Joseph L. Rose
Ultrasonic Guided Waves in Solid Media
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Joseph L. Rose
Ultrasonic Guided Waves in Solid Media
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Ultrasonic guided waves in solid media are important in nondestructive testing and structural health monitoring.
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Ultrasonic guided waves in solid media are important in nondestructive testing and structural health monitoring.
Produktdetails
- Produktdetails
- Verlag: Cambridge University Press
- Seitenzahl: 552
- Erscheinungstermin: 1. Dezember 2017
- Englisch
- Abmessung: 260mm x 183mm x 34mm
- Gewicht: 1223g
- ISBN-13: 9781107048959
- ISBN-10: 1107048958
- Artikelnr.: 41243554
- Verlag: Cambridge University Press
- Seitenzahl: 552
- Erscheinungstermin: 1. Dezember 2017
- Englisch
- Abmessung: 260mm x 183mm x 34mm
- Gewicht: 1223g
- ISBN-13: 9781107048959
- ISBN-10: 1107048958
- Artikelnr.: 41243554
Dr Joseph L. Rose is the Paul Morrow Professor in the Engineering Science and Mechanics Department at Pennsylvania State University. He is also Chief Scientist and President of FBS, Inc., a company dedicated to technology transfer, product development, and consulting on ultrasonic guided waves in nondestructive evaluation and structural health monitoring. He received his PhD from Drexel University in 1970. He is the author of twenty patents, four textbooks, and more than 600 scholarly articles, most focused on ultrasonics. He has served as principal adviser to more than 60 PhD and 150 MS students, and is a fellow of ASNT, ASME, IEEE, and the British Society for Nondestructive Testing. Dr Rose has also received many awards, including the SPIE Lifetime Achievement Award in recognition of sustained contributions to the advancement of nondestructive evaluation and structural health monitoring in 2011, the Penn State University Graduate Teaching Award in 2012, and the distinction of being a finalist in the Discover magazine award for innovation in aviation and aerospace in 1995.
Preface
Acknowledgments
1. Introduction
2. Dispersion principles
3. Unbounded isotropic and anisotropic media
4. Reflection and refraction
5. Oblique incidence
6. Waves in plates
7. Surface and subsurface waves
8. Finite element method for guided wave mechanics
9. The semi-analytical finite element method (SAFE)
10. Guided waves in hollow cylinders
11. Circumferential guided waves
12. Guided waves in layered structures
13. Source influence on guided wave excitation
14. Horizontal shear
15. Guided waves in anisotropic media
16. Guided wave phased arrays in piping
17. Guided waves in viscoelastic media
18. Ultrasonic vibrations
19. Guided wave array transducers
20. Introduction to guided wave nonlinear methods
21. Guided wave imaging methods
Appendix A: ultrasonic nondestructive testing principles, analysis and display technology
Appendix B: basic formulas and concepts in the theory of elasticity
Appendix C: physically based signal processing concepts for guided waves
Appendix D: guided wave mode and frequency selection tips.
Acknowledgments
1. Introduction
2. Dispersion principles
3. Unbounded isotropic and anisotropic media
4. Reflection and refraction
5. Oblique incidence
6. Waves in plates
7. Surface and subsurface waves
8. Finite element method for guided wave mechanics
9. The semi-analytical finite element method (SAFE)
10. Guided waves in hollow cylinders
11. Circumferential guided waves
12. Guided waves in layered structures
13. Source influence on guided wave excitation
14. Horizontal shear
15. Guided waves in anisotropic media
16. Guided wave phased arrays in piping
17. Guided waves in viscoelastic media
18. Ultrasonic vibrations
19. Guided wave array transducers
20. Introduction to guided wave nonlinear methods
21. Guided wave imaging methods
Appendix A: ultrasonic nondestructive testing principles, analysis and display technology
Appendix B: basic formulas and concepts in the theory of elasticity
Appendix C: physically based signal processing concepts for guided waves
Appendix D: guided wave mode and frequency selection tips.
Preface
Acknowledgments
1. Introduction
2. Dispersion principles
3. Unbounded isotropic and anisotropic media
4. Reflection and refraction
5. Oblique incidence
6. Waves in plates
7. Surface and subsurface waves
8. Finite element method for guided wave mechanics
9. The semi-analytical finite element method (SAFE)
10. Guided waves in hollow cylinders
11. Circumferential guided waves
12. Guided waves in layered structures
13. Source influence on guided wave excitation
14. Horizontal shear
15. Guided waves in anisotropic media
16. Guided wave phased arrays in piping
17. Guided waves in viscoelastic media
18. Ultrasonic vibrations
19. Guided wave array transducers
20. Introduction to guided wave nonlinear methods
21. Guided wave imaging methods
Appendix A: ultrasonic nondestructive testing principles, analysis and display technology
Appendix B: basic formulas and concepts in the theory of elasticity
Appendix C: physically based signal processing concepts for guided waves
Appendix D: guided wave mode and frequency selection tips.
Acknowledgments
1. Introduction
2. Dispersion principles
3. Unbounded isotropic and anisotropic media
4. Reflection and refraction
5. Oblique incidence
6. Waves in plates
7. Surface and subsurface waves
8. Finite element method for guided wave mechanics
9. The semi-analytical finite element method (SAFE)
10. Guided waves in hollow cylinders
11. Circumferential guided waves
12. Guided waves in layered structures
13. Source influence on guided wave excitation
14. Horizontal shear
15. Guided waves in anisotropic media
16. Guided wave phased arrays in piping
17. Guided waves in viscoelastic media
18. Ultrasonic vibrations
19. Guided wave array transducers
20. Introduction to guided wave nonlinear methods
21. Guided wave imaging methods
Appendix A: ultrasonic nondestructive testing principles, analysis and display technology
Appendix B: basic formulas and concepts in the theory of elasticity
Appendix C: physically based signal processing concepts for guided waves
Appendix D: guided wave mode and frequency selection tips.