Ridfi mode of the port, proceed as followsTo configure the Digio mode of the port, proceed as follows Set the Gpib address as followsStoring and Recalling Instrument States Scpi References External ReferencesGpib References VXIplug&play Power Products Instrument Drivers Downloading and Installing the DriverSupported Applications System RequirementsAccessing Online Help Gpib Capabilities of the DC SourceRS-232 Capabilities of the DC Source Gpib AddressBaud Rate Introduction to ScpiRS-232 Flow Control Boldface font Types of Scpi CommandsConventions Used in This Guide Moving Among Subsystems Multiple Commands in a MessageIncluding Common Commands Using Queries Types of Scpi MessagesMessage Unit HeadersScpi Data Formats Scpi Command Completion Suffixes and MultipliersResponse Data Types Class Suffix Unit Unit with MultiplierUsing Device Clear Scpi Conformed CommandsNon-SCPI Commands Scpi Conformance InformationEnabling the Output Power-on InitializationProgramming the Output Output Voltage Output CurrentSetting the Voltage or Current Transient Levels Triggering Output ChangesScpi Triggering Nomenclature Output Trigger ModelEnabling the Output Trigger System Selecting the Output Trigger SourceGenerating Triggers Single TriggerControlling Measurement Samples Making Basic MeasurementsAverage Measurements Making Enhanced Measurements Window FunctionsCurrent Ranges and Measurement Detector RMS MeasurementsHigh/Low Measurements Pulse MeasurementsMinimum and Maximum Measurements Making DVM Measurements Returning All Measurement Data From the Data BufferSequence Form Alias SEQuence2 ACQuire Triggered MeasurementsMeasurement Trigger Model Enabling the Measurement Trigger System Selecting the Measurement Trigger SourceSelecting the Sensing Function INTernalGenerating Measurement Triggers Single TriggersTrigacqcouncurr number or Trigacqcounvolt number Programming the Status Registers Pre-trigger and Post-trigger Data AcquisitionPower-On Conditions DC Source Status ModelBit Configurations of Status Registers Operation Status GroupPON Power On Bit Questionable Status GroupStandard Event Status Group Status Byte RegisterDetermining the Cause of a Service Interrupt Servicing Operation Status and Questionable Status EventsMSS Bit RQS BitRemote Inhibit RI Inhibit/Fault IndicatorMonitoring Both Phases of a Status Transition Discrete Fault Indicator DFI Using the Inhibit/Fault Port as a Digital I/OBit Weight PinSubsystem Commands Subsystem Commands Syntax Language Dictionary Language Dictionary Common Commands Programming ParametersCalibration Commands CALibrateCURRentCALibrateCURRent2 CALibrateCURRentMEASureLOWRangeCALibratePASSword CALibrateDATACALibrateDATE CALibrateDVMCALibrateSAVE CALibrateSTATeCALibrateVOLTage CALibrateVOLTage2Display Commands DISPlayDISPlayCHANnel DISPlayMODE104 Measurement CommandsFORMat FORMatBORDer MEASureARRayCURRent? FETChARRayCURRent?MEASureARRayVOLTage? FETChARRayVOLTage? Query SyntaxMEASureCURRent? FETChCURRent? MEASureCURRent2?MEASureCURRentACDC? FETChCURRentACDC? NR3MEASureCURRentHIGH? FETChCURRentHIGH? MEASureCURRentLOW? FETChCURRentLOW?MEASureCURRentMAXimum? FETChCURRent MAXimum? 107MEASureCURRentMINimum? FETChCURRentMINimum? MEASureDVM? FETChDVM?MEASureDVMACDC? FETChDVMACDC? MEASureVOLTage? FETChVOLTage?MEASureVOLTage2 MEASureVOLTageACDC? FETChVOLTageACDC?MEASureVOLTageHIGH? FETChVOLTageHIGH? 109MEASureVOLTageLOW? FETChVOLTageLOW? MEASureVOLTageMAXimum? FETChVOLTageMAXimum?MEASureVOLTageMINimum? FETChVOLTageMINimum? 110SENSeCURRentDETector SENSeCURRentRANGeQuery Syntax SENSeCURRentDETector? 111SENSeFUNCtion SENSePROTectionSTATeSENSeSWEepOFFSetPOINts SENSeSWEepPOINtsSENSeSWEepTINTerval SENSeWINDowQuery Syntax SENSeSWEepTINTerval? Query Syntax SENSeWINDowTYPE?Output Commands INSTrumentCOUPleOUTPutSTATeOUTPut1 OUTPut1 2RELayMODEOUTPutDFI OUTPutDFISOURceOUTPutPONSTATe 115OUTPutPROTectionDELay OUTPutPROTectionCLEarOUTPutRIMODE OUTPutTYPE117 SOURceCURRentSOURceCURRent2 Command Syntax Parameters RST Value Examples SOURceCURRentPROTectionSTATeSOURceCURRentTRIGger SOURceCURRent2TRIGgerSOURceDIGitalDATA SOURceDIGitalFUNCtionSOURceVOLTage 119SOURceVOLTage2 SOURceVOLTagePROTectionSOURceVOLTagePROTectionSTATe 120Status Commands STATusPRESetSOURceVOLTageTRIGger SOURceVOLTage2TRIGgerSTATusOPERationENABle Bit Configuration of Operation Status RegistersSTATusOPERation? STATusOPERationCONDition?Parameters Preset Value Bit Configuration of Questionable Status RegistersSTATusOPERationNTR STATusOPERationPTR STATusQUEStionable?STATusQUEStionableENABle STATusQUEStionableCONDition?STATusQUEStionableNTR STATusQUEStionablePTR 124System Commands SYSTemERRor?SYSTemLANGuage SYSTemVERSion?Trigger Commands Related CommandsABORt INITiateSEQuence INITiateNAME127 TRIGgerTRIGgerSOURce TRIGgerSEQuence2 TRIGgerACQuire TRIGgerSEQuence2COUNtCURRent TRIGgerACQuireCOUNtCURRentTRIGgerSEQuence2COUNtDVM TRIGgerACQuireCOUNtDVM 128129 TRIGgerSEQuence2COUNtVOLTage TRIGgerACQuireCOUNtVOLTageUnit TRIGgerSEQuence2HYSTeresisDVM TRIGgerACQuireHYSTeresisDVM 130131 TRIGgerSEQuence2LEVelCURRent TRIGgerACQuireLEVelCURRentTRIGgerSEQuence2LEVelDVM TRIGgerACQuireLEVelDVM TRIGgerSEQuence2LEVelVOLTage TRIGgerACQuireLEVelVOLTage TRIGgerSEQuence2SLOPeCURRent TRIGgerACQuireSLOPeCURRentReturned Parameters 132133 TRIGgerSEQuence2SLOPeDVM TRIGgerACQuireSLOPeDVMTRIGgerSEQuence2SLOPeVOLTage TRIGgerACQuireSLOPeVOLTage 134 TRIGgerSEQuence2SOURce TRIGgerACQuireSOURceTRIGgerSEQuence1DEFine TRIGgerSEQuence2DEFine Common Commands Command Syntax *CLS Parameters NoneBit Configuration of Standard Event Status Enable Register 135136 Field InformationExample Query Syntax *OPT? Returned Parameters Aard RCL NRfParameters Example 137RST Settings Command Syntax *SAV NRfExample *SAV Related Commands *RCL *RST 138 Power-on Value Bit Configuration of Status Byte RegisterQuery Syntax *STB? 139TRG Query Syntax TST? Returned Parameters NR1Additional Commands CURRentPROTectionTRIPped? VOLTageLIMitHIGH?VOLTageLIMitLOW? VOLTagePROTectionTRIPped?143 SpecificationsTable A-1. Performance Specifications Supplemental Characteristics Table A-2. Supplemental Characteristics144 Agilent 66309B/D145 Table A-4. Agilent 66309B/D Option 521 Characteristics 146Test Setup Equipment Required147 Table B-1. Equipment Required148 Performing the Verification TestsTurn-On Checkout Voltage Programming and Measurement Accuracy Current Programming and Measurement AccuracyOutput terminals on both outputs 1 Steps 6-10 apply to Agilent 66309B/D output 2 only150 Steps 7-11 apply to Agilent 66309B/D output 2 onlyCurrent Sink Measurement DVM Measurement Accuracy 151152 153 DVM Voltage Measurement Agilent 66309D only154 Performing the Calibration ProcedureFront Panel Calibration Menu Front Panel Calibration Procedure Check the Language SettingEnable Calibration Mode Voltage Programming and Measurement CalibrationSteps 11-16 apply to Agilent 66309B/D output 2 only Overvoltage Protection CalibrationCurrent Programming and High-Range Measurement Calibration 156Calcurrmeas AC Steps 27-32 apply to Agilent 66309B/D output 2 only157 Restore the Language Setting DVM Calibration applies to Agilent 66311D, 66309D onlySaving the Calibration Constants 158Calibration Error Messages Changing the Calibration PasswordTable B-3. Gpib Calibration Error Messages Calibration Over the GpibPage 161 Error Number ListTable C-1. Error Numbers Error Messages 162Error Messages C 163Page 165 Assigning the Gpib Address in ProgramsNational Instruments Gpib Driver 166 Error HandlingExample 1. National Instruments Interface Example 167 Example Programs DExample 2. Controller Using Basic 168Example 3. Current Pulse Measurement Using Basic 169170 171 172 173 Example 5. DFI Example Using BasicDFI Programming Example Page Configure the Power Transformer Install the Correct Line FuseOpen the Unit Close the UnitFigure E-1, Power Transformer AC Input Connections 176177 Command SettingTable F-1. COMPatibility Power-on Settings Compatibility Command Similar Scpi CommandTable F-2. COMPatibility Commands 178179 Error NumberError String Description/Explanation/ExamplesTable F-3. COMPatibility Errors 180Table F-5. Bit Configuration of Serial Poll Register 181Page Index 183Index 184185 OVERTEMPERATURE, 47 OVERVOLTAGE, 47 OVLD, 47, 60, 61 186Subsystem commands syntax, 96 suffixes 187188 Type CAPUnited States Latin America Canada Australia/New ZealandEurope Asia Pacific JapanManual Updates
Related manuals
Manual 8 pages 56.17 Kb

66111A, 66309B, 66311B, D specifications

Agilent Technologies D,c,83440b is an advanced electronic measurement solution designed for engineers and scientists who require precise and reliable performance in their testing environments. This modular test system offers a comprehensive suite of features that cater to a wide range of applications, from high-frequency testing to complex signal analysis.

One of the main features of the D,c,83440b is its impressive frequency range, allowing users to conduct tests across a wide spectrum of signals. The system is capable of handling frequencies up to 26.5 GHz, making it ideal for RF and microwave applications. This broad range ensures that users can work with a variety of devices, including communication systems, radar, and satellite technology.

In addition to its frequency capabilities, Agilent Technologies has engineered the D,c,83440b with exceptional dynamic range and low noise figures. This ensures that even the smallest signals can be accurately measured, allowing for greater precision in testing. The full spectrum analysis feature enables users to capture transient events and analyze them in real-time, which is crucial for troubleshooting and performance evaluations.

The D,c,83440b is built on a modular platform, allowing users to customize their systems according to specific testing needs. This modularity not only enhances flexibility but also simplifies maintenance and upgrades. Users can easily swap out different modules without the need for extensive system reconfiguration, which can significantly reduce downtime in testing environments.

Another standout characteristic of the D,c,83440b is its user-friendly interface. With a large, high-resolution display and intuitive controls, engineers can quickly navigate through settings and data, streamlining the testing process. This ease of use is complemented by powerful software solutions that can automate test sequences, aiding in efficiency and accuracy.

The integration of advanced digital signal processing technologies further enhances the capabilities of the D,c,83440b. These technologies enable more sophisticated measurements and improved signal integrity, which is essential for modern communication systems.

In summary, the Agilent Technologies D,c,83440b is a multifaceted electronic measurement solution that boasts a wide frequency range, excellent dynamic range, modular design, and user-friendly interface. This combination of features makes it suitable for various applications, ensuring that engineers and scientists have the tools they need to succeed in their testing and measurement endeavors.