HP 8753E 317

Linear Magnitude Format

The i~~~:~.~:~~~~ softkey displays the linear magnitude format (see F’igure 6-16). This is a Cartesian format used for unitless measurements such as reflection coefficient magnitude p or transmission coefficient magnitude T, and for linear measurement units. It is used for display of conversion parameters and time domain transform data.

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Figure 6-16. Linear Magnitude Format

SWR Format

.;.......I .

The RR&; softkey reformats a reflection measurement into its equivalent SWR (standing wave ratio) value (see F’igure 6-17). SWR is equivalent to (1 + p)/(l - p), where p is the reflection coefficient. Note that the results are valid only for reflection measurements If the SWR format is used for measurements of Sal or $312 the results are not valid.

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Figure 6-17. Typical SWB Display

6-36 Application and Operation Concepts

Contents

HP 8753E Network Analyzer Notice Certification Wmanty Note Maintenance Assistance for Rw an@ assistance, wnmct gour nearest Hewlett-RzchmdSaks and Service Om Shipment for Service ‘Iktble O-1. Hewlett-PackardSales and Service OfEces Safety Symbols Warning Instrument Markings General Safety Considerations Caution the external case parts. Do not attempt to clean internally Compliance with German FTZ Emissions Requirements Compliance with German Noise Requirements Acoustic Noise Emission/Geraeuschemission User’s Guide Overview Network Analyzer Documentation Set The User’s Guide The Quick Reference Guide provides a summary of selected user features Page DECLARATION OF CONFORMITY Manufacturer’s Name: Address: Product Name: Contents Page 3.Making Mixer Measurements 4.Printing, Plotting, and Saving Measurement Results 5. Optimizing 6.Application and Operation Concepts Page Page Page Page Page Page 7 . Specifications and Measurement Uncertainties 8.Menu Maps 9.Key Definitions 10. Error Messages 11. Compatible Peripherals 12.Preset State and Memory Allocation A.The CITIfUe Data Format and Keyword Reference B. Determining System Measurement Uncertainties Index Figures Contents-18 Contents-19 Page Contents-21 %bles Page HP 87533 Description and Options Analyzer Description nControl Analyzer Programming Guide.) nPerformance l-2HP 5753E Description and Options nAccuracy w Printin& Plotting, and Saving HP 5753E Description and Options l-3 Front Panel Features Figure l-l.HP 8753E Front Panel LINE switch Display Disk drive HP 5753E Dessription and Options l-5 The ENTBY block INSTBUMENT STATE function block key PROBE POWER CHANNEL a1D2pg64d Figure 1-2.Analyzer Display (Single Channel, Cartesian Format) Stimulus Start Value. This HP 6753E Description and Options l-7 Stimulus Stop Value. This Status Notations Avg Del ext PC Network An.uZgm Semrice PRltl Smo Active Measured Input(s) Format Scale/Div Reference Level Marker Values Rear Panel Features and Connectors Figure 1-3.HP 8753E Bear Panel PARALLEL interface interface KEYBOARD input EXTERNAL BEF‘ElUINCE AUXILIABY connector EXTERNAL AM connector EXTERNAL Analyzer Options Available Option lD6, High Stability Frequency Reference Option 002, Harmonic Mode Option 006, 6 GHz Operation Option 010, Time Domain Option lCP, Rack Mount Flange Kit With Handles Service and Support Options Differences among the HP 8753 Network Analyzers lhble l-l.Comparing the J3P 8753AIBKYD HP 8753E Description and Options l-15 ‘able 1-2.Comparing the HP 8753D and HP 8753E l-16 HP 6763E Description and Options Making Measurements Principles of Microwave Connector Care ‘lhble 2-l.Connector Care Quick Reference Basic Measurement Sequence and Example Basic Measurement Sequence Basic Measurement Example Step 1. Connect the device under test and any required test equipment test Setting the Source Power Setting the Measurement Step 3. Perform and apply the appropriate error-correction Caution Step 4. Measure the device under test Step 6. Output the measurement results Using the Display Functions To View Both Primary Measurement Channels Figure 2-3.Example Dua.l Channel With Split Display On 2-6Making Measurements To Save a Data Trace to the Display Memory lb View the Measurement Data and Memory Trace To Divide Measurement Data by the Memory Trace To Subtract the Memory Trace from the Measurement Data Trace 2. press (jj ~~~ar~~~~, to subtract the memory from the measurement data ;;;;A.::....::.....,...: ‘RI Ratio Measurements in Channel 1 and To Title the Active Channel Display 1. press (misplay) &&:: $&$ to access the title menu. ,... ..: i;: // ~.~./i Figure 2-4.Example of a Display Title Page Figure 2-5. 3-ChannelDisplay Figure 2-6. 4-ChannelDisplay To Activate and Co&lgure the Auxilkry Channels 2-l2 Making Measurements Quick Four-ParameterDisplay Characterizing a Duplexer nTransmit (TX) Making Meesurements Required Equipment Procedure for Characterizing a Duplexer 8.Press @iLZiJ 2.14 Making Measurements Page Figure 2-7.Duplexer Measurement Using Analyzer Display Markers To Use Continuous and Discrete Markers using ;m” To Activate Display Markers Figure 2-8.Active Marker Control Example Figure 2-9.Active and Inactive Markers Example 2-l8 Making Measurements !tb Move Marker Information off of the Grids 27; LoG E2; LoG Figure 2-10.Marker Information Moved into the Softkey Menu Area trlllllllllll Figure 2-11.Marker Information on the Graticules lb Use Delta (A) Markers 2.20 Making Measurements Figure 2-12.Marker 1 as the Reference Marker Example lb Activate a Fixed Marker Using the :~~~~~~~~~~~ Key to Activate a Fixed Reference Marker 2-22Making Measurements Page ‘lb Couple and Uncouple Display Markers Figure 2-15.Example of Coupled and Uncoupled Markers To Use Polar Format Markers 2-24MaLinO Measurements Figure 2-16. Example of a Log Marker in Polar Format To Use Smith Chart Markers Figure 2-17.Example of Impedance Smith Chart Markers ‘lb Set Measurement Parameters Using Markers 2-26Making Measurements Setting the Start Frequency Figure 2-18.Example of Setting the Staxt Frequency Using a Marker Setting the Stop Frequency Figure 2-19.Example of Setting the Stop Frequency Using a Marker Setting the Center Frequency Figure 2-20.Example of Setting the Center Frequency Using a Marker 2-28Making Measurements Setting the Frequency Span Figure 2-21. Example of Setting the Frequency Span Using Marker Setting the Display Reference Viilue Figure 2-22.Example of Setting the Reference Value Using a Marker 2-30Making Measurements Setting the Electrical Delay Figure 2-23.Example of Setting the Electrical Delay Using a Marker Setting the CW Frequency ‘lb Search for a Specific Amplitude Searching for the Maximum Amplitude Searching for Example of Searching for the Maximum Amplitude Using a Marker 232 Making Measurements Searching for the Minimum Amplitude Figure Example of Searching for the Minimum Amplitude Using a Marker Searching for a ‘beget Amplitude Example of Searching for a Beget Amplitude Using a Marker 234 Making Measurements Searching for a Bandwidth Figure Z-27.Example of Searching for a Bandwidth Using Markers Tracking the Amplitude that You Are Searching To Calculate the Statistics of the Measurement Data Figure Z-28.Example Statistics of Measurement Data Measuring Magnitude and Insertion Phase Response Measuring the Magnitude Response Figure 2-29.Device Connections for Measuring a Magnitude Response 2-30 Figure 2-30.Example Magnitude Response Measurement Results Measuring Insertion Phase Response Figure 2-31.Example Insertion Phase Response Measurement Figure 2-32.Phase Samples Electrical Length Phase Distortion Measuring Electrical Length Figure 2-33.Device Cmmections for Measuring Electrical Length Figure 2-34.Linearly changing Phase 8. Press (-Ref) ad turn the front panel knob to increase me ele&ricd Figure 2-35.Example Best Flat Line with Added Electrical Delay Measuring Phase Distortion Deviation From Linear Phase and Figure 2-36.Deviation From Linear Phase Example Measurement Group Delay called Figure 2-37.Group Delay Example Measurement Figure 2-38.Group Delay Example Measurement with Smoothing Group Delay Example Measurement with Smoothing Aperture Incrwed Setting Up the Measurement Parameters Figure 2-40.Connections for SAW Filter Example Measurement Creating Flat Limit Lines you codd alsO set the upper md lower limits by using the ~~~~~~~~~ md Figure 2-41.Example Flat Limit Line Creating a Sloping Limit Line Figure 2-43.Sloping Limit Lines Creating Single Point Limits Figure 2-44.Example Single Points Limit Line Deleting Limit Segments Bnnning a Limit Tkst Reviewing the Limit Line Segments Activating the Limit Test Offsetting Limit Lines Figure 2-45.Example Stimulus Offset of Limit Lines 2-54 Making Measurements (0)(b) Figure 2-46.Diagram of Gain Compression Page Page Figure 2-48.Gain Compression Using Power Sweep Page Figure 2-49.Gain and Reverse Isolation Stepped List Mode Swept List Mode Connect the Device Under Test Figure 2-50.Swept List Measurement Setup Observe the Characteristics of the Filter Figure 2-51.Characteristics of a Filter Choose the Measurement Parameters Set Up the Lower Stopband Parameters Calibrate and Measure Figure Z-52.Calibrated Swept List Thru Measurement Page Typical test setup Figure 2-54.Typical ‘I&t Setup for Tuned Receiver Mode Tuned receiver mode in-depthdescription Frequency Range Compatible Sweep Types External Source Requirements Page Figure 2-55.‘l&t Sequencing Help Instructions Running a Sequence Stopping a Sequence Deleting Commands 5. press @j) ~~~~‘~~~~~~~~~ to &t the modify (e&t) mode Modifying a Command Clearing a Sequence from Memory Changing the Sequence Title new tiename, pressing ~~~~~~: as Storing a Sequence on a Disk Loading a Sequence from Disk Purging a Sequence from Disk Printing a Sequence Cascading Multiple Example Sequences SEQUENCESEQ2 Loop Counter Example Sequence SEQUENCELOOP Generating Files in a Loop Counter Example Sequence Limit Test Example Sequence Page Measuring Swept Harmonics (Option 002 Only) Figure 2-56.Fundamental and 2nd Harmonic Power Levels in dBm Figure 2-57.2nd Harmonic Power Level in dBc Gating Transmission Response in Time Domain near Figure 2-58.Device Connections for Time Domain Transmission Example Measurement Figure 2-59.Time Domain Transmission Example Measurement Gating in a Time Domain Transmission Example Measurement ‘able 2-2.Gate Characteristics Gate Gate spfm Fiiure 2-61.Gate Shape Page Reflection Response in Time Domain Figure 2-63.Device Connections for Reflection Time Domain Example Measurement Figure 2-64.Device Response in the Frequency Domain Figure 2-65.Device Response in the Time Domain Page Making Mixer Measurements Minimizing Source and Load Mismatches Reducing the Effect of Spurious Responses Eliminating Unwanted Mixing and Leakage Signals How RF and IF Are Defined Figure 3-l.Down Converter Port Connections Figure 3-2.Up Converter Port Connections Frequency Offset Mode Operation Differences Between Internal and External R Channel Inputs Figure 3-3.B Channel External Connection Power Meter Calibration measured output power (watts) /set input power (Watts) measured output power (d&n) - set input power (dBm) An Example Spectrum of RF, LO, and IF Signals Present in a Conversion Loss Measurement Page range Connections for a One-SweepPower Meter Calibration for Mixer Measurements Figure 3-7.Diagram of Measurement Frequencies Figure 3-8.Measurement Setup from Display Figure 3-9.Conversion Loss Example Measurement Page Figure 3-10.Connections for Broad Band Power Meter Calibration Figure 3-11.Connections for Eeceiver Calibration Connections for a High Dynamic Range Swept IF Conversion Loss Measurement Page Tuned Receiver Mode Sequence 1 Setup addressing Figure 3-14.Connections for a Response Calibration Performing a Response Calibration LMeas) ~~~~~~~~~, a (jjj&Q bOmpting Mixer &gg .Y Initializing a Loop Counter Value to CaUing the Next Measurement Sequence Sequence 2 Setup Figure 3-15.Connections for a Conversion Loss Using the Tuned Receiver Mode Figure 3-16.Example Fixed IF Mixer Measurement Page Figure 3-17.Counections for a Group Delay Measurement Figure 3-18.Group Delay Measurement Example Page Conversion Loss and Output Power as a Function of Input Power Level Example mixer’s Page Connections for the Second Portion of Conversion Compression Measurement Figure 3-22.Measurement Setup Diagram Shown on Analyzer Display Page Figure 3-24.Signal Flow in a Mixer Example LO to RF Isolation Figure 3-26.Connections for a Mixer Isolation Measurement Figure 3-27.Example Mixer ID to RF Isolation Measurement RF Feedthrough Making Figure 3-28.Connections for a Response Calibration Figure 3-29.Connections for a Mixer RF Feedthrough Measurement Figure 3-30.Example Mixer RF Feedthrough Measurement Printing, Plotting, and Saving Measurement Results Page Printing or Plotting Your Measurement Results Conf@uring a Print Function Page Defining a Print Function Printing One Measurement Per Page Printing Multiple Measurements Per Page Page Page If Yim Are Plotting to a Pen Plotter and then @ii. &g. Mti .:...........i.. .,;::.::<<<<..<...: Page Defining a Plot Function Choosing Display Elements q Choose .......i,,...::...aL Selecting Auto-Feed Plot Element modify Page Plotting One Measurement Per Page Using a Pen Plotter Plotting Multiple Measurements Per Page Using a Pen Plotter Page Plotting a Measurement to Disk To View Plot Files on a PC Page Outputting Plot Files from a PC to a Plotter Outputting Plot Files from a PC to an HPGL Compatible Printer Outputting Single Page Plots Using a Printer c: Outputting Multiple Plots to a Single Page Using a Printer Plotting Multiple Measurements Per Page From Disk Page Page Titling the Displayed Measurement Confqjuring the Analyzer to Produce a Time Stamp Aborting a Print or Plot Process Printing or Plotting the List Values or Operating Parameters Page Solving Problems with Printing or Plotting Saving and Recalling Instrument States Page Saving an Instrument State Saving Measurement Results Deline Save ModificationFlexibility II Dnring your appfiations except S2P Data Format Page Re-Savingan Instrument State Renaming a File Formatting a Disk Solving Problems with Saving or Recalling Files Optimizing Measurement Results Increasing Measurement Accuracy Page Measurement Error-Correction Page Compensating for the Electrical Delay of calibration Standards Chrifyhg We-NConnector Sex Page Procedures for Error-CorrectingYour Measurements Frequency Response Error-Corrections Page Page Page Page Frequency Response and Isolation Error-Corrections Page Page Page One-PortReflection Error-Correction Page Page Full Two-Port Error-Correction Page Page T&L* and T&M* Error-Correction Page Page Page Page Page Page Page Page Page Page Page Deleting Frequency Segments Page Page To Calibrate the Analyzer Receiver to Measure Absolute Power Calibrating for Noninsertable Devices Adapter Removal Perform the Z-portError Corrections Figure 5-12. ‘lko-PortCal Set Remove the Adapter 15. Press ~~~~~~~~~~ to complete the technique for cd&ating the new errOr Figure 5-14.Cklibrated Measurement Verify the Results Example Program Page Page Making Accurate Measurements of Electrically Long Devices Page Page Page Page Page Page Page Page Page Page Page Application and Operation Concepts Page Page Page Page Accuracy Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page TRL*/LRM* Two-PortCalibration Restarting a Calibration Cal Kit Menu The Select Cal Kit Menu Modifying Calibration Kits Definitions Procedure Modify Calibration Kit Menu TIhble 6-5.Standard DelInitions Page Page Page ‘Ihble 6-6.Slamlard Class Assignments Page Verify performance TRL%RM* Calibration Why Use TRL Calibration TRL lkrminology How !CRL*/LRM* Calibration Works TRL* Error Model HP 8753E functional block diagram for a 2-port error-corrected measurement system IsoIation If an isolation calibration is performed, the ikture leakage must be the same during the isolation calibration and the measurement Figure 6-53. S-termTRL error model and generalized coefkients Improving Raw Source Match and Load Match For TRL*/LRM* Calibration Figure 6-54.Typical Measurement Set up TRL Standards Requirements Page Page Page Note Dispersion Effects Power Meter Calibration ‘I& p~~~~~~;‘:~.~ softkey with the come-$ionmenu, leads to a series of menus Primary Applications Calibrated Power Level Compatible Sweep Types Loss of Power Meter Calibration Data changing sweep type Chaugiug frequency Interpolation in Power Meter Calibration Power Meter Calibration Modes of Operation Figure 6-55.‘I&t Setup for Continuous Sample Mode be as Figure 6-56.‘I&t Setup for Sample-and-SweepMode Power Loss Correction List Power Sensor Calibration Factor List SpeedandAccuracy ‘able Characteristic Power Meter Calibration Sweep Speed and Accuracy Page Alternate and Chop Sweep Modes Chop Figure 6-57.Alternate and Chop Sweeps Overlaid Matched Adapters Modify the Cal Kit Thru Definition Using the Instrument State Functions Figure 6-58.Instrument State Function Block HP-IBMenu HP-IBSTATUS Indicators System Controller Mode Pass Control Mode Address Menu ./:::: ;..:: ::.;..i: .:::::: Instrument BP-IBAddress (decimal) Using the Parallel Port The Copy Mode The Limits Menu Page Page Knowing the Instrument Modes Page CW Frequency External Source Mode Compatible Sweep Types External Source Requirements Capture Page Figure 6-60.Typical ‘l&t Setup for a Frequency Offset Measurement Offset In-Depth The Receiver Frequency. You ORset Frequency Receiver and Source Requirements Display Annotations. The Spurious Signal Passband Frequencies Figure 6-61.Typical Harmonic Mode ‘I&t Setup and see use ‘lhble 6-9.Maximum Fundamental Frequency using Harmonic Mode HarmolliC bhximum Fundamental Frequency Accuracy Time Domain Operation (Option 010) The Transform Menu step mode Forward mode General Theory Figure 6-62.Device Frequency Domain and Time Domain Reflection Responses Page Figure 6-63.A Reflection Measurement of Two Cables ‘I&ble 6-10.Time Domain Reflection Formats Transmission Measurements Using Bandpass Mode Figure 6-64.Transmission Measurement in Time Domain Bandpass Mode domain low ‘Ibble 6-11.Minimum Frequency Ranges for Time Domain Low Pass Reflection Measurements In Time Domain Low Pass Time Domain Low Pass Measurements of an Unterminated Cable Interpreting the low pass response vertical Fault Location Measurements Using Low Pass Page Figure 6-67.Low Pass Step Measurements of Common Cable Faults (Real Format) Time Domain Low Pass Measurement of an Amplifier Small Signal Transient Response Figure 6-69.Transmission Measurements Using Low Pass Impulse Mode Time Domain Concepts Masking Figure 6-70.Masking Example Figure 6-71.Impulse Width, Sidelobes, and Windowing able 6-12.Impulse Width, Sidelobe Level, and Windowing Values mge Response resolution Figure 6-73.Response Resolution Range resolution Figure 6-74.Range Resolution of a Single Discontinuity Figure 6-75.Sequence of Steps in Gating Operation Figure 6-76.Gate Shape Selecting gate shape ‘able 6-13.Gate Characteristics Transforming CW Time Measurements Into the Frequency Domain Forward Transform Measurements Figure 6-77.Ampltier Gain Measurement Figure 6-78.Combined Effects of Amplitude and Phase Modulation Separating the Amplitude and Phase Components of Test-Device-InducedModulation Forward transform Figure 6-80.Range of a Forward Transform Measurement Page Type of Command Size in Bytes The Sequencing Menu Gosub Sequence Command TI’L I/O Menu you Figure 6-81.Parallel Port Input and Output Bus Pin Locations in GPIO Mode Sequencing Special Functions Menu Sequence Decision Making Menu Decision Making Functions Naming Files Generated by a Sequence HP-GL Plot absolute (HP-GLcommand: PA) Label (HP-GLcomman& Ia) Amplifier Tksting Amplifier parameters Figure 6-82.Amplifier Parameters Swept Frequency Amplifier Measurement of Absolute Fundamental, 2nd and 3rd Earmonic Output Levels Swept Frequency AmpHer Measurement of 2nd and 3rd Harmonic Distortion (dBc) Gain Compression Figure 6-85.Diagram of Gain Compression Swept Power Measurement of Amplifier’s Fundamental Gain Compression and 2nd Harmonic Output Level Metering the power level list Configuration for Setting RF Input using Automatic Power Meter Calibration Mixer Testing Frequency Offset Tuned Receiver Mixer Parameters That You Can Measure Figure 6-88. Mixer hrameters Accuracy Considerations and LO signals Attenuation at Mixer Ports Conversion Loss versus Output Frequency Without Attenuators at Mixer Ports Example of Conversion Loss versus Output Frequency Without Correct IF Signal Path Filtering Example of Conversion Loss versus Output Frequency With Correct IF Signal P&&I Filtering and Attenuation at all Mixer Ports Selection Figure 6-92. Examples of Up Converters and Down Converters Figure 6-93.Down Converter Port Connections Figure 6-94.Up Converter Port Connections Conversion Loss Isolation Figure 6-96.Main Isolation ‘lkrms LOFeedthru/LOtoRFLedage SWR / Return Loss Conversion Compression (a) Figure 6-97.Conversion Loss and Output Power as a Function of Input Power Level Phase Measurements Amplitude and Phase Tracking Connections for an Amplitude and Phase Tracking Measurement Between Two Mixers Phase Linearity and Group Delay Page Connection Considerations Adapters Figure 6-99.Adapter Considerations Fixtures Reference Documents General Measurement and Calibration Techniques Fixtures and Non-CoaxialMeasurements On-WaferMeasurements Specifkations and Measurement Uncertainties HP 8753E Measurement Port Specifications HP 8763E (6OQ) with 7-mmTest Ports Page HP 8763E (SO@ with Type-NTest Ports Port HP 8763E (SO@W with 3.6~mm Test Ports HP 8763E (76Q) with Type-NTest Ports Page HP 8763E (7612) with Type-FTest Ports Instrument Spectications Page Page Page Page Page Page HP 8763E Network Analyzer General Characteristics Measurement Throughput Summary Interface Transfer Formats Interface Function Codes External Reference Frequency Input (EXT REF INPUT) High-StabilityFrequency Reference Output (10 MHz)(Option lD6) External Auxilhry Input (AUX INPUT) External AM Input (EXT AM) External Trigger (EXT TRIGGER) Figure 7-1.External Trigger Circuit Test Sequence Output (TEST SEQ) Red, Green, or Blue Pixels Speciiications Dark Pixels Specifications HP-IB General Conditions Operating Conditions Non-OperatingStorage Conditions Weight Cabinet Dimensions Internal Memory Page Page Page Page Page Page Page Page Page ---B Page Page Page Page Page Key Definitions Guide Tkrms and Conventions Analyzer Functions Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page HP 8753E Programmer’s Guide Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page ‘Bible 9-1.Cross Reference of Key Function to Programming Command Name Command MEASA ‘lhble Cross Reference of Key Function to Progranuningcommand (continued) ANAB ANAI Cross Reference of Key Function to Programm ingchmmand (continued) (GJ ‘lhble 9-l Cross Reference of Key Function to Programming Co nuuand (continued) Cmunmnd m4HEH t%4 Cross Reference of Key Function to Programming command (continued) Chumand gvm% fiow cpmm .J?lZAXJ.LT CXtLUH .X&FAlJ&t able Cross Reference of Key Function to Programming Command (continued) MARKF-AUV ‘able 9-l Cross Reference of Key Function to Progranuuing commund (continued) OFFlPon #iv BLAlflf Page Ihble cross Reference of Key Function to Programming Command (continued) ‘Ihble Cmumand OFLS Page Page ‘fhble Cross Reference of Key Function to Programm ingbmmand (continued) Value l%lzwm~E & ..f%2L’N Page Cross Reference of Key Function to Programming Commaud (continued) Q?Y Caumand Cross Reference of Key Function to Programming commund (continued) Comnumd l’&ble Cross Reference of Key Function to Programmingco mmand (continued) SEATARG lhble Cross Reference of Key Function to Programming Co nunand (continued) Cross Reference of Key Function to Programmiug Command (continued) Couuuamd YELLOW Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Error Messages Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Page Error Page Number Compatible Peripherals Verification Kit HP 86029B 7-mmVerifkation Kit Test Port Return Cables HP 11867D 7-mml&t Port Return Cable Set HP 11867B 75 Ohm Type-NTest Port Return Cable Set Transistor Test Fixtures HP 11600B and 11602B lkansistor Fixtures HP 11608A Option 003 Transistor Fixture HP 11868A Transistor Fixture Adapter Power Limiters System Cabinet System Testmobile Plotters and Printers These plotters are compatible: These printers are compatible: Mass Storage HP-IBCables Interface Cables Keyboards ‘Ihble 1 l-l.Keyboard ‘lkmplate Definition Analyzer Function Keyboaxd Kety Name Controller Sample Software External Monitors I&commended Color Monitors: External Monitor Requirements: Connecting the Peripheral Device Figure 11-l.Peripheral Connections to the Analyzer If the Peripheral is a Printer If the Peripheral Is a Plotter HPGIA Compatible Printer (used as a plotter) Page Page Page Page HP 87533 Network Anulgzer Programmer’s tii& Desrription of the Hewlett-Rzckurd Intefface Condensed Lbcription of the Page Page Page Page Page Page Page Page HP 87533 Network Analyzer Programmer’s Programmer’s Preset State and Memory Allocation Page Page Page Page Page Page Page Page Page Page Page The CITIfile Data Format and Keyword Reference Page Page Page Page Page Page Page Determining System Measurement Uncertainties Page Page Page Page Page Page Page Page Page Page Page Index