Fracture: An Advanced Treatise, Volume III: Engineering Fundamentals and Environmental Effects provides information pertinent to the engineering fundamentals and environmental effects pertaining to various types of fracture. This book focuses on the fracture design of structures as well as the engineering fundamentals of fracture and environmental effects. Organized into 12 chapters, this volume begins with an overview of the analytical aspects of linear fracture mechanics, which are complete relative to basic formulation and two-dimensional static problems. This text then reviews the fundamental equations of the statics of solids, with emphasis on the idealization of behavior into elastic, plastic, or viscoelastic types. Other chapters consider a notch analysis of fracture. This book discusses as well the three phases of the fracture process. The final chapter deals with environment cracking under static load. This book is a valuable resource for engineers, students, and research workers in industrial organizations, education and research institutions, and various government agencies.

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.

Fracture: An Advanced Treatise, Volume IV: Engineering Fracture Design presents the development and status of knowledge on sudden, catastrophic failure of structures due to unexpected brittle fracture of component materials. This book provides information pertinent to the engineering fracture design as well as the microscopic and macroscopic fundamentals of fracture. Organized into eight chapters, this volume begins with an overview of the evaluation of fracture tests. This text then presents an analysis of temperature effects on fracture. Other chapters consider the fracture and carrying capacity of long, slender columns and related topics. This book discusses as well the problems in connection with columns, beams, and plates, and experimental evidence to support theories proposed for describing the strength and stiffness of these elements. The final chapter presents an analysis of the problem of brittle fracture in weldments. This book is a valuable resource for engineers, students, and research workers in industrial organizations, education and research institutions, and various government agencies.