Introduction to Nondestructive Testing: A Training Guide

ISBN-13: 9780471420293 / Angielski / Twarda / 2005 / 712 str.

Paul E. Mix

Opis

This updated Second Edition covers current state-of-the-art technology and instrumentation
The Second Edition of this well-respected publication provides updated coverage of basic nondestructive testing (NDT) principles for currently recognized NDT methods. The book provides information to help students and NDT personnel qualify for Levels I, II, and III certification in the NDT methods of their choice. It is organized in accordance with the American Society for Nondestructive Testing (ASNT) Recommended Practice No. SNT-TC-1A (2001 Edition).
Following the author's logical organization and clear presentation, readers learn both the basic principles and applications for the latest techniques as they apply to a wide range of disciplines that employ NDT, including space shuttle engineering, digital technology, and process control systems. All chapters have been updated and expanded to reflect the development of more advanced NDT instruments and systems with improved monitors, sensors, and software analysis for instant viewing and real-time imaging.
Keeping pace with the latest developments and innovations in the field, five new chapters have been added:
* Vibration Analysis
* Laser Testing Methods
* Thermal/Infrared Testing
* Holography and Shearography
* Overview of Recommended Practice No. SNT-TC-1A, 2001
Each chapter covers recommended practice topics such as basic principles or theory of operation, method advantages and disadvantages, instrument description and use, brief operating and calibrating procedures, and typical examples of flaw detection and interpretation, where applicable.

Recenzje

"...joins the group of respectable books in nondestructive testing...very valuable for certification in NDT methods, this book would be useful for college and University instructors as well." ( Materials and Manufacturing Processes, May 2006)

" a handy desktop engineering reference guide for material, welding, and metallurgical engineers also an engineering textbook for an undergraduate or even graduate–level class " (Journal of Metals Online, January 24, 2006)

Spis treści

Preface.

1 Introduction.

1.1 Digital Technology.

1.2 Smaller Is Better.

1.3 Medical Marvels.

1.4 Improving Shuttle Safety.

1.5 Airport Security.

1.6 Process Control.

1.7 Instrument Synchronization with PXI.

1.8 PCI vs. PXI.

1.9 60,000–Mile–High Elevator.

1.10 Proliferation of Information.

2 Acoustic Emissions.

2.1 Principles and Theory.

2.2 Signal Propagation.

2.3 Physical Considerations.

2.4 The AE Process Chain.

2.5 Time Considerations.

2.6 AE Parameters.

2.7 The AE Measurement Chain.

2.8 Vallen AMSY–5 High–Speed AE System.

2.9 Location Calculation and Clustering.

2.10 Advantages and Limitations of AE Testing.

2.11 AMSY–5 Main Features.

2.12 AE Transducers.

2.13 Kistler Piezotron® Acoustic Emission Sensors and Couplers.

2.14 AE Sensor Construction.

2.15 Summary of AE Sensor Features.

2.16 Technical Specifications 8152B2 Sensor.

2.17 AE Coupler Features.

2.18 Technical Specifications 5125B Coupler.

2.19 Acoustic Emission Technology.

2.20 AE Applications.

2.21 AE Theory.

2.22 Applications.

2.23 Advanced Equipment.

2.24 Codes, Standards, Practices, Guidelines, and Societies.

2.25 Application and Product–Specific Procedures.

2.26 Impact–Echo Method.

2.27 Technical Specifications.

2.28 Applications.

3 Electromagnetic Testing Method.

3.1 Eddy Current Theory.

3.2 Magnetic Flux Leakage Theory.

3.3 Eddy Current Sensing Probes.

3.4 Flux Leakage Sensing Probes.

3.5 Factors Affecting Flux Leakage.

3.6 Signal–to–Noise Ratio.

3.7 Test Frequency.

3.8 Magnetization for Flux Leakage Testing.

3.9 Coupling.

3.10 Eddy Current Techniques.

3.11 Instrument Design Considerations.

3.12 UniWest US–454 EddyView.

3.13 Institut Dr. Foerster.

3.14 Magnetic Flux Leakage Testing.

3.15 Applications.

3.16 Use of Computers.

3.17 Barkhausen Noise/Micromagnetic Testing.

3.18 Early Applications.

3.19 Principles of Measurement.

3.20 Equipment.

3.21 Technical Specifications.

3.22 Calibration and Testing.

3.23 Current Applications.

3.24 General Applications.

3.25 Electromechanical Acoustic Transducers (EMATs).

3.26 Basic Theory of Operation.

3.27 Recent Applications and Developments.

3.28 Alternating Current Field Measurement (ACFM) Method.

3.29 ACFM Principles of Operation.

3.30 Probe Design.

3.31 Applications.

4 Laser Testing Methods.

4.1 Introduction.

4.2 Disadvantages.

4.3 Main Advantages.

4.4 Laser Theory.

4.5 Laser Safety.

4.6 Laser Classification.

4.7 Training.

4.8 Profilometry Methods.

4.9 Basic TV Holography/ESPI Interferometry.

4.10 Nanometric Profiling Measurements.

4.11 Conoscopic Holography.

4.12 Confocal Measurement.

4.13 NanoSurf Confocal Microscopy.

4.14 3D Confocal Microscopy.

4.15 Nanometric Profiling Applications.

4.16 Scanning Laser Profilometry.

4.17 Laser–Scanned Penetrant Inspection (LSPITM–Patent Pending).

4.18 Advanced Techniques.

4.19 Natural and External Excitation.

4.20 Strain/Stress Measurement.

4.21 Longer Range 3D Speckle Interferometry System.

4.22 Nondestructive Testing (NDT).

4.23 Shearography.

4.24 Portable Shearography System.

4.25 Feltmetal Inspection System.

4.26 Optional Applications.

4.27 Optical Inspection Systems.

4.28 ARGUS.

4.29 TRITOP.

4.30 System Advantages.

4.31 Portable Measuring System Technique.

4.32 Dynamic TRITOP.

4.33 Other Laser Methods.

5 Leak Testing Methods.

5.1 Introduction.

5.2 Fundamentals.

5.3 Ultrasonic Leak Testing.

5.4 Bubble Leak Testing.

5.5 Dye Penetrant Leak Testing.

5.6 Pressure Change Leak Testing.

5.7 Helium Mass Spectrometer Leak Testing.

5.8 Mass Spectrometer Leak Detector.

5.9 MSLD Subsystems.

5.10 Vacuum System Configurations.

5.11 Electronics.

5.12 Methods of Leak Detection.

5.13 Vacuum Testing Method (Outside–In).

5.14 Pressure Test Method (Inside–Out).

5.15 Accumulation Testing Method.

5.16 Vacuum Systems.

5.17 Pressurized Systems.

5.18 MSLD Configurations.

5.19 Calibration.

5.20 Radioisotope Tracer Leak Testing.

5.21 Bubble Leak Testing.

5.22 Pressure Change Leak Testing.

5.23 Pressure Change Measurement Testing.

5.24 Leakage Rate and Flow Measurement Testing.

5.25 Nuclear Reactor Systems.

5.26 Halogen Diode Leak Testing.

5.27 Sniffer Techniques.

5.28 VIC MSLD Leak Detectors.

5.29 MSLD Subsystems.

5.30 Operating Sequence (MS–40 and MS–40 Dry).

5.31 Calibration Sequence (MS–40 and MS–40 Dry).

6 Liquid Penetrant Tests.

6.1 Introduction.

6.2 Processing.

6.3 Test Methods.

6.4 Advantages and Disadvantages of Various Methods.

6.5 Test Equipment.

6.6 Penetrant Materials.

6.7 System Comparisons.

6.8 Applications.

6.9 Measurement of UV and Visible Light.

6.10 Automatic and Semiautomatic Penetrant Testing Methods.

7 Magnetic Particle Testing.

7.1 Magnetic Principles.

7.2 Magnets and Magnetic Fields.

7.3 Discontinuities and Defects.

7.4 Induced Magnetic Fields.

7.5 Circular and Longitudinal Fields.

7.6 Selection of Magnetizing Method.

7.7 Commercial Equipment.

7.8 Wet and Dry Particle Inspection.

7.9 MT Improvements.

7.10 Applications.

7.11 Residual Fields and Demagnetization.

7.12 Magnetic Flux Strips.

7.13 Hall Effect Gaussmeter.

7.14 The Hysteresis Curve.

7.15 Selection of Equipment.

7.16 Advantages and Disadvantages of the Method.

7.17 Magnetic Rubber Inspection.

7.18 Underwater MRI.

7.19 Magnetic Penetrameters.

7.20 Automatic and Semiautomatic Inspection.

7.21 Magwerks Integrated System Tracking Technology.

7.22 Discontinuities and Their Appearances.

7.23 Nonrelevant Indications.

8 Neutron Radiographic Testing.

8.1 Introduction.

8.2 Physical Principles.

8.3 Neutron Radiation Sources.

8.4 Neutron Activation Analysis.

8.5 Ward Center TRIGA Reactor.

8.6 Radiation Hazards and Personal Protection.

8.7 Radiation Detection Imaging.

8.8 Electronic Imaging.

8.9 Nonimaging Detectors.

8.10 Neutron Radiographic Process.

8.11 Interpretation of Results.

8.12 Other Neutron Source Applications.

8.13 Neutron Level Gauges.

8.14 Californium–252 Sources.

8.15 Neutron Radioscopic Systems.

9 Radiographic Testing Method.

9.1 Industrial Radiography.

9.2 Work Practices.

9.3 Time Distance Shielding Containment.

9.4 Regulatory Requirements.

9.5 Exposure Devices.

9.6 State and Federal Regulations.

9.7 Basic Radiographic Physics.

9.8 Fundamental Properties of Matter.

9.9 Radioactive Materials.

9.10 Types of Radiation.

9.11 Interaction of Radiation with Matter.

9.12 Biological Effects.

9.13 Radiation Detection.

9.14 Radiation Sources.

9.15 Portable Linear Accelerators.

9.16 Special Radiographic Techniques.

9.17 Standard Radiographic Techniques.

9.18 The Radiograph.

9.19 Fluoroscopy Techniques.

9.20 Flat Panel Digital Imaging Systems.

9.21 Flat Panel Systems vs. Fuji Dynamix CR Imaging System.

9.22 Industrial Computed Tomography.

9.23 Automatic Defect Recognition.

9.24 The Digitome Process.

9.25 Manufacturing Processes and Discontinuities.

9.26 Other Isotope Applications.

10 Thermal/Infrared Testing Method.

10.1 Basic Modes of Heat Transfer.

10.2 The Nature of Heat Flow.

10.3 Temperature Measurement.

10.4 Common Temperature Measurements.

10.5 Color Change Thermometry.

10.6 Temperature Sensors with External Readouts.

10.7 Infrared Imaging Energy.

10.8 Heat and Light Concepts.

10.9 Pyrometers.

10.10 Infrared Imaging Systems.

10.11 Spacial Resolution Concepts.

10.12 Infrared Testing Method.

10.13 High–Performance Thermal Imager for Predictive Maintenance.

10.14 High–Performance Radiometric IR System.

10.15 Mikron Instrument Company, Inc.

10.16 Mikron 7200V Thermal Imager and Visible Light Camera.

10.17 High–Speed IR Line Cameras.

10.18 Other Thermal Testing Methods.

11 Ultrasonic Testing.

11.1 Introduction.

11.2 Definition of Acoustic Parameters of a Transducer.

11.3 Noncontacting Ultrasonic Testing.

11.4 Ultrasonic Pulsers/Receivers.

11.5 Multilayer Ultrasonic Thickness Gauge.

11.6 Conventional Ultrasound.

11.7 Ultrasonic Testing Equipment.

11.8 Time–of–Flight Diffraction (TOFD).

12 Vibration Analysis Method.

12.1 Introduction.

12.2 Principles/Theory.

12.3 Sources of Vibration.

12.4 Noise Analysis.

12.5 Stress Analysis.

12.6 Modal Analysis.

12.7 Vibration Analysis/Troubleshooting.

12.8 Transfer Functions.

12.9 Predictive Maintenance.

12.10 Failure Analysis.

12.11 Impact Testing and Frequency Response.

12.12 Pass and Fail Testing.

12.13 Correction Methods.

12.14 Machine Diagnosis.

12.15 Sensors.

12.16 Rolling Element Bearing Failures.

12.17 Bearing Vibration/Noise.

12.18 Blowers and Fans.

12.19 Vibrotest 60 Version 4.

12.20 Signal Conditioning.

12.21 Equipment Response to Environmental Factors.

12.22 Data Presentation.

12.23 Online Monitoring.

12.24 Portable Noise and Vibration Analysis System.

12.25 Laser Methods.

12.26 TEC s Aviation Products.

13 Visual and Optical Testing.

13.1 Fundamentals.

13.2 Principles and Theory of Visual Testing.

13.3 Selection of Correct Visual Technique.

13.4 Equipment.

13.5 Fiberscopes and Videoscopes.

13.6 SnakeEyeTM Diagnostic Tool.

13.7 Industrial Videoscopes.

13.8 Projection Microscopes.

13.9 The Long–Distance Microscope.

13.10 InfiniMaxTM Long–Distance Microscope.

13.11 Remote Visual Inspection.

13.12 Robotic Crawler Units.

13.13 Pipe and Vessel Inspections/Metal Joining Processes.

13.14 Ocean Optics Photometers.

14 Overview of Recommended Practice No. SNT–TC–1A, 2001 Edition.

14.1 Purpose.

14.2 NDT Levels of Qualification.

14.3 Recommended NDT Level III Education, Training, and Experience.

14.4 Written Practice.

14.5 Charts.

14.6 Recommended Training Courses.

Appendix 1: Bibliography of Credits.

Appendix 2: Company Contributors.

Index.

O autorze

Paul E. Mix, PE, EE, has more than thirty years′ experience in nondestructive testing and analyzer and instrument control systems. He currently has an electrical engineering consulting firm listed under his name.