Tektronix PSM3110, PSM3120, PSM3310, PSM3320, PSM3510 Performance Verification

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PSM3000, PSM4000, and PSM5000 Series RF and Microwave Power Sensors/Meters

ZZZ

Speciﬁcations and Performance Veriﬁcation

Technical Reference

*P077060300*

077-0603-00

PSM3000, PSM4000, and PSM5000 Series RF and Microwave Power Sensors/Meters

ZZZ

Speciﬁcations and Performance Veriﬁcation

Technical Reference

www.tektronix.com

077-0603-00

Copyright © Tektronix. All rights reserved. Licensed software products are owned by Tektronix or its subsidiaries or suppliers, and are protected by national copyright laws and international treaty provisions.

Tektronix products are covered by U.S. and foreign patents, issued and pending. Information in this publication supersedes that in all previously published material. Speciﬁcations and price change privileges reserved.

TEKTRONIX and TEK are registered trademarks of Tektronix, Inc.

Contacting Tektronix

Tektronix, Inc. 14150 SW Karl Braun Drive P.O. Box 500 Beaverto USA

For product information, sales, service, and technical support:

n, OR 97077

In North America, call 1-800-833-9200. Worl dwid e, v isit www.tektronix.com to ﬁnd contacts in your area.

Warranty

Tektronix warrants that this product will be free from defects in materials and workmanship for a period of three (3) years from the date of shipment. If any such product proves defective during this warranty period, Tektronix, at its option, either will repair the defective product without charge for parts and labor, or will provide a replacement in exchange for the defective product. Parts, modules and replacement pr oducts used by Tektronix for warranty work may be n the property of Tektronix.

ew or reconditioned to like new performance. All replaced parts, modules and products become

In order to o the warranty period and make suitable arrangements for the performance of service. Customer shall be responsible for packaging and shipping the defective product to the service center designated by Tektronix, with shipping charges prepaid. Tektronix shall pay for the return of the product to Customer if the shipment is to a location within the country in which the Tektronix service center is located. Customer shall be responsible for paying all shipping charges, duties, taxes, and any other charges for products returned to any other locations.

This warranty shall not apply to any defect, failure or damage caused by improper use or improper or inadequate maintenance and care. Tektronix shall not be obligated to furnish service under this warranty a) to repair damage result b) to repair damage resulting from improper use or connection to incompatible equipment; c) to repair any damage or malfunction caused by the use of non-Tektronix supplies; or d) to service a product that has been modiﬁed or integrated with other products when the effect of such modiﬁcation or integration increases the time or difﬁculty of servicing the product.

THIS WARRANTY IS GIVEN BY TEKTRONIX WITH RESPECT TO THE PRODUCT IN LIEU OF ANY OTHER WARRANTIES, EXPRESS OR IMPLIED. TEKTRONIX AND ITS VENDORS DISCLAIM ANY IMPLIED WARRANTIES OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE.

TRONIX' RESPONSIBILITY TO REPAIR OR REPLACE DEFECTIVE PRODUCTS IS THE SOLE

TEK AND EXCLUSIVE REMEDY PROVIDED TO THE CUSTOMER FOR BREACH OF THIS WARRANTY. TEKTRONIX AND ITS VENDORS WILL NOT BE LIABLE FOR ANY INDIRECT, SPECIAL, INCIDENTAL, OR CONSEQUENTIAL DAMAGES IRRESPECTIVE OF WHETHER TEKTRONIX OR THE VENDOR HAS ADVANCE NOTICE OF THE POSSIBILITY OF SUCH DAMAGES.

[W4 – 15AUG04]

btain service under this warranty, Customer must notify Tektronix of the defect before the expiration of

ing from attempts by personnel other than Tektronix representatives to install, repair or service the product;

Table of Contents

General Safety Summary ......................................................................................... iii

Preface ............................................................................................................... v

Speciﬁcations ...................... .................................. ................................ ............... 1

Performanc

Test Records... ................................ .................................. .............................. 21

eVeriﬁcation ....................... ................................ .................................. 11

PSM3000, PSM4000, and PSM5000 Series Technical Reference i

Table of Contents

List of Tables

Table i: Related manuals........ ................................ .................................. ................. v

Table 1: H ar

Table 2: Trigger speciﬁcations .................................................................................... 8

Table 3: USB interface connector pin deﬁnitions.... . ..... . ..... . . ..... . ..... . ..... . ..... . .... . . . ..... . ..... . . 10

Table 4: Mechanical characteristics ..................... ................................ ........................ 10

Table 5: Required equipment............... ................................ .................................. .... 13

Table 6: Level accuracy worksheet.............................................................................. 32

Table 7: L

dware speciﬁcations .. .................................. ................................ ............. 1

inearity worksheet ..................................................................................... 34

ii PSM3000, PSM4000, and PSM5000 Series Technical Reference

General Safety Summary

General Safet

To Avoid Fire or Personal

Injury

ySummary

Review the fo this product or any products connected to it.

To avoid pot

Only qualiﬁed personnel should perform service procedures.

While using this product, you may need to access other parts of a larger system. Read the safety sections of the other component manuals for warnings and cautions r

Observe all terminal ratings. To avoid ﬁre or shock hazard, observe all ratings and markings on the product. Consult the product manual for further ratings information before making connections to the product.

The inputs are not rated for connection to mains or Category II, III, or IV circuits.

Do not apply a potential to any terminal, including the common terminal, that exceeds the maximum rating of that terminal.

Do not operate without covers. Do not operate this product with covers or panels removed.

llowing safety precautions to avoid injury and prevent damage to

ential hazards, use this product only as speciﬁed.

elated to operating the system.

TermsinThisManual

Do not operate with suspected failures. If you suspect that there is damage to this

product, have it inspected by qualiﬁed service personnel.

Avoid exposed circuitry. Do not touch exposed connections and components when power is present.

Do not operate in wet/damp conditions.

not operate in an explosive atmosphere.

Keep product surfaces clean and dry.

These terms may appear in this manual:

WAR NI NG . Warning statements identify conditions or practices that could result

in injury or loss of life.

CAUTION. Caution statements identify conditions or practices that could result in

damage to this product or other property.

PSM3000, PSM4000, and PSM5000 Series Technical Reference iii

General Safety Summary

Symbols and Terms on the

Product

These terms may

DANGER indicates an injury hazard immediately accessible as you read the marking.

WARNING indicates an injury hazard not immediately accessible as you read the mar

CAUTION indicates a hazard to property including the product.

The following symbol(s) may appear on the product:

appear on the product:

king.

iv PSM3000, PSM4000, and PSM5000 Series Technical Reference

Preface

This documen

t contains the Speciﬁcations and the Field Calibration procedure for the PSM3000, PSM4000, and PSM5000 USB Power Sensors. It contains procedures suitable for determining that the power sensor functions and is calibrated properly.

Related Manuals

The following documents relate to the operation or service of the power sensor:

Table i: Related manuals

Title Description Part number

PSM3000/4000/5000 Series Safety & Installation Manual

PSM3000/4000/5000 Series English User Manual

PSM3000/4000/5000 Series French User Manual

PSM3000/4000/5000 Series Italian User Manual

PSM3000/4000/5000 Series German User Manual

PSM3000/4000/5000 Series Spanish User Manual

PSM3000/4000/5000 Series Portuguese User Manual

PSM3000/4000/5000 Series Simpliﬁed Chinese U ser Manual

PSM3000/4000/5000 Series Traditional Chinese User Manual

PSM3000/4000/5000 Series Korean User Manual

PSM3000/4000/5000 Series Russian User Manual

PSM3000/4000/5000 Series Japanese User Manual

PSM3000/4000/5000 Series Speciﬁcations and Field Veriﬁcation Technical Reference

PSM3000/4000/5000 Series Declassiﬁcation and Security Instructions

PSM3000/4000/5000 Series Online Help

Describes safety practices to follow while operating a power sensor and how to install power sensor.

Explains how to use PSM3000/4000/5000 Series USB Power Sensors with the Power Meter Application software.

French translation of the User Manual.

Italian translation of the User Manual.

German translation of the User Manual.

Spanish translation of the User Manual.

Portuguese translation of the User Manual.

Simpliﬁed Chinese translation of the User Manual.

Traditional Chinese translation of the User M anual.

Korean translation of the User Manual.

Russian translation of the User Manual.

Japanese translation of the User Manual.

Lists the Power Sensor speciﬁcations and explains how to perform a ﬁ eld calibration.

Addresses customer data security concerns with information on how to sanitize or remove memory devices from the power sensor.

Online help in the Power Meter Application software explains how to use the Power Meter Application software with the power sensor.

071-2958-XX

077-0592-XX

077-0593-XX

077-0594-XX

077-0595-XX

077-0596-XX

077-0597-XX

077-0598-XX

077-0599-XX

077-0600-XX

077-0601-XX

077-0602-XX

077-0603-XX

PSM3000, PSM4000, and PSM5000 Series Technical Reference v

Preface

vi PSM3000, PSM4000, and PSM5000 Series Technical Reference

Speciﬁcations

This section lists the PSM3000, PSM4000, and PSM5000 Series speciﬁcations. Items listed in the Performance Requirement column are generally quantitative, and are eithe

r tested by the Performance Veriﬁcation procedure or are guaranteed by design. Items listed in the Reference Information column are useful operating parameters that have typical values; information in this column is not guaranteed.

NOTE. This section lists the PSM3000, PSM4000, and PSM5000 Series

speciﬁcations. Items listed in the Performance Requirement column are generally quantitative, and are either tested by the Performance Veriﬁcation procedure or are guara

nteed by design. Items listed in the Reference Information column are useful operating parameters that have typical values; information in this column is not guaranteed.

Performance Conditions

The performance limits in these speciﬁcations are valid with these conditions:

The pow

er sensor must have been calibrated and adjusted at an ambient

temperature between +20 °C and +30 °C.

The po

wer sensor must be in an environment with temperature, altitude, humidity, and vibration within the operating limits described in these speciﬁcations.

The power sensor must have had a warm-up period of at least 20 minutes.

Table 1: Hardware speciﬁcations

Characteristic Description

Frequency range

PSM3110, PSM3120 10 MHz – 8 GHz

PSM3310, PSM3320 10 MHz – 18 GHz

PSM3510 10 MHz – 26.5 GHz

PSM4110, PSM4120 10 MHz – 8 GHz

PSM4320, PSM4410 50 MHz – 18.6 GHz (Type N)

50 MHz – 20 GHz (SMA)

PSM5110, PSM5120 100 MHz – 8 GHz

PSM5320, PSM5410 50 MHz – 18.6 GHz (Type N)

50 MHz – 20 GHz (SMA)

Frequency (Typical)

PSM4110, PSM4120 10 MHz – 10 GHz

PSM4320 50 MHz – 20 GHz (Type N)

PSM5110, PSM5120 100 MHz – 10 GHz

PSM5320 50 MHz – 20 GHz (Type N)

PSM3000, PSM4000, and PSM5000 Series Technical Reference 1

Speciﬁcations

Table 1: Hardware speciﬁcations (cont.)

Characteristic Description

Dynamic Range

PSM3110, PSM3120, PSM3310. PSM3320, PSM3510

PSM4110, PSM4120 -60 dBm to +20 dBm (10 MHz – 6 GHz)

PSM5110, PSM5120 -60 dBm to +20 dBm (100 MHz – 6 GHz)

PSM4320, PSM4410, PSM5320. PSM5410

Maximum Average Power +20 dBm

Maximum Average Power: Damage Level

Maximum Pulse Power +20 dBm

Maximum Pulse Power: Damage Level

Maximum Peak Voltage

Maximum Peak-to-Average Ratio

PSM4110, PSM4120 10 MHz – 6 GHz: 80 dB

5110, PSM5120

PSM

PSM4320, PSM4410, PSM5320, PSM5410

Video Bandwidth, typical

PSM3110, PSM3120, PSM3310, PSM3320,

SM3510

PSM4110, PSM4120, PSM4320, PSM4410, PSM5110, PSM5120, PSM5320, PSM5410

PSM5110, PSM5120, PSM5320, PSM5410

Video Transition Time

PSM5110, PSM5120 10% to 90% Rise Time: 54 ns (-70 to -20 dBm pulse at 4 GHz)

PSM5320, PSM5410 10% to 90% Rise Time: 54 ns (-40 to -20 dBm pulse at 4 GHz)

Minimum Pulse Width, typical Average Power measurements: 500 ns

-55 dBm to +20 dBm

-50 dBm to +20 dBm (6 GHz – 8 G Hz)

-40 dBm to +20 dBm

+23 dBm

+25 VDC

z–8GHz: 70dB

6GH

MHz–6GHz: 80dB

100 6GHz–8GHz: 70dB

50 MHz – 20 GHz: 55 dB

Standard: 100 Hz

Standard: 10 MHz

Additional Digital Filters: 100 kHz, 200 kH z, 300 kHz, 500 kHz, 1 MHz, 2 MHz, 3 MHz, 5 MHz, 10 MHz

10% to 90% Fall Time: 44 ns (-70 to -20 dBm pulse at 4 GHz

10% to 90% Fall Time: 44 ns (-40 to -20 dBm pulse at 4 GHz)

Peak Power measurements: 200 ns

2 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Table 1: Hardware speciﬁcations (cont.)

Characteristic Description

Time Base Accuracy, typical ±50 ppm

Effective Sample Rate, nominal 48 MS/second

Reference Info: Sensors use a repetitive under-sampling technique to reconstruct the input signal. This requires a signal with a constant duty-cycle.

Measurement speed, nominal

Recommended calibration cycle, nom inal

Pulse Proﬁling Power Measurements, nominal

PSM5110, PS M5120, PSM5320, PSM5410

Pulse (Modulation) Power Measurements

PSM4110, PS M4120, PSM4320, PSM4410, PSM5110, PS M5120, PSM5320, PSM5410

Average Power Measurements

Statistical Measurements

PSM5110, PS M5120, PSM5320, PSM5410

Display & Data Processing Capability

PSM5110, PS M5120, PSM5320, PSM5410:

Absolute Accuracy

2000 measurements per second (100 settled measurements per second typical)

Reference Info: Sample rate is 500 kHz (ADC clock rate). 1/500kHz = 2 μs per reading. 1 measurement = 125 readings. 125 readings/measurement * 2 μs/reading = 250 μs/measurement. 250 μs are added to account for data transfer from the sensor to the PC and CPU interrupts (typical CPU and transfer time is <100 μs). 250 μs/measurement + 250 μs (transfer time and interrupts) = 500 μs/measurement. 1/500 μs = 2000 measurements/sec.

1 year

Time gating to analyze pulse parameters Pulse Power, Peak Power, Average Power, Droop, Rise Time, Fall Time, Overshoot, Pulse Width, Pulse Repetition Frequency, Duty Cycle, Crest Factor (Peak-to-Average Ratio)

Reference Info: Pulse proﬁling measurement results are computed from averaged-detected trace data.

Duty Cycle, Measured Pulse Power, Peak Power, Crest Factor (Peak- to-Average Ratio)

Reference Info: When using the Power Meter Application, measurement results are computed from power sensor sample data. When using the Pulse Proﬁling Application, PSM5xxx measurement results are computed from averaged-detected trace data.

Average Power, Duty Cycle-Computed P ulse Power, Data Logging

Cumulative Distribution Function (CDF), Complementary Cumulative Distribution Function (CCDF), Probability Distribution Function (PDF)

Reference Info: Statistical measurement results are computed from averaged-detected trace data.

Multiple sensors, displays, and traces. Scaling: Linear, dB Memory: U nlimited

Markers: 5 pairs Gating: 5 pairs Trace: Averaging, offset, scaling, statistics

Speciﬁcations

PSM3000, PSM4000, and PSM5000 Series Technical Reference 3

Speciﬁcations

Table 1: Hardware speciﬁcations (cont.)

Characteristic Description

Uncertainty Shape Factors

Calibration Factor PSM3110, PSM3120:

Mismatch Error: √2

Calibration Error: 2

Linearity Error: 2

Noise Error: 2 Temperature Error: √2 Zero Offset Error: √2

Reference Info: Total error is 2 times the RSS of the individual error uncertainties with each error divided by its shape factor before computing the RSS. Mismatch error is computed using peak match speciﬁcations.

Type N:

10MHz–1GHz: 1.8% 1GHz–8GHz: 1.7%

SMA:

10MHz–1GHz: 2.5% 1GHz–8GHz: 2.4%

PSM3310, PSM3320:

Type N:

10MHz–1GHz: 1.8% 1GHz–10GHz: 1.7% 10 GHz – 18 GHz: 1.9%

SMA:

10MHz–1GHz: 2.5% 1GHz–10GHz: 2.4% 10 GHz – 18 GHz: 2.7%

PSM3510: 10 MHz – 1 GHz: 2.5% 1GHz–10GHz:2.4% 10 GHz – 18 GHz: 2.7% 18 GHz – 26.5 GHz: 2.7%

PSM4110, PSM4120: Type N:

10 MHz – 100 MHz: 7.0% 100 MHz – 500 MHz: 4.0% 500 MHz – 8 GHz: 1.7%

SMA:

10 MHz – 100 MHz: 7.0% 100 MHz – 500 MHz: 4.0% 500 MHz – 8 GHz: 2.5%

PSM4320, PSM4410: Type N:

50 MHz – 500 MHz: 4.0% 500 MHz – 10 GHz: 1.7% 10 GHz – 18.6 GHz: 1.9%

SMA:

50 MHz – 500 MHz: 4.0% 500 MHz – 12.5 GHz: 2.6%

12.5GHz–18GHz: 3.2% 18 GHz – 20 GHz: 3.5%

4 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Table 1: Hardware speciﬁcations (cont.)

Characteristic Description

PSM5110, PSM5120:

Type N:

100 MHz – 500 MHz: 4.0% 500 MHz – 8 GHz: 1.7%

SMA:

100 MHz – 500 MHz: 4.0% 500 MHz – 8 GHz: 2.5%

PSM5320, PSM5410: Type N:

50 MHz – 500 MHz: 4.0% 500 MHz – 10 GHz: 1.7% 10 G Hz – 18.6 GHz: 1.9%

SMA:

50 MHz – 500 MHz: 4.0% 500 MHz – 12.5 GHz: 2.6%

12.5 GHz – 18.6 GHz: 3.2% 18 GHz – 20 GHz: 3.5%

ity

Linear

PSM311

+15 to +20 dBm: 3.0%

-15 to +15 dBm: 2.5%

-55 to

PSM4

10 MHz – 100 MHz:

100 MHz – 2 GHz:

2GH

50 MHz – 100 MHz:

100 MHz – 2 GHz:

2GHz–20GHz:

0, PSM3120, PSM3310, PSM3320, PSM3510:

-15 dBm: 2.0%

110, PSM4120:

+15 to +20 dBm: 7.0%

o +15 dBm: 5.0%

+10 t

-60 to +10 dBm: 4.0%

to +20 dBm : 7.0%

+15 +10 to +15 dBm: 5.0%

-60 to +10 dBm: 3.0%

z–8GHz: +15 to +20 dBm: 5.0% +10 to +15 dBm: 3.0%

0 to +10 dBm: 2.0%

-6

M4320, PSM4410:

+15 to +20 dBm: 7.0%

40 to +15 dBm: 5.0%

+15 to +20 dBm: 7.0%

5 to +15 dBm: 5.0%

-40to+5dBm: 3.0%

+15 to +20 dBm: 6.0% +5 to +15 dBm: 4.0%

-40to+5dBm: 2.0%

Speciﬁcations

PSM3000, PSM4000, and PSM5000 Series Technical Reference 5

Speciﬁcations

Table 1: Hardware speciﬁcations (cont.)

Characteristic Description

PSM5110, PSM5120:

100 MHz – 2 GHz:

+15 to +20 dBm: 7.0% +5 to +15 dBm: 5.0%

-60to+5dBm: 3.0%

2GHz–8GHz:

+15 to +20 dBm: 5.0% +5 to +15 dBm: 3.0%

-60to+5dBm: 2.0%

PSM5320, PSM5410: 50 MHz – 100 MHz:

+15 to +20 dBm: 7.0%

-40 to +15 dBm: 5.0%

100 MHz – 2 GHz:

+15 to +20 dBm: 7.0% +5 to +15 dBm: 5.0%

-40to+5dBm: 3.0%

2GHz–20GHz:

+15 to +20 dBm: 6.0% +5 to +15 dBm: 4.0%

-40to+5dBm: 2.0%

Noise

PSM3110, PSM3120, P SM3310, PSM3320, PSM3510

5 second integration.

+10 to +20 dBm: 0.10%

-15 to +10 dBm: 0.25%

-30 to -15 dBm: 0.10%

-40 to -30 dBm: 0.25%

-50 to -40 dBm: 1.50%

-55 to -50 dBm: 4.50%

PSM4110, PSM4120: 1 second integration

+10 to +20 dBm:

10 MHz – 100 MHz: 0.22% 100 MHz – 8 GHz: 0.15%

-30 to +10 dBm: 10 MHz – 100 MHz: 0.22% 100 MHz – 8 GHz: 0.04%

-50to-30dBm: 10 MHz – 100 MHz: 0.22% 100 MHz – 6 GHz: 0.04% 6GHzto8GHz: 0.15%

-60to-50dBm: 10 MHz – 100 MHz: 0.44% 100 MHz – 6 GHz: 0.15%

6 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Table 1: Hardware speciﬁcations (cont.)

Characteristic Description

PSM4320, PSM4410:

5 second integration.

+10 to +20 dBm: 1.5% (50 MHz – 20 GHz)

-20 to +10 dBm: 1.0% (50 MHz – 20 GHz)

-30 to -20 dBm: 1.5% (50 MHz – 20 GHz)

-40 to -30 dBm: 7% (50 MHz – 18.6 GHz)

PSM5110, PSM5210: 1 second integration

+10 to +20 dBm:

100 MHz – 8 GHz: 0.15%

-30 to +10 dBm: 100 MHz – 8 GHz: 0.04%

-50 to -30 dBm: 100 MHz – 6 GHz: 0.04% 6 GHz – 8 GHz: 0.15%

-60 to -50 dBm: 100 MHz – 6 GHz: 0.15%

PSM5320, PSM5410: 5 second integration:

+10 to +20 dBm:

50 MHz – 20 GHz: 1.5%

-20 to +10 dBm: 50 MHz – 20 GHz: 1.0%

-30 to -20 dBm: 50 MHz – 20 GHz: 1.5%

-40 to -30 dBm: 50 MHz – 18.6 GHz: 7%

Zero Offset

PSM3110, PSM3120, PSM3310, PSM3320, PSM3510:

PSM4110, PSM4120, PSM5110, PSM5120:

PSM4320, PSM4410, PSM5320, PSM5410:

50 MHz – 500 MHz:

500 MHz – 20 GHz:

Match

PSM3110 a nd PSM3120 < 1.2 (10 MHz to 8 GHz)

PSM3310 and PSM3320 < 1.2 (10 MHz to 10 GHz)

<1.29(10MHzto18GHz)

PSM3510 < 1.2 (10 M Hz to 10 GHz)

< 1.29 (10 GHz to 26.5 GHz)

PSM4110 < 1.09 (10 M Hz to 8 GHz)

Speciﬁcations

° °

PSM3000, PSM4000, and PSM5000 Series Technical Reference 7

Speciﬁcations

Table 1: Hardware speciﬁcations (cont.)

Characteristic Description

PSM4120 < 1.15 (10 MHz to 8 GHz)

PSM4320 < 1.2 (50 MHz to 10 GHz)

< 1.29 (10 GHz to 18.6 GHz)

PSM4410 < 1.2 (50 MHz to 10 GHz)

<1.29(10GHzto20GHz)

PSM5110 < 1.18 (100 MHz to 250 MHz)

<1.09(250MHzto8GHz)

PSM5120 < 1.18 (100 MHz to 250 MHz)

<1.15(250MHzto8GHz)

PSM5320 < 1.2 (50 MHz to 10 GHz)

< 1.29 (10 GHz to 18.6 GHz)

PSM5410 < 1.2 (50 MHz to 10 GHz)

<1.29(10GHzto20GHz)

Temperature (°C)

PSM3110, PSM3120, PSM3310, PSM3320, PSM3510

PSM4110, PSM4120, PSM5110, PSM5120

PSM4320, PSM4410, PSM5320, PSM5410

40-50 ˚C: 2.00% 30-40 ˚C: 0.75% 20-30 ˚C: 0.00% 10-20 ˚C: 0.75% 0-10 ˚C: 2.00%

40-50 ˚C: 1.00% (+1% , 0 dBm to 10 dBm; +3%, 10 dBm to 20 dBm) 30-40 ˚C: 0.75% (+1% , 0 dBm to 10 dBm; +3%, 10 dBm to 20 dBm) 20-30 ˚C: 0.00% 10-20 ˚C: 0.75% (+1% , 0 dBm to 10 dBm; +3%, 10 dBm to 20 dBm) 0-10 ˚C: 1.00% (+1% , 0 dBm to 10 dBm; +3%, 10 dBm to 20 dBm)

40-50 ˚C: 6.00% 30-40 ˚C: 3.00% 20-30 ˚C: 0.00% 10-20 ˚C: 3.00% 0-10 ˚C: 6.00%

Table 2: Trigger speciﬁcations

Characteristic Description

Resolution, typical 2 μs

PSM5110, PSM5120, PSM5320, PSM5410:

20.8 ns

Delay, typical

Modes (G UI) Single, Continuous

Source

PSM5110, PSM5120, PSM5320, PSM5410:

10 ms

External

PSM5110, PSM5120, PSM5320, PSM5410:

Internal, External

8 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Table 2: Trigger speciﬁcations (cont.)

Characteristic Description

External Trigger Rate, typical

External Trigger Off Time, typical PSM5110, PSM5120, PSM5320, PSM5410:

Internal Trigger

Level Mode Manual – User sets trigger manually

Internal Trigger Range

Signal Level Trigger Accuracy

Input

Reference info: TTL compatible, rising or falling edge

VIH, minimum high-level input, nominal

VIL, maximum low-level input, nominal

Connector type SMB male

Absolute maximum 5.5 V maximum, -0.5 V minimum

Output

VOH, minimum high-level output, nominal

VOL, minimum high-level output, nominal

Connector type SMB male

Absolute maximum levels 5.5 V maximum, -0.5 V minimum

PSM5110, PSM5120, PSM5320, PSM5410:

1 Hz – 750 kHz

1 μs minimum

Applies to PSM5110, PSM5120, PSM5320, and PSM5410 only

Auto – Trigger is automatically set between the maximum and minimum values of the incoming signal

PSM5110, PSM5120:

100 MHz – 6 GHz: -45 dBm to +20 dBm 6GHz–8GHz: -40dBmto+20dBm

PSM5320, PSM5410:

50 MHz – 20 GHz: -20 dBm to +20 dBm

±1 dB

2.0 V at ±10 μA

0.8 V at ±10 μA

4.6 V at 1 mA

0.8 V at -1 mA

Speciﬁcations

PSM3000, PSM4000, and PSM5000 Series Technical Reference 9

Speciﬁcations

Table 3: USB interface connector pin deﬁnitions

Contact number Signal name Typical wiring assignment

2D- White

3D+

Shell Shield

Table 4: Mechanical characteristics

VBUS

GND

Red

Green

Black

Drain wire

teristic

Charac

(including boots and

Weight connectors)

Size

ption

Descri

PSM311

5.78 oz. (164 g.)

PSM3120, PSM3320:

7.16 o

PSM4110, PSM5110:

3.88 oz. (110 g.)

PSM4

5.26 oz. (149 g.)

PSM4320, PSM5320:

5.75

PSM4410, PSM5410:

4.37 oz. (124 g.)

PSM3110, PSM3120, PSM3310, PSM3320, PSM3510, PSM4110, PSM4120, PSM4320, PSM

1.6 in. (40 mm) diameter by 2.25 in. (57 mm) long plus connector length

PSM5110, PSM5120, PSM5320, PSM5410:

1.6 in. (40 mm) diameter by 2.25 in. (57 mm) long plus connector length

0, PSM3310, PSM3510:

z. (203 g.)

120, PSM5120:

oz. (163 g.)

4410:

10 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Performance Veriﬁcation

This documents the calibration process for the Tektronix, Inc. PSM3000, PSM4000, and PSM5000 line of products. This is a manual procedure intended to satisfy th for validating performance of sensors whose connectors have been replaced with connectors of an identical type (for example, N-Type male with N-Type male).

Any sensors failing t his procedure must be returned to Tektronix for adjustment and/or repair.

e needs of annual recalibration. In addition, this procedure is useful

Products Covered

This proc

PSM3110

PSM3120

PSM3310

PSM3320

PSM3510

PSM41

PSM4120

PSM4410

PSM4320

PSM5110

PSM5120

M5410

PSM5320

edure covers the following products:

verview

PSM3000, PSM4000, and PSM5000 Series Technical Reference 11

The procedure applies to sensors that are in good working order, fully functional, and without mechanical defect or damage. If there is any question about the serviceability or functionality of the sensor, consult the User’s Manual to ascertain the state of the sensor or contact Tektronix for advice. This procedure consists of six steps:

1. Select the Test Record

2. Physical and functional check of DUT

3. Warm up

4. Match Test

Performance Veriﬁcation

Required Equipment

5. Absolute Level

6. Linearity Test

As with any procedure, it is impractical to verify all conditions and states. So, the procedure tests a selected set of measurement points. These points are sufﬁcient to ensure a high level of conﬁdence in the sensor’s continued performance. As with all calibration procedures, there is great reliance on the experience, knowledge, sound judgment and skill of those doing the work.

Finally, if, during the calibration procedure, the sensor fails at any point, follow local procedures for recording and resolving the problem before proceeding.

This section lists the equipment required for the calibration procedure. This procedure refers to equipment by “NAME” rather than model number. So, rather than refer to an “ Agilent N5183A” (see Table 1) the calibration procedure refers to “SOURCE”. This term, “SOURCE”, comes from the Required Equipment List below.

Like most calibration procedures, this procedure assumes access to common hardware such as precision adapters and high quality cables. This hardware is not called out in the equipment list. Nor is it depicted in the setup diagrams. Nonetheless, it is required.

This procedure applies to several sensors with both 3.5 mm male and N-type male input connectors. The required equipment varies depending on input connector. Other equipment varies by DUT model number. Pay special attention to the type of DUT you are calibrating when selecting your equipment.

Accuracy Test

If you choose to substitute equipment, consult the equipment list for information. Be aware of the test range for each sensor. The test ranges for each sensor are shown below:

PSM3110: 10 MHz – 8 GHz

PSM3120: 10 MHz – 8 GHz

PSM3310: 10MHz–18GHz

PSM3320: 10MHz–18GHz

PSM3510: 10 MHz – 26.5 GHz

PSM4110: 10 MHz – 8 GHz

PSM4120: 10 MHz – 8 GHz

PSM4320: 50MHz–18GHz

PSM4410: 50MHz–20GHz

PSM5110: 100 MHz – 8 GHz

PSM5120: 100 MHz – 8 GHz

12 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Performance Veriﬁcation

PSM5320: 50 MHz

–18GHz

PSM5410: 50MHz–20GHz

When selecting y our equipment be sure to check the equipment for damage or excessive wear. SWR or match is the single biggest contributor to error and uncertaint

y in power measurements. Using worn or damaged connectors during

calibration can induce “false failures”.

Thesameadv

ice applies when selecting cables. Use high quality cables during calibration and ensure they are in good working order. When building the setups, keep cables as short as possible. Keep any strain on the cables at a minimum.

If you choose to substitute any of the passive devices (adapters, attenuators, or splitters) pay close attention to the speciﬁed SWR or match. Selecting components with marginal performance will degrade the quality of the measurements. Note that the limits on the Test Records take into account the published uncertainties in the reference sensor, cal sensor, DUT, port tracking error in the splitter, and mismat

ch errors.

Table 5: Required equipment

DUT connector

Item Plug/socket Type Description Comments

DUT Plug All Device Under Test The sensor to be calibrated

PM_APP

Source

–– ––

Plug All Agilent N5183A or equivalent

Test record The appropriate Test Record is selected in

Personal computer running Windows XP with Service Pack 3

Power meter application. Software available from download from: www.tektronix.com

step 1

Power meter application is part of the standard application installation

Suitable substitutes with equal or better:

Harmonics

Output power level

(-100 dBm to +20 dBm)

Frequency range

VNA Plug All Vector Network Analyzer capable

of measuring match or S11 over the required frequency range

Splitter

Plug N-type Agilent 1167A, 2 resistor splitter,

18 GHz or equivalent

Plug 3.5 mm Agilent 1167A, 2 resistor splitter,

26.5 GHz or equivalent

Use cal kits and cables as recommended by the m anufacturer

Select splitter based on DUT connector type

PSM3000, PSM4000, and PSM5000 Series Technical Reference 13

Performance Veriﬁcation

Table 5: Required equipment (cont.)

DUT connector

Item Plug/socket Type Description Comments

20 dB Attenuator

10 dB Attenuator

Reference sensor

Calibration sensor

Plug N-type

Plug 3.5 m m

Plug N-type

Plug 3.5 m m

Plug N-type

Plug 3.5 m m

Plug N-type

Plug 3.5 m m

Agilent 8491B Option 020, 20 dB, N-type, 18 GHz or equivalent

Agilent 8493C Option 020, 20 dB,

3.5 mm, 26.5 GHz or equivalent

Agilent 8491B Option 020, 10 dB, N-type, 18 GHz or equivalent

Agilent 8493C Option 020, 10 dB,

3.5 mm, 26.5 GHz or equivalent

PSM3320

PSM3510

PSM3320

PSM3510

Select splitter based on DUT connector type

Factory calibrated sensors

Select the Test Record

Physical and Functional

Check of DUT

1. Select the Test Record (TR).

Determine the DUT model number and select the TR from that applies to the DUT. Copy or print the Test Record. Record the following on the TR:

a. Record the date and time on the TR.

b. Record the DUT model number on the TR.

c. Record the DUT serial number (on the rear of the DUT, below the USB

connection) on the TR.

1. Inspect the DUT for signs of physical and/or mechanical damage. If there is any question that the DUT has experienced undue damage beyond normal handling scratches, mark this as “FAIL”. Enter the result on the TR.

2. Inspect the DUT connector for signs of wear or damage. Speciﬁcally inspect the center conductor on the RF connector for breakage, deformation, or scoring. If damage of the sort is found, mark this as “FAIL”. Enter the result on the TR.

3. Connect the DUT to the PC via USB cable.

4. Turn on and preset the SOURCE.

5. Turn SOURCE RF output off.

6. Connect SOURCE to DUT RF input connector (use adapters as required

but no cables).

7. Start the Power Meter Application (PM_APP).

14 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Performance Veriﬁcation

8. After the PM_AP PM_APP to CW mode.

9. Vary the input power to prove the DUT is functioning properly. Use the procedure below.

a. TurntheSOURCERFoutputoff.

b. Set the SOURCE frequency to 1 GHz.

c. Set the SOURCE power to 0 dBm.

d. Turn the SOURCE RF output on.

e. Read the DUT power.

f. Set the SOURCE power to -20 dBm.

g. With a high quality SOURCE and adapters, the SOURCE and DUT power

readings should agree within ±1 dB. You may see larger disagreement with some sources.

h. The functional check is PA S

power.

10. Record result of the Functional Test on the TR.

P starts, click the PM_APP Reset button. Switch the

S if the DUT is within ±1 dB of the SOURCE

Warm Up

Match

1. For 24 hours prior to and during execution of this test procedure the DUT must be stored in a stable laboratory e nvironment. In addition, the sensor should be powered for at least 1 hour before starting the test. Stable environmental conditions are deﬁned as:

Temperature: 20°Cto30°C(68°Fto86°F).

Humidity: 15% to 95% noncondensing.

Altitude: Sea Level to 3,000 meters (9,850 feet).

2. All equipment requiring power should be connected to mains and warmed up according to the manufacturer’s recommendations.

3. Record temperature on TR. (top of the TR)

4. Record humidity on TR. (top of the TR)

1. Setup and calibrate the VNA per manufacturer’s directions over the range

speciﬁed on the TR. During calibration use the appropriate adapters to ensure the measurement port is calibrated at the adapter output plane for the DUT connector type and sex.

2. After calibration is complete, check to ensure the DUT can connect directly to a calibrated test port without adding or removing any adapters or cables.

3. Connect the DUT to the PC via USB cable.

PSM3000, PSM4000, and PSM5000 Series Technical Reference 15

Performance Veriﬁcation

Absolute Level Accuracy

4. Connect the DUT during this test.

5. Use the VNA to m

6. Note worst case return loss within the frequency range(s) indicated on the TR.

7. Record the worst case return loss on the TR.

Use the Level Accuracy Worksheet (See Table 6.) to record data and calculate test results:

to the calibrated test port. The DUT must be powered

easure input match over the frequency range shown on TR.

1. Set the SOURCE mode to CW.

2. Set th

3. Set the SOURCE power level to -120 dBm or lowest power.

4. Connect the REF_SENSOR, CAL_SENSOR and DUT to PC via USB cables.

5. Start an instance of the PM_APP for REF_SENSOR, CAL_SENSOR, and

6. Preset each PM_APP.

7. Setup the equipment as depicted in the following diagram. Do not connect

eSOURCERFoutputtoOFF.

DUT.

CAL_SENSOR or DUT to ATTEN_20 at this time. The open end of ATTEN_20 is the measurement plane. Do not connect any additional adapters or cables to the measurement plane.

16 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Performance Veriﬁcation

Absolute level accuracy setup

8. Ensure the CAL_SENSOR and DUT have the same connector type and sex.

9. Ensure the open end of ATTEN_20 can ma

and DUT.

10. Set the CAL_SENSOR and DUT PM_APPs as shown below:

Mode = CW.

Averages = 500.

Freq = Same as SOURCE frequency.

Units = dBm.

11. Set the REF_SENSOR PM_APP as shown below:

Mode = CW.

Averages = 500.

Freq = Same as SOURCE frequency.

Units = dB (rel

12. Repeat the following steps for each frequency listed in the Absolute Level Accuracy section of the TR.

a. Carefully connect CAL_SENSOR to the Measurement Plane.

ative dB).

te directly with the CAL_SENSOR

b. Set SOURCE frequency to ﬁrst or next frequency on the TR.

c. Set all three PM_APP frequencies to m atch SOURCE frequency.

d. Turn SOURCE RF output ON.

e. Set SOURCE power level so the CAL_SENSOR PM_APP reads within

0.100 dB of IDEAL_CAL_LEVEL indicated on the TR.

f. Record the CAL_SENSOR PM_APP reading on Level Accuracy

Work she et.

g. Click the Set Ref button on REF_SENSOR PM_APP.

PSM3000, PSM4000, and PSM5000 Series Technical Reference 17

Performance Veriﬁcation

h. Carefully disc

i. Carefully connect DUT to measurement plane.

j. Record DUT PM_APP reading on Level Accuracy Worksheet.

k. Record REF_SENSOR PM_APP reading on Level Accuracy Worksheet

(be certain to record the sign of this measurement).

l. Set SOURCE RF output to OFF.

m. Carefully disconnect the DUT from measurement plane.

n. Calculate the LVL_ERROR using the following equation and the results

from substeps f, j, and k. Be careful not to drop the sign of the REF_SENSOR measurement. The calculated LVL_ERROR is the test measurement result.

LVL_ERROR = DUT – CAL_SENSOR – REF_SENSOR.

o. Record the Measurement Result on the TR.

p. Select a Pass if the Measurement Result is within the upper and lower

limits for the measurement, otherwise select a Fail.

q. Record the Pass/Fail result in the TR.

onnect CAL_SENSOR from measurement plane.

Linearity

13. After

14. Pres

15. Close all PM_APPs.

16. Tear down the Absolute Level Accuracy setup.

Use the Linearity Worksheet (See Table 7.) to record data and calculate test results:

1. Set the SOURCE mode to CW.

2. Set the SOURCE RF output to OFF.

3. Set the SOURCE power level to -120 dBm or lowest power.

4. Connect the REF_SENSOR and DUT to PC via USB cables.

5. Start an instance of the PM_APP for REF_SENSOR and DUT.

6. Preset each PM_APP.

7. Setup the equipment as depicted in the “Linearity Setup” diagram below.

all frequencies are measured, set the SOURCE power to -120 dBm

or the lowest power.

s the Preset button on SOURCE.

18 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Performance Veriﬁcation

Linearity setup

8. Set the REF_SENSOR and DUT PM_APPs as shown below:

Mode = CW.

Averages = 500.

Units = dBm.

9. Set SOURCE frequency to IDEAL_SOURCE_FREQ indicated on the TR.

10. Set SOURCE RF Output ON

11. Set REF_SENSOR and DUT PM_APP frequency to SOURCE frequency.

12. Set SOURCE level so that REF_SENSOR PM_APP indicates

IDEAL_LIN_LEVEL speciﬁed in TR ±0.100 dB.

13. Check DUT PM_APP reading. DUT PM_APP should indicate within 3.00 dB of REF_SENSOR PM_APP reading.

14. Change REF_SENSOR PM_APP measurement units to “dB Relative”.

15. Click Set Ref button in REF_SENSOR PM_APP.

16. Change DUT PM_APP measurement units to “dB Relative”.

17. Click Set Ref button in DUT PM_APP.

18. Both PM_APPS should read 0.000 dB ±0.050 dB and should be very stable.

19. For the remainder of the test, record the values indicated on the PM_APPs

as a result of changing the SOURCE power level. Do not change any other settings on the PM_APPs or SOURCE. Take great care not to physically disturb the setup.

20. Rep

eat the following steps for each power level listed in the “Measurement

Range or Point” column of the “Linearity” section of the TR.

a. Set SOURCE power level so the REF_SENSOR PM_APP indicates the

ﬁrst or next level in the “Measurement Range or Point” column of the “Linearity” section of the TR.

b. Record REF_SENSOR reading on the Linearity Worksheet.

c. Record DUT reading on the Linearity Worksheet.

PSM3000, PSM4000, and PSM5000 Series Technical Reference 19

Performance Veriﬁcation

d. Calculate the D

from substep b and c. Be careful not to drop the sign of either reading. The calculated LIN_ERROR is the measurement result.

LIN_ERROR = REF_SENSOR - DUT

e. Record the m

f. Select a Pass if the measurement result is within the upper and lower

limits of th

g. Record the Pass/Fail results in the TR.

21. Set the SOURCE RF output to OFF.

22. Set the SOURCE power level to -120 dBm or lowest power.

23. Close all PM_APPs.

24. Tear down the Linearity setup.

UT_ERROR using the following equation and the values

easurement result on the TR .

e measurement, otherwise select a Fail.

20 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Test Records

Performance Veriﬁcation

Print out the appropriate test record from the pages that follow and use them to record the performance test results for your sensor.

PSM3000, PSM4000, and PSM5000 Series Technical Reference 21

Performance Veriﬁcation

PSM3110 & PSM31

Model Number:

Temperature:

Date and Time:

20 test record

Serial Number

Humidity (%):

Technician:

Measure

Measurement

Step

or action

2.a DUT physical check Inspection Pass Fail

2.b DUT connecto

2.j Functional test Pass Fail

4.c

Calibrate Ve (VNA)

4.h

Worst Case R

Absolute Level Accuracy 10 MHz -0.31 dB +0.29 dB Pass Fail

5.l.xv

IDEAL_CAL

Linearity +5dB -0.18 dB +0.17 dB dB Pass Fail

6.v.v

IDEAL_SOURCE_FREQ: 1GHz

IDEAL –25 dBm

ctor Network Analyzer

eturn Loss

_LEVEL

_LIN_LEVEL:

-20 dBm 100 MHz -0.31 dB +0.29 dB dB Pass Fail

+10dB -0.18

+15dB -0.22

+20dB -0.22 dB +0.21 dB dB Pass Fail

+23d

range or point

Inspection Pass Fail

10 MHz – 8GHz

1GHz

2GHz

3GHz

4GHz

5GHz

6GHz

7GHz

8GHz

Lower limit Upperlimit

21 d B Pa ss Fa il

-0.31 dB +0.29 dB dB Pass Fail

-0.30 dB +0.28 dB dB Pass Fail

-0.32 dB +0.30 dB dB Pass Fail

-0.32 d

2dB

-0.2

+0.30 d

+0.17

+0.21

1dB

+0.2

Measured value Result

□ Done

dB Pass Fail

22 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Performance Veriﬁcation

PSM3310 & PSM33

Model Number:

Temperature:

Date and Time:

20 test record

Serial Number

Humidity (%):

Technician:

Measure

Measurement

Step

or action

2.a DUT physical check Inspection Pass Fail

2.b DUT connecto

2.j Functional test Pass Fail

4.c

Calibrate Ve (VNA)

Worst Case R

Absolute Level Accuracy 10 MHz -0.31 dB +0.29 dB dB Pass Fail

5.l.xv

IDEAL_CA

Linearity +5 dB -0.18 dB +0.17 dB dB Pass Fail

6.v.v

EAL_SOURCE_FREQ:

ID 1GHz

IDEAL_LIN_LEVEL:

25 dBm

–

ctor Network Analyzer

eturn Loss

L_LEVEL

-20 dBm 100 MHz -0.31 dB +0.29 dB dB Pass Fail

+10 dB -0.18 dB +0.17 dB dB Pass Fail

+15 dB -0.22 dB +0.21 dB dB Pass Fail

+20 dB -0.22 dB +0.21 dB dB Pass Fail

+23 dB -0.22 dB +0.21 dB dB Pass Fail

range or point

Inspection Pass Fail

10 MHz – 18 GHz

10 MHz – 10 GHz

10 GHz – 18 GHz

1GHz

2GHz

3GHz

4GHz

5GHz

6GHz

7GHz

8GHz

9GHz

10 GHz

11 GHz

12 GH

13 GHz

14 GHz

15 G

16 GHz

17 GHz

GHz

Lower limit Upper limit

21 d B Pass Fa il4.g

18 dB Pass Fail

-0.31 dB +0.29 dB dB Pass Fail

-0.30 dB +0.28 dB dB Pass Fail

-0.32 dB +0.30 dB dB Pass Fail

-0.32

-0.32 dB +0.30 dB dB Pass Fail

-0.37

-0.37 dB +0.34 dB dB Pass Fail

-0.40 dB +0.37 dB dB Pass Fail

0dB

-0.4

-0.40 dB +0.37 dB dB Pass Fail

40 dB

-0.

-0.40 dB +0.37 dB dB Pass Fail

+0.30

+0.34

+0.3

+0.

7dB

37 dB

Measured value Result

dB Pass Fail

dB Pas

□ Done

Fai

PSM3000, PSM4000, and PSM5000 Series Technical Reference 23

Performance Veriﬁcation

PSM3510 test re

Model Number:

Temperature:

Date and Time:

cord

Serial Number

Humidity (%):

Technician:

Measure

Measurement

Step

or action

2.a DUT physical check Inspection Pass Fail

2.b DUT connecto

2.j Functional test Pass Fail

4.c

Calibrate Ve (VNA)

Worst Case R

Absolute Level Accuracy 10 MHz -0.30 dB +0.28 dB dB Pass Fail

5.l.xv

IDEAL_CA

ctor Network Analyzer

eturn Loss

L_LEVEL:

-20 dBm 100 MHz -0.30 dB +0.28 dB dB Pass Fail

range or point

Inspection Pass Fail

10 MHz –

26.5 GHz

10 MHz – 10 GHz

10 GHz –

26.5 GHz

1GHz

2GHz

3GHz

4GHz

5GHz

6GHz

7GHz

8GHz

9GHz

10 GHz

11 GHz

12 GH

13 GHz

14 GHz

15 G

16 GHz

17 GHz

GHz

19 GHz

20 GHz

1GHz

22 GHz

23 GHz

4GHz

25 GHz

26 GHz

Lower limit Upper limit

21 d B P ass Fail4.g

18 dB Pass Fail

-0.29 dB +0.28 dB dB Pass Fail

-0.29 dB +0.27 dB dB Pass Fail

-0.29

-0.30 dB +0.28 dB dB Pass Fail

-0.34

-0.34 dB +0.32 dB dB Pass Fail

-0.40 dB +0.37 dB dB Pass Fail

0dB

-0.4

-0.40 dB +0.37 dB dB Pass Fail

40 dB

-0.

-0.40 dB +0.37 dB dB Pass Fail

-0.46 dB +0.42 dB dB Pass Fail

.46 dB

-0

-0.46 dB +0.42 dB dB Pass Fail

0.46 dB

-0.46 dB +0.42 dB dB Pass Fail

+0.27

+0.32

+0.3

37 dB

+0.

.42 dB

0.42 dB

7dB

Measured value Result

dB Pass Fail

dB Pas

dB Pa

□ Done

ass

Fai

ail

24 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Performance Veriﬁcation

PSM3510 test record (cont.)

Measure

Measurement

Step

or action

Linearity +5 dB -0.18 dB +0.17 dB dB Pass Fail

6.v.v

IDEAL_SOURCE_FREQ: 1GHz

IDEAL_LIN_LEVEL: –25 dBm

+10 dB -0.18 dB +0.17 dB dB Pass Fail

+15 dB -0.22 dB +0.21 dB dB Pass Fail

+20 dB -0.22 dB +0.21 dB dB Pass Fail

+23 dB -0.22 dB +0.21 dB dB Pass Fail

range or point

Lower limit Upper limit

Measured value Result

PSM3000, PSM4000, and PSM5000 Series Technical Reference 25

Performance Veriﬁcation

PSM4110 test re

Model Number:

Temperature:

Date and Time:

cord

Serial Number

Humidity (%):

Technician:

Measure

Measurement

Step

or action

2.a DUT physical check Inspection Pass Fail

2.b DUT connecto

2.j Functional test Pass Fail

4.a

Calibrate Ve (VNA)

4.g

Worst Case R

Absolute Level Accuracy 10 MHz -0.51 dB +0.46 dB Pass Fail

5.l.xv

IDEAL_CAL

Linearity +5 dB -0.22 dB +0.21 dB dB Pass Fail

6.v.v

IDEAL_SOURCE_FREQ: 1GHz

IDEAL –25 dBm

ctor Network Analyzer

eturn Loss

_LEVEL

_LIN_LEVEL:

-20 dBm 100 MHz -0.39 dB +0.36 dB dB Pass Fail

+10 dB -0.22

+15 dB -0.25

+20 dB -0.25 dB +0.23 dB dB Pass Fail

+23 d

range or point

Inspection Pass Fail

10 MHz – 8GHz

1GHz

2GHz

3GHz

4GHz

5GHz

6GHz

7GHz

8GHz

Lower limit Upper limit

27 dB Pass Fail

-0.34 dB +0.31 dB dB Pass Fail

-0.30 dB +0.28 dB dB Pass Fail

-0.31 dB +0.29 dB dB Pass Fail

-0.31 d

5dB

-0.2

+0.29 d

+0.21

+0.23

3dB

+0.2

Measured value Result

□ Done

dB Pass Fail

26 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Performance Veriﬁcation

PSM4120 test re

Model Number:

Temperature:

Date and Time:

cord

Serial Number

Humidity (%):

Technician:

Measure

Measurement

Step

or action

2.a DUT physical check Inspection Pass Fail

2.b DUT connecto

2.j Functional test Pass Fail

4.a

Calibrate Ve (VNA)

4.g

Worst Case R

Absolute Level Accuracy 10 MHz -0.51 dB +0.46 dB Pass Fail

5.l.xv

IDEAL_CAL

Linearity +5 dB -0.22 dB +0.21 dB dB Pass Fail

6.v.v

IDEAL_SOURCE_FREQ: 1GHz

IDEAL –25 dBm

ctor Network Analyzer

eturn Loss

_LEVEL

_LIN_LEVEL:

-20 dBm 100 MHz -0.39 dB +0.36 dB dB Pass Fail

+10 dB -0.22

+15 dB -0.25

+20 dB -0.25 dB +0.23 dB dB Pass Fail

+23 d

range or point

Inspection Pass Fail

10 MHz – 8GHz

1GHz

2GHz

3GHz

4GHz

5GHz

6GHz

7GHz

8GHz

Lower limit Upper limit

23 dB Pass Fail

-0.34 dB +0.31 dB dB Pass Fail

-0.30 dB +0.28 dB dB Pass Fail

-0.31 dB +0.29 dB dB Pass Fail

-0.31 d

5dB

-0.2

+0.29 d

+0.21

+0.23

3dB

+0.2

Measured value Result

□ Done

dB Pass Fail

PSM3000, PSM4000, and PSM5000 Series Technical Reference 27

Performance Veriﬁcation

PSM4320 & PSM53

Model Number:

Temperature:

Date and Time:

20 test record

Serial Number

Humidity (%):

Technician:

Measure

Measurement

Step

or action

2.a DUT physical check Inspection Pass Fail

2.b DUT connecto

2.j Functional test Pass Fail

4.c

Calibrate Ve (VNA)

Worst Case R

Absolute Level Accuracy 50 MHz -0.50 dB +0.45 dB dB Pass Fail

5.l.xv

IDEAL_CA

nearity

v.v

IDEAL_SOURCE_FREQ:

GHz

IDEAL_LIN_LEVEL: –25 dBm

ctor Network Analyzer

eturn Loss

L_LEVEL

-20 dBm 100 MHz -0.44 dB +0.40 dB dB Pass Fail

+10 dB -0.25 dB +0.23 dB dB Pass Fail

+15 dB -0.23 dB +0.22 dB dB Pass Fail

+20 dB -0.25 dB +0.23 dB dB Pass Fail

+23 dB -0.38 dB +0.35 dB dB Pass Fail

range or point

Inspection Pass Fail

50 MHz –

18.6 GHz

50 MHz – 10 GHz

10 GHz –

18.6 GHz

1GHz

2GHz

3GHz

4GHz

5GHz

6GHz

7GHz

8GHz

9GHz

10 GHz

11 GHz

12 GH

13 GHz

14 GHz

15 G

16 GHz

17 GHz

GHz

18.6 GHz

Lower limit Upper limit

21 d B P ass Fail4.g

18 dB Pass Fail

-0.38 dB +0.35 dB dB Pass Fail

-0.35 dB +0.32 dB dB Pass Fail

-0.36 dB +0.33 dB dB Pass Fail

-0.36

-0.36 dB +0.33 dB dB Pass Fail

-0.40

-0.40 dB +0.37 dB dB Pass Fail

-0.44 dB +0.40 dB dB Pass Fail

4dB

-0.4

-0.44 dB +0.40 dB dB Pass Fail

44 dB

-0.

-0.44 dB +0.40 dB dB Pass Fail

.25 dB

-0

+0.33

+0.37

+0.4

+0.

.23 dB

0dB

40 dB

Measured value Result

dB Pass Fail

dB Pas

dB Pa

□ Done

Fai

28 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Performance Veriﬁcation

PSM4410 & PSM54

Model Number:

Temperature:

Date and Time:

10 test record

Serial Number

Humidity (%):

Technician:

Measure

Measurement

Step

or action

2.a DUT physical check Inspection Pass Fail

2.b DUT connecto

2.j Functional test Pass Fail

4.c

Calibrate Ve (VNA)

Worst Case R

Absolute Level Accuracy 50 MHz -0.49 dB +0.44 dB dB Pass Fail

5.l.xv

IDEAL_CA

Linearity +5 dB -0.25 dB +0.23 dB dB Pass Fail

6.v.v

IDEAL_SOURCE_FREQ: 1GHz

DEAL_LIN_LEVEL:

I –25 dBm

ctor Network Analyzer

eturn Loss

L_LEVEL

-20 dBm 100 MHz -0.43 dB +0.40 dB dB Pass Fail

10 dB

15 dB

+20 dB -0.25 dB +0.23 dB dB Pass Fail

+23 dB -0.38 dB +0.35 dB dB Pass Fail

range or point

Inspection Pass Fail

50 MHz – 20 GHz

50 MHz – 10 GHz

10 GHz – 20 GHz

1GHz

2GHz

3GHz

4GHz

5GHz

6GHz

7GHz

8GHz

9GHz

10 GHz

11 GHz

12 GH

13 GHz

14 GHz

15 G

16 GHz

17 GHz

GHz

19 GHz

20 GHz

Lower limit Upper limit

21 d B P ass Fail4.g

18 dB Pass Fail

-0.35 dB +0.32 dB dB Pass Fail

-0.32 dB +0.30 dB dB Pass Fail

-0.32

-0.33 dB +0.31 dB dB Pass Fail

-0.36

-0.36 dB +0.33 dB dB Pass Fail

-0.43 dB +0.39 dB dB Pass Fail

3dB

-0.4

-0.43 dB +0.39 dB dB Pass Fail

43 dB

-0.

-0.43 dB +0.39 dB dB Pass Fail

-0.47 dB +0.43 dB dB Pass Fail

.47 dB

-0

0.25 dB

0.23 dB

+0.30

+0.33

+0.3

39 dB

+0.

.43 dB

0.23 dB

0.22 dB

9dB

Measured value Result

dB Pass Fail

dB Pas

dB Pa

□ Done

ass

Fai

ail

PSM3000, PSM4000, and PSM5000 Series Technical Reference 29

Performance Veriﬁcation

PSM5110 test re

Model Number:

Temperature:

Date and Time:

cord

Serial Number

Humidity (%):

Technician:

Measure

Measurement

Step

or action

2.a DUT physical check Inspection Pass Fail

2.b DUT connecto

2.j Functional test Pass Fail

4.a

Calibrate Ve (VNA)

Worst Case R

5.l.xv Absolute Level Accuracy 100 MHz -0.39 dB +0.36 dB dB Pass Fail

IDEAL_CA

Linea

6.v.v

IDEAL_SOURCE_FREQ: 1GHz

IDEAL_LIN_LEVEL: –25 dBm

ctor Network Analyzer

eturn Loss

L_LEVEL

rity

-20 dBm

+5 dB -0.22

+10 dB -0.22 dB +0.21 dB dB Pass Fail

+15 dB -0.25 dB +0.23 dB dB Pass Fail

+20 d

+23 dB -0.25 dB +0.23 dB dB Pass Fail

range or point

Inspection Pass Fail

10 MHz – 8GHz

100 MHz – 250 MHz

250 MHz –8GHz

1GHz

2GHz

3GHz

4GHz

5GHz

6GHz

7GHz

8GHz

Lower limit Upper limit

21.7 dB Pa ss Fa il4.g

27 dB Pass Fail

-0.34 dB +0.31 dB dB Pass Fail

-0.30 dB +0.28 dB dB Pass Fail

-0.31 dB +0.29 dB dB Pass Fail

-0.31 d

-0.31 dB +0.29 dB dB Pass Fail

5dB

-0.2

+0.29 d

+0.21

3dB

+0.2

Measured value Result

□ Done

dB Pass Fail

30 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Performance Veriﬁcation

PSM5120 test re

Model Number:

Temperature:

Date and Time:

cord

Serial Number

Humidity (%):

Technician:

Measure

Measurement

Step

or action

2.a DUT physical check Inspection Pass Fail

2.b DUT connecto

2.j Functional test Pass Fail

4.a

Calibrate Ve (VNA)

Worst Case R

5.l.xv Absolute Level Accuracy 100 MHz -0.39 dB +0.36 dB dB Pass Fail

IDEAL_CA

Linea

6.v.v

IDEAL_SOURCE_FREQ: 1GHz

IDEAL_LIN_LEVEL:

-25 dBm

ctor Network Analyzer

eturn Loss

L_LEVEL

rity

-20 dBm

+5 dB -0.22

+10 dB -0.22 dB +0.21 dB dB Pass Fail

+15 dB -0.25 dB +0.23 dB dB Pass Fail

+20 d

+23 dB -0.25 dB +0.23 dB dB Pass Fail

range or point

Inspection Pass Fail

10 MHz – 8GHz

100 MHz – 250 MHz

250 MHz –8GHz

1GHz

2GHz

3GHz

4GHz

5GHz

6GHz

7GHz

8GHz

Lower limit Upper limit

21.7 dB Pass Fail4.g

23 dB Pass Fail

-0.34 dB +0.31 dB dB Pass Fail

-0.30 dB +0.28 dB dB Pass Fail

-0.31 dB +0.29 dB dB Pass Fail

-0.31 d

-0.31 dB +0.29 dB dB Pass Fail

5dB

-0.2

+0.29 d

+0.21

3dB

+0.2

Measured value Result

□ Done

dB Pass Fail

PSM3000, PSM4000, and PSM5000 Series Technical Reference 31

Performance Veriﬁcation

Table 6: Level a

Model:

Frequency

ccuracy worksheet

CAL_SENSOR PM_APP reading (dBm)

DUT PM_APP reading (dBm)

REF_SENSOR PM_APP reading (dB)

LVL _ERROR (DUT – CAL_SENSOR – REF_SENSOR) Record this result on the Test Record (dB)

32 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Table 6: Level accuracy worksheet (cont.)

Model:

CAL_SENSOR PM_APP

Frequency

reading (dBm)

DUT PM_APP reading (dBm)

REF_SENSOR PM_APP reading (dB)

Performance Veriﬁcation

LVL_ERROR (DUT – CAL_SENSOR – REF_SENSOR) Record this result on the Test Record (dB)

PSM3000, PSM4000, and PSM5000 Series Technical Reference 33

Performance Veriﬁcation

Table 7: Linear

Model:

Source Power

ity worksheet

DUT PM_APP reading (dBm

LIN_ERROR REF_SENSOR PM_APP

)

reading (dB)

(REF__SENSOR – DUT)

Record this result on

the Test Reco

rd (dB)

34 PSM3000, PSM4000, and PSM5000 Series Technical Reference

Tektronix PSM3110, PSM3120, PSM3310, PSM3320, PSM3510 Performance Verification

Specifications and Main Features

Frequently Asked Questions

User Manual