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Fluke 5522A Operators, Operator'S Manual

The Fluke 5522A Operators Manual is a comprehensive guide essential for operating the Fluke 5522A calibrator. Download this invaluable manual for free from our website to ensure precise measurements and optimal performance. Unlock the full potential of your equipment with this essential user manual, available in downloadable format at manualshive.com.

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 xv 

 

List of Figures 

Figure  

Title  Page 

1-1. 5522A 

Multi-Product 

Calibrator ............................................................................ 1-3 

1-2.  RS-232 Remote Connection...................................................................................  1-6

 

1-3.   Allowable Duration of Current >11 A ...................................................................  1-10

 

2-1.  How to Access the Fuse and Select Line Voltage..................................................  2-5

 

2-2.  Line Power Cord Types Available from Fluke ......................................................  2-6

 

3-1. Front-Panel 

Features .............................................................................................. 

3-4

 

3-2. Rear-Panel 

Features ............................................................................................... 

3-10

 

3-3.  Setup Softkey Menu Tree.......................................................................................  3-12

 

3-4.  SETUP Softkey Menu Displays.............................................................................  3-13

 

4-1.  EARTH and EXGRD Internal Connections...........................................................  4-9

 

4-2.  UUT Connection: Resistance (Four-Wire Compensation) ....................................  4-12

 

4-3.  UUT Connection: Resistance (Two-Wire Compensation).....................................  4-12

 

4-4.  UUT Connection: Resistance (Compensation Off)................................................  4-13

 

4-5.  UUT Connection: Capacitance (Two-Wire Compensation) ..................................  4-13

 

4-6.  UUT Connection: Capacitance (Compensation Off) .............................................  4-14

 

4-7.  UUT Connection: DC Voltage/AC Voltage...........................................................  4-14

 

4-8.  UUT Connection: DC Current/AC Current ...........................................................  4-15

 

4-9.  UUT Connection: Temperature (RTD) ..................................................................  4-15

 

4-10.  UUT Connection: Temperature (Thermocouple)...................................................  4-16

 

4-11. Sine Wave .............................................................................................................. 4-42

 

4-12. Triangle Wave........................................................................................................ 4-42

 

4-13.  Square Wave and Duty Cycle ................................................................................  4-43

 

4-14.  Truncated Sine Wav...............................................................................................  4-43

 

4-15. Measuring Pressure ................................................................................................ 4-52

 

4-16.  Two Calibrators Sourcing Current in Parallel........................................................  4-54

 

4-17. Three-Phase Power Calibration..............................................................................  4-55

 

4-18.  Cable Connections for Testing an 80 Series General Functions ............................  4-56

 

4-19.  Cable Connections for Testing an 80 Series Current Function ..............................  4-58

 

4-20.  Cable Connections for Testing an 80 Series High Amps Function........................  4-59

 

4-21.  Cable Connections for Testing a 40 Series Watts Function...................................  4-61

 

4-22.  Cable Connections for Testing a 50 Series Thermometer......................................  4-64

 

5-1.  Typical IEEE-488 Remote Control Connections ...................................................  5-4

 

5-2.  Typical RS-232 Remote Control Connections.......................................................  5-6

 

5-3.  Testing the IEEE-488 Port .....................................................................................  5-8

 

5-4.  Testing the RS-232 Host Port.................................................................................  5-12

 

Summary of Contents for 5522A Operators

Page 1: ...1 Fluke Corporation All rights reserved Printed in USA Specifications are subject to change without notice All product names are trademarks of their respective companies 5522A Multi Product Calibrator Operators Manual ...

Page 2: ... nearest Fluke authorized service center to obtain return authorization information then send the product to that service center with a description of the difficulty postage and insurance prepaid FOB Destination Fluke assumes no risk for damage in transit Following warranty repair the product will be returned to Buyer transportation prepaid FOB Destination If Fluke determines that failure was caus...

Page 3: ...ical shock hazard the operator should not electrically contact the output HI or sense HI terminals or circuits connected to these terminals During operation lethal voltages of up to 1020 V ac or dc may be present on these terminals Whenever the nature of the operation permits keep one hand away from equipment to reduce the hazard of current flowing through vital organs of the body ...

Page 4: ......

Page 5: ...9 DC Voltage 1 9 DC Current 1 9 Resistance 1 11 AC Voltage Sine Wave 1 12 AC Current Sine Wave 1 14 Capacitance 1 16 Temperature Calibration Thermocouple 1 17 Temperature Calibration RTD 1 18 DC Power Specification Summary 1 18 AC Power 45 Hz to 65 Hz Specification Summary PF 1 1 19 Power and Dual Output Limit Specifications 1 19 Phase 1 20 Additional Specifications 1 21 Frequency 1 21 Harmonics 2...

Page 6: ...tup Menu 4 4 How to Use the Instrument Setup Menu 4 5 Utility Functions Menu 4 6 How to Use the NV Memory Menu 4 6 How to Reset the Calibrator 4 7 How to Zero the Calibrator 4 7 Operate and Standby Modes 4 8 How to Connect the Calibrator to a UUT 4 8 Recommended Cable and Connector Types 4 9 When to Use EARTH and EXGRD 4 9 Earth 4 9 External Guard 4 10 Four Wire versus Two Wire Connections 4 10 Fo...

Page 7: ...s 4 55 How Calibrate an 80 Series Digital Multimeter 4 55 Cables 4 56 EARTH Connection 4 56 How to Test the Meter 4 56 How to Calibrate the Meter 4 60 How to Test a Model 41 Power Harmonics Analyzer 4 60 How to Test Watts VA VAR Performance 4 60 How to Test Harmonics Volts Performance 4 62 How to Test Harmonics Amps Performance 4 63 How to Calibrate a Fluke 51 Thermometer 4 64 How to Test the Ther...

Page 8: ...sponse Message Syntax 5 33 Checking 5522A Status 5 34 Serial Poll Status Byte STB 5 35 Service Request SRQ Line 5 37 Service Request Enable Register SRE 5 37 Programming the STB and SRE 5 37 Event Status Register ESR 5 38 Event Status Enable ESE Register 5 38 Bit Assignments for the ESR and ESE 5 38 Programming the ESR and ESE 5 39 Instrument Status Register ISR 5 40 Instrument Status Change Regis...

Page 9: ...ns Time Marker Function 9 6 Trigger Signal Specifications Edge Function 9 6 Trigger Signal Specifications Square Wave Voltage Function 9 6 Trigger Signal Specifications 9 6 Oscilloscope Input Resistance Measurement Specifications 9 6 Oscilloscope Input Capacitance Measurement Specifications 9 6 Overload Measurement Specifications 9 7 Oscilloscope Connections 9 7 How to Start the SC600 Option 9 7 T...

Page 10: ...tion 9 34 AC Voltage Frequency Verification 9 35 Wave Generator Amplitude Verification 1 MΩ Output Impedance 9 35 Wave Generator Amplitude Verification 50 Ω Output Impedance 9 37 Leveled Sine Wave Verification Amplitude 9 38 Leveled Sine Wave Verification Frequency 9 39 Leveled Sine Wave Verification Harmonics 9 39 Leveled Sine Wave Verification Flatness 9 40 Edge Verification Amplitude 9 48 Edge ...

Page 11: ...y and Voltage 10 17 The MORE OPTIONS Menu 10 17 How to Sweep Through a Frequency Range 10 18 Oscilloscope Frequency Response Calibration Procedure 10 19 How to Calibrate the Time Base of an Oscilloscope 10 20 The Time Marker Function 10 21 Time Base Marker Calibration Procedure for an Oscilloscope 10 22 How to Test the Trigger functions of an oscilloscope 10 22 How to Test Video Triggers 10 24 How...

Page 12: ...Flicker Simulation Mode 11 7 Sags Swells Simulation Mode 11 7 Phase Specifications Sinewave Outputs 11 7 Composite Harmonics Function Volts 11 8 How to Enter the PQ Modes 11 8 How to Create Composite Harmonic Waveforms 11 8 The Wave Selection Menus 11 8 RECALL WAVE 11 9 SAVE WAVE 11 9 NEW WAVE 11 9 EDIT WAVE 11 9 How to Create New Waves 11 9 Harmonic Number 11 10 Harmonic Amplitude 11 10 Phase 11 ...

Page 13: ...1 19 How to Set the Sag Swell Width 11 19 How to Set the Sag Swell Amplitude 11 19 How to Set Triggers 11 19 Example 11 20 Delta Δ Amplitude Single Sags Swells Function Current 11 20 Delta Δ Amplitude Mode AMPS 11 20 How to Set Triggers 11 21 How to Set the Ramp up Period 11 21 How to Set the Sag Swell Width 11 21 How to Set the Sag Swell Amplitude 11 21 Delta Δ Amplitude Mode Volts and Amps 11 21...

Page 14: ...5522A Operators Manual x ...

Page 15: ...iring 5 22 5 3 RS 232 Emulation of IEEE 488 Messages 5 22 5 4 IEEE 488 Interface Messages Received 5 26 5 5 IEEE 488 Interface Messages Sent 5 27 5 6 Commands for RS 232 Only 5 29 5 7 Commands for IEEE 488 Only 5 30 5 8 Units Accepted in Parameters and Used in Responses 5 30 5 9 Terminator Characters 5 32 5 10 Response Data Types 5 33 5 11 Status Register Summary 5 34 6 1 Common Commands 6 3 6 2 E...

Page 16: ... Flatness 9 40 9 11 SC600 Option Edge Verification Amplitude 9 48 9 12 SC600 Option Edge Verification Frequency 9 48 9 13 SC600 Option Edge Verification Duty Cycle 9 49 9 14 SC600 Option Edge Verification Rise Time 9 49 9 15 SC600 Option Tunnel Diode Pulser Verification 9 49 9 16 SC600 Option Marker Generator Verification 9 50 9 17 SC600 Option Pulse Generator Verification Period 9 50 9 18 SC600 O...

Page 17: ...tor Verification 10 53 10 19 SC1100 Option Pulse Generator Verification Period 10 54 10 21 SC1100 Option Pulse Generator Verification Pulse Width 10 54 10 21 SC1100 Option Input Impedance Verification Resistance 10 55 10 22 SC1100 Option Input Impedance Verification Capacitance 10 55 11 1 PQ Option Verification Table 11 28 ...

Page 18: ...5522A Operators Manual xiv ...

Page 19: ...nection DC Voltage AC Voltage 4 14 4 8 UUT Connection DC Current AC Current 4 15 4 9 UUT Connection Temperature RTD 4 15 4 10 UUT Connection Temperature Thermocouple 4 16 4 11 Sine Wave 4 42 4 12 Triangle Wave 4 42 4 13 Square Wave and Duty Cycle 4 43 4 14 Truncated Sine Wav 4 43 4 15 Measuring Pressure 4 52 4 16 Two Calibrators Sourcing Current in Parallel 4 54 4 17 Three Phase Power Calibration ...

Page 20: ... Service Request Enable SRE 5 37 5 10 Event Status Register ESR and Event Status Enable ESE 5 39 5 11 Bit Assignments for the ISR ISCEs and ISCR 5 41 7 1 Accessing the Fuse 7 5 7 2 Current Fuse Replacement 7 6 7 3 Accessing the Air Filter 7 7 9 1 Oscilloscope Connection Channel and External Trigger 9 7 9 2 Tunnel Diode Pulser Connections 9 15 10 1 Oscilloscope Connection Channel and External Trigg...

Page 21: ... 12 AC Current Sine Wave 1 14 Capacitance 1 16 Temperature Calibration Thermocouple 1 17 Temperature Calibration RTD 1 18 DC Power Specification Summary 1 18 AC Power 45 Hz to 65 Hz Specification Summary PF 1 1 19 Power and Dual Output Limit Specifications 1 19 Phase 1 20 Additional Specifications 1 21 Frequency 1 21 Harmonics 2nd to 50th 1 21 AC Voltage Sine Wave Extended Bandwidth 1 22 AC Voltag...

Page 22: ...5522A Operators Manual 1 2 ...

Page 23: ...rature Detectors RTDs Simulated output for eleven types of thermocouples 0 1 2 3 4 5 6 7 8 9 ENTER M k m V Hz F OPR STBY EARTH SCOPE EXGRD MENU PREV SHIFT RESET CE SETUP REF NEW TC MEAS F n p W dBm sec C POWER A MULT x DIV MODES MORE HI LO TRIG GUARD TC 20A NORMAL AUX SCOPE OUT V RTD A SENSE AUX V 20V PK MAX 20V PK MAX FIELD EDIT 5522A CALIBRATOR gjh001 eps Figure 1 1 5522A Multi Product Calibrato...

Page 24: ... ANSI UL 61010 1 2004 EN 61010 1 2001 In this manual a Warning identifies conditions and actions that pose hazards to the user A Caution identifies conditions and actions that may damage the Calibrator or the equipment under test Symbols used in this manual and on the Product are explained in Table 1 Table 1 1 Symbols Symbol Description Symbol Description CAT I IEC Measurement Category I CAT I is ...

Page 25: ...nection protection This protection senses applied voltages higher than 20 volts on the output terminals It quickly disconnects the internal circuits from the output terminals and resets the calibrator when such overloads occur For current and aux voltage functions user replaceable fuses supply protection from overloads applied to the Current Aux Voltage output terminals The fuses are accessed by a...

Page 26: ...TO UUT serial port See Chapter 6 for a discussion of the UUT_ commands The SERIAL 2 TO UUT port is also used to connect to the Fluke 700 Series Pressure Modules 0 1 2 3 4 5 6 7 8 9 ENTER M k m V Hz F OPR STBY EARTH SCOPE EXGRD MENU PREV SHIFT RESET CE SETUP REF NEW TC MEAS F n p W dBm sec C POWER A MULT x DIV MODES MORE 5522A CALIBRATOR HI LO TRIG GUARD TC 20A NORMAL AUX SCOPE OUT V RTD A SENSE AU...

Page 27: ...for operators The set includes 5522A Operators Manual on included CD ROM PN 3795084 5522A Getting Started Manual PN 3795091 One of each manual listed above is shipped with the instrument Order additional copies of the manuals separately using the part number provided For ordering instructions refer to the Fluke Catalog or ask a Fluke sales representative see Service Information in Chapter 2 5522A ...

Page 28: ...to 40 C 40 to 50 C Storage 95 non condensing After long periods of storage at high humidity a drying out period with power on of at least one week may be required Altitude Operating 3 050 m 10 000 ft maximum Non operating 12 200 m 40 000 ft maximum Safety Complies with EN IEC 61010 1 2001 CAN CSA C22 2 No 61010 1 04 ANSI UL 61010 1 2004 Output Terminal Electrical Overload Protection Provides rever...

Page 29: ...V 20 mV 100 V to 1020 000 V 10 5 mV 20 mV Auxiliary Output dual output mode only 1 0 to 329 9999 mV 0 5 μV 20 μV 0 33 to 3 299999 V 0 20 μV 200 μV 3 3 to 7 V 0 100 μV 1000 μV 1 Two channels of dc voltage output are provided DC Current Absolute Uncertainty tcal 5 C ppm of output μA Range 90 days 1 year Resolution Max Compliance Voltage V Max Inductive Load mH 0 to 329 999 μA 120 0 02 150 0 02 1 nA ...

Page 30: ... 20 nA 200 nV 0 to 32 9999 mA 200 nA 2 0 μA 0 to 329 999 mA 2000 nA 20 μA 0 to 2 99999 A 20 μA 1 mA 0 to 20 5 A 200 μA 10 mA Ambient 0 C 20 C 10 C 30 C 40 C Current Amps Minutes per Hour Duty Cycle 0 10 20 30 40 60 70 80 50 5 10 15 20 25 30 35 40 45 50 0 11 12 13 14 15 16 17 18 19 20 nn326f eps Figure 1 3 Allowable Duration of Current 11 A A ...

Page 31: ... to 0 05 mA 330 kΩ to 1 099999 MΩ 25 32 2 10 1 1 μA to 0 018 mA 1 1 to 3 299999 MΩ 40 60 30 150 1 250 nA to 5 μA 3 3 to 10 99999 MΩ 110 130 50 250 10 250 nA to 1 8 μA 11 to 32 99999 MΩ 200 250 2500 2500 10 25 nA to 500 nA 33 to 109 9999 MΩ 400 500 3000 3000 100 25 nA to 180 nA 110 to 329 9999 MΩ 2500 3000 100000 100000 1000 2 5 nA to 50 nA 330 to 1100 MΩ 12000 15000 500000 500000 10000 1 nA to 13 ...

Page 32: ... 100 kHz 550 125 700 125 0 20 200 μV 0 33 V to 3 29999 V 100 kHz to 500 kHz 2000 600 2400 600 10 μV 10 mA 0 20 200 μV 1 10 Hz to 45 Hz 250 650 300 650 0 15 2 mV 45 Hz to 10 kHz 125 600 150 600 0 035 2 mV 10 kHz to 20 kHz 220 600 240 600 0 08 2 mV 20 kHz to 50 kHz 300 600 350 600 0 2 2 mV 3 3 V to 32 9999 V 50 kHz to 100 kHz 750 1600 900 1600 100 μV 10 mA 0 5 2 mV 45 Hz to 1 kHz 150 2000 190 2000 0...

Page 33: ... 20 Hz to 45 Hz 0 08 450 0 1 450 0 06 200 μV 45 Hz to 1 kHz 0 07 450 0 09 450 0 08 200 μV 1 kHz to 5 kHz 0 15 1400 0 2 1400 0 3 200 μV 5 kHz to 10 kHz 0 3 1400 0 4 1400 0 6 200 μV 0 33 V to 3 29999 V 10 kHz to 30 kHz 4 0 2800 5 0 2800 10 μv 5 mA 1 200 μV 10 Hz to 20 Hz 0 15 450 0 2 450 0 2 200 μV 20 Hz to 45 Hz 0 08 450 0 1 450 0 06 200 μV 45 Hz to 1 kHz 0 07 450 0 09 450 0 08 200 μV 1 kHz to 5 kH...

Page 34: ...o 1 kHz 0 035 2 0 04 2 0 05 0 07 5 μA 1 to 5 kHz 0 065 2 0 08 2 1 5 0 3 5 μA 5 to 10 kHz 0 16 3 0 2 3 1 5 0 7 5 μA 3 3 to 32 9999 mA 10 to 30 kHz 0 32 4 0 4 4 10 1 0 0 5 μA 50 10 to 20 Hz 0 15 20 0 18 20 0 05 0 15 50 μA 20 to 45 Hz 0 075 20 0 09 20 0 05 0 05 50 μA 45 Hz to 1 kHz 0 035 20 0 04 20 0 05 0 02 50 μA 1 to 5 kHz 0 08 50 0 10 50 1 5 0 03 50 μA 5 to 10 kHz 0 16 100 0 2 100 1 5 0 1 50 μA 33...

Page 35: ...may be provided 60 T I minutes any 60 minute period where T is the temperature in C room temperature is about 23 C and I is the output current in Amps For example 17 A at 23 C could be provided for 60 17 23 20 minutes each hour When the 5522A is outputting currents between 5 and 11 amps for long periods the internal self heating reduces the duty cycle Under those conditions the allowable on time i...

Page 36: ...99 μF 0 19 3 nF 0 25 3 nF 10 pF 10 to 300 Hz 800 Hz 1 kHz 3 3 to 10 9999 μF 0 19 10 nF 0 25 10 nF 100 pF 10 to 150 Hz 450 Hz 650 Hz 11 to 32 9999 μF 0 30 30 nF 0 40 30 nF 100 pF 10 to 120 Hz 250 Hz 350 Hz 33 to 109 999 μF 0 34 100 nF 0 45 100 nF 1 nF 10 to 80 Hz 150 Hz 200 Hz 110 to 329 999 μF 0 34 300 nF 0 45 300 nF 1 nF 0 to 50 Hz 80 Hz 120 Hz 0 33 mF to 1 09999 mF 0 34 1 μF 0 45 1 μF 10 nF 0 to...

Page 37: ... 84 0 to 250 0 48 0 57 250 to 100 0 38 0 50 250 to 400 0 28 0 35 100 to 25 0 12 0 16 400 to 1000 0 26 0 33 25 to 350 0 10 0 14 R 1000 to 1767 0 30 0 40 350 to 650 0 12 0 16 0 to 250 0 47 0 47 E 650 to 1000 0 16 0 21 250 to 1000 0 30 0 36 210 to 100 0 20 0 27 1000 to 1400 0 28 0 37 100 to 30 0 12 0 16 S 1400 to 1767 0 34 0 46 30 to 150 0 10 0 14 250 to 150 0 48 0 63 150 to 760 0 13 0 17 150 to 0 0 ...

Page 38: ...260 0 06 0 07 0 to 100 0 07 0 08 260 to 300 0 07 0 08 PtNi 385 120 Ω Ni120 100 to 260 0 13 0 14 300 to 400 0 08 0 09 400 to 600 0 08 0 10 Cu 427 10 Ω 3 100 to 260 0 3 0 3 Pt 3916 100 Ω 600 to 630 0 21 0 23 200 to 80 0 03 0 04 80 to 0 0 03 0 04 0 to 100 0 04 0 04 100 to 260 0 04 0 05 260 to 300 0 11 0 12 300 to 400 0 12 0 13 400 to 600 0 12 0 14 Pt 385 200 Ω 600 to 630 0 14 0 16 1 Resolution is 0 0...

Page 39: ...ds of an output current 10 A Power and Dual Output Limit Specifications Frequency Voltages NORMAL Currents Voltages AUX Power Factor PF dc 0 to 1020 V 0 to 20 5 A 0 to 7 V 10 to 45 Hz 33 mV to 32 9999 V 3 3 mA to 2 99999 A 10 mV to 5 V 0 to 1 45 to 65 Hz 33 mV to 1020 V 3 3 mA to 20 5 A 10 mV to 5 V 0 to 1 65 to 500 Hz 330 mV to 1020 V 33 mA to 2 99999 A 100 mV to 5 V 0 to 1 65 to 500 Hz 3 3 to 10...

Page 40: ...dder 2 current 2 voltage 2 power U U U U VARs uncertainty VARsadder 2 current 2 voltage 2 VARs U U U U Because there are an infinite number of combinations you should calculate the actual ac power uncertainty for your selected parameters The method of calculation is best shown in the following examples using 1 year specifications Example 1 Output 100 V 1 A 60 Hz Power Factor 1 0 Φ 0 Voltage Uncert...

Page 41: ... CLK set to ext the frequency uncertainty of the 5522A is the uncertainty of the external 10 MHz clock 5 μHz The amplitude of the 10 MHz external reference clock signal should be between 1 V and 5 V p p Harmonics 2nd to 50th Fundamental Frequency 1 Voltages NORMAL Terminals Currents Voltages AUX Terminals Amplitude Uncertainty 10 to 45 Hz 33 mV to 32 9999 V 3 3 mA to 2 99999 A 10 mV to 5 V 45 to 6...

Page 42: ... p p 1 Frequency 1 Year Absolute Uncertainty tcal 5 C of output of range 2 Max Voltage Resolution Normal Channel Single Output Mode 0 01 to 10 Hz 5 0 0 5 Two digits on each range 10 to 45 Hz 0 25 0 5 45 Hz to 1 kHz 0 25 0 25 1 to 20 kHz 0 5 0 25 2 9 to 92 999 mV 20 to 100 kHz 3 5 0 0 5 Six digits on each range 0 01 to 10 Hz 5 0 0 5 Two digits on each range 10 to 45 Hz 0 25 0 5 45 Hz to 1 kHz 0 25 ...

Page 43: ...ach range 0 01 to 10 Hz 5 0 0 5 Two digits on each range 10 to 45 Hz 0 25 0 5 45 Hz to 1 kHz 0 25 0 25 1 to 20 kHz 0 5 0 25 66 to 659 999 mV 20 to 100 kHz 5 0 0 5 Six digits on each range 0 01 to 10 Hz 5 0 0 5 Two digits on each range 10 to 45 Hz 0 25 0 5 45 Hz to 1 kHz 0 25 0 25 1 to 20 kHz 0 5 0 25 0 66 to 6 59999 V 20 to 100 kHz 5 0 0 5 Six digits on each range 0 01 to 10 Hz 5 0 0 5 Two digits ...

Page 44: ...t has a peak value of 5 V allowing a maximum offset up to 50 V to not exceed the 55 V maximum peak signal The maximum offset values shown above are for the minimum outputs in each range 3 For frequencies 0 01 to 10 Hz and 500 kHz to 2 MHz the offset uncertainty is 5 of output 1 of the offset range AC Voltage Square Wave Characteristics Risetime 1 kHz Typical Settling Time 1 kHz Typical Overshoot 1...

Page 45: ... 1 1 to 10 kHz 10 2 Six digits 10 to 45 Hz 0 25 0 5 45 Hz to 1 kHz 0 25 0 25 0 66 to 6 59999 mA 1 1 to 10 kHz 10 2 Six digits 10 to 45 Hz 0 25 0 5 45 Hz to 1 kHz 0 25 0 25 6 6 to 65 9999 mA 1 1 to 10 kHz 10 2 Six digits 10 to 45 Hz 0 25 0 5 45 Hz to 1 kHz 0 25 0 5 66 to 659 999 mA 1 1 to 10 kHz 10 2 10 to 45 Hz 0 5 1 0 45 Hz to 1 kHz 0 5 0 5 0 66 to 5 99999 A 2 1 to 10 kHz 10 2 45 to 500 Hz 0 5 0 ...

Page 46: ...5522A Operators Manual 1 26 ...

Page 47: ...Page Introduction 2 3 Unpack and Inspect 2 3 How to Replace the Mains Power Fuse 2 3 How to Select Line Voltage 2 4 How to Connect to Line Power 2 4 How to Select Line Frequency 2 4 How to Contact Fluke 2 6 Placement 2 7 Cooling Considerations 2 7 ...

Page 48: ...5522A Operators Manual 2 2 ...

Page 49: ...use the original container If it is not available you can order a new container from Fluke by indicating the Calibrator s model and serial number Table 2 1 Standard Equipment Item Model or Part Number Calibrator 5522A Line Power Cord See Table 2 2 and Figure 2 2 5522A Getting Started Manual 3795091 5522A Operators Manual on CD ROM 3795084 How to Replace the Mains Power Fuse Caution To prevent poss...

Page 50: ... A 250 V slow blow and reinstall the fuse compartment by pushing it back into place until the tab locks How to Connect to Line Power Warning To prevent possible electrical shock fire or personal injury Connect an approved three conductor mains power cord to a grounded power outlet Make sure that the Product is grounded before use Do not use an extension cord or adapter plug The calibrator is shipp...

Page 51: ...NSTRU CAUTION FOR FIRE PROTECTION REPLACE O WITH A 250V FUSE OF INDICATED RATING 0V SB 120 120 2 4 0 Changing Line Fuse Changing Line Voltage Line Voltage Indicator gjh004 eps Figure 2 1 How to Access the Fuse and Select Line Voltage Table 2 2 Line Power Cord Types Available from Fluke Type Voltage Current Fluke Option Number North America 120 V 15 A LC 1 North America 240 V 15 A LC 2 Universal Eu...

Page 52: ...ceive operating assistance or get the location of the nearest Fluke distributor or Service Center call USA 1 888 99 FLUKE 1 888 993 5853 Canada 1 800 36 FLUKE 1 800 363 5853 Europe 31 402 675 200 Japan 81 3 3434 0181 Singapore 65 738 5655 Anywhere in the world 1 425 446 5500 Or visit Fluke s Web site at www fluke com To register this product visit http register fluke com ...

Page 53: ... Baffles direct cooling air from the fan throughout the chassis to internally dissipate heat during operation The accuracy and dependability of all internal parts of the calibrator are enhanced by maintaining the coolest possible internal temperature You can lengthen the life of the calibrator and enhance its performance by observing the following rules The area around the air filter must be at le...

Page 54: ...5522A Operators Manual 2 8 ...

Page 55: ...3 1 Chapter 3 Features Title Page Introduction 3 3 Front Panel Features 3 3 Rear Panel Features 3 3 Softkey Menu Trees 3 3 ...

Page 56: ...5522A Operators Manual 3 2 ...

Page 57: ...ectors are shown in Figure 3 2 Each rear panel feature is described in Table 3 2 Softkey Menu Trees The Setup softkeys are identified in Figures 3 3 and 3 4 The Setup softkeys are associated with the 5522A Calibrator front panel S key The functions of the five softkeys are identified by label information displayed directly above each key The softkey labels change during operation so that many diff...

Page 58: ...les to within the specified accuracy m Displayed when the calibrator is making a measurement Thermocouple pressure and impedance measurement features only Displayed when the amplitude is specified as typical only and or reduced resolution This occurs when operating the 5522A in the extended bandwidth mode C Displayed when the amplitude is specified as typical only and or reduced resolution This oc...

Page 59: ...dition is earth disabled indicator off a The SCOPE Oscilloscope key activates or deactivates an oscilloscope calibration option if it is installed An indicator on the key indicates when the option is activated If an oscilloscope calibration option is not installed in the calibrator and the SCOPE key is pressed the calibrator displays an error message B The EXGRD External Guard key opens and closes...

Page 60: ...remote control G The CE Clear Entry key clears a partially completed keypad entry from the Control Display If there is a partially completed entry when CE is pressed the output is unaffected L e W The EDIT FIELD Edit Output Display Field key and associated left right arrow keys provide step adjustment of the output signals If any of these keys are pressed or the knob is rotated a digit on the Outp...

Page 61: ...her range U The MEAS TC Measure Thermocouple key enables the TC Thermocouple input connection and causes the 5522A to compute a temperature based on the voltage present at the input Output Units Keys The output units keys determine the function of the 5522A Some keys have a second unit if the SHIFT key is pressed just before the units key The output units are as follows V Voltage or Decibels relat...

Page 62: ...units keys and alternate multipliers of the multiplier keys These alternate selections are labeled with small letters in the upper left hand corner of the keys Numeric Keypad Used to enter the digits of the output amplitude and frequency The proper sequence to enter a value is to press the digits of the output value a multiplier key if necessary an output units key then ENTER For example to obtain...

Page 63: ...output when the 20 A range is selected 3 A 20 A The AUX Auxiliary Output terminals are used for ac and dc current outputs the second voltage output in dual voltage modes and ohms sense for 2 wire and 4 wire compensated resistance and capacitance measurements and RTD simulation The GUARD terminal is always connected internally to the internal guard shield This shield is tied to the NORMAL LO signal...

Page 64: ...ws changes to be written into memory and switching to NORMAL protects data in memory from being overwritten The switch is recessed to allow it to be covered with a calibration sticker to guarantee calibration integrity The SERIAL 2 TO UUT connector is used for transmitting and receiving RS 232 serial data between the 5522A and a Unit Under Test UUT or a Fluke 700 Series pressure module Chapter 6 R...

Page 65: ...ugh the line power cord ground wire The CHASSIS GROUND terminal is internally grounded to the chassis If the 5522A is the location of the ground reference point in a system this binding post can be used for connecting other instruments to earth ground Refer to Connecting the Calibrator to a UUT in Chapter 4 Front Panel Operation for details The AC Power Input Module provides a grounded three prong...

Page 66: ... Manual 3 12 SETUP X W A C G I B F C A D G E D A A A B O K H I L P M R Q N S T V U Y Z S 2 S 3 A Front Panel Key G 2 A F A E A J A G A H AK AL A F Next Section A H A F S 1 gjh006 eps Figure 3 3 Setup Softkey Menu Tree ...

Page 67: ... not pass error codes are displayed See chapter 7 Maintenance SERIAL displays the serial number of the instrument When corresponding with the factory always include the serial number of the instrument USER REPORT STRING CONTENTS refer to a string of characters entered by the user for reporting purposes B C D to AG gjh007 eps Figure 3 4 SETUP Softkey Menu Displays ...

Page 68: ...s not dependent on the CALIBRATION switch position All sets all calibration and setup constants to factory setting CAL set only calibration constants to factory settings SETUP resets instrument setup to factory default settings see Table 3 3 TMP STD temperature degree standard refers to its 90 1990 International Temperature Standard factory default and ipts 68 1968 International Provisional Temper...

Page 69: ... or none STALL refers to the method of controlling data flow software control xon off hardware control rts cts or none K to L HOST selects the IEEE 488 gpib factory default parallel port or RS 232 serial port You cannot operate both IEEE 488 and RS 232 simultaneously H to K to I to O gjh030 eps Figure 3 4 SETUP Softkey Menu Displays cont ...

Page 70: ...ts are 012 000 where the FF form feed character signals an advance to the next page and the NULL ignore character holds position When the NULL character is 000 then effectively the EOF is only the FF character or L for the factory M N L REMOTE I F Interface has selections term terminal factory default and comp computer EOL End of Line character is either Carriage Return Line Feed CRLF CR Carriage ...

Page 71: ... 0 1 2 3 4 5 6 7 levels 0 1 2 3 4 5 6 7 There are eight levels of contrast 0 to 7 for the Output Display and Control Display Each may have its own level of contrast The factory defaults are 7 and 7 There are eight levels of brightness 0 to 7 for the Output Display and Control Display Each may have its own level of contrast The factory defaults are 1 and 0 Q R levels 0 1 2 3 4 5 6 7 levels 0 1 2 3 ...

Page 72: ...5522A Operators Manual 3 18 S1 S2 to S3 S to S2 to T to S1 gjh032 eps Figure 3 4 SETUP Softkey Menu Displays cont ...

Page 73: ...line summary of the programmed output specifications U S3 to V to U The values set here become the new limits and can be changed only with new entries or returned to factory defaults using Format NV Memory SETUP see menu F T gjh012 eps Figure 3 4 SETUP Softkey Menu Displays cont ...

Page 74: ...Calibrator ERR ACT Error Action set backup abort or cont continue AB AC to AD to AE Only if scope option installed to AB to Z to X Select the desired CAL Calibration feature CAL to calibrate the 5522A see the Service Manual CAL DATES to review when the 5522A Calibrator was last calibrated CAL REPORTS to printout the calibration data Y Z gjh013eps Figure 3 4 SETUP Softkey Menu Displays cont ...

Page 75: ...AH to AJ to AG AH AE to AF Only if scope option installed GO ON and ABORT softkeys are used in the 5522A Calibrator calibration procedure See the Service Manual for more information AD to AF gjh033 eps Figure 3 4 SETUP Softkey Menu Displays cont ...

Page 76: ... 8 bits 1 stop bit xon xoff parity none 9600 baud I Host serial interface term 8 bits 1 stop bit xon xoff parity none 9600 baud CRLF 012 000 K L M N GPIB Port Address 4 O Display brightness Note level 1 0 P Display contrast Note level 7 7 P dBm impedance 600 Ω S Pressure units psi S RTD type pt385 S1 Thermocouple type K S1 Phase reference 0 00 S3 10 MHz reference clock internal S2 Current limits 2...

Page 77: ...rsus Two Wire Connections 4 10 Four Wire Connection 4 10 Two Wire Compensation 4 10 Compensation Off 4 10 Cable Connections Instructions 4 10 RMS Versus p p Amplitude 4 16 Auto Range Versus Locked Range 4 17 How to Set Output 4 17 How to Set DC Voltage Output 4 18 How to Set AC Voltage Output 4 19 How to Set DC Current Output 4 22 How to Set AC Current Output 4 23 How to Set DC Power Output 4 24 H...

Page 78: ...asure Pressure 4 51 How to Synchronize the Calibrator using 10 MHz IN OUT 4 52 How to Use an External 10 MHz Clock 4 52 How to Source AC Current and Parallel Connected 5522As 4 53 Three Phase Power Calibration 4 54 Sample Applications 4 55 How Calibrate an 80 Series Digital Multimeter 4 55 Cables 4 56 EARTH Connection 4 56 How to Test the Meter 4 56 How to Calibrate the Meter 4 60 How to Test a Mo...

Page 79: ... from the front panel For a description of front panel controls displays and terminals see Chapter 3 Features How to Turn on the Calibrator Warning To prevent possible electrical shock fire or personal injury make sure that the product is grounded before use Caution Before turning the Calibrator on make sure that the line voltage selection is set properly Refer to Selecting Line Voltage in Chapter...

Page 80: ...u key are called softkeys Softkey key functions are based on the label that appears directly above the key in the Control Display Pressing a softkey either changes a value or causes a submenu with new selections to appear on the Control Display Softkey menus are arranged in varying levels as described in Softkey Menu Tree in Chapter 3 You can move backwards to previous menu selections by repeatedl...

Page 81: ...ort string These features are explained under Utilities Function Menu later in this chapter How to Use the Instrument Setup Menu The softkeys in the instrument setup menu accessed by pressing INSTMT SETUP softkey in the Setup Menu are shown below nn065f eps The list below describes submenus accessed by each softkey OTHER SETUP Opens a menu that lets you toggle the degree reference between the 1968...

Page 82: ...ys in this menu require the rear panel CALIBRATION switch to be in the ENABLE position The nonvolatile memory contains calibration constants and dates setup parameters and the user report string In the case of calibration constants factory defaults are the same for all Calibrators They are not the calibration constants obtained when the Calibrator was calibrated by the factory before shipment The ...

Page 83: ...ero the calibrator Zeroing is particularly important when your calibration workload has 1 mΩ or 1 μV resolution and when there has been a significant temperature change in the Calibrator work environment There are two zeroing functions total instrument zero ZERO and ohms only zero OHMS ZERO Complete the following procedure to zero the calibrator Note The Calibrator rear panel CALIBRATION switch do...

Page 84: ...o 20 A or vice versa An overload condition is detected How to Connect the Calibrator to a UUT Warning The Calibrator is capable of supplying lethal voltages Do not make connections to the output terminals when a voltage is present Placing the instrument in standby may not be enough to avoid shock hazard since the O key could be pressed accidentally Press reset and verify that the STBY annunciator ...

Page 85: ...ions made by the Z and B keys Chassis ground Internal guard shield NORMAL LO signal ground NORMAL LO binding post Safety ground through ac line cord Lit open Not lit open EARTH EXGRD GUARD binding post nn003f eps Figure 4 1 EARTH and EXGRD Internal Connections Earth The Calibrator front panel NORMAL LO terminal is normally isolated from earth chassis ground When it is desired to make a connection ...

Page 86: ...ire two wire compensation COMP 2 wire and two wire no compensation COMP off See Setting Resistance Output and Setting Capacitance Output later in this chapter Note that compensated connections for capacitance are to compensate for lead and internal resistances not for lead and internal capacitances Four Wire Connection The four wire connection is typical for calibrating laboratory measurement equi...

Page 87: ...om Table 4 1 For capacitance outputs null out stray capacitance by connecting the test leads to the UUT routing them but not connecting to the Calibrator on a non conductive surface Null out the reading on the UUT using rel offset or null whichever method applies and then connect the test leads to the Calibrator Table 4 1 UUT Connections 5522A Output Figure Reference Resistance Capacitance DC Volt...

Page 88: ...UT SENSE SENSE SOURCE SOURCE gjh014 eps Figure 4 2 UUT Connection Resistance Four Wire Compensation 5522A CALIBRATOR 5522A UUT 87 TRUE RMS MULTIMETER MIN MAX RANGE HOLD H REL Hz mA A A m mV V V OFF PEAK MIN MAX A COM V mA A gjh015 eps Figure 4 3 UUT Connection Resistance Two Wire Compensation ...

Page 89: ...N MAX RANGE HOLD H REL Hz mA A A m mV V V OFF PEAK MIN MAX A COM V mA A gjh016 eps Figure 4 4 UUT Connection Resistance Compensation Off 5522A CALIBRATOR 87 TRUE RMS MULTIMETER MIN MAX RANGE HOLD H REL Hz mA A A m mV V V OFF PEAK MIN MAX A COM V mA A gjh017 eps Figure 4 5 UUT Connection Capacitance Two Wire Compensation ...

Page 90: ...REL Hz mA A A m mV V V OFF PEAK MIN MAX A COM V mA A gjh018 eps Figure 4 6 UUT Connection Capacitance Compensation Off 5522A CALIBRATOR 87 TRUE RMS MULTIMETER MIN MAX RANGE HOLD H REL Hz mA A A m mV V V OFF PEAK MIN MAX A COM V mA A gjh019 eps Figure 4 7 UUT Connection DC Voltage AC Voltage ...

Page 91: ...15 5522A CALIBRATOR 87 TRUE RMS MULTIMETER MIN MAX RANGE HOLD H REL Hz mA A A m mV V V OFF A COM V mA A PEAK MIN MAX gjh020 eps Figure 4 8 UUT Connection DC Current AC Current 5522A CALIBRATOR CHART RECORDER INPUT gjh021 eps Figure 4 9 UUT Connection Temperature RTD ...

Page 92: ...selected range is 3 3 to 32 9999 V If you then use the softkeys to change from a sine wave to a triangle wave for example the display changes from 6 V rms to 6 V p p This translates to 6 V p p x 0 2886751 1 73205 V rms and the range switches to 0 33 to 3 29999 V The Output Display shows the range change because the sine wave voltage is displayed as 6 0000 the resolution for the 3 3 to 32 9999 V ra...

Page 93: ... Output Setting the calibrator output is similar to entering values into a calculator press the keys that represent the value you desire and then press a units key to identify which of the volts amps hertz etc you want the value to represent The control display indicates the value and units you select as you type them into the calibrator Once you are satisfied with the value and units press E If t...

Page 94: ...oltage on the desired range 4 Press the numeric keys and decimal point key to enter the desired voltage output maximum seven numeric keys For example 123 4567 Note At voltage outputs of 100 volts and above nominal you may notice a slight high pitched sound This is normal 5 Press I to select the polarity of the voltage default is 6 Press a multiplier key if necessary For example press c 7 Press V 8...

Page 95: ...wing procedure to set an ac voltage output at the front panel NORMAL terminals If you make an entry error press G to clear the display then reenter the value Caution To prevent damage to the UUT verify the applied voltage to the UUT does not exceed the rating of the UUT insulation and the interconnection wiring 1 Press R to clear any output from the Calibrator 2 Connect the UUT as described earlie...

Page 96: ...l Display using the rightmost softkey 3 The Control Display now shows the amplitude of your entry For example 2 44949 V below nn073f eps 4 Press the numeric keys and decimal point key to enter the desired frequency output maximum five numeric keys Press a multiplier key if necessary For example press the kilo multiplier key K The press the H key For example 1 1234 kHz below nn074f eps 5 Press E Th...

Page 97: ... See Entering a DC Offset later in this chapter for more information When a voltage output is expressed in dBm voltage offset is not available You can enter an offset for a square wave output only when the duty cycle is 50 00 see DUTY above Φ REF MENUS Phase Difference and 10 MHz reference source Selects the phase difference between the NORMAL and AUX outputs selects internal or external 10 MHz re...

Page 98: ...e polarity of the current default is 6 Press a multiplier key if necessary For example press c 7 Press A 8 The Control Display now shows the amplitude of your entry For example 234 567 mA nn077f eps 9 Press E The calibrator clears your entry from the Control Display and copies it into the Output Display below is typical nn078f eps 10 Press O to activate the calibrator output A range softkey appear...

Page 99: ...int key to enter the desired current output maximum six numeric keys For example 123 456 5 Press a multiplier key if necessary For example press c 6 Press A 7 The Control Display now shows the amplitude of your entry For example 123 456 mA below nn079f eps 8 Press the numeric keys and decimal point key to enter the desired frequency output maximum five numeric keys Press a multiplier key if necess...

Page 100: ...nt types of waveforms sine wave triangle wave square wave and truncated sine wave See Waveform Types later in this chapter for more information Whenever a non sinusoidal waveform is selected the Output Display will convert the RMS reading to p p PP How to Set DC Power Output Note Tie the terminals NORMAL LO and AUX LO together at the UUT or at the Calibrator via the LO s softkey selection tied The...

Page 101: ...mple 123 4567 mV below nn071f eps 9 Press the numeric keys and decimal point key to enter the desired current output maximum six numeric keys For example 234 567 10 Press I to select the polarity of the current default is 11 Press a multiplier key if necessary For example press c 12 Press A 13 The Control Display now shows the amplitude of your entries For example 123 4567 mV and 234 567 mA below ...

Page 102: ...ge output in dBm this procedure assumes an ac voltage output in volts Complete the following procedure to set an ac power output If you make an entry error press G one or more times to clear the display then reenter the value Caution To prevent damage to the UUT verify the applied voltage to the UUT does not exceed the rating of the UUT insulation and the interconnecting wiring 1 Press R to clear ...

Page 103: ...splay now shows your entries For example 123 456 mV and 234 567 mA at 1 1234 kHz below nn086f eps 14 Press E The calibrator clears your entry from the Control Display and copies it into the Output Display below is typical nn087f eps 15 Press O to activate the calibrator output When changing power output levels you must reenter both voltage and current in either order Enter voltage or current and t...

Page 104: ...veform for the current output at the front panel AUX terminals See Waveform Types later in this chapter LO s Low Potential Output Terminals The front panel NORMAL LO and AUX LO terminals must be tied together either at the UUT or at the Calibrator When tied at the UUT select open The default is tied Φ REF MENUS Phase Difference and 10 MHz reference source Selects the phase difference between the N...

Page 105: ... Calibrator to a UUT 3 Set the UUT to measure dual dc voltage on the desired range 4 Press the numeric keys and decimal point key to enter the desired voltage output at the NORMAL terminals maximum seven numeric keys For example 123 4567 5 Press I to select the polarity of the voltage default is 6 Press a multiplier key if necessary For example press c 7 Press V 8 The Control Display now shows the...

Page 106: ...ia the LO s softkey selection tied The calibrator produces a dual ac voltage output by sourcing one ac voltage on the NORMAL outputs and a second on the AUX terminals Complete the following procedure to set a dual ac voltage output If you make an entry error press G one or more times to clear the display then reenter the value Caution Verify the applied voltage to the UUT does not exceed the ratin...

Page 107: ...minals upper reading and AUX terminals lower reading below is typical nn092f eps 12 Press the numeric keys and decimal point key to enter the desired frequency output maximum five numeric keys Press a multiplier key if necessary For example press the kilo multiplier key K Then press the H key For example 1 1234 kHz 13 The Control Display now shows your voltage and frequency entries For example 123...

Page 108: ... in this chapter for more information AUXWAVE Auxiliary Waveform Selects the waveform for the voltage at the front panel AUX terminals See Waveform Types later in this chapter for more information LO s Low Potential Output Terminals The front panel NORMAL LO and AUX LO terminals must be tied together either at the UUT or at the Calibrator When the front panel NORMAL LO and AUX LO terminals are tie...

Page 109: ...thesized output be sure the terminal connections from the Calibrator to the UUT are LO to LO and HI to HI 3 Set the UUT to measure resistance on the desired range 4 Press the numeric keys and decimal point key to enter the desired resistance output maximum six numeric keys For example 12 3456 5 Press a multiplier key if necessary For example press K 6 Press Q 7 The Control Display now shows the am...

Page 110: ...uctions for a procedure to null out stray capacitances due to the test cable connections Note Since this is a synthesized output be sure the terminal connections from the Calibrator to the UUT are LO to LO and HI to HI 3 Set the UUT to measure capacitance on the desired range 4 Press the numeric keys and decimal point key to enter the desired capacitance output maximum five numeric keys For exampl...

Page 111: ...gle the temperature reference between the 1968 International Provisional Temperature Standard ipts 68 and the 1990 International Temperature Standard its 90 see How to Use the Instrument Setup Menu Complete the following procedure to set a simulated thermocouple temperature output at the Calibrator front panel TC connector If you make an entry error press Gto clear the display then reenter the val...

Page 112: ... Press O to activate the calibrator output Four softkey labels appear on the Control Display Note The entered temperature will be cleared to 0 C 32 F if you change between tc and rtd or change the type of thermocouple except for a type B thermocouple which clears to 600 C C If this should occur select OUTPUT tc the desired thermocouple TYPE and then reenter the temperature ...

Page 113: ...nl External temperature reference source Select intrnl when the selected thermocouple has alloy wires and you are using the isothermal block internal to the Calibrator Select extrnl when using an external isothermal block and when the selected thermocouple has copper wires Press the REF softkey to enter the value of the external temperature reference The best accuracy is obtained when you use extr...

Page 114: ...ional Provisional Temperature Standard ipts 68 and the 1990 International Temperature Standard its 90 see How to Use the Instrument Setup Menu earlier in this chapter Complete the following procedure to set a simulated RTD temperature output at the front panel NORMAL terminals If you make an entry error press G to clear the display then reenter the value 1 Press R to clear any output from the Cali...

Page 115: ...erature Output Device Selects the temperature device thermocouple tc or resistance temperature detector rtd Select rtd COMP Compensation Applies 4 wire compensation 2 wire compensation or turns compensation off Compensation refers to methods of connecting the Calibrator to the UUT to cancel out test lead resistance See Four Wire versus Two wire Connections earlier in this chapter for more informat...

Page 116: ...lay below is typical The lower case m blinks on when a measurement is being taken nn107f eps Meas TC terminal Measurement at the front panel TC terminals Displays the actual dc voltage at the front panel TC terminals This is a display only not a softkey function TC MENUS Thermocouple Menus Opens the submenus supporting thermocouple ...

Page 117: ...ue of the external temperature reference REF Temperature Reference Displays the value of the temperature reference When the Reference Source is Internal the display shows the internal reference When the Reference Source is External the display shows the value you entered for external reference OFFSET Measurement Display Offset Selects an offset value to be added or subtracted from the actual measu...

Page 118: ...e Square Wave When the wave selection is square a square wave current or voltage signal is present on the calibrator outputs Figure 4 13 The variables for the square wave are duty cycle amplitude frequency and dc offset voltage Whenever a square wave is selected the Output Display indicates amplitude in p p units If the calibrator is set for a single voltage or current output the duty cycle of the...

Page 119: ...librator sources two signals with adjustable harmonic difference with a maximum harmonic frequency output of 10 kHz For example a 120 V 60 Hz signal can be set on the front panel NORMAL terminals and a 1 V 300 Hz 5th harmonic output on the AUX terminals The fundamental can be configured on either the NORMAL or the AUX terminals with the harmonic output on the opposite terminals Note that the maxim...

Page 120: ...ious menus How to Adjust the Phase When in the dual ac voltage and ac power output modes you can set the calibrator to source two signals with adjustable phase difference All phase adjustments shift the AUX waveform in relation to the NORMAL waveform Phase shift adjustments are entered either as degrees 0 to 180 00 or as a power factor PF A leading or positive phase shift causes the AUX waveform t...

Page 121: ...ration How to Adjust the Phase 4 4 45 gjh070 eps When one output is a harmonic of the other the phase shift is based on the phase angle or power factor cosine of the harmonic signal For example when the AUX output is ...

Page 122: ...ng phase angle of 123 45 degrees below SHOW PF appears only for sine waves nn111f eps 7 Press E The calibrator clears your entry from the New phase line and copies it to the Phase line of the Control Display 8 Press G one or more times to return to previous menus How to Enter a Power Factor Complete the following procedure to enter a phase shift as a power factor PF PF Cosine Φ where Φ is the phas...

Page 123: ...thin the range 6 6 to 65 9999 V p p a range that allows a maximum peak signal of 55 V For this example the square wave peak value is 5 V thus allowing a maximum offset of 50 V for a maximum peak signal of 55 V Check the specifications in Chapter 1 for offset limits If you are using an offset voltage and you cause the output to move into a range where offset is not allowed for example above 33 V fo...

Page 124: ...eference A new keypad entry E Establishes a new reference N Establishes the present output as a new reference X Sets the calibrator to ten times the reference value and establishes a new reference D Sets the calibrator to one tenth the reference value and establishes a new reference R Returns to the power up state How to Edit the Output Setting When you initially source an output from the Calibrat...

Page 125: ...thods of displaying the UUT error The first method called the nominal method is used in the Fluke 5700A 5720A 5500A and 5520A calibrators The second method is called true value Both methods are used in this Calibrator The nominal method of error calculation uses the formula reference value edit value reference value The nominal method is useful for checking the error of the Calibrator itself when ...

Page 126: ...greater than the limit from being activated by entry through the front panel keys or the output adjustment controls Positive limits for voltage and current set the limits for ac voltage and current Your limit selections are saved in the nonvolatile memory Voltage limits are expressed as rms values and any voltage offsets are ignored How to Set Voltage and Current Limits To set voltage and current ...

Page 127: ... a pressure measurement proceed as follows 1 Connect the 700 Series Pressure Module to the 700PCK input jack and connect the 700PCK power supply to line power 2 Using the adapter supplied by the 700PCK connect the serial data cable from the 700PCK to the SERIAL 2 TO UUT connector on the rear panel 3 Press the m key on the Calibrator This activates pressure mode 4 The Output Display shows the press...

Page 128: ...MHz IN OUT You can synchronize one or more Calibrators using the 10 MHz IN and OUT input output on the rear panel Example applications of this capability are connecting two or more calibrators in parallel in the current output function to sum their outputs or using three calibrators to calibrate a three phase power meter Another use for the 10 MHz IN reference input is to improve the frequency per...

Page 129: ...ource current greater than 20 A If you are sourcing ac current you must synchronize the calibrators in order to have their output currents in phase Proceed as follows to accomplish this 1 With both Calibrators in standby mode make the connections as shown in Figure 4 16 2 On Calibrator 2 the slave make the following settings Press the S key Press the following sequence of softkeys INSTMT SETUP OUT...

Page 130: ... You can configure three Calibrators to calibrate a three phase power meter This example uses the assumption that you want to apply a perfectly balanced calibration output with a unity power factor By changing the phase relationships you can apply other test stimulus The figure shows the phase relationship of each Calibrator By changing the phase relationships you can apply other test stimulus ...

Page 131: ...r DMM Calibrating a Fluke Model 41 Power Harmonics Analyzer for Power and Harmonics Calibrating a Fluke Model 51 Digital Thermometer How Calibrate an 80 Series Digital Multimeter This example goes through the steps necessary to calibrate a Fluke 80 Series DMM Note These procedures are included here as an example The 80 Series Service Manual contains the authoritative testing and calibration proced...

Page 132: ...stances AC and dc currents up to 20 A EARTH Connection Because the 80 Series DMMs are battery operated their inputs have no connection to earth ground Therefore enabling the calibrator s earth chassis ground to guard and LO is appropriate connection is appropriate Press the Z key so that the indicator is lit and make sure the B indicator is off How to Test the Meter You can use the error mode feat...

Page 133: ...and frequencies Voltage Frequency 350 mV 60 Hz 5 kHz and 20 kHz 3 500 V 60 Hz 5 kHz and 20 kHz 35 00 V 60 Hz 5 kHz and 20 kHz 329 0 V 60 Hz 5 kHz and 20 kHz 100 0 V 20 kHz 200 0 V 20 kHz 300 0 V 20 kHz 1000 V 60 Hz and 5 kHz 5 Test the Frequency function a Press R on the calibrator set the DMM function switch to p and press Hz on the DMM b Set the calibrator to 150 mV at 19 0 kHz and press O Verif...

Page 134: ... specifications 9 Test the Diode Test function as follows a Press R on the calibrator and set the DMM function switch to b Set the calibrator to 3 0 V dc and press O Verify the error is within specification 10 Test the ac and dc current function a Press R on the calibrator and set the DMM function switch to b Verify that the calibrator is in standby and connect the DMM as shown in Figure 4 19 5522...

Page 135: ...ous step with the following calibrator settings AC Current Frequency 350 0 μA 1 0 kHz 3500 0 μA 60 Hz 3500 0 μA 1 0 kHz 11 Test the High current function a Press R on the calibrator b Verify that the calibrator is in standby and connect the DMM as shown in Figure 4 20 5522A CALIBRATOR 87 TRUE RMS MULTIMETER MIN MAX RANGE HOLD H REL Hz mA A A m mV V V OFF A COM V mA mA PEAK MIN MAX gjh027 eps Figur...

Page 136: ...o and set the calibrator output to 3 500 V at 100 Hz 7 The DMM should display 3 500 0 002 If necessary adjust R34 to obtain the proper display 8 Change the calibrator output to 10 kHz 9 The DMM should display 3 500 0 004 If necessary adjust C2 to obtain the proper display 10 Change the calibrator output to 35 00 V at 10 kHz 11 The DMM should display 35 00 0 04 If necessary adjust C3 to obtain the ...

Page 137: ... MIN MAX MIN MAX MIN MAX 5 0 V 0 0 30 0 mV 145 156 145 156 0 4 2 2 8 0 V 0 0 30 0 mV 234 246 234 246 0 4 2 2 100 0 V 157 0 150 0 mV 14 3k 13 3k 14 5k 15 6k 5 4k 6 3k 155 159 100 0 V 157 0 360 0 mV 37k 29k 32k 40k 10k 18k 155 159 10 0 V 46 0 1 40 V 9 2 10 2 13 5 14 5 9 6 10 6 44 48 100 0 V 46 0 1 40 V 92 102 135 145 96 106 44 48 1 Connect the calibrator to the Model 41 as shown in Figure 4 21 Note ...

Page 138: ...e Tester until V is displayed above the upper right corner of the harmonics screen 3 Press the VAφ REF button on the Tester until AΦ is displayed in the top status line 4 Press the SMOOTH button on the Tester until 20s is displayed in the top status line 5 Connect the calibrator NORMAL output to the V and COM connectors on the Tester 6 Connect the calibrator AUX output to the Current Probe connect...

Page 139: ...nnect the calibrator NORMAL output to the V and COM connectors on the Tester 5 Connect the calibrator AUX output to the Current Probe connector on the Tester 6 Set the calibrator output to 7 0 V at 60 Hz on the NORMAL output and 20 mV at 60 Hz on the AUX output Press the WAVE MENUS then the φ REF MENUS softkey and ensure the phase angle is 10 00 degrees Press the HARMONIC MENU softkey and ensure t...

Page 140: ... match the thermocouple type For example if testing a K thermocouple the cable and miniconnector are for a type K thermocouple 5522A CALIBRATOR 60V 24V MAX OFFSET ON OFF F C HOLD K J THERMOMETER 51 Connection wiring must match thermocouple type e g K J etc gjh029 eps Figure 4 22 Cable Connections for Testing a 50 Series Thermometer 2 Verify that the EARTH indicator is lit if not press Z 3 Set up t...

Page 141: ... standby and connect the UUT to the calibrator as shown in Figure 4 22 When making this connection with the UUT case top removed make sure that the wide blade is oriented the same as the case top would normally allow 3 Simultaneously short the TP1 grid and turn on the UUT by shorting the ON OFF switch grid Hold the elastomeric switch pad on TP1 for at least 3 seconds after turn on This puts the UU...

Page 142: ...osition until the display is held in self test This puts the UUT into the Reference Junction Sensor calibration mode and the VIEW maneuver turns off a filter so that the reading settled immediately 18 Using a type K thermocouple bead supplied with the 5520A 525 LEADS test lead kit and the Calibrator MEAS TC mode press U measure the reference junction transistor temperature by placing the K bead in...

Page 143: ...UUT Port Operation via a Terminal 5 17 How to Test RS 232 UUT Port Operation with Visual Basic 5 18 How to Test the RS 232 UUT Port via IEEE 488 Port 5 18 How to Change between Remote and Local Operation 5 20 Local State 5 20 Local with Lockout State 5 20 Remote State 5 20 Remote with Lockout State 5 21 RS 232 Interface Overview 5 21 IEEE 488 Interface Overview 5 22 How to Use Commands 5 25 Types ...

Page 144: ...Status Register ISR 5 40 Instrument Status Change Registers 5 40 Instrument Status Change Enable Registers 5 40 Bit Assignments for the ISR ISCR and ISCE 5 40 Programming the ISR ISCR and ISCE 5 41 Output Queue 5 42 Error Queue 5 42 Remote Program Examples 5 42 Guidelines for Programming the Calibrator 5 42 Writing an SRQ and Error Handler 5 43 Verifying a Meter in the IEEE 488 Bus 5 44 Verifying ...

Page 145: ...RINT Fault A detected Print message 1060 PRINT 4 STBY Place 5522A in standby 1070 STOP Remote control can be interactive with the user controlling each step from a terminal or under the control of a computer program running the Calibrator in an automated system The Calibrator rear panel has three ports for remote operations IEEE 488 parallel port also known as a General Purpose Interface Bus or GP...

Page 146: ... UUT without a remote port UUT 5522A Calibrator Controller System for a UUT with an IEEE 488 remote port UUT 5522A Calibrator Controller System for a UUT with an RS 232 remote port SERIAL 2 TO UUT Port COM Port RS 232 Port or to 5522A gjh041 eps Figure 5 1 Typical IEEE 488 Remote Control Connections ...

Page 147: ...8 interface is also designed in compliance with supplemental standard IEEE 488 2 which describes additional IEEE 488 features Devices connected to the IEEE 488 bus are designated as talkers listeners talker listeners or controllers Under remote control of an instrument the Calibrator operates as a talker listener A PC equipped with an IEEE 488 interface controls the the Calibrator Compatible softw...

Page 148: ... 5522A Calibrator Controller System for a UUT with an RS 232 port via PC UUT 5522A Calibrator Controller System for a UUT with an RS 232 remote port via 5522A SERIAL 2 TO UUT Port COM Port RS 232 Port COM Port SERIAL 1 FROM HOST Port COM Port COM Port RS 232 Port gjh042 eps Figure 5 2 Typical RS 232 Remote Control Connections ...

Page 149: ...ate the softkey selections shown below Verify the HOST port selection is gpib Select the desired GPIB port address 0 to 30 using the UP DOWN softkeys The factory default is 4 Select nn120f eps 4 Press P not E several times until the message STORE CHANGES DISCARD CHANGES appears or if there were no changes the reset display If you select STORE CHANGES the gpib and host port setting are saved in the...

Page 150: ...he PC and Calibrator IEEE 488 ports using a standard IEEE 488 cable See Chapter 9 Accessories for IEEE 488 cables available from Fluke 3 From the programs menu select NI 488 2M software for your operating system 4 From the NI488 2M software menu select Win32 interactive control 5 A DOS window opens with a prompt as shown here 6 At the prompt type the following line to activate the IEEE interface c...

Page 151: ...are such as 5500 CAL or MET CAL The RS 232 cable length for the port should not exceed 15 meters 50 feet although longer cable lengths are permitted if the load capacitance measured at a connection point including signal terminator does not exceed 2500 pF RS 232 Host Port Setup Procedure Complete the following procedure to set up the SERIAL 1 FROM HOST port The RS 232 parameters you select here mu...

Page 152: ...ey selections shown below to select the HOST serial port parameters to match the PC COM parameters Individual softkey functions are discussed in Chapter 3 Features If operating the port with a computer program instead of individual commands from a terminal select Remote I F comp ...

Page 153: ... If you select STORE CHANGES the serial and host port setting are saved in the instrument non volatile memory How to Test the RS 232 Host Port Choose or adapt one of the following test procedures to test the Calibrator RS 232 Host port connected to a PC COM port A typical connection is shown in Figure 5 4 Note the use of a null modem cable for connection See Appendix C for information about RS 232...

Page 154: ...st Port Setup Procedure earlier in this chapter to set up the Calibrator for RS 232 Host port operation Note the RS 232 Host port parameters that you selected in this procedure 2 Connect the selected COM port on the PC to the Calibrator SERIAL 1 FROM HOST port using a standard null modem RS 232 cable See Appendix C for information on RS 232 cables and connectors 3 Open Windows to the Program Manag...

Page 155: ...Host Port Setup Procedure and change the REMOTE I F setting from comp to term If nonsense characters appeared on the screen then you have a mismatch is RS 232 parameters Refer to step 4 of the RS 232 Host Port Setup Procedure procedure for the correct RS 232 settings and then repeat this procedure starting at Step 5 If no characters appeared on the screen then refer to step 3 of the RS 232 Host Po...

Page 156: ... a Visual Basic Test Program to create the group RS 232 Test Complete the following procedure to test RS 232 operation using Visual Basic 1 Complete the RS 232 Host Port Setup Procedure earlier in this chapter to set up the Calibrator for RS 232 Host port operation Note the RS 232 Host port parameters that you selected in this procedure 2 Connect the selected COM port on the PC to the Calibrator S...

Page 157: ...cable length for each port should not exceed 15 meters although longer cable lengths are permitted if the load capacitance measured at a connection point including signal terminator does not exceed 2500 pF RS 232 UUT Port Setup Procedure Complete the following procedure to set up the SERIAL 1 FROM HOST port The RS 232 parameters you select here must match the parameters set for the PC COM port The...

Page 158: ... Choose or adapt one of the following test procedures to test the Calibrator RS 232 UUT port via the RS 232 Host port Connect the UUT and PC as shown in Figure 5 5 Note the use of a modem cable NOT null modem for UUT connection See Appendix C for information about RS 232 cables and connectors ...

Page 159: ...e PC COM port After Step 9 return to this procedure and continue to Step 3 below 3 On the Terminal screen type UUT_SEND uut command where uut command is the command you selected for the UUT response then press Enter Observe the UUT responds For example to send the command REMS to a UUT use UUT_SEND REMS n and press Enter Note the use of n which indicates a Carriage Return CR as the end of line cha...

Page 160: ...ost port After Step 6 return to this procedure and continue to Step 3 below 3 Click the Command3 button below is typical Observe the UUT responds to the command you used when you completed Appendix D Creating a Visual Basic Test Program nn311f bmp If the UUT did not respond check the RS 232 parameters set for the Calibrator UUT port and set for the UUT port Verify you used a modem not null modem c...

Page 161: ...librator for GPIB operation 2 Complete Testing the IEEE 488 Port to prepare the Calibrator IEEE 488 port for testing Before the final step return to this procedure and continue to Step 3 below 3 Go to Start then to the Programs menu 4 Select NI 488 2M software for your operating system 5 From the NI488 2M software menu select Win32 interactive control 6 A DOS window opens with a prompt as shown he...

Page 162: ...tion and remote the Calibrator can be placed in a local lockout condition at any time by command of the controller Combined the local remote and lockout conditions yield four possible operating states described as follows Local State The Calibrator responds to local and remote commands This is normal front panel operation All remote commands are allowed to execute Local with Lockout State Local wi...

Page 163: ... message Table 5 1 summarizes the possible Remote Local state transitions For more information on IEEE 488 GPIB messages see IEEE 488 Overview Table 5 1 Operating State Transitions From To Front Panel GPIB Message Serial Command Remote MLA REN True REMOTE Local Local with Lockout LLO LOCKOUT Local Go to Local Softkey GTL or REN False LOCAL Remote Remote with Lockout LLO LOCKOUT Local REN False LOC...

Page 164: ...operation because these functions must be implemented as IEEE messages per the IEEE Standards For example the command REMOTE could be sent as data over the IEEE 488 interface to place the Calibrator into remote but it is not because the IEEE Standards call for the remote function to be sent to the device as the uniline message REN This is also true for several other commands and functions as shown...

Page 165: ...is used by the devices to indicate to the controller that they require service The IFC line is used by the controller to quickly get all the devices on the bus to stop talking and start listening The REN line is used to implement the remote local states IEEE 488 2 IEEE 488 2 is the software portion of the interface specifying data formats common commands message exchange protocol and the status re...

Page 166: ... AD OTA TAG and MTA NOT PCG Primary Command Group M PCG ACG or UCG or LAG or TAG PPC Parallel Poll Configure M AC 0 0 0 0 1 0 1 1 PPE Parallel Poll Enable M SE 1 1 0 B4 B3 B2 B1 1 PPD Parallel Poll Disable M SE 1 1 1 B4 B3 B2 B1 1 PPR1 Parallel Poll Response 1 U ST 1 1 1 PPR2 Parallel Poll Response 2 U ST 1 1 1 PPR3 Parallel Poll Response 3 U ST 1 1 1 PPR4 Parallel Poll Response 4 U ST 1 1 1 PPR5 ...

Page 167: ...ter mode is used when the Calibrator is operated by computer program In this mode requested information is returned by query and interface messages are queued and returned by command RS 232 Pass Through Mode The RS 232 pass through mode is used to pass commands from the PC to a UUT but via the Calibrator This configuration is used when the UUT has an RS 232 port Commands are sent to the UUT by usi...

Page 168: ...evice dependent and common commands Interface messages are handled automatically in most cases For example handshake messages DAV DAC and RFD automatically occur under the direction of an instrument s interface itself as each byte is sent over the bus Table 5 4 IEEE 488 Interface Messages Received Mnemonic Name Function ATN Attention A control line that when asserted notifies all instruments on th...

Page 169: ...e has successfully received a device dependent or common command UNT Untalk Unaddresses a specific device on the bus as a listener The controller sends UNL automatically after the device has successfully received a device dependent or common query Table 5 5 IEEE 488 Interface Messages Sent Mnemonic Name Function END End A message that occurs when the Calibrator asserts the EOI control line The Cal...

Page 170: ...the command RST OUT 100V 1kHZ WAVE SINE Followed by the commands WAVE TRI OUT 10V 1kHZ The WAVE TRI causes an error At 100 V only sine waves are allowed Both WAVE and OUT are coupled commands So the compound command WAVE TRI OUT 10V 1kHZ executes successfully The WAVE and OUT are programmed together and at 10 V triangle waves are allowed Overlapped Commands Commands that begin execution but requir...

Page 171: ...ions that must be implemented as a message as specified in the IEEE 488 standards For example the RS 232 interface uses the command REMOTE to place the Calibrator in the remote mode Although the IEEE 488 interface could also send a command REMOTE as data it does not because this is one of the functions that must be implemented per IEEE 488 Standards The relationship between these IEEE 488 messages...

Page 172: ...g 1 See How IEEE 488 Operates later in this chapter Command Syntax The following syntax rules apply to all the remote commands Information about syntax of response messages is also given Parameter Syntax Rules Table 5 8 lists the units accepted in command parameters and used in responses All commands and units may be entered in UPPER or lower case Table 5 8 Units Accepted in Parameters and Used in...

Page 173: ... mercury INHG Pressure in inches of mercury INH2O Pressure in inches of water FTH2O Pressure in feet of water MH2O Pressure in meters of water BAR Pressure in bar PAL Pressure in Pascal G CM2 Pressure in grams per centimeter squared INH2O60F Pressure in inches of water at 60 degrees Fahrenheit General Rules The general rules for parameter usage is as follows 1 When a command has more than one para...

Page 174: ...rminators Table 5 9 summarizes the terminator characters for both the IEEE 488 and RS 232 remote interfaces Table 5 9 Terminator Characters ASCII Characters Terminator Function Number Program Control Command Terminator Language Command Terminator Carriage Return CR 13 Chr 13 Cntrl M n Line Feed LF 10 Chr 10 Cntrl J r Backspace BS 8 Chr 8 Cntrl H b Form Feed FF 12 Chr 12 Cntrl L f Examples RS 232 T...

Page 175: ...e first part of the entry under Response in the tables The response is identified as one of the data types in Table 5 10 Table 5 10 Response Data Types Data Type Description Integer Integers for some controllers or computers are decimal numbers in the range 32768 to 32768 Responses in this range are labeled Integer Example ESE 123 ESE returns 123 Floating Numbers that may have up to 15 significant...

Page 176: ...ffer called the Error Queue provide status information Table 5 11 lists the status registers and gives the read write commands and associated mask registers Table 5 11 Status Register Summary Status Register Read Command Write Command Serial Poll Status Byte STB STB Service Request Enable Register SRE SRE SRE Event Status Register ESR ESR Event Status Enable Register ESE ESE ESE Instrument Status ...

Page 177: ... the power is turned on The STB byte is defined as shown in Figure 5 9 If you are using the RS 232 as the remote control interface transmitting the P character in the Terminal mode hold down the Cntl key and press P returns the SPLSTR Serial Poll String and the status byte Refer to the STB command and for RS 232 interface operation the SPLSTR and SPLSTR commands in Chapter 6 for more information ...

Page 178: ...ge Registers Write using ISCE0 1 to 0 transition ISCE1 0 to 1 transition ISCE 1 to 0 OR 0 to 1 0 R P T B S Y S E T T L E D R E M O T E 0 U U T B F U L U U T D A T A H I V O L T M A G C H G T M P C A L 0 0 0 0 O P E R 9 10 11 12 13 14 15 8 7 6 5 4 3 2 1 0 9 10 11 12 13 14 15 8 7 6 5 4 3 2 1 0 Instrument Status Register Read using ISR 0 Data Available Error Available 9 10 11 12 13 14 15 8 7 6 5 4 3 ...

Page 179: ...e on the bus but they all share a single SRQ line To determine which instrument set SRQ the Controller normally does a serial poll of each instrument The calibrator asserts SRQ whenever the RQS bit in its Serial Poll Status Byte is 1 This bit informs the controller that the Calibrator was the source of the SRQ RS 232 Remote operations using the RS 232 interface emulate the IEEE 488 SRQ line by sen...

Page 180: ...y time it is read Many of the remote commands require parameters Improper use of parameters causes command errors to occur When a command error occurs bit CME 5 in the Event Status Register ESR goes to 1 if enabled in ESE register and the error is logged in the error queue Event Status Enable ESE Register A mask register called the Event Status Enable register ESE allows the controller to enable o...

Page 181: ...OPC 15 14 13 12 11 10 9 8 0 0 0 0 0 0 0 0 7 6 5 4 3 2 1 0 PON 0 CME EXE DDE QYE 0 OPC gjh048 eps Figure 5 10 Event Status Register ESR and Event Status Enable ESE Programming the ESR and ESE To read the contents of the ESR send the remote command ESR The ESR is cleared set to 0 every time it is read To read the contents of the ESE send the remote command ESE The ESE is not cleared when it is read ...

Page 182: ...erator on the Control Display and the display annunciators during local operation Instrument Status Change Registers There are two registers dedicated to monitoring changes in the ISR These are the ISCR0 Instrument Status 1 0 Change Register and the ISCR1 Instrument Status 0 1 Change Register Each status change register has an associated mask register Each ISCR is cleared set to 0 when the Calibra...

Page 183: ...LT MAGCHG TMPCAL OPER gjh049 eps Figure 5 11 Bit Assignments for the ISR ISCEs and ISCR Programming the ISR ISCR and ISCE To read the contents of the ISR send the remote command ISR To read the contents of the ISCR0 or 1 send the remote command ISCR0 or ISCR1 To read the contents of the ISCE0 or 1 send the remote command ISCE0 or ISCE1 The Calibrator responds by sending a decimal number that repre...

Page 184: ... queue where it can be read by the ERR command See Appendix E for a list of error messages A way to decode an error code is to send the command EXPLAIN which returns a description of a error code Reading the first error with the ERR command removes that error from the queue A response of 0 means the error queue is empty The Error Available EAV bit in the Serial Poll Status Byte indicates whether t...

Page 185: ...NT The instrument has been on for A minutes This program generates the following sample output Function is DCV The instrument has been on for 134 minutes Check for programming errors as in the following sample programs Check the Error Available EAV bit in the serial poll register using a serial poll 300 A SPL 6 CHECK FOR ERRORS 310 IF A AND 8 THEN PRINT There was an error 320 PRINT 6 CLS CLEAR ERR...

Page 186: ...5 100 ER ABS V VM V 1E6 COMPUTE ERROR 110 PRINT 5522 OUTPUT V U PRINT THE RESULTS 120 PRINT 45 MEASURED VM V 130 PRINT ERROR ER PPM 140 END Verifying a Meter on the RS 232 UUT Serial Port This program selects 10 V dc output verifies that the Calibrator is set to 10 V then triggers a Fluke 45 to take a reading It displays Calibrator output the Fluke 45 reading and the meter error in ppm The program...

Page 187: ... 60 PRINT OUTPUT SETTLED 70 END The WAI command causes the Calibrator to wait until any prior commands have been completed before continuing on to the next command and takes no other action Using WAI is a convenient way to halt operation until the command or commands preceding it have completed The following sample program shows how you can use WAI 10 REMOTE 20 PRINT 4 OUT 100V 1KHZ OPER WAI 5522A...

Page 188: ...input buffer if it is encountered as part of a message terminator Input buffer operation is transparent to the program running on the controller If the controller sends commands faster than the Calibrator can process them the input buffer fills to capacity When the input buffer is full the Calibrator holds off the IEEE 488 bus with the NRFD Not Ready For Data handshake line When the Calibrator has...

Page 189: ...6 1 Chapter 6 Remote Commands Title Page Introduction 6 3 Command Summary by Function 6 3 Commands 6 10 ...

Page 190: ...5522A Operators Manual 6 2 ...

Page 191: ... PGA OPC Enables setting of bit 0 OPC for Operation Complete in the Event Status Register to 1 when all pending device operations are complete OPC Returns a 1 after all pending operations are complete This commands causes program execution to pause until all operations are complete See also WAI OPT Returns a list of the installed hardware and software options PUD Protected user data command This c...

Page 192: ... REFOUT Returns the value of the reference which is the output values of the Calibrator the last time a new reference was established with an OUT NEWREF or MULT EDIT Sets the edit field PRI is specified for the output value in single output functions and the primary output value in dual output functions Table 6 3 External Connection Commands Command Description CUR_POST Selects the active binding ...

Page 193: ...nge when in OVERLD PULSE or MEASZ scope modes SCOPE Sets the calibrator output to an oscilloscope mode SCOPE Returns the present oscilloscope mode TDPULSE Activates or deacvitates the tunnel diode pulser drive for the SC600 EDGE mode TDPULSE Returns whether the tunnel diode pulser drive for the SC600 EDGE mode is active TLIMIT Sets the time limit for SC600 OVERLD mode to stay in operate TLIMIT Ret...

Page 194: ... wave outputs FUNC Returns the present output measurement or calibration function HARMONIC Makes the frequency of one output be a harmonic multiple of the other output called the fundamental HARMONIC Returns the present instrument harmonic and fundamental locations LCOMP Activates or deactivates inductive load compensation for ac current output LCOMP Returns whether inductive load compensation for...

Page 195: ...s impedance compensation ZCOMP Returns whether or not impedance compensation is active and if active which type Table 6 6 Pressure Measurement Commands Command Description DAMPEN Activates or deactivates dampening averaging of pressure readings DAMPEN Returns whether dampening averaging of pressure readings is active PRES Queries the attached pressure module for its model and serial number PRES_ME...

Page 196: ...T Sets the UUT serial port communication parameters and saves them in nonvolatile memory UUT_SET Returns the UUT serial port communication parameters contained in nonvolatile memory Table 6 9 Setup and Utility Commands Command Description CLOCK Sets the real time clock CLOCK Queries the real time clock DBMZ_D Sets the power up and reset default impedance used for dBm outputs ac volts DBMZ_D Return...

Page 197: ... default thermocouple type TEMP_STD Sets the temperature degree standard ipts 68 or its 90 TEMP_STD Returns the temperature degree standard ipts 68 or its 90 TLIMIT_D Sets the power up and reset default for the time limit for SC600 OVERLD mode to stay in operate TLIMIT_D Returns the power up and reset default for the time limit for SC600 OVERLD mode to stay in operate UNCERT Retums specified uncer...

Page 198: ...e open thermocouple detection circuit in thermocouple measurement mode VAL Returns the last thermocouple pressure or for the SC600 impedance measurement value VVAL Returns the last value of the thermocouple measurement in volts Commands The following is an alphabetical list of all Calibrator commands and queries including common commands and device dependent commands Each command title includes a ...

Page 199: ...me clock time only or date and time To set the date the CALIBRATION switch must be in the ENABLE position Parameters 1 optional year in the format YYYY 2 optional month in the format MM 3 optional day in the format DD 4 hour in the format HH 5 minute in the format MM 6 second in the format SS Examples CLOCK 1998 6 1 9 52 10 sets clock to June 1 1998 9 52 10 AM CLOCK 13 10 10 sets clock time only t...

Page 200: ...ed A20 20A terminals are selected Example CUR_POST returns AUX Returns AUX when the AUX terminals are selected for output current DAMPEN Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Dampen Mode for Pressure Measurement command Activates or deactivates dampening averaging of pressure readings Parameter ON dampen on OFF dampen off Example DAMPEN ON DAMPEN Sequential Overlapped Coupled IEE...

Page 201: ...e being sourced The dBm impedance is set to the default at power on reset and when going into single output AC mode DBMZ_D Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x dBm Impedance Default query Returns the power up and reset default impedance used for dBm outputs ac volts Response character Impedance keyword Example DBMZ_D returns Z600 DC_OFFSET Overlapped Coupled IEEE 488 RS 232 Sequ...

Page 202: ... Factor query Returns the displacement power factor cosine of the phase angle between the Calibrator front panel NORMAL and AUX terminals for sine wave outputs Responses value LEAD value LAG Example DPF returns 5 00E 01 LEAD Returns a leading power factor of 5 when the current output on the Calibrator AUX terminals leads the voltage output on the NORMAL terminals by 60 degrees Cosine of 60 degrees...

Page 203: ... Example EARTH returns OPEN Returns OPEN when EARTH is not tied to the NORMAL LO terminal the front panel Z key annunciator is off EDIT Overlapped Coupled IEEE 488 RS 232 Sequential x x x x x Edit command Sets the edit field to the primary secondary or frequency field Parameters PRI edit the value in single output functions and the primary output value in dual output functions SEC edit the seconda...

Page 204: ...rence to the nominal value TRUVAL Sets the reference to the output value ERR_REF Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Returns the error reference for error calculations Response NOMINAL The nominal value is used as the error reference TRUVAL The output value is used as the error reference ERR_UNIT Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x UUT Error Unit Thresh Hold...

Page 205: ...XPLAIN Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Explain Error query Explains an error code This command returns a string that explains the error code furnished as the parameter The error code same as the parameter is originally obtained by sending the FAULT query See the ERR command which returns both the error code and the explanation string See Appendix E for a list of error codes...

Page 206: ...rst error code in the error queue number 539 To view an explanation of the error enter the command EXPLAIN 539 FORMAT Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Format command Use with extreme care Restores the contents of the nonvolatile memory device to factory defaults The memory holds calibration constants and setup parameters You lose all calibration data permanently The CALIBRAT...

Page 207: ...FUNC Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Function query Returns the present output measurement or calibration function See the response below for output measurement modes Responses DCV dc volts function ACV ac volts function DCI dc current function ACI ac current function RES ohms function CAP capacitance function RTD temperature with an rtd function TC_OUT temperature with a t...

Page 208: ... value PRI harmonic value fundamental at primary output value SEC harmonic value fundamental at secondary output Example HARMONIC returns 5 SEC Returns that the 5th harmonic frequency is selected and the fundamental is at the secondary output AUX terminals Therefore the harmonic frequency appears at the primary or NORMAL terminals IDN Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Identif...

Page 209: ...if bits 12 SETTLED 10 REMOTE and 6 HIVOLT are set to 1 ISCE0 Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Instrument Status 1 to 0 Change Enable command Loads the two bytes into the 16 bit ISCE0 register See Instrument Status Change Enable Registers in Chapter 5 for more information Parameter value decimal equivalent of the 16 bits 0 to 32767 Example ISCE0 6272 Load decimal 6272 binary ...

Page 210: ...its 0 to 32767 Example ISCR returns 6272 Returns decimal 6272 binary 0001010001000000 if bits 12 SETTLED 10 REMOTE and 6 HIVOLT are set to 1 ISCR0 Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Instrument Status 1 to 0 Change Register query Returns and clears the contents of the Instrument Status 1 to 0 Change Register Response value decimal equivalent of the 16 bits 0 to 32767 Example IS...

Page 211: ...put magnitude negative and positive for voltage and current which is saved in the Calibrator non volatile memory While saving configuration data in the non volatile memory a period of about 2 seconds the Calibrator does not respond to remote commands Both negative and positive values must be entered Once set the Calibrator retains the limit settings until either another limit is entered or the FOR...

Page 212: ...strument into the front panel lockout state The front panels controls cannot be used LOWS Overlapped Coupled IEEE 488 RS 232 Sequential x x x x x Low Potential Output Terminals command Selects whether or not the Calibrator front panel NORMAL LO terminal and AUX LO terminal are internally tied together default or are open This feature is used for ac power dc power dual dc volts and dual ac volts ou...

Page 213: ...eference value to the current Calibrator output value OLDREF Overlapped Coupled IEEE 488 RS 232 Sequential x x x x x Old Reference command Sets the Calibrator output to the reference value and exit the error mode if selected If editing the output using the EDIT and INCR commands and you want to return to the reference value use the OLDREF command If editing the output and you want to make the edit...

Page 214: ...ting Response 1 Operate 0 Standby Example OPER returns 1 Returns 1 when the Calibrator is in operate OPT Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Options command Returns a list of the installed hardware and software options Responses option string option string options list separated by commas 0 no options are installed Example OPT returns SC600 Returns SC600 when the Oscilloscope C...

Page 215: ...M volts 20 dBm same frequency OUT 10 V 60 Hz volts ac 10 V 60 Hz OUT 10 DBM 50 HZ volts ac 10 dBm 50 Hz OUT 1 2 MA current 1 2 mA same frequency OUT 1 A 400 HZ current ac 1 A 400 Hz OUT 1 KOHM ohms 1 kΩ OUT 1 UF capacitance 1 μF OUT 100 CEL temperature 100 C OUT 32 FAR temperature 32 F OUT 60 HZ frequency update 60 Hz OUT 10 V 1 A power 10 watts same frequency OUT 1 V 1 A 60 HZ power ac 1 watts 60...

Page 216: ...BM A OHM F CEL FAR The units for the frequency value is always assumed to be Hz OUT_ERR Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Output Error query Returns the UUT error and units computed by the Calibrator after shifting the output with the INCR command The return units are PPM parts per million PCT percent DB decibels or 0 if there is no error The UUT error is not computed when ed...

Page 217: ...urrent 1 A dc for 10 watts real power Example POWER returns 1 00000E 01 Returns 10 when the output voltage is 10 V ac and output current 2 A ac and power factor is 5 for 10 watts real power PR_PRT X IEEE X RS 232 Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Description Prints a self calibration report out the selected serial port Parameters 1 Type of report to print STORED ACTIVE or CON...

Page 218: ... units until power off or reset Example PRES_UNIT BAR PRES_UNIT Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Pressure Units query Returns the pressure display units Responses character PSI pound force per square inch character MHG meters of mercury character INHG inches of mercury character INH2O inches of water character FTH2O feet of water character MH2O meters of water character BAR ...

Page 219: ...aracters maximum which is saved in the Calibrator non volatile memory While saving configuration data in the non volatile memory a period of about 2 seconds the Calibrator does not respond to remote commands This command works only when the CALIBRATION switch on the rear panel of the Calibrator is in the ENABLE position Include a line feed RS 232 character to terminate the block data or End or Ide...

Page 220: ..._AS dc power 3 3 V 3 A ranges AC330V_P AC20A_2S ac power 330 V 20 A ranges DC330MV_P DC3_3V_S dual dc volts 330 mV 3 3 V ranges AC330V_P AC3_3V_S dual ac volts 330 V 3 3 V ranges Returns the symbolic name of the single or first output and return the symbolic name of the second output 0 if there is no second output RANGELCK Overlapped Coupled IEEE 488 RS 232 Sequential x x x x x Range Lock command ...

Page 221: ...command Sets the power up and reset default for the reference clock source internal or through the 10 MHz IN BNC connector Parameters INT Sets internal reference clock EXT Sets external reference clock The reference clock is set to the default at power on reset and when going into an ac function Example REFCLOCK_D INT REFCLOCK_D Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Reference Clo...

Page 222: ... the Calibrator and the sync pulse on the 10 MHz IN or OUT terminal Response float Phase in degrees Example REFPHASE returns 1 50E 00 1 5 degrees REFPHASE_D Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Reference Phase Default command If two Calibrators are synchronized using 10 MHz IN OUT sets the power up and reset default phase difference between the primary channel on the Calibrator ...

Page 223: ...y in local operation and appears on calibration reports The CALIBRATION switch must be set to ENABLE Sequential command Parameter String of up to 40 characters RPT_STR Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Report String query Returns the user report string The user report string can be read on the Control Display in local operation and appears on calibration reports Sequential co...

Page 224: ... α 0 00385 ohms ohm C PT385_500 500 ohm RTD curve α 0 00385 ohms ohm C PT385_1000 1000 ohm RTD curve α 0 00385 ohms ohm C PT3926 100 ohm RTD curve α 0 003926 ohms ohm C PT3916 100 ohm RTD curve α 0 003916 ohms ohm C CU10 10 ohm RTD empirical curve NI120 120 ohm RTD empirical curve Example RTD_TYPE PT3926 Set the RTD type to a 100 ohm type using the pt3926 curve α 0 003926 ohms ohm C The resistance...

Page 225: ...ature Detector RTD used at power on and reset Responses PT385 100 ohm RTD curve α 0 00385 ohms ohm C PT385_200 200 ohm RTD curve α 0 00385 ohms ohm C PT385_500 500 ohm RTD curve α 0 00385 ohms ohm C PT385_1000 1000 ohm RTD curve α 0 00385 ohms ohm C PT3926 100 ohm RTD curve α 0 003926 ohms ohm C PT3916 100 ohm RTD curve α 0 003916 ohms ohm C CU10 10 ohm RTD empirical curve NI120 120 ohm RTD empiri...

Page 226: ...2 bits parity PNONE none PODD odd PEVEN even end of line char CR carriage return LF line feed CRLF carriage return line feed Example SP_SET returns 9600 TERM XON DBIT8 SBIT1 PNONE CRLF Returns the parameters for the rear panel SERIAL 1 FROM HOST serial port as shown when set to the factory default values SPLSTR Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Serial Poll String command Sets...

Page 227: ... value the decimal equivalent of the SRE byte 0 to 191 Example SRE returns 56 Returns 56 when bits 3 EAV 4 MAV and 5 ESR are enabled SRQSTR Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Service Request String command Sets the Serial Mode SRQ Service Request response up to 40 characters in the Calibrator non volatile memory While saving configuration data in the non volatile memory a peri...

Page 228: ... is in operate This is the same as pressing the Calibrator front panel Y key Parameter None Example STBY Disconnect the selected output from the Calibrator front panel terminals SYNCOUT Overlapped Coupled IEEE 488 RS 232 Sequential x x x x x Synchronization Pulse command Sends a synchronization pulse out to a slave Calibrator through the 10 MHZ OUT BNC connector Parameter None Example SYNCOUT TC_M...

Page 229: ... Coupled IEEE 488 RS 232 x x x x x Thermocouple Open Detection query Returns the status of the open thermocouple detection circuit in thermocouple measurement mode Responses ON thermocouple detection circuit is on OFF thermocouple detection circuit is off Example TC_OTCD returns ON Returns ON when the open thermocouple detection circuit is activated TC_REF Overlapped Coupled IEEE 488 RS 232 Sequen...

Page 230: ...d while simulating a temperature output the temperature is changed to 0 C Once set the Calibrator retains the TC type until power off or reset Parameters B B type thermocouple C C type thermocouple E E type thermocouple J J type thermocouple K K type thermocouple default N N type thermocouple R R type thermocouple S S type thermocouple T T type thermocouple X 10 μV C linear output Y relative humid...

Page 231: ...type default to a type J thermocouple TC_TYPE_D Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Thermocouple Type Default query Returns the default thermocouple TC sensor type Responses B B type thermocouple C C type thermocouple E E type thermocouple J J type thermocouple K K type thermocouple default N N type thermocouple R R type thermocouple S S type thermocouple T T type thermocouple ...

Page 232: ...pability 0 00E 00 OPENTC open thermocouple 0 00E 00 NONE wrong mode or no measurement Example TRG returns 2 500E 01 CEL Trigger a thermocouple measurement and return 25 00 Celsius when the thermocouple temperature measurement is 25 C TSENS_TYPE Overlapped Coupled IEEE 488 RS 232 Sequential x x x x x Temperature Sensor Type command Sets the temperature sensor type to thermocouple TC or Resistance T...

Page 233: ...ed uncertainty of primary unit 2 float 1 year specified uncertainty of primary output 3 character Unit of primary output uncertainty 4 float 90 day specified uncertainty of secondary unit 5 float 1 year specified uncertainty of secondary output 6 character Unit of secondary output uncertainty Example UNCERT returns 6 120E 01 6 150E 01 PCT 9 50E 02 1 150E 01 PCT UUT_FLUSH Sequential Overlapped Coup...

Page 234: ...ock data or End or Identify EOI command IEEE 488 Parameter 2 nn nn characters string definite length 0 character string indefinite length character string character string Examples UUT_SEND 206F1S2R0 definite length format Sends the data F1S2R0 to the UUT in definite length format The format is 2 two numbers follow 06 characters follow F1S2R0 6 characters UUT_SEND 0F1S2R0 indefinite length format ...

Page 235: ...rlapped Coupled IEEE 488 RS 232 x x x x x UUT Serial Port Set command Sets the RS 232 C settings for the Calibrator rear panel SERIAL 2 TO UUT serial port which is saved in the Calibrator non volatile memory While saving configuration data in the non volatile memory a period of about 2 seconds the Calibrator does not respond to remote commands To set the parameters for the rear panel SERIAL 1 FROM...

Page 236: ...0 NONE Returns 0 and NONE when there is no recent measurement either because the Calibrator is not in a measurement mode or because no measurement has been made yet VVAL Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Thermocouple Measurement Voltage command Returns the last value of the thermocouple temperature measurement in volts If the last measurement was an overload or open thermocou...

Page 237: ...front panel NORMAL terminals is a square wave and NONE when there is no secondary output on the front panel AUX terminals ZCOMP Overlapped Coupled IEEE 488 RS 232 Sequential x x x x x Impedance Compensation command Activates or deactivates 2 wire or 4 wire impedance compensation For resistance output compensation is allowed when the resistance is less than 110 kΩ For capacitance output compensatio...

Page 238: ...ond argument Parameter 1 boolean ON boolean OFF 2 Reference value for absolute pressure modules Example ZERO_MEAS ON Sets the zero offset to the present measurement value Example ZERO_MEAS ON 14 7 Sets the zero offset to 14 7 for an absolute pressure module ZERO_MEAS Sequential Overlapped Coupled IEEE 488 RS 232 x x x x x Zero Offset for Pressure Measurement query Returns the zero offset for the p...

Page 239: ...7 1 Chapter 7 Maintenance Title Page Introduction 7 3 How to Replace the Line Fuse 7 3 How to Replace the Current Fuses 7 4 How to Clean the Air Filter 7 5 General Cleaning 7 6 Performance Tests 7 7 ...

Page 240: ...5522A Operators Manual 7 2 ...

Page 241: ...us voltage exposure is possible Turn the Product off and remove the mains power cord Stop for two minutes to let the power assemblies discharge before you open the fuse door How to Replace the Line Fuse The line power fuse is accessible on the rear panel The fuse rating label above the ac power input module shows the correct replacement fuse for each line voltage setting Table 7 1 lists the fuse p...

Page 242: ...E THA IS PROPERLY INSTALLED BEFORE ENERGIZING INSTRU CAUTION FOR FIRE PROTECTION REPLACE O WITH A 250V FUSE OF INDICATED RATING 0V SB 120 120 2 4 0 Changing Line Fuse Changing Line Voltage Line Voltage Indicator gjh004 eps Figure 7 1 Accessing the Fuse How to Replace the Current Fuses The current fuses are accessible for the bottom of the Calibrator These fuses protect the 3A and 20A outputs from ...

Page 243: ...on To prevent damage to the Calibrator keep the fan filter clean and do not restrict the area around the fan The air filter must be removed and cleaned every 30 days or more frequently if the calibrator is operated in a dusty environment The air filter is accessible from the rear panel of the calibrator To clean the air filter refer to Figure 7 3 and proceed as follows 1 Turn off the power let the...

Page 244: ... IN G C O N N EC TO R IN PO W ER C O R D M U ST BE C O N N EC TED TO EN SU R E PR O TEC TIO N FR O M ELEC TR IC SH O C K C H ASSIS G R O U N D oq062f eps Figure 7 3 Accessing the Air Filter General Cleaning For general cleaning wipe the case front panel keys and lens using a soft cloth slightly dampened with water or a non abrasive mild cleaning solution that does not harm plastics Caution Do not ...

Page 245: ... 328 9941 mV 329 0059 mV 329 9999 mV 329 0000 mV 329 0059 mV 328 9941 mV 3 299999 V 0 000000 V 0 000002 V 0 000002 V 3 299999 V 1 000000 V 0 999989 V 1 000011 V 3 299999 V 1 000000 V 1 000011 V 0 999989 V 3 299999 V 3 290000 V 3 289968 V 3 290032 V 3 299999 V 3 290000 V 3 290032 V 3 289968 V 32 99999 V 0 00000 V 0 00002 V 0 00002 V 32 99999 V 10 00000 V 9 99988 V 10 00012 V 32 99999 V 10 00000 V 1...

Page 246: ...3 μA 329 999 μA 190 000 μA 190 043 μA 189 957 μA 329 999 μA 329 000 μA 328 941 μA 329 059 μA 329 999 μA 329 000 μA 329 059 μA 328 941 μA 3 29999 mA 0 00000 mA 0 00005 mA 0 00005 mA 3 29999 mA 1 90000 mA 1 89980 mA 1 90020 mA 3 29999 mA 1 90000 mA 1 90020 mA 1 89980 mA 3 29999 mA 3 29000 mA 3 28969 mA 3 29031 mA 3 29999 mA 3 29000 mA 3 29031 mA 3 28969 mA 32 9999 mA 0 0000 mA 0 00025 mA 0 00025 mA ...

Page 247: ... Ω 10 9000 Ω 10 8986 Ω 10 9014 Ω 32 9999 Ω 11 9000 Ω 11 8982 Ω 11 9018 Ω 32 9999 Ω 19 0000 Ω 18 9980 Ω 19 0020 Ω 32 9999 Ω 30 0000 Ω 29 9978 Ω 30 0023 Ω 109 9999 Ω 33 0000 Ω 32 9979 Ω 33 0021 Ω 109 9999 Ω 109 0000 Ω 108 9962 Ω 109 0038 Ω 329 9999 Ω 119 0000 Ω 118 9954 Ω 119 0046 Ω 329 9999 Ω 190 0000 Ω 189 9938 Ω 190 0062 Ω 329 9999 Ω 300 0000 Ω 299 9914 Ω 300 0086 Ω 1 099999 kΩ 0 330000 kΩ 0 3299...

Page 248: ...11 89512 MΩ 11 90488 MΩ 32 99999 MΩ 19 00000 MΩ 18 99370 MΩ 19 00630 MΩ 32 99999 MΩ 30 00000 MΩ 29 99150 MΩ 30 00850 MΩ 109 9999 MΩ 33 0000 MΩ 32 9838 MΩ 33 0162 MΩ 109 9999 MΩ 109 0000 MΩ 108 9534 MΩ 109 0466 MΩ 329 9999 MΩ 119 0000 MΩ 118 6025 MΩ 119 3975 MΩ 329 9999 MΩ 290 0000 MΩ 289 1750 MΩ 290 8250 MΩ 1100 000 MΩ 400 000 MΩ 394 700 MΩ 405 300 MΩ 1100 000 MΩ 640 000 MΩ 631 820 MΩ 648 180 MΩ 1...

Page 249: ... 100 kHz 299 788 mV 300 212 mV 329 999 mV 300 000 mV 500 kHz 299 450 mV 300 550 mV 3 29999 V 0 33000 V 45 Hz 0 32989 V 0 33011 V 3 29999 V 0 33000 V 10 kHz 0 32989 V 0 33011 V 3 29999 V 3 00000 V 9 5 Hz 2 83350 V 3 16650 V 3 29999 V 3 00000 V 10 Hz 2 99920 V 3 00080 V 3 29999 V 3 00000 V 45 Hz 2 99952 V 3 00048 V 3 29999 V 3 00000 V 1 kHz 2 99952 V 3 00048 V 3 29999 V 3 00000 V 10 kHz 2 99952 V 3 ...

Page 250: ...1000 00 V 45 Hz 999 74 V 1000 26 V 1020 00 V 1000 00 V 1 kHz 999 79 V 1000 21 V 1020 00 V 1000 00 V 5 kHz 999 79 V 1000 21 V 1020 00 V 1000 00 V 8 kHz 999 74 V 1000 26 V 1020 00 V 1020 00 V 1 kHz 1019 79 V 1020 21 V 1020 00 V 1020 00 V 8 kHz 1019 74 V 1020 27 V 1 Typical specification is 24 dB at 2 MHz Table 7 8 Verification Tests for AC Voltage AUX Range Output AUX 1 Frequency Lower Limit Upper L...

Page 251: ... 4 99110 V 5 00890 V 5 00000 V 5 00000 V 10 kHz 4 98360 V 5 01640 V 1 Set the NORMAL output to 300 mV Table 7 9 Verification Tests for AC Current Range Output Frequency Lower Limit Upper Limit 329 99 μA 33 00 μA 1 kHz 32 87 μA 33 13 μA 329 99 μA 33 00 μA 10 kHz 32 60 μA 33 40 μA 329 99 μA 33 00 μA 30 kHz 32 20 μA 33 80 μA 329 99 μA 190 00 μA 45 Hz 189 71 μA 190 29 μA 329 99 μA 190 00 μA 1 kHz 189 ...

Page 252: ...0000 mA 10 kHz 18 967 mA 19 033 mA 32 999 mA 19 0000 mA 30 kHz 18 935 mA 19 065 mA 32 999 mA 32 9000 mA 10 Hz 32 849 mA 32 951 mA 32 999 mA 32 9000 mA 1 kHz 32 886 mA 32 914 mA 32 999 mA 32 9000 mA 5 kHz 32 877 mA 32 923 mA 32 999 mA 32 9000 mA 10 kHz 32 844 mA 32 956 mA 32 999 mA 32 9000 mA 30 kHz 32 791 mA 33 009 mA 329 99 mA 33 0000 mA 1 kHz 32 97 mA 33 03 mA 329 99 mA 33 0000 mA 5 kHz 32 92 mA...

Page 253: ...00 Hz 3 2954 A 3 3046 A 20 5000 A 3 3000 A 1 kHz 3 2954 A 3 3046 A 20 5000 A 3 3000 A 5 kHz 3 2155 A 3 3845 A 20 5000 A 10 9000 A 45 Hz 10 8926 A 10 9075 A 20 5000 A 10 9000 A 65 Hz 10 8926 A 10 9075 A 20 5000 A 10 9000 A 500 Hz 10 8893 A 10 9107 A 20 5000 A 10 9000 A 1 kHz 10 8893 A 10 9107 A 20 5000 A 10 9000 A 5 kHz 10 6255 A 11 1745 A 20 5000 A 20 0000 A 45 Hz 19 9750 A 20 0250 A 20 5000 A 20 ...

Page 254: ...10 9999 μF 10 9000 μF 100 Hz 10 8693 μF 10 9307 μF 32 9999 μF 20 0000 μF 100 Hz 19 9100 μF 20 0900 μF 32 9999 μF 30 0000 μF 100 Hz 29 8800 μF 30 1200 μF 109 999 μF 70 000 μF 50 Hz 69 662 μF 70 338 μF 109 999 μF 109 000 μF 50 Hz 108 529 μF 109 471 μF 329 999 μF 200 000 μF 54 μA dc 199 020 μF 200 980 μF 329 999 μF 300 000 μF 80 μA dc 298 680 μF 301 320 μF 1 09999 mF 0 33000 mF 90 μA dc 0 32788 mF 0 ...

Page 255: ... 10 0000 mV 9 99660 10 00340 1000 00 C 10 0000 mV 10 0034 9 9966 10000 00 C 100 0000 mV 99 9930 100 0070 10 μV C 10000 00 C 100 0000 mV 100 0070 99 9930 Table 7 12 Verification Tests for Thermocouple Measurement TC Type Input mV Lower Limit C Upper Limit C 0 00 C 0 0000 mV 0 30 0 30 10000 00 C 100 0000 mV 9999 30 10000 70 10000 00 C 100 0000 mV 10000 70 9999 30 30000 00 C 300 0000 mV 29998 50 3000...

Page 256: ...z 0 25 0 25 1 kHz 0 50 0 50 5 kHz 2 50 2 50 10 kHz 5 00 5 00 30 kHz 0 10 00 10 00 65 Hz 59 90 60 10 400 Hz 59 75 60 25 1 kHz 59 50 60 50 5 kHz 57 50 62 50 10 kHz 55 00 65 00 30 kHz 60 50 00 70 00 65 Hz 89 90 90 10 400 Hz 89 75 90 25 1 kHz 89 50 90 50 5 kHz 87 50 92 50 10 kHz 85 00 95 00 3 29999 3 00000 30 kHz 80 00 100 00 32 9999 30 0000 65 Hz 89 90 90 10 329 999 50 000 65 Hz 3 29999 V 3 00000 V 9...

Page 257: ... Hz 20 5000 A 20 0000 A 59 90 60 10 329 999 mV 200 000 mV 400 Hz 20 5000 A 20 0000 A 60 59 75 60 25 65 Hz 329 99 mA 300 00 mA 0 10 0 10 65 Hz 2 99999 A 2 00000 A 0 10 0 10 65 Hz 20 5000 A 5 0000 A 0 10 0 10 400 Hz 20 5000 A 5 0000 A 0 0 25 0 25 65 Hz 329 99 mA 300 00 mA 89 90 90 10 65 Hz 2 99999 A 2 00000 A 89 90 90 10 65 Hz 20 5000 A 20 0000 A 89 90 90 10 32 999 mV 3 3000 V 400 Hz 20 5000 A 20 00...

Page 258: ...ge Normal Output V Output Normal V Frequency Lower Limit 1 Upper Limit 1 119 00 Hz 118 99970 Hz 119 00030 Hz 120 0 Hz 119 99970 Hz 120 00031 Hz 1000 0 Hz 999 9975 Hz 1000 0025 Hz 3 29999 3 00000 100 00 kHz 99 999 75 Hz 100 000 25 Hz 1 Frequency accuracy is specified for 1 year ...

Page 259: ...8 1 Chapter 8 Accessories Title Page Introduction 8 3 Rack Mount Kit 8 4 IEEE 488 Interface Cable 8 4 RS 232 Null Modem Cables 8 4 5520A 525A LEADS 8 4 ...

Page 260: ...5522A Operators Manual 8 2 ...

Page 261: ...25 A 250 V Fast 6 3 X 32 mm 664828 MET CAL IEEE NT Option IEEE Interface 666339 MET CAL IEEE PCI Option IEEE Interface PCI 943738 RS 232 Modem Cable 2 44 m 8 ft SERIAL 2 TO UUT to UUT DB 9 MET CAL L Version 7 Automated Calibration Software Single user floating license Requires MET BASE 7 for operation 5500 CAL L Version 7 Automated Calibration Software Single user floating license RS 232 control o...

Page 262: ...e lengths See Table 8 1 The cables attach to the 5522A to any other IEEE 488 device Each cable has double 24 pin connectors at both ends to allow stacking Metric threaded mounting screws are provided with each connector Appendix D shows the pinout for the IEEE 488 connector RS 232 Null Modem Cables The PM8914 001 and RS40 null modem cables connect the 5522A SERIAL 1 FROM HOST port to a printer vid...

Page 263: ...unction 9 13 Pulse Response Calibration Procedure for an Oscilloscope 9 13 Pulse Response Calibration with a Tunnel Diode Pulser 9 14 The Leveled Sine Wave Function 9 15 Shortcuts for Setting the Frequency and Voltage 9 16 The MORE OPTIONS Menu 9 16 How to Sweep Through a Frequency Range 9 17 Frequency Response Calibration Procedure for an Oscilloscope 9 18 How to Calibrate the Time Base of an Osc...

Page 264: ...Impedance 9 37 Leveled Sine Wave Verification Amplitude 9 38 Leveled Sine Wave Verification Frequency 9 39 Leveled Sine Wave Verification Harmonics 9 39 Leveled Sine Wave Verification Flatness 9 40 Edge Verification Amplitude 9 48 Edge Verification Frequency 9 48 Edge Verification Duty Cycle 9 49 Edge Verification Rise Time 9 49 Tunnel Diode Pulser Verification 9 49 Marker Generator Verification 9...

Page 265: ...ed using the PULSE function This function allows you to vary both the pulse width and the period The oscilloscope s ability to trigger on different waveforms is checked using the Wave Generator WAVEGEN function The oscilloscope s ability to trigger on and capture complex TV Trigger signals is checked using the VIDEO function The oscilloscope s input characteristics can be measured using the Input ...

Page 266: ...table positive or negative zero referenced square wave 2 For square wave frequencies above 1 kHz 0 25 of output 40 μV Edge Specifications Edge Characteristics into 50 Ω Load 1 Year Absolute Uncertainty tcal 5 C Rise Time 300 ps 0 ps 100 ps Amplitude Range p p 4 5 mV to 2 75 V 2 of output 200 μV Resolution 4 digits Adjustment Range 10 around each sequence value indicated below Sequence Values 5 mV ...

Page 267: ...cations Time Maker into 50 Ω 5 s to 50 ms 20 ms to 100 ns 50 to 20 ns 10 ns 5 to 2 ns 1 Year Absolute Uncertainty at Cardinal Points tcal 5 C 25 t 1000 ppm 1 2 5 ppm 2 5 ppm 2 5 ppm 2 5 ppm Wave Shape spike or square spike square or 20 pulse spike or square square or sine sine Typical Output Level 1 V p p 2 1 V p p 2 1 V p p 2 1 V p p 2 1 V p p Typical Jitter rms 10 ppm 1 ppm 1 ppm 1 ppm 1 ppm Seq...

Page 268: ...off 1 1 V 2 ns Trigger Signal Specifications Edge Function Edge Signal Frequency Division Ratio Typical Amplitude into 50 Ω p p Typical Rise Time Typical Lead Time 900 Hz to 11 MHz off 1 1 V 2 ns 40 ns Trigger Signal Specifications Square Wave Voltage Function Voltage Function Frequency Division Ratio Typical Amplitude into 50 Ω p p Typical Rise Time Typical Lead Time 10 Hz to 10 kHz off 1 1 V 2 n...

Page 269: ...gger and view its signal with the calibration signal connect the TRIG OUT output to another channel See your oscilloscope manual for details on connecting and viewing an external trigger 5522A CALIBRATOR gjh036 eps Figure 9 1 Oscilloscope Connection Channel and External Trigger How to Start the SC600 Option Press a LED lit to select the SC600 Option The SCOPE menu shown below appears in the Contro...

Page 270: ...utput Display will show OPR and the output should appear on the oscilloscope How to Adjust the Output Signal The Calibrator provides several ways to change the settings for the output signal during calibration Since oscilloscope calibration requires many adjustments of the output signal the three available methods for changing these settings for oscilloscope calibration are summarized below These ...

Page 271: ...n the field without changing the digit press e gjh038 eps 2 To move the cursor between the voltage and frequency fields press e gjh039 eps 3 Use W and L to move the cursor to the digit you want to change 4 Turn the rotary knob to change the value When you use the rotary knob in either Volt mode or Marker mode the Control Display shows the new value s percent change from the reference value This is...

Page 272: ...e line divisions that need to be matched vary for different oscilloscopes and are specified in your oscilloscope s service manual The Volt Function The Voltage gain is calibrated using the Volt function This function is accessed through the Volt menu which appears when you start the SCOPE option or when you press the softkey under MODE to scroll through the oscilloscope calibration menus gjh052 ep...

Page 273: ...ss the softkey under DOWN to decrease the volts per division DIV Specifies the number of divisions that establish the peak to peak value of the waveform The value can be adjusted from one to eight divisions The amount denoted by each division is displayed in the V div field Press the softkey under UP to increase the signal s height and press the softkey under DOWN to decrease it Shortcuts to Set t...

Page 274: ...ttings for your oscilloscope This example shows the gain at 30 mV to be 6 divisions at 5 mV per division gl006i bmp 4 Change the voltage to the next value recommended for calibrating your oscilloscope model and repeat this procedure at the new voltage level verifying the gain is correct according to the specifications in your manual 5 Repeat the procedure for each channel How to Calibrate the Puls...

Page 275: ... drive a Tunnel Diode Pulser Fluke Part Number 606522 Tektronix 067 0681 01 or equivalent TRIG If you are using the external trigger use this key to toggle the trigger off and on When on the reading will show 1 which indicates that the external trigger is at the same frequency as the edge output The external trigger can be useful for many digital storage oscilloscopes that have difficulty triggeri...

Page 276: ...stest position available 20 0 or 50 0 ns div Pulse aberrations gl007i eps 5 Verify that your oscilloscope exhibits the proper rise time and pulse aberration characteristics 6 Remove the input signal by pressing Y Pulse Response Calibration with a Tunnel Diode Pulser You can use the calibrator to drive a tunnel diode pulser Fluke Part Number 606522 or Tektronix 067 0681 01 or equivalent allowing yo...

Page 277: ...loscope s bandwidth When you check your oscilloscope you change the wave s frequency until the amplitude displayed on the oscilloscope drops 30 which is the amplitude that corresponds to the 3 dB point To access the Levsine menu press the softkey under MODE until levsine appears gjh056 eps You can press the MODE softkey to cycle through the functions in the order shown or you can press P to return...

Page 278: ...ange if necessary The following section provides details on this menu The X and D keys step frequencies up or down in amounts that let you quickly access a new set of frequencies For example if the value is 250 kHz X changes it to 300 kHz and D changes it to 200 kHz For voltage values X and D step through cardinal point values in a 1 2 3 6 sequence The MORE OPTIONS Menu When you select MORE OPTION...

Page 279: ...s vertical gain The range setting will always return to auto after you leave Levsine mode MODE Indicates you are in Levsine mode Use the softkey to change modes and open the corresponding menus for the other four calibration modes How to Sweep Through a Frequency Range When you change frequencies using the sweep method the output sine wave sweeps through a specified range of frequencies This featu...

Page 280: ...Reconnect the signal by pressing the O key on the 5522A Select 50 Ω impedance or use a 50 Ω external termination directly at the oscilloscope input 2 Adjust the sine wave settings in the Output Display according to the calibration recommendations in your oscilloscope manual For example for the HP 54522C oscilloscope start at 600 mV 1 MHz To enter 600 mV press 6 0 0 c V then press E 3 Adjust the os...

Page 281: ...lection time base of an oscilloscope is calibrated using a method similar to the vertical gain calibration A time marker signal is generated from the Calibrator and the signal s peaks are matched to the graticule line divisions on the oscilloscope The Time Marker Function The Time MARKER function which is available through the MARKER menu lets you calibrate the timing response of your oscilloscope...

Page 282: ...ases the voltage to the nearest cardinal point which is 500 μs Time Base Marker Calibration Procedure for an Oscilloscope This sample procedure uses the Time Marker function to check the horizontal deflection time base of your oscilloscope See your oscilloscope s manual for the exact time base values recommended for calibration Before you begin this procedure verify that you are in Marker mode If ...

Page 283: ...rms can be tested using the wave generator When the wave generator is used a square sine or triangle wave is transmitted and the wave s output impedance offset and voltage can be varied in order to test the triggering capability at different levels NOTE The wave generator should not be used for checking the accuracy of your oscilloscope The wave generator is available through the Wavegen menu show...

Page 284: ...he offset plus half of the wave s peak to peak value See Wave Generator Specifications at the beginning of this chapter MODE Indicates you are in Wavegen mode Use the softkey to change modes and open the corresponding menus for the other four oscilloscope calibration modes How to Test Video Triggers gjh062 eps You can press the MODE softkey to cycle through the functions in the order shown or you ...

Page 285: ...ey to cycle through the trigger settings The available trigger settings are off 1 trigger signal appears on each marker 10 trigger signal appears on every tenth marker and 100 trigger signal appears on each 100 markers MODE Indicates you are in PULSE mode Use the softkey to change modes and open the menus for the other oscilloscope calibration modes Default Pulse settings are 100 0 ns width and 1 ...

Page 286: ...other oscilloscope calibration modes If you have selected Capacitance measurement the menu appears as follow gjh065 eps SET OFFSET With the cable disconnected at the oscilloscope but still connected at the Calibrator press SET OFFSET to cancel the capacitance of the Calibrator and cable Press again CLEAR OFFSET to cancel the offset Input Impedance Measurement With MEAS Z mode selected perform the ...

Page 287: ...hrough the functions in the order shown or you can press P to return directly to the OTHER modes menu Each option in the OVERLD menu is described below OUTPUT SCOPE Indicates the location of the signal output UUTTRIP Indicates test results NO appears if the overload protection did not trip within the selected time limit A value in seconds appears e g 4 1s if the overload protection has tripped wit...

Page 288: ...nd OUT_IMP are designated as overlapped commands because they may be overlapped interrupted by the next command before they have completed execution When an overlapped command is interrupted it may take longer to execute while it waits for other commands to be completed To prevent an overlapped command from being interrupted during execution use OPC OPC or WAI which prevent interruptions until the...

Page 289: ...nce 1 MΩ standby if from OFF or previously in standby FUNC returns WAVEGEN Example SCOPE WAVEGEN OUT 1 V 1 kHz Wave Generator 1 V peak to peak 1 kHz VIDEO Oscilloscope VIDEO mode Programs 100 output 1 V p p line marker 10 format NTSC FUNC returns VIDEO Examples SCOPE VIDEO OUT 90 Video 90 output SCOPE VIDEO OUT 70 Video 70 output inverse video PULSE Oscilloscope PULSE mode Programs 100 ns pulse wi...

Page 290: ...peak 1 MHz output at the SCOPE BNC standby if from OFF or previously in standby LEVSINE Oscilloscope leveled sine mode Programs 30 mV peak to peak 50 kHz output at the SCOPE BNC standby if from OFF or previously in standby MARKER Oscilloscope Marker mode Programs the period to 1 ms output at the SCOPE BNC standby if from OFF or previously in standby WAVEGEN Oscilloscope Wavegen mode Programs 20 mV...

Page 291: ...is 1 100 of the signal at SCOPE output TRIG IEEE 488 RS 232 Sequential Returns the output setting of the oscilloscope s trigger Parameters None Response character Returns OFF DIV1 DIV10 or DIV100 OUT_IMP IEEE 488 RS 232 Sequential Programs the oscilloscope s output impedance Parameters Z50 Programs the oscilloscope s output impedance to 50 Ω Z1M Programs the oscilloscope s output impedance to 1 MΩ...

Page 292: ...ero or OFF or zero Example TDPULSE ON Returns the tunnel diode pulse drive setting in EDGE mode Parameters None Response 1 if ON 0 if OFF Marker Function Commands TMWAVE IEEE 488 RS 232 Sequential Selects the waveform for MARKER mode Parameters SINE Sine wave 2 ns to 15 ns SPIKE Triangular sawtooth pulse 15 ns to 5s SQUARE Square wave 50 duty cycle 4 ns to 5s SQ20PCT Square wave 20 duty cycle 85 n...

Page 293: ...EE 488 RS 232 Sequential Returns the VIDEO mode line marker setting Parameters None Response character SINE SPIKE SQUARE or SQ20PCT Overload Function Commands OL_TRIP IEEE 488 RS 232 Sequential Returns the detected state of scope overload protection Parameters None Response Returns the number of seconds before protection was tripped Returns 0 if protection has not been tripped or if OVERLD mode no...

Page 294: ...itance value Parameters boolean ON or OFF TRG IEEE 488 RS 232 Sequential Triggers and returns a new impedance measurement value when used with the SC600 option in MEAS Z mode See Chapter 6 for TRG use in all cases except MEAS Z mode with the SC600 option Responses measurement value OHM input impedance value in ohms measurement value F input capacitance value in farads measurement value NONE no mea...

Page 295: ...ured Value V dc Deviation V dc 1 Year Spec V dc 0 0 00004 0 00125 0 000040625 0 00125 0 000040625 0 00249 0 000041245 0 00249 0 000041245 0 0025 0 00004125 0 0025 0 00004125 0 00625 0 000043125 0 00625 0 000043125 0 0099 0 00004495 0 0099 0 00004495 0 01 0 000045 0 01 0 000045 0 0175 0 00004875 0 0175 0 00004875 0 0249 0 00005245 0 0249 0 00005245 0 025 0 0000525 0 025 0 0000525 0 0675 0 00007375 ...

Page 296: ... 00114 6 6 0 00334 6 6 0 00334 10 99 0 005535 10 99 0 005535 11 0 00554 11 0 00554 70 5 0 03529 70 5 0 03529 130 0 06504 130 0 06504 6 599 50 Ω 0 0165375 AC Voltage Amplitude Verification Table 9 3 SC600 Option AC Voltage Amplitude Verification 1 MΩ output impedance unless noted Nominal Value V p p Frequency Hz Measured Value V p p Deviation V p p 1 year Spec V p p 0 001 1000 0 000041 0 001 1000 0...

Page 297: ...9 4 AC Voltage Frequency Verification 1 MΩ output impedance unless noted Nominal Value V p p Frequency Hz Measured Value Hz Deviation Hz 1 year Spec Hz 2 1 10 0 000025 2 1 100 0 00025 2 1 1000 0 0025 2 1 10000 0 025 Wave Generator Amplitude Verification 1 MΩ Output Impedance Table 9 5 SC600 Option Wave Generator Amplitude Verification 1 M output impedance Wave Shape Nominal Value V p p Frequency H...

Page 298: ...are 3 75 1000 0 1126 square 6 59 1000 0 1978 square 6 6 1000 0 1981 square 30 8 1000 0 9241 square 55 10 1 6501 square 55 100 1 6501 square 55 1000 1 6501 square 55 10000 1 6501 sine 0 0018 1000 0 000154 sine 0 0219 1000 0 000757 sine 0 0899 1000 0 002797 sine 0 219 1000 0 00667 sine 0 899 1000 0 02707 sine 6 59 1000 0 1978 sine 55 1000 1 6501 triangle 0 0018 1000 0 000154 triangle 0 0219 1000 0 0...

Page 299: ...uare 0 0449 1000 0 001447 square 0 045 1000 0 00145 square 0 078 1000 0 00244 square 0 109 1000 0 00337 square 0 11 1000 0 0034 square 0 28 1000 0 0085 square 0 449 1000 0 01357 square 0 45 1000 0 0136 square 0 78 1000 0 0235 square 1 09 1000 0 0328 square 1 1 1000 0 0331 square 1 8 1000 0 0541 square 2 5 10 0 0751 square 2 5 100 0 0751 square 2 5 1000 0 0751 square 2 5 10000 0 0751 sine 0 0018 10...

Page 300: ...ine Wave Verification Amplitude Table 9 7 SC600 Option Leveled Sine Wave Verification Amplitude Nominal Value V p p Frequency Measured Value V p p Deviation V p p 1 Year Spec V p p 0 005 50 kHz 0 0004 0 0075 50 kHz 0 00045 0 0099 50 kHz 0 000498 0 01 50 kHz 0 0005 0 025 50 kHz 0 0008 0 039 50 kHz 0 00108 0 04 50 kHz 0 0011 0 07 50 kHz 0 0017 0 099 50 kHz 0 00228 0 1 50 kHz 0 0023 0 25 50 kHz 0 005...

Page 301: ...equency Measured Value dB Deviation dB 1 Year Spec dB 2nd harmonic 0 0399 50 kHz 33 3rd harmonic 0 0399 50 kHz 38 2nd harmonic 0 099 50 kHz 33 3rd harmonic 0 099 50 kHz 38 2nd harmonic 0 399 50 kHz 33 3rd harmonic 0 399 50 kHz 38 2nd harmonic 1 2 50 kHz 33 3rd harmonic 1 2 50 kHz 38 2nd harmonic 5 5 50 kHz 33 3rd harmonic 5 5 50 kHz 38 2nd harmonic 5 5 100 kHz 33 3rd harmonic 5 5 100 kHz 38 2nd ha...

Page 302: ... MHz 38 2nd harmonic 5 5 80 MHz 33 3rd harmonic 5 5 80 MHz 38 2nd harmonic 5 5 100 MHz 33 3rd harmonic 5 5 100 MHz 38 2nd harmonic 5 5 200 MHz 33 3rd harmonic 5 5 200 MHz 38 2nd harmonic 5 5 400 MHz 33 3rd harmonic 5 5 400 MHz 38 2nd harmonic 5 5 600 MHz 33 3rd harmonic 5 5 600 MHz 38 Leveled Sine Wave Verification Flatness Table 9 10 SC600 Option Leveled Sine Wave Verification Flatness Nominal Va...

Page 303: ...0002125 0 0075 70 MHz 0 0002125 0 0075 120 MHz 0 00025 0 0075 290 MHz 0 00025 0 0075 360 MHz 0 0004 0 0075 390 MHz 0 0004 0 0075 400 MHz 0 0004 0 0075 480 MHz 0 0004 0 0075 570 MHz 0 0004 0 0075 580 MHz 0 0004 0 0075 590 MHz 0 0004 0 0075 600 MHz 0 0004 0 0099 50 kHz na na 0 0099 30 MHz 0 0002485 0 0099 70 MHz 0 0002485 0 0099 120 MHz 0 000298 0 0099 290 MHz 0 000298 0 0099 360 MHz 0 000496 0 0099...

Page 304: ...0 01 400 MHz 0 0005 0 01 480 MHz 0 0005 0 01 570 MHz 0 0005 0 01 580 MHz 0 0005 0 01 590 MHz 0 0005 0 01 600 MHz 0 0005 0 025 50 kHz na na 0 025 30 MHz 0 000475 0 025 70 MHz 0 000475 0 025 120 MHz 0 0006 0 025 290 MHz 0 0006 0 025 360 MHz 0 0011 0 025 390 MHz 0 0011 0 025 400 MHz 0 0011 0 025 480 MHz 0 0011 0 025 570 MHz 0 0011 0 025 580 MHz 0 0011 0 025 590 MHz 0 0011 0 025 600 MHz 0 0011 0 039 5...

Page 305: ...39 590 MHz 0 00166 0 039 600 MHz 0 00166 0 04 50 kHz na na 0 04 30 MHz 0 0007 0 04 70 MHz 0 0007 0 04 120 MHz 0 0009 0 04 290 MHz 0 0009 0 04 360 MHz 0 0017 0 04 390 MHz 0 0017 0 04 400 MHz 0 0017 0 04 480 MHz 0 0017 0 04 570 MHz 0 0017 0 04 580 MHz 0 0017 0 04 590 MHz 0 0017 0 04 600 MHz 0 0017 0 07 50 kHz na na 0 07 30 MHz 0 00115 0 07 70 MHz 0 00115 0 07 120 MHz 0 0015 0 07 290 MHz 0 0015 0 07 ...

Page 306: ...99 360 MHz 0 00406 0 099 390 MHz 0 00406 0 099 400 MHz 0 00406 0 099 480 MHz 0 00406 0 099 570 MHz 0 00406 0 099 580 MHz 0 00406 0 099 590 MHz 0 00406 0 099 600 MHz 0 00406 0 1 50 kHz na na 0 1 30 MHz 0 0016 0 1 70 MHz 0 0016 0 1 120 MHz 0 0021 0 1 290 MHz 0 0021 0 1 360 MHz 0 0041 0 1 390 MHz 0 0041 0 1 400 MHz 0 0041 0 1 480 MHz 0 0041 0 1 570 MHz 0 0041 0 1 580 MHz 0 0041 0 1 590 MHz 0 0041 0 1...

Page 307: ...0 0101 0 25 590 MHz 0 0101 0 25 600 MHz 0 0101 0 399 50 kHz na na 0 399 30 MHz 0 006085 0 399 70 MHz 0 006085 0 399 120 MHz 0 00808 0 399 290 MHz 0 00808 0 399 360 MHz 0 01606 0 399 390 MHz 0 01606 0 399 400 MHz 0 01606 0 399 480 MHz 0 01606 0 399 570 MHz 0 01606 0 399 580 MHz 0 01606 0 399 590 MHz 0 01606 0 399 600 MHz 0 01606 0 4 50 kHz na na 0 4 30 MHz 0 0061 0 4 70 MHz 0 0061 0 4 120 MHz 0 008...

Page 308: ...161 0 8 290 MHz 0 0161 0 8 360 MHz 0 0321 0 8 390 MHz 0 0321 0 8 400 MHz 0 0321 0 8 480 MHz 0 0321 0 8 570 MHz 0 0321 0 8 580 MHz 0 0321 0 8 590 MHz 0 0321 0 8 600 MHz 0 0321 1 2 50 kHz na na 1 2 30 MHz 0 0181 1 2 70 MHz 0 0181 1 2 120 MHz 0 0241 1 2 290 MHz 0 0241 1 2 360 MHz 0 0481 1 2 390 MHz 0 0481 1 2 400 MHz 0 0481 1 2 480 MHz 0 0481 1 2 570 MHz 0 0481 1 2 580 MHz 0 0481 1 2 590 MHz 0 0481 1...

Page 309: ... 0521 1 3 570 MHz 0 0521 1 3 580 MHz 0 0521 1 3 590 MHz 0 0521 1 3 600 MHz 0 0521 3 4 50 kHz na na 3 4 30 MHz 0 0511 3 4 70 MHz 0 0511 3 4 120 MHz 0 0681 3 4 290 MHz 0 0681 3 4 360 MHz 0 1361 3 4 390 MHz 0 1361 3 4 400 MHz 0 1361 3 4 480 MHz 0 1361 3 4 570 MHz 0 1361 3 4 580 MHz 0 1361 3 4 590 MHz 0 1361 3 4 600 MHz 0 1361 5 5 50 kHz na na 5 5 30 MHz 0 0826 5 5 70 MHz 0 0826 5 5 120 MHz 0 1101 5 5...

Page 310: ...ncy Hz Measured Value V p p Deviation V p p 1 Year Spec V p p 0 005 1 kHz 0 0003 0 005 10 kHz 0 0003 0 005 100 kHz 0 0003 0 01 100 kHz 0 0004 0 025 100 kHz 0 0007 0 05 100 kHz 0 0012 0 1 100 kHz 0 0022 0 25 100 kHz 0 0052 0 5 100 kHz 0 0102 1 100 kHz 0 0202 2 5 100 kHz 0 0502 2 5 10 kHz 0 0502 2 5 1 kHz 0 0502 Edge Verification Frequency Table 9 12 SC600 Option Edge Verification Frequency Nominal ...

Page 311: ...requency Measured Value s Deviation ns 1 Year Spec ns 0 25 1 kHz 0 3 ns 0 25 100 kHz 0 3 ns 0 25 10 MHz 0 3 ns 0 5 1 kHz 0 3 ns 0 5 100 kHz 0 3 ns 0 5 10 MHz 0 3 ns 1 1 kHz 0 3 ns 1 100 kHz 0 3 ns 1 10 MHz 0 3 ns 2 5 1 kHz 0 3 ns 2 5 100 kHz 0 3 ns 2 5 10 MHz 0 3 ns Tunnel Diode Pulser Verification Table 9 15 SC600 Option Tunnel Diode Pulser Verification Nominal Value V p p Frequency Hz Measured V...

Page 312: ...eriod Table 9 17 SC600 Option Pulse Generator Verification Period Nominal Value V p p Pulse Width s Period s Measured Value s Deviation s 1 Year Spec s 2 5 8E 08 2E 06 5E 12 2 5 0 0000005 0 01 2 5E 08 2 5 0 0000005 0 02 5E 08 Pulse Generator Verification Pulse Width Table 9 18 SC600 Option Pulse Generator Verification Pulse Width Nominal Value V p p Pulse Width s Period s Measured Value s Deviatio...

Page 313: ...ification Resistance Nominal Value Ω Measured Value Ω Deviation Ω 1 Year Spec Ω 40 0 04 50 0 05 60 0 06 600000 600 1000000 1000 1500000 1500 Input Impedance Verification Capacitance Table 9 20 SC600 Option Input Impedance Verification Capacitance Nominal Value pF Measured Value pF Deviation pF 1 Year Spec pF 5 pF 0 75 pF 29 pF 1 95 pF 49 pF 2 95 pF ...

Page 314: ...5522A Operators Manual 9 52 ...

Page 315: ...cedure 10 14 Pulse Response Calibration Using a Tunnel Diode Pulser 10 15 The Leveled Sine Wave Function 10 16 Shortcuts for Setting the Frequency and Voltage 10 17 The MORE OPTIONS Menu 10 17 How to Sweep Through a Frequency Range 10 18 Oscilloscope Frequency Response Calibration Procedure 10 19 How to Calibrate the Time Base of an Oscilloscope 10 20 The Time Marker Function 10 21 Time Base Marke...

Page 316: ...Verification Amplitude 10 41 Edge Verification Frequency 10 42 Edge Verification Duty Cycle 10 42 Edge Verification Rise Time 10 42 Tunnel Diode Pulser Verification 10 43 Leveled Sinewave Verification Amplitude 10 43 Leveled Sinewave Verification Frequency 10 44 Leveled Sinewave Verification Harmonics 10 44 Leveled Sinewave Verification Flatness 10 46 Marker Generator Verification 10 53 Pulse Gene...

Page 317: ...and the period The oscilloscope s ability to trigger on different waveforms is checked using the Wave Generator WAVEGEN function The oscilloscope s ability to trigger on and capture complex TV Trigger signals is checked using the VIDEO function The oscilloscope s input characteristics can be measured using the Input Resistance and Capacitance MEAS Z function The oscilloscope s input protection cir...

Page 318: ...SA C22 2 No 1010 1 92 Analog Low Isolation 20 V EMC Complies with EN 61326 1 1997 Class A Volt Specifications DC Signal Square Wave Signal 1 Volt Function 50 Ω Load 1 MΩ Load 50 Ω Load 1 MΩ Load Amplitude Characteristics Range 0 to 6 6 V 0 to 130 V 1 mV to 6 6 V p p 1 mV to 130 V p p Resolution Range 1 to 24 999 mV 25 to 109 99 mV 110 mV to 2 1999 V 2 2 to 10 999 V 11 to 130 V Resolution 1 μV 10 μ...

Page 319: ...e made with a Tektronix 11801 mainframe with an SD26 input module Leveled Sine Wave Specifications Leveled Sine Wave Frequency Range Characteristics into 50 Ω 50 kHz reference 50 kHz to 100 MHz 100 to 300 MHz 300 to 600 MHz 600 to 1100 MHz Amplitude Characteristics for measuring oscilloscope bandwidth Range p p 5 mV to 5 5 V 5 mV to 3 5 V Resolution 100 mV 3 digits 100 mV 4 digits Adjustment Range...

Page 320: ...cated above Amplitude Resolution 4 digits 1 t is the time in seconds 2 Typical rise time of square wave and 20 pulse 20 duty cycle pulse is 1 5 ns 3 Time marker uncertainty is 50 ppm away from the cardinal points Wave Generator Specifications Wave Generator Characteristics Square Wave Sine Wave and Triangle Wave into 50 Ω or 1 MΩ Amplitude Range into 1 MΩ 1 8 mV to 55 V p p into 50 Ω 1 8 mV to 2 5...

Page 321: ... Division Ratio Amplitude into 50 Ω p p Typical Rise Time 5 s to 35 ms off 1 1 V 2 ns 34 9 ms to 750 ns off 1 10 100 1 V 2 ns 749 to 7 5 ns off 10 100 1 V 2 ns 7 4 to 2 ns off 100 1 V 2 ns Trigger Signal Specifications Edge Function Edge Signal Frequency Division Ratio Typical Amplitude into 50 Ω p p Typical Rise Time Typical Lead Time 1 kHz to 10 MHz off 1 1 V 2 ns 40 ns Trigger Signal Specificat...

Page 322: ...he external trigger connect the TRIG OUT output on the Calibrator to the external trigger connection on your oscilloscope To use the external trigger and view its signal with the calibration signal connect the TRIG OUT output to another channel See your oscilloscope manual for details on connecting and viewing an external trigger 5522A CALIBRATOR gjh036 eps Figure 10 1 Oscilloscope Connection Chan...

Page 323: ...d press the O key The Output Display will show OPR and the output should appear on the oscilloscope How to Adjust the Output Signal The Calibrator provides several ways to change the settings for the output signal during calibration Since oscilloscope calibration requires many adjustments of the output signal the three available methods for changing these settings for oscilloscope calibration are ...

Page 324: ...lace the cursor in the field without changing the digit press e gl003i eps 2 To move the cursor between the voltage and frequency fields press e gl004i eps 3 Use the L and W keys to move the cursor to the digit you want to change 4 Turn the rotary knob to change the value When you use the rotary knob in either VOLT mode or MARKER mode the Control Display shows the new value s percentage change fro...

Page 325: ... applied from the Calibrator in VOLT mode The specific voltages that you should use for calibration and the graticule line divisions that need to be matched vary for different oscilloscopes and are specified in your oscilloscope s service manual The VOLT Function You can calibrate the Voltage gain using the VOLT function Access this function through the VOLT menu which appears when you press a or ...

Page 326: ...ts Press the softkey under UP to increase the volts per division Press the softkey under DOWN to decrease the volts per division DIV Specifies the number of divisions that establish the peak to peak value of the waveform The value can be adjusted from one to eight divisions The amount denoted by each division is displayed in the V div field Press the softkey under UP to increase the signal s heigh...

Page 327: ... waveform should be similar to the one shown below with the gain at exactly the amount specified for the calibration settings for your oscilloscope This example shows the gain at 30 mV to be 6 divisions at 5 mV per division gl006i eps 4 Change the voltage to the next value recommended for calibrating your oscilloscope model and repeat this procedure at the new voltage level verifying the gain is c...

Page 328: ... Diode Pulser Fluke Part Number 606522 Tektronix 067 0681 01 or equivalent TRIG If you are using the external trigger use this key to toggle the trigger off and on When on the reading will show 1 which indicates that the external trigger is at the same frequency as the edge output The external trigger can be useful for many oscilloscopes that have difficulty triggering on low amplitude signals MOD...

Page 329: ...to the fastest position available 20 0 or 50 0 ns div Pulse aberrations gl007i eps 5 Verify that your oscilloscope exhibits the proper rise time and pulse aberration characteristics 6 Remove the input signal by pressing Y Pulse Response Calibration Using a Tunnel Diode Pulser You can use the calibrator to drive a tunnel diode pulser Fluke Part Number 606522 or Tektronix 067 0681 01 or equivalent a...

Page 330: ...dwidth When you check your oscilloscope you change the wave s frequency until the amplitude displayed on the oscilloscope drops 30 which is the amplitude that corresponds to the 3 dB point Default values are 30 mV p p 50 kHz To access the LEVSINE menu press the softkey under MODE until levsine appears gjh056 eps You can press the MODE softkey to cycle through the functions in the order shown or yo...

Page 331: ...t at the reference after you make adjustments at a different frequency MORE OPTIONS lets you use an automatic frequency sweep and lock the voltage range if necessary The following section provides details on this menu The X and D keys step frequencies up or down in amounts that let you quickly access a new set of frequencies For example if the value is 250 kHz X changes it to 300 kHz and D changes...

Page 332: ...to which should always be used unless you are troubleshooting discontinuities in your oscilloscope s vertical gain The range setting will always return to auto after you leave LEVSINE mode MODE Indicates you are in LEVSINE mode Use the softkey to change modes and open menus for other calibration modes How to Sweep Through a Frequency Range When you change frequencies using the sweep method the out...

Page 333: ... start this example procedure verify that you are running the SC1100 Option in LEVSINE mode If you are the Control Display shows the following menu gjh058 eps Perform the following sample procedure to calibrate the frequency response 1 Reconnect the signal by pressing the O key on the Calibrator Select 50 Ω impedance or use a 50 Ω external termination directly at the oscilloscope input 2 Adjust th...

Page 334: ... it to the digit you want to change Then change the value by turning the rotary knob Continue making small increments in the frequency until the signal drops to 4 2 divisions At 4 2 divisions the signal is at the frequency that corresponds to the 3 dB point gl010i bmp 6 Remove the input signal by pressing Y 7 Repeat this procedure for the remaining channels on your oscilloscope How to Calibrate th...

Page 335: ... 20 duty cycle square wave Note that selections available under SHAPE depend on the selected marker period frequency as follows Selection Period Frequency sine 10 ns 1 ns 100 MHz 1 GHz spike 5s 20 ns 0 2 Hz 50 MHz square 5s 10 ns 0 2 Hz 100 MHz sq20 20 ms 100 ns 50 kHz 10 MHz TRIG If you are using the external trigger use this key to cycle through the trigger settings The available trigger setting...

Page 336: ...c coupled 2 Apply a time marker value according to the recommended calibration settings in your oscilloscope manual For example to enter 200 ns press 2 0 0 b K b H then press E Note You may enter the equivalent frequency instead of the time marker value For example instead of entering 200 ns you may enter 5 MHz 3 Set your oscilloscope s time base to show 10 time markers The time markers should ali...

Page 337: ...bed below OUTPUT SCOPE Indicates the location of the signal output If the signal does not appear on the oscilloscope press O To disconnect the signal press Y WAVE Scrolls through the three types of waveforms that are available You can select a square sine or triangle wave as the output SCOPE Z Toggles the calibrator s output impedance setting between 50 Ω and 1 MΩ OFFSET Displays the offset of the...

Page 338: ...s the location of the signal output If the signal does not appear on the oscilloscope press O To disconnect the signal press Y LINE MK Allows you to select the marker line number For ntsc and pal m formats you can also select field odd or even For pal and secam formats the field ODD or EVEN is selected automatically based on marker line number FORMAT Scrolls through the available formats You can s...

Page 339: ... cycle through the trigger settings The available trigger settings are off 1 trigger signal appears on each marker 10 trigger signal appears on every tenth marker and 100 trigger signal appears at every 100th marker MODE Indicates you are in PULSE mode Use the softkey to change modes and open menus for other oscilloscope calibration modes Default Pulse settings are 100 0 ns width and 1 000 ms peri...

Page 340: ...e softkey to change modes and open menus for other oscilloscope calibration modes If you have selected Capacitance measurement the menu appears as follows gjh065 eps SET OFFSET With the cable disconnected at the oscilloscope but still connected at the Calibrator press SET OFFSET to cancel the capacitance of the Calibrator and cable Press again CLEAR OFFSET to cancel the offset Default Impedance Me...

Page 341: ...s and currents that this test can output Failing to do so could damage your oscilloscope gjh066 eps You can press the MODE softkey to cycle through the functions in the order shown or you can press P to return directly to the OTHER modes menu Each option in the OVERLD menu is described below OUTPUT SCOPE Indicates the location of the output signal UUTTRIP Indicates test results NO appears if the o...

Page 342: ...tial Commands in Chapter 5 Overlapped Commands Commands SCOPE TRIG and OUT_IMP are designated as overlapped commands because they may be overlapped interrupted by the next command before they have completed execution When an overlapped command is interrupted it may take longer to execute while it waits for other commands to be completed To prevent an overlapped command from being interrupted durin...

Page 343: ... output impedance 1 MΩ standby if from OFF or previously in standby FUNC returns WAVEGEN Example SCOPE WAVEGEN OUT 1 V 1 kHz Wave Generator 1 V peak to peak 1 kHz VIDEO Oscilloscope VIDEO mode Programs 100 output 1 V p p line marker 10 format NTSC FUNC returns VIDEO Examples SCOPE VIDEO OUT 90 Video 90 output SCOPE VIDEO OUT 70 Video 70 output inverse video PULSE Oscilloscope PULSE mode Programs 1...

Page 344: ...de Programs 30 mV peak to peak 50 kHz output at the SCOPE BNC standby if from OFF or previously in standby MARKER Oscilloscope Marker mode Programs the period to 1 ms output at the SCOPE BNC standby if from OFF or previously in standby WAVEGEN Oscilloscope Wavegen mode Programs 20 mV peak to peak square wave 1 kHz no offset output impedance 1 MΩ standby if from OFF or previously in standby Example...

Page 345: ...he trigger output on Frequency is 1 100 of the signal at SCOPE output Example TRIG DIV10 TRIG IEEE 488 RS 232 Sequential Returns the output setting of the oscilloscope s trigger Parameters None Response character Returns OFF DIV1 DIV10 or DIV100 OUT_IMP IEEE 488 RS 232 Sequential Programs the oscilloscope s output impedance Parameters Z50 Programs the oscilloscope s output impedance to 50 Ω Z1M Pr...

Page 346: ...GE TP20DB Edge Function Commands TDPULSE IEEE 488 RS 232 Sequential Turns tunnel diode pulse drive on off in EDGE mode Parameters ON or non zero or OFF or zero Example TDPULSE ON Returns the tunnel diode pulse drive setting in EDGE mode Parameters None Response 1 if ON 0 if OFF Marker Function Commands TMWAVE IEEE 488 RS 232 Sequential Selects the waveform for MARKER mode Parameters SINE Sine wave...

Page 347: ...e VIDEO mode line marker location Parameters Line marker number Example VIDEOMARK 10 VIDEOMARK IEEE 488 RS 232 Sequential Returns the VIDEO mode line marker setting Parameters None Response character SINE SPIKE SQUARE or SQ20PCT Overload Function Commands OL_TRIP IEEE 488 RS 232 Sequential Returns the detected state of scope overload protection Parameters None Response Returns the number of second...

Page 348: ...nt offset to the capacitance value Parameters boolean ON or OFF TRG IEEE 488 RS 232 Sequential Triggers and returns a new impedance measurement value when used with the SC1100 option in MEAS Z mode See Chapter 6 for TRG use in all cases except MEAS Z mode with the SC1100 option Responses measurement value OHM input impedance value in ohms measurement value F input capacitance value in farads measu...

Page 349: ... V dc Measured Value V dc Deviation V dc 1 Year Spec V dc 0 0 00004 0 00125 0 000040625 0 00125 0 000040625 0 00249 0 000041245 0 00249 0 000041245 0 0025 0 00004125 0 0025 0 00004125 0 00625 0 000043125 0 00625 0 000043125 0 0099 0 00004495 0 0099 0 00004495 0 01 0 000045 0 01 0 000045 0 0175 0 00004875 0 0175 0 00004875 0 0249 0 00005245 0 0249 0 00005245 0 025 0 0000525 0 025 0 0000525 0 0675 0...

Page 350: ...9 0 001135 2 2 0 00114 2 2 0 00114 6 6 0 00334 6 6 0 00334 10 99 0 005535 10 99 0 005535 11 0 00554 11 0 00554 70 5 0 03529 70 5 0 03529 130 0 06504 130 0 06504 Table 10 3 SC1100 Option DC Voltage Verification at 50 Ω Calibrator Mainframe Output Measured Value V DC Reading x correction Tolerance V DC 0 mV 0 00004 V 2 49 mV 4 623E 05 V 2 49 mV 4 623E 05 V 9 90 mV 6 475E 05 V 9 90 mV 6 475E 05 V 24 ...

Page 351: ...75 V AC Voltage Verification Table 10 4 SC1100 Option AC Voltage Verification 1 MΩ output impedance unless noted Nominal Value V p p Frequency Hz Measured Value V p p Deviation V p p 1 year Spec V p p 0 001 1000 0 000041 0 001 1000 0 000041 0 01 1000 0 00005 0 01 1000 0 00005 0 025 1000 0 000065 0 025 1000 0 000065 0 11 1000 0 00015 0 11 1000 0 00015 0 5 1000 0 00054 0 5 1000 0 00054 2 2 1000 0 00...

Page 352: ...k to Peak x Correction Tolerance V 1 mV 100 mV dc 0 000043 1 mV 100 mV dc 0 000043 10 mV 100 mV dc 0 000065 10 mV 100 mV dc 0 000065 25 mV 100 mV dc 0 000103 25 mV 100 mV dc 0 000103 110 mV 100 mV dc 0 000315 110 mV 100 mV dc 0 000315 500 mV 1 V dc 0 00129 500 mV 1 V dc 0 00129 2 2 V 10 V dc 0 00554 2 2 V 10 V dc 0 00554 6 6 V 10 V dc 0 01654 6 6 V 10 V dc 0 01654 AC Voltage Frequency Verification...

Page 353: ...178 square 0 0899 1000 0 002797 square 0 09 1000 0 0028 square 0 155 1000 0 00475 square 0 219 1000 0 00667 square 0 22 1000 0 0067 square 0 56 1000 0 0169 square 0 899 1000 0 02707 square 0 9 1000 0 0271 square 3 75 1000 0 1126 square 6 59 1000 0 1978 square 6 6 1000 0 1981 square 30 8 1000 0 9241 square 55 10 1 6501 square 55 100 1 6501 square 55 1000 1 6501 square 55 10000 1 6501 sine 0 0018 10...

Page 354: ...e Shape Nominal Value V p p Frequency Hz Measured Value V p p Deviation V p p 1 Year Spec V p p square 0 0018 1000 0 000154 square 0 0064 1000 0 000292 square 0 0109 1000 0 000427 square 0 011 1000 0 00043 square 0 028 1000 0 00094 square 0 0449 1000 0 001447 square 0 045 1000 0 00145 square 0 078 1000 0 00244 square 0 109 1000 0 00337 square 0 11 1000 0 0034 square 0 28 1000 0 0085 square 0 449 1...

Page 355: ...0 000154 triangle 0 0109 1000 0 000427 triangle 0 0449 1000 0 001447 triangle 0 109 1000 0 00337 triangle 0 449 1000 0 01357 triangle 1 09 1000 0 0328 triangle 2 5 1000 0 0751 Edge Verification Amplitude Table 10 9 SC1100 Option Edge Verification Amplitude Nominal Value V p p Frequency Hz Measured Value V p p Deviation V p p 1 Year Spec V p p 0 005 1 kHz 0 0003 0 005 10 kHz 0 0003 0 005 100 kHz 0 ...

Page 356: ... 11 SC1100 Option Edge Verification Duty Cycle Nominal Value V p p Frequency Measured Value Deviation from 50 1 Year Spec 2 5 1 MHz 5 Edge Verification Rise Time Table 10 12 SC1100 Option Edge Verification Rise TimeE Nominal Value V p p Frequency Measured Value s Deviation ns 1 Year Spec ns 0 25 1 kHz 0 3 ns 0 25 100 kHz 0 3 ns 0 25 10 MHz 0 3 ns 0 5 1 kHz 0 3 ns 0 5 100 kHz 0 3 ns 0 5 10 MHz 0 3 ...

Page 357: ...Leveled Sinewave Verification Amplitude Table 10 14 SC1100 Option Leveled Sinewave Verification Amplitude Nominal Value V p p Frequency Measured Value V p p Deviation V p p 1 Year Spec V p p 0 005 50 kHz 0 0004 0 0075 50 kHz 0 00045 0 0099 50 kHz 0 000498 0 01 50 kHz 0 0005 0 025 50 kHz 0 0008 0 039 50 kHz 0 00108 0 04 50 kHz 0 0011 0 07 50 kHz 0 0017 0 099 50 kHz 0 00228 0 1 50 kHz 0 0023 0 25 50...

Page 358: ...Frequency Measured Value dB Deviation dB 1 Year Spec dB 2nd harmonic 0 0399 50 kHz 33 3rd harmonic 0 0399 50 kHz 38 2nd harmonic 0 099 50 kHz 33 3rd harmonic 0 099 50 kHz 38 2nd harmonic 0 399 50 kHz 33 3rd harmonic 0 399 50 kHz 38 2nd harmonic 1 2 50 kHz 33 3rd harmonic 1 2 50 kHz 38 2nd harmonic 5 5 50 kHz 33 3rd harmonic 5 5 50 kHz 38 2nd harmonic 5 5 100 kHz 33 3rd harmonic 5 5 100 kHz 38 2nd ...

Page 359: ... harmonic 5 5 8 MHz 38 2 nd harmonic 5 5 10 MHz 33 3 rd harmonic 5 5 10 MHz 38 2 nd harmonic 5 5 20 MHz 33 3 rd harmonic 5 5 20 MHz 38 2 nd harmonic 5 5 40 MHz 33 3 rd harmonic 5 5 40 MHz 38 2 nd harmonic 5 5 80 MHz 33 3 rd harmonic 5 5 80 MHz 38 2 nd harmonic 5 5 100 MHz 33 3 rd harmonic 5 5 100 MHz 38 2 nd harmonic 5 5 200 MHz 33 3 rd harmonic 5 5 200 MHz 38 2 nd harmonic 5 5 400 MHz 33 3 rd har...

Page 360: ...05 390 MHz 0 0003 0 005 400 MHz 0 0003 0 005 480 MHz 0 0003 0 005 570 MHz 0 0003 0 005 580 MHz 0 0003 0 005 590 MHz 0 0003 0 005 600 MHz 0 0003 0 0075 10 MHz na na 0 0075 30 MHz 0 0002125 0 0075 70 MHz 0 0002125 0 0075 120 MHz 0 00025 0 0075 290 MHz 0 00025 0 0075 360 MHz 0 0004 0 0075 390 MHz 0 0004 0 0075 400 MHz 0 0004 0 0075 480 MHz 0 0004 0 0075 570 MHz 0 0004 0 0075 580 MHz 0 0004 0 0075 590...

Page 361: ...80 MHz 0 000496 0 0099 590 MHz 0 000496 0 0099 600 MHz 0 000496 0 01 10 MHz na na 0 01 30 MHz 0 00025 0 01 70 MHz 0 00025 0 01 120 MHz 0 0003 0 01 290 MHz 0 0003 0 01 360 MHz 0 0005 0 01 390 MHz 0 0005 0 01 400 MHz 0 0005 0 01 480 MHz 0 0005 0 01 570 MHz 0 0005 0 01 580 MHz 0 0005 0 01 590 MHz 0 0005 0 01 600 MHz 0 0005 0 01 1000 MHz 0 0005 0 025 10 MHz na na 0 025 30 MHz 0 000475 0 025 70 MHz 0 0...

Page 362: ...000685 0 039 120 MHz 0 00088 0 039 290 MHz 0 00088 0 039 360 MHz 0 00166 0 039 390 MHz 0 00166 0 039 400 MHz 0 00166 0 039 480 MHz 0 00166 0 039 570 MHz 0 00166 0 039 580 MHz 0 00166 0 039 590 MHz 0 00166 0 039 600 MHz 0 00166 0 039 1000 MHz 0 00166 0 04 10 MHz na na 0 04 30 MHz 0 0007 0 04 70 MHz 0 0007 0 04 120 MHz 0 0009 0 04 290 MHz 0 0009 0 04 360 MHz 0 0017 0 04 390 MHz 0 0017 0 04 400 MHz 0...

Page 363: ...9 0 07 390 MHz 0 0029 0 07 400 MHz 0 0029 0 07 480 MHz 0 0029 0 07 570 MHz 0 0029 0 07 580 MHz 0 0029 0 07 590 MHz 0 0029 0 07 600 MHz 0 0029 0 07 1000 MHz 0 0029 0 099 10 MHz na na 0 099 30 MHz 0 001585 0 099 70 MHz 0 001585 0 099 120 MHz 0 00208 0 099 290 MHz 0 00208 0 099 360 MHz 0 00406 0 099 390 MHz 0 00406 0 099 400 MHz 0 00406 0 099 480 MHz 0 00406 0 099 570 MHz 0 00406 0 099 580 MHz 0 0040...

Page 364: ...0041 0 1 590 MHz 0 0041 0 1 600 MHz 0 0041 0 1 1000 MHz 0 0041 0 25 10 MHz na na 0 25 30 MHz 0 00385 0 25 70 MHz 0 00385 0 25 120 MHz 0 0051 0 25 290 MHz 0 0051 0 25 360 MHz 0 0101 0 25 390 MHz 0 0101 0 25 400 MHz 0 0101 0 25 480 MHz 0 0101 0 25 570 MHz 0 0101 0 25 580 MHz 0 0101 0 25 590 MHz 0 0101 0 25 600 MHz 0 0101 0 25 1000 MHz 0 0101 0 399 10 MHz na na 0 399 30 MHz 0 006085 0 399 70 MHz 0 00...

Page 365: ...MHz 0 01606 0 399 1000 MHz 0 01606 0 4 10 MHz na na 0 4 30 MHz 0 0061 0 4 70 MHz 0 0061 0 4 120 MHz 0 0081 0 4 290 MHz 0 0081 0 4 360 MHz 0 0161 0 4 390 MHz 0 0161 0 4 400 MHz 0 0161 0 4 480 MHz 0 0161 0 4 570 MHz 0 0161 0 4 580 MHz 0 0161 0 4 590 MHz 0 0161 0 4 600 MHz 0 0161 0 4 1000 MHz 0 0161 0 8 10 MHz na na 0 8 30 MHz 0 0121 0 8 70 MHz 0 0121 0 8 120 MHz 0 0161 0 8 290 MHz 0 0161 0 8 360 MHz...

Page 366: ...241 1 2 290 MHz 0 0241 1 2 360 MHz 0 0481 1 2 390 MHz 0 0481 1 2 400 MHz 0 0481 1 2 480 MHz 0 0481 1 2 570 MHz 0 0481 1 2 580 MHz 0 0481 1 2 590 MHz 0 0481 1 2 600 MHz 0 0481 1 2 1000 MHz 0 0481 1 3 10 MHz na na 1 3 30 MHz 0 0196 1 3 70 MHz 0 0196 1 3 120 MHz 0 0261 1 3 290 MHz 0 0261 1 3 360 MHz 0 0521 1 3 390 MHz 0 0521 1 3 400 MHz 0 0521 1 3 480 MHz 0 0521 1 3 570 MHz 0 0521 1 3 580 MHz 0 0521 ...

Page 367: ... 4 480 MHz 0 1361 3 4 570 MHz 0 1361 3 4 580 MHz 0 1361 3 4 590 MHz 0 1361 3 4 600 MHz 0 1361 3 4 1000 MHz 0 1361 5 5 10 MHz na na 5 5 30 MHz 0 0826 5 5 70 MHz 0 0826 5 5 120 MHz 0 1101 5 5 290 MHz 0 1101 5 5 360 MHz 0 2201 5 5 390 MHz 0 2201 5 5 400 MHz 0 2201 5 5 480 MHz 0 2201 5 5 570 MHz 0 2201 5 5 580 MHz 0 2201 5 5 590 MHz 0 2201 5 5 600 MHz 0 2201 Marker Generator Verification Table 10 18 S...

Page 368: ...0 19 SC1100 Option Pulse Generator Verification Period Nominal Value V p p Pulse Width s Period s Measured Value s Deviation s 1 Year Spec s 2 5 80 ns 2E 06 5 ps 2 5 500 ns 0 01 25 ns 2 5 500 ns 0 02 50 ns Pulse Generator Verification Pulse Width Table 10 20 SC1100 Option Pulse Generator Verification Pulse Width Nominal Value V p p Pulse Width s Period s Measured Value s Deviation s 1 Year Spec Ty...

Page 369: ...ed Value Ω Measured Value Ω Deviation Ω Certified Measured Value 1 Year Spec Ω 40 0 04 50 0 05 60 0 06 600000 600 1000000 1000 1 500 000 1500 Input Impedance Verification Capacitance Table 10 22 SC1100 Option Input Impedance Verification Capacitance Nominal Value pF Certified Value pF Measured Value pF Deviation pF Certified Measured Value 1 Year Spec pF 5 pF 0 75 pF 29 pF 1 95 pF 49 pF 2 95 pF ...

Page 370: ...5522A Operators Manual 10 56 ...

Page 371: ...11 7 Composite Harmonics Function Volts 11 8 How to Enter the PQ Modes 11 8 How to Create Composite Harmonic Waveforms 11 8 The Wave Selection Menus 11 8 RECALL WAVE 11 9 SAVE WAVE 11 9 NEW WAVE 11 9 EDIT WAVE 11 9 How to Create New Waves 11 9 Harmonic Number 11 10 Harmonic Amplitude 11 10 Phase 11 10 How to Edit Waves 11 11 How to Save Waves 11 11 How to Recall Saved Waves 11 12 Preinstalled Wave...

Page 372: ...plitude Mode Amps 11 18 More Information 11 19 Delta Δ Amplitude Single Sags Swells Function Volts 11 19 Delta Δ Amplitude Mode Volts 11 19 How to Set the Ramp up Period 11 19 How to Set the Sag Swell Width 11 19 How to Set the Sag Swell Amplitude 11 19 How to Set Triggers 11 20 Example 11 20 Delta Δ Amplitude Single Sags Swells Function Current 11 20 Delta Δ Amplitude Mode AMPS 11 20 How to Set T...

Page 373: ...from 0 032 seconds to 60 0 seconds The amplitude deviation is selected as a percentage of the nominal This function is available in V A V A and V V modes 5522A PQ Specifications These specifications apply only to the PQ Option General specifications that apply to the 5522A the Calibrator can be found in Chapter 1 The specifications are valid under the following conditions The Calibrator is operate...

Page 374: ...0 0 1 4 mV 0 3 900 Hz to 2 kHz 0 1 to 100 0 1 4 mV 0 5 3 3 to 32 999 V 2 to 5 kHz 0 1 to 100 0 1 4 mV 2 0 20 1 mV 45 to 440 Hz 0 1 to 100 0 2 20 mV 0 75 440 to 660 Hz 0 1 to 30 0 25 20 mV 1 2 660 to 1 2 kHz 0 1 to 10 0 35 25 mV 3 3 33 to 329 99 V 1 2 to 2 kHz 0 1 to 5 0 5 40 mV 4 5 0 20 10 mV 45 to 440 Hz 0 1 to 100 0 25 100 mV 0 75 440 to 660 Hz 0 1 to 30 0 25 100 mV 1 2 660 to 1 2 kHz 0 1 to 10 ...

Page 375: ...P OFF Range Composite Waveform Harmonic Frequency Harmonic Amplitude Range of Fundamental 1 Harmonic Amplitude Uncertainty of Fundamental A Harmonic Phase Uncertainty Relative to Fundamental 2 Absolute RMS Uncertainty of Composite Waveform RMS A 15 to 45 Hz 0 1 to 100 0 1 0 1 μA 0 5 45 to 900 Hz 0 1 to 100 0 1 0 1 μA 2 900 Hz to 2 kHz 0 1 to 50 0 1 0 1 μA 3 29 to 329 9 μA 2 to 5 kHz 0 1 to 30 0 1 ...

Page 376: ...omposite Waveform Harmonic Frequency Harmonic Amplitude Range of Fundamental 1 Harmonic Amplitude Uncertainty of Fundamental A Harmonic Phase Uncertainty Relative to Fundamental 2 Absolute RMS Uncertainty of Composite Waveform RMS A 15 to 65 Hz 0 1 to 30 0 5 0 1 μA 0 5 29 to 329 99 μA 65 to 900 Hz 0 1 to 30 1 0 0 1 μA 2 0 5 1 μA 15 to 65 Hz 0 1 to 30 0 5 1 μA 0 5 0 33 to 3 2999 mA 65 to 900 Hz 0 1...

Page 377: ...key or Remote Command 1 Values shown are nominal values per IEC 61000 4 15 The 5520A PQ has a limited resolution of 0 02 in the Flicker Simulation Mode Sags Swells Simulation Mode Voltage Range 1 mV to 1020 V Current Range 29 μA to 20 5 A Frequency of Fundamental 45 to 65 Hz Amplitude Modulation Range 100 Ramp Up Time 0 01 to 1 second Duration of Sag or Swell 0 032 to 60 seconds Trigger Event 2 nd...

Page 378: ... When PQ COMP HARMONIC or PQ ΔAMPL mode is selected the Output Display reads 1 0000 V 60Hz as a default How to Create Composite Harmonic Waveforms Press the PQ COMP HARMONIC blue softkey The top level PQ COMP HARMONIC Menu shown below appears nn333f eps From this menu composite harmonic waveforms can be created and stored for later use 7 pre loaded waveforms may also be recalled from this point To...

Page 379: ...individual parameters More on this menu can be found by referring to Setting the Waves Harmonics later in this section nn334f eps EDIT WAVE Pressing the EDIT WAVE blue softkey also displays the menu shown above or a similar menu if a wave is already in use From this menu the user can adjust the individual parameters of the waveform that is currently active If no waveform has been selected from one...

Page 380: ... notice that the off on display changes to on nn334f eps Harmonic Number To specify or edit the harmonic number press the HF F blue softkey and enter the desired harmonic For example press 3 then E to select the 3rd harmonic Harmonic Amplitude Press the AMPL blue softkey to enter the amplitude of the harmonic as a percentage of the fundamental For example press 10 then E for 10 Phase To specify or...

Page 381: ...me The difference between the NEW WAVE and EDIT WAVE menus is that under the NEW WAVE section all harmonic parameters default at 0 until the user changes those parameters In the EDIT WAVE Menu a wave that has either been in use or a wave that was recalled can be edited To edit existing wave parameters press the EDIT WAVE blue softkey The Control Display will change to the menu shown below Press th...

Page 382: ...ct the Custom Wave blue softkey designating where the created wave was stored RECALL CUSTOM1 5 The Control Display will change to the RECALL WAVE Menu shown below and the calibrator will output the recalled wave nn354f eps Preinstalled Waves The calibrator comes with 7 preinstalled waves There are two IEC waves and five NRC waves IEC Waves The IEC waves IEC A and IEC D are waveforms referred to by...

Page 383: ...enu shown below appears in the Control Display After choosing IEC A or IEC D if the calibrator is in Standby mode the RECALL Menu appears again The recalled wave will not be built until the calibrator is placed in Operate Mode Because of the complexity of these waves the building process for these waves is over one minute If the calibrator is already in Operate Mode the recomputing message shows o...

Page 384: ...specifications Output AUX This indicator is for information purposes only The indicator displays which current output is presently being used by the calibrator The Control Display will show the Output Information Menu I OUT AUX when current is present at the AUX output and I OUT 20A if the current is present at the 20A output In the PQ mode the operation of the Output Information Menu behaves slig...

Page 385: ...y The Wave Selection Menu shown below appears nn353f eps From this menu the user may edit the wave harmonics Refer to Editing Wave Harmonics earlier in this section Note Building a wave can be time consuming especially if using one of the preinstalled waves To minimize the time the calibrator uses to rebuild the waveform leave the calibrator in Standby Mode whenever recalling or creating waves Onl...

Page 386: ... under test to the proper terminals Φ REF Menus In the Volts and Current Dual Output mode phase between the voltage and current outputs can be specified by the user These menus operate in the same fashion as the normal dual output mode as described in Chapter 4 Composite Harmonics Function Volts and Volts After entering the PQ Mode and accessing Composite Harmonic Function explained previously in ...

Page 387: ...er to Entering the PQ Modes earlier in this chapter Delta Δ Amplitude Mode Volts Enter the PQ Delta Δ Amplitude Mode From this mode the user can simulate a continuous change in amplitude of the output flicker or a single one time change in output amplitude sag swell condition The Δ AMPL mode menu shown below appears in the Control Display nn363f eps How to Select the Flicker Function From the PQ Δ...

Page 388: ...at the new Pst value has now been loaded The Pst 1 softkey chooses classifiers that effectively change the flickermeter Pst readings from 1 to the chosen values There are 1 5 classifiers The Table 60 Hz softkey chooses the appropriate delta voltage and time combinations for either 60 Hz or 50 Hz operation Note that this selection also changes the output frequency of the calibrator How to Set Phase...

Page 389: ... Δ amplitude functions From this mode the flicker and single sags swells functions are accessible The ΔAMPL Menu shown below appears in the Control Display nn363f eps Press the TYPE flicker blue softkey This will put the calibrator in the single Sag Swells Mode How to Set the Ramp up Period Press the RAMP UP blue softkey The Control Display changes to a screen shown below instructing the user to e...

Page 390: ... occurred A nominal output voltage of 120 V 60 Hz has been entered The ramp up period is set to 1 0 second The event width is set to 5 seconds with a Delta Δ amplitude of 25 Assuming the calibrator is in Operate Mode and a TRG command is received over the remote interface the calibrator will delay for 3 seconds and then begin ramping the output down over a 1 0 second interval to 90 Volts The outpu...

Page 391: ... How to Set the Sag Swell Amplitude The ΔI I softkey allows the user to specify the amplitude of the deviation as a percentage of the nominal output value The value is positive for swell events and negative for sags Delta Δ Amplitude Mode Volts and Amps The Delta Δ Amplitude Mode may also be used for voltage and current dual outputs The following example demonstrates how to do this Example Assume ...

Page 392: ...mmediately to the nominal value in this case 10 V and 1 A Remote Commands This section documents the IEEE 488 RS 232 remote commands for the PQ option Remote commands duplicate activities that can be initiated from the front panel in local operation The following is an alphabetical listing of the PQ option remote commands with examples For more information on using remote commands see Chapter 5 Re...

Page 393: ...eform OUTPUT CH is PRI or SEC USER DEFINED WAVEFROM NUMBER is 1 to 5 Example CHMSAVE PRI 2 saves primary output wave as preset 2 ______________________________________________________________________ CHNRC OUTPUT CH NRC WAVEFROM NUMBER IEEE 488 RS 232 Coupled Set composite harmonic wave to a preset NRC wave OUTPUT CH is PRI or SEC NRC WAVEFROM NUMBER is 1 to 5 NRC7030 is 1 Example CHNRC PRI 2 sets...

Page 394: ...plitude modes Sags Swells Flicker OUTPUT CH is PRI or SEC DELTA_AMPLITUDE is 0 01 to 100 0 Example DELTAMAG PRI 0 1 deviate the Primary channel output by 10 Example DELTAMAG SEC 0 1 deviate the Primary channel output by 10 _______________________________________________________________________ DELTAMAG OUTPUT CH IEEE 488 RS 232 Sequential Return the amplitude deviation of the selected channel in D...

Page 395: ..._WAVE IEEE 488 RS 232 Coupled Set the flicker modulation type Sine or Square F_WAVE is SINE or SQUARE Example FLICKWAV SQUARE Example FLICKWAV SINE _______________________________________________________________________ FLICKWAV IEEE 488 RS 232 Sequential Return the flicker modulation type Sine or Square _______________________________________________________________________ FUND IEEE 488 RS 232 S...

Page 396: ..._____________________________________________________ POSTTRIGDELAY D_TIME IEEE 488 RS 232 Coupled Set a post trigger delay in Single Sag Swell mode D_TIME is 0 001 Sec to 60 Sec Example POSTTRIGDELAY 3 _______________________________________________________________________ POSTTRIGDELAY IEEE 488 RS 232 Sequential Read the post trigger delay in Single Sag Swell mode Example POSTTRIGDELAY _________...

Page 397: ...______________________________ RPTFREQ IEEE 488 RS 232 Sequential Return the modulation frequently in Flicker mode Example RPTFREQ _______________________________________________________________________ TRIGGED IEEE 488 RS 232 Sequential Returns 0 if no trig even 1 if triggered _______________________________________________________________________ Example Strings The following sets up a Flicker o...

Page 398: ... 0 03000 9 00E 5 0 5 23 100 00 0 0 03000 9 00E 5 0 8 28 100 00 0 0 03000 9 00E 5 0 8 33 100 00 0 0 03000 9 00E 5 0 8 38 100 00 0 0 03000 9 00E 5 0 8 43 100 00 0 0 03000 9 00E 5 2 0 48 100 00 0 0 03000 9 00E 5 2 0 53 100 00 0 0 03000 9 00E 5 2 0 58 100 00 0 0 03000 9 00E 5 2 0 63 100 00 0 0 03000 9 00E 5 2 0 Range 3 2999 V rms 0 45000 0 001000 Wave I 1 100 00 0 11250 0 000513 RMS Output 0 45 V 3 10...

Page 399: ...0 75 5 100 00 0 91 6730 0 3917 0 75 7 100 00 0 91 6730 0 3917 0 75 8 30 00 0 27 5020 0 3917 1 0 12 30 00 0 27 5020 0 3917 3 0 13 10 00 0 9 1670 0 3917 3 0 16 10 00 0 9 1670 0 3917 3 0 18 10 00 0 9 1670 0 3917 3 0 21 10 00 0 9 1670 0 4984 5 0 23 10 00 0 9 1670 0 4984 5 0 25 10 00 0 9 1670 0 4984 5 0 26 5 00 0 4 5840 0 4984 5 0 30 5 00 0 4 5840 0 4984 5 0 33 5 00 0 4 5840 0 4984 5 0 Range 1020 V rms...

Page 400: ...0 0 163 880 0 5122 0 75 Frequency 50 Hz 3 100 00 0 163 880 0 5122 0 75 4 100 00 0 163 880 0 5122 0 75 5 100 00 0 163 880 0 5122 0 75 6 100 00 0 163 880 0 5122 0 75 7 100 00 0 163 880 0 5122 0 75 8 30 00 0 49 164 0 5122 0 75 9 30 00 0 49 164 0 5122 1 2 10 30 00 0 49 164 0 5122 1 2 11 30 00 0 49 164 0 5122 1 2 12 30 00 0 49 164 0 5122 1 2 13 30 00 0 49 164 0 5122 1 2 Range 32 999 V rms 12 00000 0 02...

Page 401: ...8512 3 0 16 10 00 173 4 20 6550 0 8512 3 0 17 10 00 129 5 20 6550 0 8512 3 0 18 10 00 113 9 20 6550 0 8512 3 0 19 10 00 37 6 20 6550 0 8512 3 0 20 10 00 52 3 20 6550 0 8512 3 0 21 10 00 1 5 20 6550 0 8512 3 0 22 10 00 14 3 20 6550 0 8512 3 0 23 10 00 150 2 20 6550 0 8512 3 0 24 10 00 7 1 20 6550 0 8512 3 0 25 10 00 161 3 20 6550 1 0700 5 0 Verification Tests for AC Voltage AUX Range 5 V rms 1 9000...

Page 402: ...0 Range 2 999 A rms 1 10000 0 00320 Wave VII 1 100 00 0 40547 0 00141 RMS Output 1 1 A 3 100 00 0 0 40547 0 00141 0 6 Frequency 50 Hz 6 100 00 0 0 40547 0 00141 0 6 9 100 00 0 0 40547 0 00141 0 6 12 100 00 0 0 40547 0 00141 0 6 15 100 00 0 0 40547 0 00141 0 6 18 20 00 0 0 40547 0 00141 0 6 23 20 00 0 0 08109 0 00141 1 0 28 20 00 0 0 08109 0 00141 1 0 33 20 00 0 0 08109 0 00141 1 0 38 20 00 0 0 081...

Page 403: ...0 6 12 6 70 180 0 19300 0 0129 0 6 13 9 10 0 0 26432 0 0129 0 6 14 5 70 0 0 16543 0 0129 0 6 15 6 50 180 0 18880 0 0129 0 6 16 5 00 180 0 14475 0 0129 0 6 17 5 80 0 0 16659 0 0129 0 6 18 4 40 0 0 12867 0 0129 0 6 19 5 10 180 0 14905 0 0129 1 0 20 4 00 180 0 11580 0 0129 1 0 21 4 70 0 0 13486 0 0129 1 0 22 3 60 0 0 10527 0 0129 1 0 23 4 30 180 0 12313 0 0129 1 0 24 3 30 180 0 09650 0 0129 1 0 25 3 ...

Page 404: ...80 0 07656 0 0150 1 0 37 1 40 0 0 07242 0 0150 1 0 39 1 40 180 0 06871 0 0150 1 0 Range 20 5 A rms 9 50000 0 0290 Wave NRC7030 1 100 00 8 53100 0 0185 RMS Output 9 5 A 2 10 00 115 5 0 85313 0 0185 0 6 Frequency 60Hz 3 10 00 1 1 0 85313 0 0185 0 6 4 10 00 179 6 0 85313 0 0185 0 6 5 10 00 13 3 0 85313 0 0185 0 6 6 10 00 9 3 0 85313 0 0185 0 6 7 10 00 73 5 0 85313 0 0185 0 6 8 10 00 152 1 0 85313 0 0...

Page 405: ...strument specified to 1 uncertainty is 99 accurate apparent power The power value obtained by simply multiplying the ac current by the ac voltage on a circuit without consideration of any phase relationship between the two waveforms See true power for comparison assert To cause a digital signal to go into a logic true state af audio frequency The frequency range of human hearing normally 15 20 000...

Page 406: ...r the ratio of the active power of the fundamental wave in watts to the apparent power of the fundamental wave in volt amperes distortion Undesired changes in the waveform of a signal Harmonic distortion disturbs the original relationship between a frequency and other frequencies naturally related to it Intermodulation distortion imd introduces new frequencies by the mixing of two or more original...

Page 407: ...rough the ground conductor in an ac power receptacle ground loops Undesirable currents induced when there is more than one chassis ground potential in a system of instruments Ground loops can be minimized by connecting all instruments in a system to ground to one point guard See voltage guard and current guard harmonics A waveform that is an integral multiple of the fundamental frequency For examp...

Page 408: ...ther designated standards is quantified and sufficiently small to meet requirements MTBF Mean Time Between Failures The time interval in operating hours that can be expected between failure of equipment MTBF can be calculated from direct observation or mathematically derived through extrapolation MTTF Mean Time To Fail The time interval in operating hours that can be expected until the first failu...

Page 409: ... primary standard A standard defined and maintained by some authority and used to calibrate all other secondary standards process metrology Tracking the accuracy drift of calibration and other equipment by applying statistical analysis to correction factors obtained during calibration random error Any error which varies in an unpredictable manner in absolute value and in sign when measurements of ...

Page 410: ...refore they sense true rms voltage resistance temperature detector RTD A resistance device that provides a proportional resistance output for a temperature of the device Most RTDs are characterized by their resistance at 0 C called the ice point The most common ice point is 100 Ω at 0 C The curve of resistance vs temperature can be one of several pt385 0 00385 ohms ohm C and pt3926 0 003926 ohms o...

Page 411: ...asurement system or device used as the calibrator Also called test accuracy ratio thermal emf The voltage generated when two dissimilar metals joined together are heated thermocouple Two dissimilar metals that when welded together develop a small voltage dependent on the relative temperature between the hotter and colder junction traceability The ability to relate individual measurement results to...

Page 412: ...anging its calibration constants volt The unit of emf electromotive force or electrical potential in the SI system of units One volt is the difference of electrical potential between two points on a conductor carrying one ampere of current when the power being dissipated between these two points is equal to one watt voltage guard A floating shield around voltage measurement circuitry inside an ins...

Page 413: ...B 1 Appendix B ASCII and IEEE 488 Bus Codes ...

Page 414: ...5522A Operators Manual B 2 ...

Page 415: ...AL OCTAL HEX BINARY 7654 3210 DEV NO MESSAGE ATN TRUE 100 101 102 103 104 105 106 107 110 111 112 113 114 115 116 117 120 121 122 123 124 125 126 127 130 131 132 133 134 135 136 137 140 141 142 143 144 145 146 147 150 151 152 153 154 155 156 157 160 161 162 163 164 165 166 167 170 171 172 173 174 175 176 177 40 41 42 43 44 45 46 47 48 49 4A 4B 4C 4D 4E 4F 50 51 52 53 54 55 56 57 58 59 5A 5B 5C 5D ...

Page 416: ...5522A Operators Manual B 4 ...

Page 417: ...m 1 64 feet PM2295 05 1 m 3 28 feet PM2295 10 2 m 6 56 feet PM2295 20 NFRD IFC ATN E0I DIO3 DIO1 SHIELD SRQ NDAC DAV DIO4 DIO2 LOGIC GND GND 10 GND 8 GND 6 DIO8 DIO6 GND 11 GND 9 GND 7 REN DIO7 DIO5 1 2 3 4 5 6 7 8 9 10 11 12 13 24 14 15 16 17 18 19 20 21 22 23 fe 01 eps Figure C 1 IEEE 488 Connector Pinout connection side Serial Connectors The two 9 pin serial connectors on the rear panel of the ...

Page 418: ... HOST PC COM port DB 25 RS40 5522A SERIAL 2 TO UUT UUT serial port DB 9 943738 5522A SERIAL 2 TO UUT UUT serial port DB 25 n a 1 5 6 9 TRANSMIT DATA Tx RECEIVED DATA Rx DTE READY DTR REQUEST TO SEND RTS CLEAR TO SEND CTS GROUND fe 02 eps Figure C 2 Serial 1 From Host Port Connector Pinout TRANSMIT DATA Tx RECEIVED DATA Rx RECEIVED LINE SIGNAL DETECTOR RLSD CLEAR TO SEND CTS REQUEST TO SEND RTS DCE...

Page 419: ...22A 1 2 3 4 5 6 7 8 9 RS 232 UUT 1 2 3 4 5 6 7 8 9 1 2 3 4 5 6 7 8 9 Rx Tx DTR GND DSR RTS CTS Rx Tx DTR GND RTS CTS 1 2 3 4 5 6 7 8 9 SERIAL 1 FROM HOST 1 2 3 4 5 6 7 8 9 COM 2 3 4 5 7 8 9 2 3 4 5 7 8 9 DCD Rx Tx DTR GND DSR RTS CTS RI NULL MODEM CABLE MODEM CABLE 1 6 1 6 gjh069 eps Figure C 4 Serial Port Connections DB 9 DB 9 ...

Page 420: ...7 8 9 UUT RS 232 Tx Rx RTS CTS DSR GND DCD DTR RI 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 RLSD Rx Tx GND DSR RTS CTS 1 2 3 4 5 6 7 8 9 SERIAL 2 TO UUT 1 2 3 4 5 6 7 8 9 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 NULL MODEM CABLE MODEM CABLE gjh071 eps Figure C 5 Serial Port Connection...

Page 421: ...r is queued to the remote interface as it occurs EXE Execution Error caused by an element outside of or inconsistent with the 5522A capabilities S Error causes instrument to go to Standby CME Command Error caused by incorrect command syntax unrecognized header or parameter of the wrong type D Error causes instrument returns to the power up state none Error is returned to the initiator only i e loc...

Page 422: ...led during cal 311 DDE FR D A D measurement failed 312 DDE FR Invalid cal step parameter 313 DDE Cal switch must be ENABLED 314 DDE FR Divide by zero encountered 315 DDE FR Must be in OPER at this step 316 DDE FR Open thermocouple for RJ cal 317 DDE FR Bad reference Z or entry 318 DDE FR Cal takes DAC over top limit 319 DDE R Zero cal needed every 7 days 320 DDE R Ohms zero needed every 12 hours 3...

Page 423: ...to STBY in Meas TC 533 DDE Can t set an offset now 534 DDE Can t lock this range 535 DDE Can t set phase or PF now 536 DDE Can t set wave now 537 DDE Can t set harmonic now 538 DDE Can t change duty cycle now 539 DDE Can t change compensation now 540 DDE FR Current OUTPUT moved to 5725A 541 DDE TC ref must be valid TC temp 542 DDE Can t turn EARTH on now 543 DDE D STA couldn t update OTD 544 DDE C...

Page 424: ... NV memory invalid 702 DDE R NV invalid so default loaded 703 DDE R NV obsolete so default loaded 800 DDE FR Serial parity error s 801 DDE FR Serial framing error s 802 DDE FR Serial overrun error s 803 DDE FR Serial characters dropped s 900 DDE FR Report timeout aborted 1000 DDE FR Sequence failed during diag 1200 DDE FR Sequence name too long 1201 DDE FR Sequence RAM table full 1202 DDE FR Seque...

Page 425: ... DDE FRS Current Amp Thermal Limit Exceeded 1503 DDE FRS Output current lim exceeded 1504 DDE FRS Input V or A limit exceeded 1505 DDE FRS VDAC counts out of range 1506 DDE FRS IDAC counts out of range 1507 DDE FRS AC scale dac counts out of range 1508 DDE FRS DC scale dac counts out of range 1509 DDE FRS Frequency dac counts out of range 1510 DDE FRS IDAC counts DC OFFSET out of range 1511 DDE FR...

Page 426: ...5522A Operators Manual D 6 ...

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