Hands-On Introduction to LabVIEW for Scientists and Engineers

by John Essick

Overview

Departing from the style of typical manuals, Hands-On Introduction to LabVIEW for Scientists and Engineers, Fourth Edition, uses a learn-by-doing approach to guide students through using this powerful laboratory tool. It helps students—who are not assumed to have prior experience—master the computer-based skills they need to carry out effective experiments.

Product Details

ISBN-13:	9780190853068
Publisher:	Oxford University Press
Publication date:	06/01/2018
Edition description:	New Edition
Pages:	720
Product dimensions:	7.50(w) x 9.10(h) x 1.10(d)

About the Author

John Essick is Professor of Physics at Reed College. His research interests focus on the optoelectronic properties of semiconductors. Since 1993, Dr. Essick has taught computer-based experimentation using LabVIEW as part of Reed's junior-level Advanced Laboratory and has used LabVIEW to carry out a variety of research projects.

Table of Contents

Preface
About the Author

1. LABVIEW PROGRAM DEVELOPMENT
1.1 LabVIEW Programming Environment
1.2 Blank VI
1.3 Front-Panel Editing
1.4 Block-Diagram Editing
1.5 Program Execution
1.6 Pop-Up Menu and Data-Type Representation
1.7 Program Storage
1.8 Quick Drop

2. THE WHILE LOOP AND WAVEFORM CHART
2.1 Programming Structures and Graphing Modes
2.2 While Loop Basics
2.3 Sine-Wave Plot Using a While Loop and Waveform Chart
2.4 LabVIEW Help Window
2.5 Front Panel Editing
2.6 Waveform Chart Pop-Up Menu
2.7 Finishing the Program
2.8 Program Execution
2.9 Program Improvements
2.10 Data Types and Automatic Creation Feature

3. THE FOR LOOP AND WAVEFORM GRAPH
3.1 For Loop Basics
3.2 Sine-Wave Plot Using a For Loop and Waveform Graph
3.3 Waveform Graph
3.4 Owned and Free Labels
3.5 Creation of Sine Wave Using a For Loop
3.6 Cloning Block-Diagram Icons
3.7 Auto-Indexing Feature
3.8 Running the VI
3.9 X-Axis Calibration of the Waveform Graph
3.10 Sine-Wave Plot Using a While Loop and Waveform Graph
3.11 Front-Panel Array Indicator
3.12 Debugging With the Probe Watch Window and Error List

4. THE MATHSCRIPT NODE AND XY GRAPH
4.1 MathScript Node Basics
4.2 Quick MathScript Node Example: Sine-Wave Plot
4.3 Waveform Simulator Using a MathScript Node and XY Graph
4.4 Creating an XY Cluster
4.5 Running the VI
4.6 LabVIEW MathScript Window
4.7 Adding Shape Options Using an Enumerated Type Control
4.8 Finishing the Block Diagram
4.9 Running the VI
4.10 Control and Indicator Clusters
4.11 Creating an Icon Using the Icon Editor
4.12 Icon Design
4.13 Connector Assignment

5. INTRODUCTION TO DATA ACQUISITION DEVICES USING MAX
5.1 Data Acquisition Hardware
5.2 Measurement & Automation Explorer (MAX)
5.3 Analog Input Modes
5.4 Range and Resolution
5.5 Sampling Frequency and the Aliasing Effect
5.6 Analog Input Operation Using MAX
5.7 Analog Output
5.8 Analog Output Operation Using MAX
5.9 Digital Input/Output
5.10 Digital Input/Output Operation Using Max

6. DATA ACUISITION USING DAQ ASSISTANT
6.1 Data Acquisition VIs
6.2 Simple Analog Input Operation on a DC Voltage
6.3 Digital Oscilloscope
6.4 DC Voltage Storage
6.5 Hardware-Timed Waveform Generator
6.6 Placing a Custom-Made VI on a Block Diagram
6.7 Completing and Executing Waveform Generator (Express)

7. DATA FILES AND CHARACTER STRINGS
7.1 ASCII Text and Binary Data Files
7.2 Storing Data in Spreadsheet-Formatted File
7.3 Storing a One-Dimensional Data Array
7.4 Transpose Option
7.5 Storing a Two-Dimensional Data Array
7.6 Controlling the Format of Stored Data
7.7 The Path Constant and Platform Portability
7.8 Fundamental File I/O VIs
7.9 Adding Text Labels to a Spreadsheet File
7.10 Backslash Codes

8. SHIFT REGISTERS
8.1 Shift Register Basics
8.2 Quick Shift Register Example: Integer Sum
8.3 Noise and Signal Averaging
8.4 Noisy Sine VI
8.5 Moving Average of Four Traces
8.6 Modularity and Automatic SubVI Creation
8.7 Moving Average of Arbitrary Number of Traces

9. THE CASE STRUCTURE
9.1 Case Structure Basics
9.2 Quick Case Structure Example: Runtime Options Using Property Nodes
9.3 State Machine Architecture: Guessing Game
9.4 State Machine Architecture: Express VI-Based Digital Oscilloscope

10. DATA DEPENDENCY AND THE SEQUENCE STRUCTURE
10.1 Data Dependency and Sequence Structure Basics
10.2 Event Timer Using a Sequence Structure
10.3 Event Timer Using Data Dependency
10.4 Highlight Execution

11. ANALYSIS VIs: CURVE FITTING
11.1 Thermistor Resistance-Temperature Data File
11.2 Temperature Measurement Using Thermistors
11.3 The Linear Least-Squares Method
11.4 Inputting Data to a VI Using a Front-Panel Array Control
11.5 Inputting Data to a VI by Reading from a Disk File
11.6 Slicing Up a Multi-Dimensional Array
11.7 Running the VI
11.8 Curve Fitting Using the Linear Least-Squares Method
11.9 Residual Plot
11.10 Curve Fitting Using the Nonlinear Least-Squares Method

12. ANALYSIS VIs: FAST FOURIER TRANSFORM
12.1 Quick Fast Fourier Transform Example
12.2 The Fourier Transform
12.3 Discrete Sampling and the Nyquist Frequency
12.4 The Discrete Fourier Transform
12.5 The Fast Fourier Transform
12.6 Frequency Calculator VI
12.7 FFT of Sinusoids
12.8 Applying the FFT to Various Sinusoidal Inputs
12.9 Magnitude of Complex-Amplitude
12.10 Observing Leakage
12.11 Windowing
12.12 Estimating Frequency and Amplitude
12.13 Aliasing

13. DATA ACQUISITION AND GENERATION USING DAQMX VIs
13.1 DAQmx VI Basics
13.2 Simple Analog Input Operation on a DC Voltage
13.3 Digital Oscilloscope
13.4 Express VI Automatic Code Generation
13.5 Limitations of Express VIs
13.6 Improving Digital Oscilloscope Using State Machine Architecture
13.7 Analog Output Operations
13.8 Waveform Generator

14. CONTROL OF STAND-ALONE INSTRUMENTS
14.1 Instrument Control using VISA VIs
14.2 The VISA Session
14.3 The IEEE 488.2 Standard
14.4 Common Commands
14.5 Status Reporting
14.6 Device-Specific Commands
14.7 Specific Hardware Used In This Chapter
14.8 Measurement & Automation Explorer (MAX)
14.9 Simple VISA-Based Query Operation
14.10 Message Termination
14.11 Getting and Setting Communication Properties Using a Property Node
14.12 Performing a Measurement over the Interface Bus
14.13 Synchronization Methods
14.14 Measurement VI Based on the Serial Poll Method
14.15 Measurement VI Based on the Service Request Method
14.16 Creating an Instrument Driver
14.17 Using the Instrument Driver to Write an Application Program

APPENDIX A. FORMULA NODE PROGRAMMING FOR CHAPTER 4
A.1 Formula Node Basics
A.2 Quick Formula Node Example: Sine-Wave Plot (Section 4.2)
A.3 Formula Node-Based Waveform Simulator (Sections 4.3-4.4)
A.4 Formula Node-Based Waveform Simulator (Section 4.8)
A.5 Formula Node-Based Waveform Simulator (Section 4.10)

APPENDIX B. MATHEMATICS OF LEAKAGE AND WINDOWING
B.1 Analytic Description of Leakage
B.2 Description of Leakage Using the Convolution Theorem

APPENDIX C. PID TEMPERATURE CONTROL PROJECT
C.1 Project Description
C.2 Voltage-Controlled Bidirectional Current Driver for Thermoelectric Device
C.3 PID Temperature Control Algorithm
C.4 PID Temperature Control System
C.5 Construction of Temperature Control System

Index

Editorial Reviews

"[This book] is written in a manner that helps the beginning LabVIEW programmer understand how to get started and also has a great presentation of more advanced concepts for experienced users."—David L. Roach, Mott Community College

"There are numerous books about programming in LabVIEW, but none that have such a focused applicability to the college-level science lab as this one. The greatest strength of this book is Essick's pedagogical approach. This is not a book on LabVIEW programming: it's a book on using LabVIEW as a tool to do interesting things that - almost incidentally - provides the reader with practical knowledge of LabVIEW programming. ... if the book's good enough that I'm considering building a class around it, well, that's a good book!"—Eric Ayars, The Physics Teacher Journal

"Essick wrote his book from the point of view of a scientist or engineer that actually wants to accomplish something with the software that is practical. And, in a fairly short period of time. For practical users, Essick nailed it."—John Sohl, Weber State University

From the Publisher