Anelastic Relaxation In Crystalline Solids

Author： Nowick   A. S.  

Publisher： Elsevier Science‎

Publication year： 2012

E-ISBN: 9780323143318

P-ISBN(Paperback): 9780125226509

P-ISBN(Hardback):  9780125226509

Subject： O733 Mechanical properties of crystals

Language： ENG

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Description

Anelastic Relaxation in Crystalline Solids provides an overview of anelasticity in crystals. This book discusses the various physical and chemical phenomena in crystalline solids.
Comprised of 20 chapters, this volume begins with a discussion on the formal theory of anelasticity, and then explores the anelastic behavior, which is a manifestation of internal relaxation process. This text lays the groundwork for the formal theory by introducing the postulates. Other chapters explore the different dynamical methods that are frequently used in studying anelasticity. The reader is then introduced to the physical origin of anelastic relaxation process in terms of atomic model. This text also discusses the various types of point defects in crystals, including elementary point defects, composite defects, and self-interstitial defects. The final chapter provides relevant information on the various frequency ranges used in the study.
This book is intended for crystallographers, mechanical engineers, metallurgical engineers, solid-state physicists, materials scientists, and researchers.

Chapter

Front Cover

pp.：  1 – 4

Anelastic Relaxation in Crystalline Solids

pp.：  4 – 5

Copyright Page

pp.：  5 – 8

Table of Contents

pp.：  8 – 14

Preface

pp.：  14 – 16

Acknowledgments

pp.：  16 – 18

Chapter 1. Characterization of Anelastic Behavior

pp.：  18 – 47

Chapter 2. Relations among the Response Functions : The Boltzmann Superposition Principle

pp.：  47 – 58

Chapter 3. Mechanical Models and Discrete Spectra

pp.：  58 – 94

Chapter 4. Continuous Spectra

pp.：  94 – 132

Chapter 5. Internal Variables and the Thermodynamic Basis for Relaxation Spectra

pp.：  132 – 147

Chapter 6. Anisotropic Elasticity and Anelasticity

pp.：  147 – 173

Chapter 7. Point Defects and Atom Movements

pp.：  173 – 193

Chapter 8. Theory of Point-Defect Relaxations

pp.：  193 – 242

Chapter 9. The Snoek Relaxation

pp.：  242 – 265

Chapter 10. The Zener Relaxation

pp.：  265 – 301

Chapter 11. Other Point-Defect Relaxations

pp.：  301 – 367

Chapter 12. Dislocations and Crystal Boundaries

pp.：  367 – 388

Chapter 13. Dislocation Relaxations

pp.：  388 – 428

Chapter 14. Further Dislocation Effects

pp.：  428 – 452

Chapter 15. Boundary Relaxation Processes and Internal Friction at High Temperatures

pp.：  452 – 480

Chapter 16. Relaxations Associated with Phase Transformations

pp.：  480 – 510

Chapter 17. Thermoelastic Relaxation and the Interaction of Acoustic Waves with Lattice Vibrations

pp.：  510 – 541

Chapter 18. Magnetoelastic Relaxations and Hysteresis Damping of Ferromagnetic Materials

pp.：  541 – 562

Chapter 19. Electronic Relaxation and Related Phenomena

pp.：  562 – 595

Chapter 20. Experimental Methods

pp.：  595 – 626

Appendix A: Resonant Systems with Distributed Inertia

pp.：  626 – 630

Appendix B: The Kronig-Kramers Relations

pp.：  630 – 631

Appendix C: Relation between Relaxation and Resonance Behavior

pp.：  631 – 634

Appendix D: Torsion-Flexur e Couplin g

pp.：  634 – 636

Appendix E: Wave Propagation in Arbitrary Directions

pp.：  636 – 638

Appendix F: Mechanical Vibration Formulas

pp.：  638 – 649

Appendix G: Computed Response Functions for the Gaussian Distribution

pp.：  649 – 654

References

pp.：  654 – 676

Author Index

pp.：  676 – 687

Subject Index

pp.：  687 – 696

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