Analyzer Display | HP 8753E specification

Analyzer Display

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DATA DISPLAY

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Figure 1-2. Analyzer Display (Single Channel, Cartesian Format)

The analyzer display shows various measurement information:

nThe grid where the analyzer plots the measurement data.

nThe currently selected measurement parameters.

nThe measurement data traces.

Figure l-2 illustrates the locations of the different information labels described below.

In addition to the full-screen display shown in Figure l-2, multi-graticule and multi-channel displays are available, as described in “Using the Four-Parameter Display Mode” in Chapter 2, “Making Measurements. *

Several display formats are available for different measurements, as described under “(jj)” in Chapter 9, “Key Definitions”

1.Stimulus Start Value. This value could be any one of the following:

n The start frequency of the source in frequency domain measurements. H The start time in CW mode (0 seconds) or time domain measurements n The lower power value in power sweep.

When the stimulus is in center/span mode, the center stimulus value is shown in this space. The color of the stimuhis display reflects the current active channel.

HP 6753E Description and Options l-7

Image 42

HP 8753E manual Analyzer Display Single Channel, Cartesian Format

Contents

User’s Guide HP Rut No -90367 Supersedes October Printed iu USA February @ Copyright Hewlett-Packard Company 1998 Certification Wmanty Clean the cabinet, using a damp cloth only MaintenanceShipment for Service Assistance ‘Iktble O-1. Hewlett-Packard Sales and Service OfEces JspaJp Fb@me Safety Symbols Instrument Markings General Safety Considerations Acoustic Noise Emission/Geraeuschemission Compliance with German FTZ Emissions RequirementsCompliance with German Noise Requirements LpA70 dB Lpa70 dD User’s Guide Overview Network Analyzer Documentation Set Page Declaration of Conformity Contents Page Making Mixer Measurements LO to RF Isolation RF Feedthrough Printing, Plotting, and Saving Measurement Results Optimizing Application and Operation Concepts Uncoupling StimuIus Values Between Primary Channels Contents-ll C0ti0ntr-8 Calibrated Power Level TRL* Error Model Isolation Source match and load matchTRL Calibration Procedure Requirements for TRL Standards Loss of Power Meter Calibration Data Locking onto a signal with a frequency modulation component Transforming CW Time Measurements Into the Frequency Domain Specifications and Measurement Uncertainties Compatible Peripherals Error MessagesMenu Maps Key Definitions 11-l 11-2 11-3 11-4 11-5 11-6 11-7 11-8 11-9 Preset State and Memory Allocation CITIfUe Data Format and Keyword Reference Determining System Measurement Uncertainties Index Example of Searching for a Bandwidth Using Markers DisplayResults Gate Shape Measurement Setup Diagram Shown on Analyzer DisplayTime Domain Transmission Example Measurement Measurement Contents-19 Reflection Measurement of Two Cables 128 Range Resolution of a Siie DiscontinuityCombined Effects of Amplitude and Phase Modulation Response 134 Range of a Forward Transform Measurement Diagram of Gain CompressionModulation Amplifier Parameters Bles Results of Power Loss to Non-Volatile Memory 12-12 Sufhx Character Definitions 12-5 Preset Conditions 1 12-8Power-on Conditions versus Preset 12-11 12-3 Where to Look for More Information HP 87533 Description and Options Analyzer Description ControlPerformance Accuracy Printin& Plotting, and Saving Front Panel Features Disk eject button HP 5753E Dessription and Options l-5 HP-IB Status indicators are also included in this block Analyzer Display Analyzer Display Single Channel, Cartesian Format Application and Operation Concepts See J%I@ in , Key Definitions From inactive channels 10 HP 8753E Description and Options Rear Panel Features and Connectors %.n. This fan provides forced-air cooling for the analyzer Pass TTLhigh Fail ITLlow Analyzer Options Available Service and Support Options Option lCP, Rack Mount Flange Kit With Handles Differences among the HP 8753 Network Analyzers Lhble l-l. Comparing the J3P 8753AIBKYD ‘able 1-2. Comparing the HP 8753D and HP 8753E Making Measurements Principles of Microwave Connector Care ‘lhble 2-l. Connector Care Quick Reference Basic Measurement Sequence Setting the Frequency RangeBasic Measurement Sequence and Example Basic Measurement Example Setting the Measurement Setting the Source PowerLb change the power level to -5 dRm, press ‘lb set the span to 30 MHz, press &gziJm Measure the device under test Using the Display Functions Example Dua.l Channel With Split Display On To Save a Data Trace to the Display Memory Lb View the Measurement Data and Memory TraceI............s..........i To Divide Measurement Data by the Memory Trace ‘RI Ratio Measurements in Channel 1Analyzer performs a vector subtraction on the complex data To Title the Active Channel Display Example of a Display TitlePage Channel Display To Activate and Co&lgure the Auxilkry Channels Duplexer’s three ports are Smith chart by pressing @GZ $#$Z~B&KXCharacterizing a Duplexer Transmit TX Press= Procedure for Characterizing a DuplexerRequired Equipment Port an unlit LED indicates no connection D. F%ess @G-T to activate channel 4, press $%$.‘ Duplexer Measurement Using Analyzer Display Markers To Use Continuous and Discrete Markers ‘Ib switch off all of the markers, press ~~~ To Activate Display MarkersOr ~~~~~7 Tb Move Marker Information off of the Grids PRnl Rlllllllllll Lb Use Delta a MarkersPress jj ~~~~~~~~ ‘~~~~, to m&e marker 1 a reference maker Lb Activate a Fixed Marker ‘Ib change the reference marker to marker 2, press Log Fiag 10 dfl, REF -50 d6 16 415 dB To move the reference position, press Or enter a value from the front panel keypad To Use Polar Format Markers To access the polar markers, press‘lb Couple and Uncouple Display Markers For the display channels ~~~~~~~ ~~~~~~ To Use Smith Chart MarkersSin 0, where M=magnitude ‘j3JU ‘lb Set Measurement Parameters Using Markers 17. Example of Impedance Smith Chart Markers Setting the Start Frequency Setting the Center Frequency Fl i t-11I 22. Example of Setting the Reference Value Using a Marker Value. .... ... y Setting the CW Frequency 23. Example of Setting the Electrical Delay Using a Marker ‘lb Search for a Specific Amplitude Searching for the Maximum Amplitude Searching for the Minimum Amplitude Example of Searching for a Beget Amplitude Using a Marker Searching for a ‘beget Amplitude~~~~~ ad Press ~~~~~~ MarkerFctn‘~~~~~~~ Bandpass or band reject shape on the measurement trace 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 ResponseConnect your test device as shown in Figure Measuring Insertion Phase Response 30. Example Magnitude Response Measurement Results 32. Phase Samples Measuring Electrical Length Measuring Electrical Length and Phase DistortionPhase Distortion Electrical Length 34. Linearly changing Phase Measuring Phase Distortion Deviation From Linear Phase Group Delay 36. Deviation From Linear Phase Example Measurement 37. Group Delay Example Measurement III 11 I 11 11 MHZ Setting Up the Measurement Parameters Lksting a Device with Limit Lines Creating Flat Limit Lines 41. Example Flat Limit Line Creating a Sloping Limit Line 42. Example Flat Limit Lines ~9~~~~~~ ~~@#g This example procedure, the following limits are set Creating Single Point Limits Editing Limit Segments Deleting Limit Segments Bnnning a Limit Tkst Reviewing the Limit Line SegmentsActivating the Limit Test Offsetting Limit Lines Making Measurements Measuring Gain Compression Lb produce a normalized trace, perform the following steps @ @ to change the scale to 1 dB per division Lb place the marker eax.ct& on a measurement point, press Press LMenu ~~~~~~~~~~ gaw,, $ Enter the start and stop power levels for the sweep~~~~~~~~~~~ ~~~~~~~ ~~~ ~~~ Mif Rress cmJ j-1 ~~~~~~~~~.~~~ ~~~..~~~~,~~~ 48. Gain Compression Using Power Sweep Tiess c~isplay ~~~~,~~~~~~~~~~ ~~~~~~~~~~ Measuring Gain and Reverse Isolation SimultaneouslyPress *F p#~~~.p~~~~6~~~~’ To channel 1 and channel 49. Gain and Reverse Isolation Measurements Using the Swept List Mode Connect the Device Under TestSet the following measurement parameters Observe the Characteristics of the Filter To set up the swept list measurement, pressChoose the Measurement Parameters ~~~~~~~~~ l-loJ Ixl ~~~~~~~~~~ m LxlGp&g ~~~ Calibrate and Measure KG&’Press iJk&~ ~~~~~~~~~~~~~h 53. Filter Measurement Using Swept List Mode Measurements Using the Tuned Receiver Mode Typical test setupTuned receiver mode in-depth description External Source Requirements Tkst Sequencing Creating a Sequence 55. ‘l&t Sequencing Help Instructions Running a Sequence Stopping a Sequence Inserting a Command ‘Ib delete the selected command, press =J backspace keyEditing a Sequence Modifying a Command Clearing a Sequence from Memory You stop at each character Naming Files Generated by a SequenceChanging the Sequence Title Lb complete the titling, press %@@ Storing a Sequence on a Disk Purging a Sequence from Disk Procedure and then follow the printing sequenceLoading a Sequence from Disk Printing a Sequence Cascading Multiple Example Sequences To run both sequences, press MKR Fctn Loop Counter Example SequenceStart of Sequence Trans FWD s21 B/R To run the loop sequence, press Generating Files in a Loop Counter Example Sequence Plot llle names generated by this sequence will be Limit Test Example SequenceData file names generated by this sequence will be ‘lb nm the sequence, press This will create a displayed list for sequence 1, as shown Recall FlEG Measuring Swept Harmonics Option 002 Only Fundamental frequenciesSet the start frequency to a value greater than 16 MHz 57 nd Harmonic Power Level in dBc Gating Measuring a Device in the Time Domain Option 010 OnlyTransmission Response in Time Domain Connect the device as shown in Figure 59. Time Domain Transmission Example Measurement Gating in a Time Domain Transmission Example Measurement ‘able 2-2. Gate Characteristics Fiiure 2-61. Gate Shape Gating Effects in a Frequency Domain Example Measurement Reflection Response in Time Domain 64. Device Response in the Frequency Domain Front panel keypad after each key press 65. Device Response in the Time Domain Non-coaxial Measurements Where to Look for More Information Making Mixer Measurements Minimizing Source and Load Mismatches Eliminating Unwanted Mixing and Leakage SignalsMeasurement Considerations Reducing the Effect of Spurious Responses Down Converter Port Connections Frequency Offset Mode Operation Differences Between Internal and External R Channel InputsJfqyw B Channel External Connection Power Meter Calibration Conversion Loss Using the Frequency Offset Mode Page Network Analyzer Power Meter POW-N&OR ~~/...~ . . . . T.,, .. L? Jal~.i To view the measurement trace, press Conversion Loss Example Measurement High Dynamic Range Swept RF/IF Conversion Loss 10. Connections for Broad Band Power Meter Calibration 11. Connections for Eeceiver Calibration Filter External LO Source 13. Example of Swept if Conversion Loss Measurement Tuned Receiver Mode Sequence 1 SetupFixed if Mixer Measurements Press the following keys on the analyzer to create sequence ~~~~~,~~ ~ .~~~~~~~~~~~ Im ~~~~ CaUing the Next Measurement Sequence Done List Freq B Sequence 2 Setup Following sequence commands Measurement Completed 16. Example Fixed if Mixer Measurement Phase or Group Delay Measurements 17. Counections for a Group Delay Measurement To make a response error-correction, press Scale the data for best vertical resolution Amplitude and Phase Tracking Conversion Compression Using the Frequency Offset Mode Pg634e Make the connections as shown in Figure Mixer Under Test External LO Source Measurements setup diagram is shown in Figure ~~~~~~ ~~~~~~~~~,~~ Example Swept Power Conversion Compression Measurement Isolation Example Measurements LO to RF Isolation Refer to , Optinking Measurement Results 26. Connections for a Mixer Isolation Measurement RF Feedthrough 27. Example Mixer ID to RF Isolation Measurement 28. Connections for a Response Calibration 30. Example Mixer RF Feedthrough Measurement Printing, Plotting, and Saving Measurement Results Printinfl, Plotting, and Saving Measurement Results Printing or Plotting Your Measurement Results Conf@uring a Print Function ~.~.~.~.~.~..~.~ ....ii.........i..~~~ Defining a Print Function Black and white from a color printer If Yim Are Using a Color Printer To Reset the Printing Parameters to Default ValuesPrinting One Measurement Per I i i Printing Multiple Measurements PerPage ~............../i If Yim Are Plotting to a Pen Plotter Then @ii. &g. Mti Plot function as follows ~,~,~ If You Are Plotting to a Disk Drive S K E J E C T T T O N L Defining a Plot Function Choosing Display ElementsSelecting Auto-Feed Selecting Pen Numbers and Colors Corresponding Key Selecting Line Types Channel Choosing Scale Press ~&&&&& mtd the selection appears that you want Plotting One Measurement Per Page Using a Pen Plotter To Reset the Plotting Parameters to Default Values Plotting Multiple Measurements Per Page Using a Pen Plotter Plot Quadrants 8 Printing, Plotting, and Saving Measurement Results Plotting a Measurement to Disk Automatic File Naming Convention for LIF Format To View Plot Files on a PC To Output the Plot Files Using AmiPro Using Freelance Outputting Plot Files from a PC to a Plotter Store the Hpgl initialization sequence Outputting Single Page Plots Using a Printer Store the exit Hpgl mode and form feed sequence Outputting Multiple Plots to a Single Page Using a Printer PLOTOO.RL PLUTOO.RU Plotting Multiple Measurements Per Page From Disk ‘lb Plot Multiple Measurements on a Full PL0TOOFPD To Plot Measurements in Page Quadrants 11. Plot Quadrants Titling the Displayed Measurement Confqjuring the Analyzer to Produce a Time Stamp Aborting a Print or Plot ProcessIf Ibu Want a Single Page of Values If You Want the Entire List of Values Solving Problems with Printing or Plotting What You Can Save to the Analyzer’s Internal Memory Places Where Ybu Can SaveSaving and Recalling Instrument States What You Can Save to a Floppy Disk What You Can Save to a Computer Peripheral Access Saving an Instrument State Saving Measurement Results Deline Save ModificationFlexibility II Dnring Ad enter the &-ive where your &Sk is located See Ascii Data Formats. ’ Ascii Data Formats S2P Data Format Template for component data fiIes is as follows Comment line Re-Saving an Instrument State ‘lb Delete an Instrument State File Renaming a File ~~~~.~~~~~ Solving Problems with Saving or Recalling Files If Yim Are Using an External Disk DriveFormatting a Disk Optimizing Measurement Results Temperature Drift Connector RepeatabilityInterconnecting Cables Increasing Measurement Accuracy Frequency Drift Performance VerificationReference Plane and Port Extensions Measurement Error-Correction Conditions Where Error-Correction is SuggestedTypes of Error-Correction Error-Correction Stimulus State When to Use Interpolated Error-Correction Calibration Standards ~~~~~~~~~~ Procedures for Error-Correcting Your Measurements Frequency Response Error-Corrections Response Error-Correction for Reflection Measurements Network Analyzer Response Error-Correction for Transmission Measurements 2J. $!B Receiver Calibration Standard Connections for Receiver Calibration Results chapter for procedures Frequency Response and Isolation Error-Corrections Pg612e Optimizing Measurement Results Ad enter at leaf, four times more One-Port Reflection Error-Correction Connect your device under test Open Short Loag Open Short Load For S Optimizing Measurement Results Full Two-Port Error-Correction For Reflection For Transmission For Isolation To pORT 2, ad use the ~~~~~~~~~., ~~~~~~~~~~ Page T&M* Error-Correction TRL Error-Correction TRMError-Correction Come& the lOad to Port 2 a& press ~~~~~.,~~~~~ Page ~~~~~ Or ~~~~ Modifying !L’RL Standards @ Lxl ~~~~~~~~~~~ Modifying TRM Standards Assign the Stadards to the Various TRM Classes Iabel the Classes Page Entering the Power Sensor Calibration Data Editing Frequency SegmentsPress ~,~~ and enter the segment number followed by xl Compensating for Directional Coupler Response Deleting Frequency Segments Using Sample-and-Sweep Correction Mode Sample-and-Sweep Mode for Power Meter Calibration Using Continuous Correction Mode KGE To Calibrate the Analyzer Receiver to Measure Absolute Power Calibrating for Noninsertable Devices 10. Noninsertable Device Adapter Removal 11. Adapters Needed 12. ‘lko-Port Cal Set Remove the Adapter 14. Cklibrated Measurement Verify the Results Example Program MAtched Adapters NON-INSERTABLE Dewce Modify the Cal Kit Thru Deilnition To Improve Measurement Results Cause of Measurement ProblemsMaking Accurate Measurements of Electrically Long Devices Decreasing the Sweep Rate Decreasing the Time Delay To Use Swept List Mode Detecting if DelayIncreasing Sweep Speed Option Lb Set the Auto Sweep Time ModeIb Decrease the Frequency Span Option 006 Lb Widen the System Bandwidth ‘lb Reduce the Averaging Fktor‘Ib Reduce the Number of Measurement Points Select the sweep type Lb Set the Sweep TypeLb View a Single Measurement Channel Points are of interest ‘lb Use Fast a-Port Calibration To Activate Chop Sweep ModeTo Use External Calibration Lb activate the continuous mode, press ‘lb enter the number of sweeps, press To Reduce the Receiver Noise Floor To Increase the Test Port Input PowerIncreasing Dynamic Range Changing System Bandwidth To Activate Averaging Reducing Trace NoiseReducing Receiver Crosstalk To Change System Bandwidth Reducing Recall Time ~~~~~~~~~ ~~~~~~~~~.. f#jy %&ig ~~$fj& , /.. P Understanding Spur Avoidance Where to Look for More Information Application and Operation Concepts Signal-separation devices Receiver Display HP 8753E System OperationBuilt-In Synthesized Source Microprocessor Built-In ‘I&t SetReceiver Block Required Peripheral Equipment Data Processing Flow Diagram Data Processing Processing Details Pre-Raw Data Arrays ~...... .A....u.........s....i Transform Option 010 Only Active Channel Keys Auxiliary Channels and Two-Port CalibrationChannel 3 without pressing chanj twice Multiple Channel Displays Entry Block KeysEnabling Auxiliary Channels Uncoupling Stimulus Values Between Primary Channels Units Terminator KnobStep Keys Modifyiug or Deleting Entries Stimulus Functions Defining Ranges with Stimulus Keys Stimulus Menu Power Menu Understanding the Power Ranges Power Range Transitions in the Automatic Mode Power Coupling Options Channel couplingTest port collpling Sweep Time Manual Sweep Time ModeAuto Sweep Time Mode Minimum Sweep Time ‘12l.ble 6-1. Minimum Cycle Time in seconds Continuously and the trace is updated with each sweep Trigger Menu Feature Source Attenuator Switch ProtectionAllowing Repetitive Switching of the Attenuator Specified number of sweeps is completed. Channel Stimulus Coupling ‘. . . . . . . .,‘....’ Sweep Type Menu Segment Menu Logarithmic Frequency Sweep HzStepped List Frequency Sweep Hz Loss of calibration Stepped Edit Subsweep Menu Parameters can also be saved with an instrument state Power Ii ,.,,,, ....i,..... ...c .i i Selecting Sweep Modes Power Sweep dBmCW Time Sweep Seconds Calibration section Auxihary channel is enabled Response Functions Parameters Understanding S-Parameters S-parameter menu contains the following softkeys Deilnition Conversions, as these formats are not easily interpreted Format Menu Log Magnitude Format ~......, .~Are available by means of which softkeys / .‘~ ~~~.,..~~~ Phase Format Group Delay Format Smith Chart Format 13. Group Delay Format 14. Standard and Inverse Smith Chart Formats Polar Format Linear Magnitude Format SWR Format Real Format Ima@naryFormat Group Delay Principles 19. Constant Group Delay 21. Rate of Phase Change Versus Frequency Application and Operation Concepts Or ~~~~~~~~~~ Electrical DelayScale Reference Menu Assuming a relative permeability Display Menu Dual Channel Mode Single graticule see -23a 4 Application and Operation Concepts Chapter for more information on this condition Four-Parameter Display FunctionsCustomizing the Display Ble Provides a quick way to set up a four-parameter display Is sele&ed ~~~~6~~~~~ @ves you two choices for a Yellow, indicating that the keys in yellow apply to channel PRRI=IMETER Shortcut Keys Setting Display Intensity Memory Math F’unctionsTwo trace math operations are implemented Setting Default Colors \/ii Yellow 100 Numeric keypad, until the desired color appearsRed 100 Green 100 Averaging Menu AveragingFollowing softkeys are located within the averaging menu Smoothing If Bandwidth Reduction 27. if Bandwidth Reduction Markers 28. Bbkers on Trace IMarker Menu Marker type Marker Function Menu Is displayed What Is Accuracy Enhancement? Measurement Calibration What Causes Measurement Errors? Directivity Source Match Isolation crosstalk Frequency Response Tracking Characterizing Microwave Systematic Errors One-Port Error Model 34. Effective Directivity EDF 36. Reflection Tracking Em 38. Measured Effective Directivity 40. Open Circuit ?Lkrmina.tion Device Measurement 42. Bhjor Sources of Error + !T + I Reverse S,2M 44. Load Match Em 45. Isolation Em 46. Full Two-Port Error Model 47. Full Two-Port Emor Model Equations Device Measurements Calibration ConsiderationsMeasurement Parameters Omitting Isolation Calibration Calibration Standards Frequency Response of Calibration Standards Electrical Offset Open W Ql.7~J How Effective Is Accuracy Enhancement? 50. Response versus S 11 l-Port CMibration on Smith Chart Correcting for Measurement Errors Ensuring a Valid CalibrationFollowing softkeys are located within the correction menu Interpolated Error-correction ~or-co~e&on is on or off Press I- j~~~~~~~~~~ Response and Isolation Calibration Calibrate MenuResponse Calibration S11 and S22 One-Port Calibration TRL*/LRM* Two-Port Calibration Restarting a Calibration Cal Kit MenuSelect Cal Kit Menu Definitions ProcedureModifying Calibration Kits Following are definitions of terms Modify Calibration Kit Menu Detie Standard Menus TIhble 6-5. Standard DelInitions Application and Operation Concepts Impedance different from system ZO Described nextCharacters ~~,~~~~~~~ Label Standard Menu ‘Ihble 6-6. Slamlard Class Assignments Calibration. For default calibration kits, this is the thru Calibration Verification procedure may be used Verify performanceCal kit menu. It will be saved with calibration sets Why Use TRL Calibration? TRL%RM* CalibrationTRL lkrminology TRL* Error Model How !CRL*/LRM* Calibration Works IsoIation Same during the isolation calibration and the measurement Source match and load match Frequencies is often times physically impossible 54. Typical Measurement Set up No loss. Characteristic impedance ZO need not be known LengthRequirements Where = frequency l=lengthofline Let Fl = 1000 MHz Application and Operation Concepts Or match &n&d ~~~~~~~~ .gQ or to the system WhereSelections under this menu Menu and ~~~~~~~~. with the defie timdad menu me ignored Is used to set the reference plane ~~~~~~~..~~~ Associated with power meter calibration Power Meter CalibrationCalibrated Power Level Primary Applications Loss of Power Meter Calibration Data Interpolation in Power Meter CalibrationPower Meter Calibration Modes of Operation 55. ‘I&t Setup for Continuous Sample Mode Power Sensor Calibration Factor List Network Analyzer Power Meter Power Sensor Number of Beadings Sweep Time Characteristic SpeedandAccuracy Corrected Alternate and Chop Sweep Modes 57. Alternate and Chop Sweeps Overlaid Matched Adapters Modify the Cal Kit Thru Definition Using the Instrument State Functions 58. Instrument State Function Block HP-IB Menu = talk mode = service request SRQ asserted by the analyzer HP-IB Status IndicatorsSystem Controller Mode ~.&.. .?....bLi.... ...l Gpio Mode Using the Parallel PortCopy Mode Instrument Limits Menu ~~~~~..~~~~~ provides access to the instrument mode menuSystem Menu Ikmi% tiih Edit Limits Menu Offset Limits Menu External Source Mode Knowing the Instrument ModesPage ‘lhble 6-8. External Source Capture Ranges CW=e BangeIf you press @KJ ~~~~~~~~~~ Pical Test Setup 60. Typical ‘l&t Setup for a Frequency Offset Measurement Application and Operation Concepts 61. Typical Harmonic Mode ‘I&t Setup To OFF to allow alternating sweeps Bhximum Fundamental Frequency Time Domain Operation Option Transform Menu General Theory Time Domain Bandpass 63. a Reflection Measurement of Two Cables Transmission Measurements Using Bandpass Mode ‘I&ble 6-10. Time Domain Reflection Formats Setting frequency range for time domain low pass Fault Location Measurements Using Low Pass Reflection Measurements In Time Domain Low Pass E M E N T E P R E S P O N S E P U L S E R E S P O N S E Transmission Measurements In Time Domain Low Pass PgBlQ6-c 69. Transmission Measurements Using Low Pass Impulse Mode Time Domain Concepts Masking 70. Masking Example Sidelobes 10 90% = 100 x lo-’ seconds Where AF’ is the spacing between frequency data pointsExample = 100 x lo-’ 6 x 3 x l$ m/s Resolution \I I 75. Sequence of Steps in Gating Operation ‘able 6-13. Gate Characteristics Transforming CW Time Measurements Into the Frequency Domain I i iiiii t Forward Transform Measurements 78. Combined Effects of Amplitude and Phase Modulation ~~~~~~ 80. Range of a Forward Transform Measurement Wst Sequencing Type of Command Size in Bytes Active entry command 1 per digitZoF the ~~~~~~~~ Results for each input power level applied to the amplifier Sequencing Menu Parallel in ETS OUT Bits Sequence Decision Making Menu Commands require you to enter the destination sequenceSequencing Special Functions Menu Decision Making Functions HP-GLConsiderations Entering HP-GL Commands Naming Files Generated by a Sequence Plot absolute HP-GL command PA Label HP-GL comman& Ia Amplifier Tksting Amplifier parameters Gain Compression 85. Diagram of Gain Compression Metering the power level Frequency Offset Mixer TestingDifficulty selecting the correct signal to measure Tuned Receiver Mixer Parameters That You Can Measure Accuracy Considerations Attenuation at Mixer Ports Filtering J j j i 92.Examples of Up Converters and Down Converters You a s&& either ~~~~~,~~~~~ or ~~~~,~~~~,~ 93. Down Converter Port Connections 94. Up Converter Port Connections Conversion Loss IsolationLOFeedthru/LOtoRFLedage SWR / Return Loss Phase Measurements Conversion Compression Amplitude and Phase Tracking Phase Linearity and Group Delay Applicationmd OperationConcepts Adapters Reflected SignalConnection Considerations Worst Case System DiBtiVity 28d.B 17dEI 14 dE3 Fixtures If You Want to Design Your Own Fixture Reference Documents General Measurement and Calibration TechniquesFixtures and Non-Coaxial Measurements On-Wafer Measurements Specifkations and Measurement Uncertainties Dynamic Range HP 8753E Measurement Port Specifications HP 8763E 6OQ with 7-mm Test Ports Frequency Range HP 8763E SO@ with Type-N Test Ports HP8753E Wiih HP85032B Calibration Kit HP 8763E SO@W with 3.6~mm Test Ports HP8753E Wiih HP85033D Calibration Kit HP 8763E 76Q with Type-N Test Ports GHz to 3 GHz Applies at 26 f6 C t Typical Performance 15dB,30kHzto6OkHz HP 8763E 7612 with Type-F Test Ports Instrument Spectications ‘lhble 7-12. HP 8753E Instrument Specifications 1 ‘Ihble 7-12. HP 8753E Instrument Specifkations 2 ‘lhble 7-12. HP 8753E Instrument Specifications 3 ‘Ihble 7-12. HP 8753E Instrument Specifhtions 4 ‘Ihble 7-12. EP 8753E Instrument Speciikations 5 ‘Ihble 7-12. EIP 8753E Instrument Specifications 6 HP 8763E Network Analyzer General Characteristics Measurement Throughput Summary Rear Panel Connectors Front Panel ConnectorsProbe Power Remote Programming External Auxilhry Input AUX Input Video Output VGA OUT Parallel Port Line PowerDisplay Pixel Integrity 232 Environmental Characteristics General Conditions Weight Cabinet DimensionsInternal Memory Page Menu Maps Page Menu Maps IrCOPY Page Format Menu LOG MAG DELA,’ Smith Chart Polar LIN MAG SWR MAX + RefIFWD MenuMaps SAVE/RECALL MEN + Save State Recall MenuYaps Page MenuMaps Pg657e Key Definitions Guide Tkrms and Conventions Analyzer Functions Set to the current adive -ker position, using the ~~~ Key Definitions At the St& of the averaging or following ~~~~~~~~~~ Ad for specifying the calibration s-d=& used. me ~~~ Key Dsfinitions Key Definitions Mo&fication.\ ~~~~~~~~lt~\brings up the printer color ~~~~~~~~~~~~~~~ the preset condition, both channels have Key Definitions 8-l 2 Key Definitions Sequence position Sequence 1 through 6. ~~~~~~~~ Key Definitions S21 ~~~~~~~ Key Definitions 8 Key Definitions Key Definitions 9-l With the &@&ElV &3 softkey, if it is to be used later Turns limit. .I lines on or off. lb define limits, use Key Definitions B-21 Stimulus menu Switched on. Thirty lines of data are listed on eachLxm Edit subsweep menu. Up to 30 frequency subsweeps Ldab AlO Wfset ILocal Let G .m4 LWX $%QXlXl% Sequence Filenaming #F$ F4MEt + ,START Couples the marker stimulus values for the two display Stimulus settingsHold mode for one measurement Allows the marker stimulus values to be controlled Moves the active marker to the minimum point on the trace Selects the calibration standard load as being offset Completes the selection in the Offset Load MenuIs used to omit the isolation portion of the calibration Drn SB When editing a sequence, False Tg .&ZLlZGT appears when you With the plotter Configures the analyzer for a plotter that has a parallelIs used to set the same power levels at each port Directs plots to the selected disk internal or external Allows you to set different power levels at each port Frequency and power loss value FRXif Hii tXWR Key Definitions Key Definitions RsE#kswa, Value KRSPti#SE Measures the reverse isolation of the calibration standard Gggs&fi ’F7 Key is disabled if ‘~~~~~~~ is set to ~~~ ~~~~~~~~~~ menu Key Definitions Kay Definitions To temate the smdwd definition Key Definitions Key Definitions Is used to specify the arbitrary impedance of the standard, ~~~~~~~~~~~~~ Men ~~~~~~~~ or ~~~~~~~~ is pressed, a Key Definitions B-61 ~~~~~~~~~~ above Key Definitions Cross Reference of Key Function to Programming Command Anab Menucal M4HEH DEFAULT,. i?RXllT f%KtVP ?lZAXJ.LT CXtLUH MARKF-AUV OFFlPon #iv Harmoff Lintdata Markmidd Ofls Titp Pric ‘fhble Cross Reference of Key Function to Programm ingbmmand Resd Labesbba Stop Limtsl Seatarg Trackoff Yellow Softkey Locations ‘Ittble 9-2. Softkey Locations SoftkeyFront-Panel Access Key ‘Ihble 9-2. Softkey Locations Key Definitions Key Definitions ~~~ ~~~~~~~~~ Able 9-2. Softkey Locations SoftkeyFront-Panel Access Key Key Definitions Lhble 9-2. Softkey Lacations SoftkeyFront-Panel Access Key $84 Iey Definitions ‘lhble 9-2. Softkey Locations SoftkeyFront-Panel Access Key ‘lhble 9-2. Softkey Locations SoftkeyFFont-Panel Access Key Ble 9-2. Softkey Locations SoftkeyFront-Panel Access Key ‘lhble 9-2. Softkey Locations SoftkeyFront-Fanel Access Key ’hble 9-2. Softkey Locations ‘lhble 9-2. Softkey Locations SoftkeyFront-Rmel Access Key ‘Ihble 9-2. Softkey Locations SoftkeyFront-Panel Access Key ‘able 9-2. Softkey Locations Able 9-2. Softkey Locations SoftkeyFront-Panel Access Key 7hble 9-2. Softkey Locations ISoftkeyFront-Panel Access Key ‘Ihble 9-2. Softkey Locations Error Messages Error Messages in Alphabetical Order Analog BUS Disabled IN6KHZ if BW Ascii Missing ‘VAR’ Statement Blockinputlengthehhor CANTSTORE/LOADSEQUENCE, Insufficientmemory Correction and Domain Reset Deadlock Diskis Writeprotected Duplicating to this Sequence not Allowed File not Found ~ ..~~~.. .. .., .,~~,~ IFBWKEYDISABLED, Editlistmodetbl Error Number You pressed an undefined softkey 9in progress. Start a new calibration Order to use the ~~~~,~~~ softkey function Error Number See error number Error Number See error number 57 Plot Aborted Error Number The parallel port printer is not accepting data PRINT/PLOTINPROGRESS, Abortwithlocal Probepowershut Down Selectedsequenceisenpty Slides Aborted Memoryreallocation Sweep, pres LMenu ~~~~~~ ~~~~~~, or ~~~~~~~~~ TOO Manynested SEQUENCES. SEQ Aborted WAITINGFORHP-IB Control Error Messages in Numerical Order Error Error Messages 1O-28 IN-zErl Device not on, not connect, wrong addrs No Memory Available for Sequencing List Mode OFF Invalid with LO Freq Error Number Analog BUS Disabled in 6 KHZ if BW Compatible Peripherals Calibration Kits Verification Kit Test Port Return CablesAdapter Kits Power Limiters Transistor Test Fixtures System Cabinet System Testmobile Mass Storage HP-IB CablesInterface Cables Analyzer Function Keyboards‘Ihble 1 l-l. Keyboard ‘lkmplate Definition Keyboaxd Analyzer Function Kety Name External Monitors ControllerSample Software Commended Color Monitors Connecting the Peripheral Device Peripheral Connections to the Analyzer Cotiguring the Analyzer for the Peripheral If the Peripheral is a Printer =.~~~~~.........~.......~ Print function as follows Until the correct function appearsAppears Z...... iizz......ii.w.....A........w..i.i ‘.’ .~ HP 436A HP 437B or 438A Enter the HP-IB address of the power meter, followed by @Enter the volume number Press Local and select one of the following Configuring the Analyzer to Produce a Time Stamp Press $m$&& ad enter the au-rent year, fdlowed by Ixl HP-IB Programming Overview HP-IB Operation Device Types HP-IB Bus Structure Unaddress and revert to an idle state Data lines carry device-dependent instructions or data SRQ Service RequestREN Remote Enable EOI End or Identify Complete device clear Full-acceptor handshakeDoes not respond to parallel poll No extended listener capabilities HP-II3 Status Indicators = ‘IU mode = Service request SRQ asserted by the analyzer System-Controller Mode Next lower address Analyzer Command Syntax Code Naming Convention Valid Characters KHz Kilohertz US Microseconds MHz Megahertz HP-II3 Debug ModeUser Graphics GHz Gigahertz Preset State and Memory Allocation Types of Memory and Data Storage Non-Volatile Memory Preset State and Memory Allocation Storing Data to Disk ‘&ble 12-2. SuiIix Character Definitions Using Saved Calibration Sets Conserving Memory Preset State Register in which it is stored ‘Ihble 12-3. Preset Conditions 1 ‘lhble 12-3. Preset Conditions 2 Able 12-3. Preset Conditions 3 An instrument state are cleared Default color valuesTaker/listener Sequence 1 through 5 are erased 9600 HP-IB Addresses are set to the following defaults HP 8753EPower Meter Type is set to HP 438A/437 Xon-Xoff CITIfile Data Format CITIllle Keyword Reference Data part This section will dehne the following terms Package HeaderHeader part CITIFILEA.0190 23491E-3,-1.39883E-3 00382E-3,-1.40022E-3 CITIfile Keyword #NA VERSIONHP8510B.05.00 Data Sl,l RI Example 4,861O S-Term Frequency List Cal Set F’ile Conclusion CITINe Keyword Reference Variable Don’t change when the independent variable changesIs supported in revision A.O1.OO Commonly used array names include the following Sources of Measurement Errors Determining System Measurement Uncertainties Sources of Random Errors Abl, Ab2 = dynamic accuracy = frequency Sources of Additional Measurement Errors Measurement Uncertainty Equations Reflection Phase Uncertainty Erp Transmission Uncertainty Equations Efnf = effective noise floor Transmission Phase Uncertainty Etp Dynamic Accuracy Procedures Determining Expected System Performance Characteristic Vdues ‘lhble Measurement Uncertainty Worksheet 1 Page Page Page 75Q Impedance option Mm test ports SpecificationsGHz operation option Active Enabling Allowing repetitive switching Switch protection ~~~~~~ 4Format, 419 auto sweep time mode Key To key cross reference, 9-54 compatible Group delay measurement Connecting peripherals, 1 l-8 connections, 6 AdaptersMode Down converter port Conhguring Definition Calibration standards, 5-27 delay Deviation from linear phase measurementElectrical Delete display option, 1-13 deleting DTl responds to a group execute trigger Linear magnitude, 6-36 log magnitude, 6-32 phaseDisplay functions, 6-42 color Increasing Limitations, 7-l E2 W-state drivers, 11-19 edit Swept if conversion loss measurement ESD precautions Exammmg calibration constants, 5-27 exampleSignal flow in a mixer Fan location, l-11 Area of display, l-10 arrays Menu, 6-32 giizj zkzz Frequency domain concepts, 6-125-145 transform from CW timeReceiver and source requirements, 6-122 receiver frequency Measure electrical length and phase distortion Calibrate the analyzer receiver to measure absolute powerIsolation, 5-14 error-correct for full two-port Define the print Domain Set auto sweep time modeSet frequency span with markers, 2-29 set source power Print a sequence Print multiple measurements per Hpgl LIF Input ports menu 6-51 It, 6-11 @J, 6-78 0, 6-11 @jiiJ, 6-42 entry, 6-9-l InstAent state, 6-110-116 &iJList values Softkey labels, l-10 softkeys Low pass modeMagnitude and insertion phase response measurement LOG MKR, 2-25 Loop counter sequence Parameters set with markers, 2-26 sequence Measurement frequencies, diagram, 3-10 measurement pointsUsing swept list mode 75Q type-F test ports 75Q type-N test ports Iavp Accuracy Amplitude and phase tracking, 6-167 attenuationTuned receiver mode Up conversion @g$, 8-6 @iii,8 68-7 Multiple sequence cascading New features to the analyzer, l-2 ~~~~CaI kit thru definition, 5-47 modifying Sequence Printing or plotting, 4-30 operation Peripheral Points Datahow to reduceParameters set with markers, 2-26 center frequency ~~~~.~~~ 4 Polar or Smith format markers, 2-22 port 1 and port2, l-6 Multiple measurements per Solving problems ‘amji$J& useConfiguration, 4-4, 49, 11-9 mode Printing or plotting list values or operating parameters Values Resetting the printing parameters to default values Error-correction for one-port reflection measurementsModifying Trmm calibration standards Offsetting limit lines Response error-correction for reflection measurements Using ~~~~~ to .&jvate a tied Setting center frequency with markersUsing delta a markers Viewing the measurement data and memory trace Procedures Running Relative velocity for time domain, 2-90 remote controlRetention, 4-33 Re/Im MKR, 2-25, 2-26 relative Searching for values with markers, 2-32 bandwidth Service request asserted by the analyzer S @iG Specify Spectral purity characteristics, 7-10 spurious signalsStop frequency Setting with markers Stopping Standarddehnitions Entering Testing with Iimit lines, 2-46 testmobile Test set Test set switch, controlling the, 5-54 test using limits Forward transform mode, 6-126 gatingActive channel display, 2-9 titling Type-N calibration standard sex, 5-6 type-N test ports How to setWeight Widen system bandwidth, 5-52 windowing Time domain Understanding S-parameters, 6-29 units