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Hands-on Introduction to Labview for Scientists and Engineers 2nd Revised edition [Pehme köide]

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  • Formaat: Paperback / softback, 624 pages, kõrgus x laius x paksus: 235x190x23 mm, kaal: 980 g, Illustrations
  • Ilmumisaeg: 08-Jun-2012
  • Kirjastus: Oxford University Press Inc
  • ISBN-10: 0199925151
  • ISBN-13: 9780199925155
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Hands-on Introduction to Labview for Scientists and Engineers 2nd Revised editionSuurem pilt
  • Formaat: Paperback / softback, 624 pages, kõrgus x laius x paksus: 235x190x23 mm, kaal: 980 g, Illustrations
  • Ilmumisaeg: 08-Jun-2012
  • Kirjastus: Oxford University Press Inc
  • ISBN-10: 0199925151
  • ISBN-13: 9780199925155
Teised raamatud teemal:
Püsilink: https://www.kriso.ee/db/9780199925155.html
Märksõnad:
"Introduction to LabView programming for scientists and engineers"--

Hands-On Introduction to LabVIEW for Scientists and Engineers, Second Edition, provides a "learn-by-doing" approach to acquiring the computer-based skills used in daily experimental work in engineering and the sciences. Ideal as an instructional lab textbook or for self-study by individual researchers, this book is not a manual-like
presentation of LabVIEW, but rather leads its readers to mastery of this powerful laboratory tool through the process of carrying out interesting and relevant projects. Readers--who are assumed to have no prior computer programming or LabVIEW background--will begin writing meaningful programs within the first few pages. Hands-On Introduction to LabVIEW is designed for flexible use so that readers can easily choose the desired depth of coverage.

New to the Second Edition

* All chapters fully updated to the latest version of LabVIEW and commonly used low-cost data acquisition devices
* Full-color reference card of LabVIEW programming icons
* "Quick Example" sections at the chapter beginnings give concise introductions to the MathScript Node, Shift Register, and Case Structure
* Coverage of USB control of stand-alone instrumentation
* Solutions to even-numbered back-of-the-chapter problems available on the companion website
Preface xiii
1 The While Loop and Waveform Chart
1(55)
1.1 LabVIEW Programming Environment
1(1)
1.2 Sine-Wave Plot using a While Loop and Waveform Chart
2(1)
1.3 Block Diagram Editing
3(17)
1.4 LabVIEW Help Window
20(2)
1.5 Front Panel Editing
22(5)
1.6 Pop-Up Menu
27(3)
1.7 Finishing the Program
30(1)
1.8 Program Execution
31(2)
1.9 Program Improvements
33(10)
1.10 Date-Type Representations
43(3)
1.11 Automatic Creation Feature
46(2)
1.12 Program Storage
48(8)
Do It Yourself
50(1)
Problems
51(5)
2 The For Loop and Waveform Graph
56(43)
2.1 For Loop Basics
56(1)
2.2 Sine-Wave Plot using a For Loop and Waveform Graph
57(1)
2.3 Waveform Graph
58(1)
2.4 Owned and Free Labels
59(1)
2.5 Creation of Sine Wave using a For Loop
60(3)
2.6 Cloning Block-Diagram Icons
63(2)
2.7 Auto-Indexing Feature
65(3)
2.8 Running the VI
68(1)
2.9 x-Axis Calibration of the Waveform Graph
69(6)
2.10 Sine-Wave Plot using a While Loop and Waveform Graph
75(4)
2.11 Array Indicators and the Probe Watch Window
79(20)
Do It Yourself
90(2)
Problems
92(7)
3 The MathScript Node and XY Graph
99(53)
3.1 MathScript Node Basics
99(3)
3.2 Quick MathScript Node Example: Sine-Wave Plot
102(7)
3.3 Debugging with Error List
109(2)
3.4 Waveform Simulator using a MathScript Node and XY Graph
111(4)
3.5 Creating an xy Cluster
115(1)
3.6 Running the VI
116(1)
3.7 MathScript Interactive Window
117(4)
3.8 Adding Shape Options to Waveform Simulator
121(1)
3.9 The Enumerated Type Control
122(2)
3.10 Finishing the Block Diagram
124(4)
3.11 Running the VI
128(1)
3.12 Control and Indicator Clusters
129(7)
3.13 Creating an Icon using the Icon Editor
136(1)
3.14 Icon Design
137(5)
3.15 Connector Assignment
142(10)
Do It Yourself
146(2)
Problems
148(4)
4 Data Acquisition Using DAQ Assistant
152(59)
4.1 Data Acquisition VIs
152(1)
4.2 Data Acquisition Hardware
153(2)
4.3 Analog Input Modes
155(2)
4.4 Range and Resolution
157(1)
4.5 Sampling Frequency and the Aliasing Effect
158(2)
4.6 Measurement & Automation Explorer (MAX)
160(4)
4.7 Simple Analog Input Operation on a DC Voltage
164(11)
4.8 Digital Oscilloscope
175(9)
4.9 Analog Output
184(1)
4.10 DC Voltage Source
185(7)
4.11 Software-Timed Sine-Wave Generator
192(2)
4.12 Hardware-Timed Waveform Generator
194(3)
4.13 Placing a Custom-Made VI on a Block Diagram
197(2)
4.14 Completing and Executing Waveform Generator (Express)
199(2)
4.15 Modified Waveform Generator
201(10)
Do It Yourself
203(1)
Problems
204(7)
5 Data Files and Character Strings
211(41)
5.1 ASCII Text and Binary Data Files
211(2)
5.2 Storing Data in a Spreadsheet-Formatted File
213(1)
5.3 Storing a One-Dimensional Data Array
214(3)
5.4 Transpose Option
217(3)
5.5 Storing a Two-Dimensional Data Array
220(4)
5.6 Controlling the Format of Stored Data
224(2)
5.7 The Path Constant and Platform Portability
226(1)
5.8 Fundamental File I/O VIs
227(6)
5.9 Adding Text Labels to a Spreadsheet File
233(4)
5.10 Blackslash Codes
237(15)
Do It Yourself
239(4)
Problems
243(9)
6 Shift Registers
252(44)
6.1 Shift Register Basics
252(3)
6.2 Quick Shift Register Example: Integer Sum
255(3)
6.3 Numerical Integration and Differentiation using Shift Registers
258(1)
6.4 Power Function Simulator VI
258(6)
6.5 Numerical Integration via the Trapezoidal Rule
264(3)
6.6 Trapezoidal Rule VI using Single Shift Register
267(8)
6.7 Convergence Property of the Trapezoidal Rule
275(3)
6.8 Numerical Differentiation using a Multiple Shift Registers
278(6)
6.9 Modularity and Automatic SubVI Creation
284(12)
Do It Yourself
289(1)
Problems
289(7)
7 The Case Structure
296(42)
7.1 Case Structure Basics
296(3)
7.2 Quick Case Structure Example: Runtime Options using Property Nodes
299(11)
7.3 Numerical Integration using Case Structures
310(1)
7.4 Numerical Integration via Simpson's Rule
310(3)
7.5 Parity Determiner using a Boolean Case Structure
313(5)
7.6 Summation of Partial Sums using a Numeric Case Structure
318(3)
7.7 Trapezoidal Rule Contribution using a Boolean Case Structure
321(2)
7.8 Top-Level Simpson's Rule VI
323(3)
7.9 Comparison of the Trapezoidal Rule and Simpson's Rule
326(12)
Do It Yourself
329(1)
Problems
330(8)
8 Data Dependency and the Sequence Structure
338(26)
8.1 Data Dependency and Sequence Structure Basics
338(4)
8.2 Event Timer using a Sequence Structure
342(7)
8.3 Event Timer using Data Dependency
349(3)
8.4 Highlight Execution
352(12)
Do It Yourself
354(1)
Problems
355(9)
9 Analysis VIs: Curve Fitting
364(41)
9.1 Thermistor Resistance-Temperature Data File
364(3)
9.2 Temperature Measurement using Thermistors
367(3)
9.3 The Linear Least-Squares Method
370(1)
9.4 Inputting Data to a VI using a Front-Panel Control
371(5)
9.5 Inputting Data to a VI by Reading from a Disk File
376(3)
9.6 Slicing Up a Multi-Dimensional Array
379(6)
9.7 Curve Fitting using the Linear Least-Squares Method
385(6)
9.8 Residual Plot
391(14)
Do It Yourself
394(3)
Problems
397(8)
10 Analysis VIs: Fast Fourier Transform
405(46)
10.1 The Fourier Transform
405(1)
10.2 Discrete Sampling and the Nyquist Frequency
406(1)
10.3 The Discrete Fourier Transform
407(1)
10.4 The Fast Fourier Transform
408(1)
10.5 Frequency Calculator VI
409(3)
10.6 FFT of Sinusoids
412(2)
10.7 Applying the FFT to Various Sinusoidal Inputs
414(3)
10.8 Magnitude of the Complex-Amplitude
417(4)
10.9 Observing Leakage
421(6)
10.10 Analytic Description of Leakage
427(3)
10.11 Description of Leakage Using the Convolution Theorem
430(4)
10.12 Windowing
434(6)
10.13 Estimating Frequency and Amplitude
440(3)
10.14 Aliasing
443(8)
Do It Yourself
444(1)
Problems
445(6)
11 Data Acquisition and Generation Using DAQmx VIs
451(40)
11.1 DAQmx VIs
451(2)
11.2 Simple Analog Input Operation on a DC Voltage
453(6)
11.3 Digital Oscilloscope
459(7)
11.4 Express VI Automatic Code Generation
466(1)
11.5 Limitation of Express VIs
467(2)
11.6 Improving Digital Oscilloscope using State Machine Architecture
469(11)
11.7 Analog Output Operations
480(1)
11.8 Waveform Generator
481(10)
Do It Yourself
485(1)
Problems
485(6)
12 PID Temperature Control Project
491(7)
12.1 Voltage-Controlled Bidirectional Current Driver for Thermoelectric Device
491(1)
12.2 PID Temperature Control Algorithm
492(3)
12.3 PID Temperature Control System
495(3)
13 Control of Stand-Alone Instruments
498(77)
13.1 Instrument Control using VISA VIs
498(1)
13.2 The VISA Session
499(4)
13.3 The IEEE 488.2 Standard
503(1)
13.4 Common Commands
503(1)
13.5 Status Reporting
504(4)
13.6 Device-Specific Commands
508(1)
13.7 Specific Hardware used in this
Chapter
509(2)
13.8 Measurement & Automation Explorer (MAX)
511(7)
13.9 Simple VISA-Based Query Operation
518(4)
13.10 Message Termination
522(1)
13.11 Getting and Setting Communication Properties using a Property Node
523(4)
13.12 Performing a Measurement over the Interface Bus
527(5)
13.13 Synchronization Methods
532(6)
13.14 Measurement VI Based on the Serial Poll Method
538(7)
13.15 Measurement VI Based on the Service Request Method
545(6)
13.16 Creating an Instrument Driver
551(14)
13.17 Using the Instrument Driver to Write an Application Program
565(10)
Do It Yourself
571(1)
Problems
572(3)
Appendix I Construction of Temperature Control System 575(8)
Appendix II Program Cross Reference Table 583(2)
Index 585
John Essick is David W. Brauer Professor of Physics at Reed College.