Metal Fatigue: What It Is, Why It Matters

ISBN-13: 9781402055966 / Angielski / Twarda / 2007 / 292 str.

Les Pook

Opis

This book presents important concepts in metal fatigue in a straightforward manner, for the benefit of readers who must understand more advanced documents on a wide range of metal fatigue topics. The text shows how metal fatigue problems are solved in engineering practice. The book assumes no prior knowledge of metal fatigue, requiring only a basic understanding of stress analysis and mathematics covered in engineering undergraduate courses.

Recenzje

From the reviews:

"Pook ... has been active in the field of fatigue of metals for 50 years. His aim in writing this book was to present the subject in a format that would appeal to engineers as well as to newcomers to the topic, and in this he has succeeded. The text is ... well illustrated. ... The book should be a valued edition to the bookshelves of engineers concerned with designing against fatigue failure. Summing Up: Recommended. Upper-division undergraduates through professionals; two-year technical program students." (A. J. McEvily Jr., CHOICE, Vol. 45 (2), 2007)

"This book is devoted to engineering viewpoint on the problems of metal fatigue. The book is divided into nine chapters and three appendices. ... In total, this book may be useful as initial course for engineering students whose professional interests will be connected with fatigue loading and fracture problems." (I. A. Parinov, Zentralblatt MATH, Vol. 1138 (16), 2008)

"This book was written to appeal to engineers new to the field of metal fatigue. ... The author aims to present the basic concepts in as straightforward a manner as possible so that readers will be able to understand more advanced documents on a range of related topics, and this has largely been fulfilled." (Zhanli Guo, Materials World, April, 2008)

Spis treści

Chapter 1: Introduction; Chapter 2: Historical Background: 2.1 Introduction, 2.2 Experimental Work, 2.3 The Modem Era; Chapter 3: Constant Amplitude Fatigue: 3.1 Notation, 3.2 S/N (Wöhler) Curves, 3.3 Scatter in Fatigue Data, 3.4 Mechanisms of Metal Fatigue; Chapter 4: Variable Amplitude and Multiaxial Fatigue: 4.1 Introduction, 4.2 Mathematical Description of Fatigue Loadings; 4.3 Miner’s Rule, 4.4 Standard Load Histories, 4.5 Multiaxial Fatigue in Metals; Chapter 5: Fatigue Design: 5.1 Introduction, 5.2 Failure Analysis, 5.3 Situations, Philosophies and Approaches, 5.4 Product Liability; 5.5 Safety Regulations; Chapter 6: The Uncracked Situation: 6.1 Introduction, 6.2 Effect of Surface Finish; 6.3 Effect of Mean Stress, 6.4 Effect of Multiaxial Fatigue Loading, 6.5 Effect of Notches, 6.6 Bicycle Crankshaft Analysis; 6.7 Scatter under Variable Amplitude Fatigue Loading; 6.8 Improvement of Fatigue Life; Chapter 7: The Cracked Situation: 7.1 Introduction, 7.2 Initial Crack Size; 7.3 Final Crack Size; 7.4 Constant Amplitude Fatigue Crack Propagation, 7.5 Variable Amplitude Fatigue Crack Propagation, 7.6 Fractography; Chapter 8: Fatigue Crack Paths: 8.1 Introduction, 8.2 Crack Paths in Two Dimensions, 8.3 Planar Crack Paths, 8.4 Crack Paths in Three Dimensions; Chapter 9: Why Metal Fatigue Matters: 9.1 Introduction; 9.2 Avoidance of Fatigue Failure; 9.3 Research and Development; 9.4 The Role of Non Destructive Testing; 9.5. Current Trends; Appendix A: Fracture Mechanics; Appendix B: Random Load Theory and RMS; Appendix C: Non Destructive Testing; References; Index.