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Fracture of Metals is part of a multivolume treatise that brings together the fundamentals for critical evaluation of the different theories and experimental findings on brittle fracture. These results, together with their design implications, should be made available to professional engineers, students, and researchers in industrial organizations, educational and research institutions, and various governmental agencies. Seven major areas are covered in this treatise on fracture. They are: (1) microscopic and macroscopic fundamentals of fracture; (2) mathematical fundamentals of fracture; (3) engineering fundamentals of fracture and environmental effects; (4) engineering fracture design; (5) fracture design of structures; (6) fracture of metals; and (7) fracture of nonmetals and composites. The present volume focuses on the fracture of metals. The book opens with chapter on the influence of alloying elements on fracture behavior in metallic systems of the three common crystal structures: face-centered cubic, body-centered cubic, and hexagonal close packed. Separate chapters follow on the principal microstructural factors which seem to be important for fracture toughness; the nature of the fracture processes occurring in high-strength materials; and the state of knowledge on fracture toughness of structural steels. Subsequent chapters deal with the strength and toughness of hot-rolled, ferrite-pearlite steels; fracture behavior of aluminum and its alloys; and fracture phenomena associated with electrical effects.
Language
Place of publication
Publishing group
Elsevier Science & Techn.
ISBN-13
978-1-4832-7320-4 (9781483273204)
Schweitzer Classification
List of ContributorsPrefaceChapter 1. Effects of Alloying on Fracture Characteristics I. Introduction II. Theory of the Ductile-to-Brittle Transition III. Solutes and Plastic Properties Related to Fracture IV. Fracture of Solid Solution Alloys V. Fracture of Ordered Alloys VI. Fracture of Precipitation-Hardened or Dispersion-Strengthened Alloys VII. Grain-Size Effects VIII. Alloying Elements and Fracture Toughness IX. Recommended Research X. Summary Appendix A. Derivation of Fracture Stress-Surface Energy Relation Appendix B. Derivation of ky Symbols ReferencesChapter 2. Metal Processing and Fracture I. Introduction II. Processing for Structural Refinement III. Processing-Induced Fracturing Anisotropy IV. Processing for Control of Intragranular Structure V. Recommended Research VI. Summary Appendix. Grain-Size Measurement ReferencesChapter 3. Fracture of High-Strength Materials I. Introduction II. The Effect of Plate Thickness on Fracture Toughness III. Physical Basis for Fracture-Safe Design with High-Strength Materials IV. Microscopic Aspects of Fracture in High-Strength Materials V. Fatigue VI. Environmental Effects VII. Recommended Research VIII. Summary Symbols ReferencesChapter 4. Fracture Toughness Comparisons in Steels I. Introduction II. Fracture Toughness Tests for Constructional Steels III. Toughness Tests Based on Fracture Mechanics IV. Correlations among Fracture-Toughness Tests V. Correlation of Laboratory and Service Data VI. Effects of Composition on Fracture Toughness VII. Effects of Mill Processing VIII. Effects of Heat Treatment IX. Effects of Other Variables X. High-Strength Steels XI. Recommended Research XII. Summary Symbols ReferencesChapter 5. Strength and Toughness of Hot-Rolled Ferrite-Pearlite Steels I. Introduction II. Concepts and Terminology III. Microstructural Factors Determining Strength and Toughness IV. Application of Techniques of Analysis to Production Conditions V. Recommended Research VI. Summary Appendix Symbols ReferencesChapter 6. Fracture Behavior of Aluminum Alloys I. Introduction II. Test Methods III. Engineering Methods for the Design of Aluminum against Fracture IV. Micromechanistic Observations of Fracture V. Metallurgical Considerations VI. Recommended Research VII. Summary Symbols ReferencesChapter 7. Fracture in the Refractory Metals I. Introduction II. Fracture at Low Temperatures from the Macroscopic Viewpoint III. Atomistic Considerations of Fracture at Low Temperatures IV. High-Temperature Fracture V. Recommended Research VI. Summary Symbols ReferencesChapter 8. Effects of Lasers on Fracture of Materials I. Introduction II. Discussion III. Recommended Research IV. Summary Symbols ReferencesChapter 9. Electrically Induced Fracture of Materials I. Introduction II. Fracture Induced by Spark Discharges III. Fracture Induced by Arc Discharges IV. Fracture Associated with Electrical Fields V. Fracture in Piezoelectric Materials VI. Recommended Research VII. Summary Symbols ReferencesAuthor IndexSubject Index