Agilent Technologies U8001A Specifications

Browse online or download Specifications for Power supply units Agilent Technologies U8001A. Agilent Technologies U8001A Product specifications User Manual

  • Download
  • Add to my manuals
  • Print

Summary of Contents

Page 1 - Exercise

Agilent Technologies AgilentInstrumentation Laboratory ExerciseProf. Horizon Walker Gitano Briggs and Goh Chin YuanDepartment of Mechanical Engineerin

Page 2 - Contents

Instrumentation Laboratory Exercise 7 It is very important that you know how to acquire voltage measurements properly. Figure 1- 5 shows two ways to

Page 3

8 Instrumentation Laboratory Exercise 1.5 Connection to the DAQ deviceThe DAQ device must be properly connected to the circuit in order to sense the

Page 4 - Introduction

Instrumentation Laboratory Exercise 9 Figure 1-7 Pin configurations for the DAQ screw terminal blockThe full pinout of the screw terminal block is sh

Page 5 - Laboratory Exercise 1

10 Instrumentation Laboratory Exercise 1.6 Agilent VEE Student/ProAgilent VEE is a program which enables you to take measurements, perform calculatio

Page 6 - 1.3 Resistor color codes

Instrumentation Laboratory Exercise 11 To fully utilize the capabilities of VEE programming you need to master the various steps:• Reading the input

Page 7

12 Instrumentation Laboratory Exercise Change the WRITE tab to READ, then click OK to read the voltage in.Figure 1-9 Program with completed input sec

Page 8

Instrumentation Laboratory Exercise 13 To calculate the difference in voltages you will need to read in 2 channels (101 and 102). Change all the line

Page 9

14 Instrumentation Laboratory Exercise Laboratory Exercise #1 Test Report NAME:______________________________Part 1:Calculate the equivalent resist

Page 10

Instrumentation Laboratory Exercise 15 Laboratory Exercise 2Diode junction temperature measurement Apparatus• One 1 kΩ resistor• One signal diode (si

Page 11

Instrumentation Laboratory Exercise 16 2.2 Circuit setupVD will be fed into pin 1 of the DAQ board, and the circuit ground will be fed into the groun

Page 12

Instrumentation Laboratory Exercise IIContentsIntroduction 1Laboratory Exercise 1 2Resistor codes, breadboard, and basic measurements using Agilent da

Page 13 - 1.6 Agilent VEE Student/Pro

Instrumentation Laboratory Exercise 17 Set up the analog input on channel 101, and confirm that the signal is read into pin 1 and ground is connected

Page 14

Instrumentation Laboratory Exercise 18 2.4 Calibration procedureWe will perform a “two- point” calibration of the diode temperature sensor. To calibr

Page 15

Instrumentation Laboratory Exercise 19 2.5 Temperature displaySet up a Formula box (found in the Device menu) for calibration allowing the subtractio

Page 16

Instrumentation Laboratory Exercise 20 Run the program by clicking the Start button or the run (right pointing triangle on the main menu bar) button.

Page 17

Instrumentation Laboratory Exercise 21 Ensure that Autoscaling is OFF. Finally, run your program and confirm that you can record the temperature fluc

Page 18 - Laboratory Exercise 2

Instrumentation Laboratory Exercise 22 Laboratory Exercise #2 Test Report NAME:______________________________Measure the Zero Reference Voltage: VZ

Page 19 - 2.3 VEE programming

Instrumentation Laboratory Exercise 23 Laboratory Exercise 3Motor current characteristicsApparatus• One 0.5 Ω, 5 W resistor• Small permanent magnet (

Page 20

Instrumentation Laboratory Exercise 24 This experiment is repeated for each of the mentioned voltages. The resulting curves (a linear increase in mot

Page 21 - 2.4 Calibration procedure

Instrumentation Laboratory Exercise 25 Remember to include a space after the question mark in the MEAS:VOLT:DC? command. Once you have confirmed the

Page 22 - 2.5 Temperature display

Instrumentation Laboratory Exercise 26 You may want to set up the scale on the X-Y plot. To do this, right- click the plot, and select Properties on

Page 23

III Instrumentation Laboratory Exercise4.1 Introduction 304.2 Objectives 314.3 Circuit setup 314.4 VEE programming 324.5 Test procedure 39Laboratory E

Page 24

Instrumentation Laboratory Exercise 27

Page 25

Instrumentation Laboratory Exercise 28 3.4 Test procedureSet the power supply voltage to 2 V, and allow the motor to spin up to its maximum speed. No

Page 26 - Laboratory Exercise 3

Instrumentation Laboratory Exercise 29 Laboratory Exercise #3 Test Report NAME:______________________________Set the power supply to 2 V, 3 V, and

Page 27 - 3.3 VEE programming

Instrumentation Laboratory Exercise 30 Laboratory Exercise 4Foto-optic measurements of speed and flickerApparatus• One 10 kΩ Resistor• One Cadmium Di

Page 28

Instrumentation Laboratory Exercise 31 4.2 ObjectivesIn this laboratory exercise, you will learn how to:• import entire wave forms,• calculate variou

Page 29

Instrumentation Laboratory Exercise 32 4.4 VEE programmingFirst, set up the analog input on channel 101, as done in previous exercises. We want to re

Page 30

Instrumentation Laboratory Exercise 33 As the digitization process takes time (in this case 200 ms), we must wait for the data to be read before we c

Page 31 - 3.4 Test procedure

Instrumentation Laboratory Exercise 34 When digitization is complete the variable x will have the text value YES. In the In/Then/Else Conditional box

Page 32

Instrumentation Laboratory Exercise 35 When you have finished these steps your program should look like this:This DAQ has 16- bit resolution, but the

Page 33 - Laboratory Exercise 4

Instrumentation Laboratory Exercise 36 To do this, create the following formula boxes. The VL array is wired into the left side, and the output at th

Page 34 - 4.3 Circuit setup

Instrumentation Laboratory Exercise 1 IntroductionThis manual is intended as a complement to an existing course in PC- based instrumentation for univ

Page 35 - 4.4 VEE programming

Instrumentation Laboratory Exercise 37 Run the program and verify that it can read the signal from the CdS cell. Move the motor slowly and confirm th

Page 36

Instrumentation Laboratory Exercise 38 NOTEYou will have to right-click the box and add two additional data outputs, and you will have to right-click

Page 37

Instrumentation Laboratory Exercise 39 4.5 Test procedureEnsure that the sensor is placed beneath a hole in the motor's disk. Measure the voltag

Page 38

Instrumentation Laboratory Exercise 40 Finally, stop the motor and point the CdS cell at the fluorescent lights (make sure to shield it from light fr

Page 39

Instrumentation Laboratory Exercise 41 Laboratory Exercise #4 Test Report NAME:______________________________Measure the static dark voltage of the

Page 40

Instrumentation Laboratory Exercise 42 Laboratory Exercise 5Motor speed-torque characteristicsApparatus• One 0.5 Ω, 5 W resistor• Inferred reflective

Page 41

Instrumentation Laboratory Exercise 43 The speed and voltage should be recorded as a function of time, and the motor voltage should be re applied to

Page 42 - 4.5 Test procedure

Instrumentation Laboratory Exercise 44 We must wait for the data to be read before we can display it, so we will have to include a loop which waits f

Page 43

Instrumentation Laboratory Exercise 45 This DAQ has 16- bit resolution, but the data is read in 8- bit bytes. The data in the array RAW is read as tw

Page 44

Instrumentation Laboratory Exercise 46 The sense resistor can be read as was done in Laboratory Exercise 3. Put the Direct I/O box for reading the se

Page 45 - Laboratory Exercise 5

2 Instrumentation Laboratory Exercise Laboratory Exercise 1Resistor codes, breadboard, and basic measurements using Agilent data acquisition systemAp

Page 46 - 5.3 VEE programming

Instrumentation Laboratory Exercise 47 Power up the motor and read the sense resistor voltage, and the trace from the foto- sensor. Display the foto-

Page 47

Instrumentation Laboratory Exercise 48 The period is defined as the time from one upward going transition (or crossing) of the UT to the next upward

Page 48

Instrumentation Laboratory Exercise 49 The second User Object does a very similar thing, but starts its counting from the location B+1 (otherwise it

Page 49

Instrumentation Laboratory Exercise 50 To obtain the period you must wire up the User Objects to the incoming array, the UT, and feed the first index

Page 50

Instrumentation Laboratory Exercise 51 5.4 Test procedureYou are now ready to measure the motor's speed- torque characteristics. This is a very

Page 51

Instrumentation Laboratory Exercise 52 Laboratory Exercise #5 Test Report NAME:______________________________What is the no-load speed of the motor w

Page 52

Instrumentation Laboratory Exercise 53 Laboratory Exercise 6Passive filter measurementsApparatus• One IRPD• Small permanent magnet (PM) DC motor• One

Page 53

Instrumentation Laboratory Exercise 54 6.2 Circuit setupThe configuration above is set up as a high- pass filter. Vflt will be fed into pin 1 of the

Page 54 - 5.4 Test procedure

Instrumentation Laboratory Exercise 55 6.3 VEE programmingThe basic program is setup the similar to Laboratory Exercise 5. A Start button is wired to

Page 55

Instrumentation Laboratory Exercise 56 Place a strip chart to view the converted waveform. Also right click it, and set the horizontal scale (found a

Page 56 - Laboratory Exercise 6

Instrumentation Laboratory Exercise 3 1.2 Electrical safetyElectrical voltages and currents can be dangerous if they occur at values that interfere w

Page 57 - 6.2 Circuit setup

Instrumentation Laboratory Exercise 57 Similarly display the frequency as an AlphaNumeric box and feed it into the X coordinate of the X vs Y Plot. S

Page 58 - 6.3 VEE programming

Instrumentation Laboratory Exercise 58 Again clear the X-Y plot and observe what happens as you slow the motor.Finally, for comparison purposes remov

Page 59

Instrumentation Laboratory Exercise 59 Laboratory Exercise #6 Test Report NAME:______________________________Measure the nominal signal amplitude (wi

Page 60 - 6.4 Test procedure

Instrumentation Laboratory Exercise 60 Appendix AResistor color codesA resistor's value and tolerance are usually coded in with color bands (a,

Page 61

Instrumentation Laboratory Exercise 61 Table A-2 Resistor color band codes Example: 1kΩ Resistor• First band (a): Brown = 1• Second Band (b): Black

Page 62

Instrumentation Laboratory Exercise 62 Appendix BU2351A pinoutPin configurations for the DAQ screw terminal blockPin configurations for U2351A, U2353

Page 63 - Appendix A

Instrumentation Laboratory Exercise 63 Table B - 1 68-pin VHDCI connector pins descriptionsSignal Name Direction Reference GroundDescription AI_GND

Page 64 - Example: 1kΩ Resistor

Instrumentation Laboratory Exercise 64 Appendix CAppendix error codesWhile error codes reported by the software are rather cryptic, careful reading o

Page 65 - Appendix B

Instrumentation Laboratory Exercise 65 • –123, "Exponent too large",• –124, "Too many digits",• –128, "Numeric data not allo

Page 66

Instrumentation Laboratory Exercise 66 • –221, "Settings conflict; unsupported trigger mode",• –221, "Settings conflict; unsupported t

Page 67 - Appendix C

4 Instrumentation Laboratory Exercise Table 1 - 1 Resistor color band codes 1.4 The breadboard (protoboard)Figure 1-2 Typical protoboard setupa, b, c

Page 68

Instrumentation Laboratory Exercise 67 • 301, "Module currently committed to scan",• 303, "Module is not able to perform requested ope

Page 69

Instrumentation Laboratory Exercise 68 • 747, "Calibration failed",• 748, "Cal checksum failed, internal data",• 748, "Cal:

Page 70

© Agilent Technologies, Inc. , 2008First Edition, December 1, 20085990-3145ENwww.agilent.comAgilent TechnologiesContact usTo obtain service, warranty

Page 71

Instrumentation Laboratory Exercise 5 A breadboard (protoboard) shown in Figure 1- 2) is a device for prototyping electronic circuits in a form that

Page 72 - Agilent Technologies

6 Instrumentation Laboratory Exercise Figure 1-3 Breadboard constructionFigure 1-4 Voltage divider circuit schematic diagramThe grey lines indicate t

Comments to this Manuals

No comments