Weight Functions and Stress Intensity Factor Solutions
Pergamon (Publisher)
Published on 16. September 1991
Book
Hardback
528 pages
978-0-08-041702-8 (ISBN)
Description
An important element of work in fracture mechanics is the stress intensity factor - the characterizing parameter for the crack tip field in a linear elastic material; something reflected in its intense research over the last 30 years. The weight function method is one of the most reliable, versatile, and cost-effective methods of evaluating the stress intensity factors and crack opening displacements. This book provides a valuable account of the author's research in these fields. It has two aims: firstly to provide a theoretical background to the weight function method in fracture mechanics for accurate analysis of two-dimensional crack problems; and secondly, to provide a significant number of stress intensity factor solutions for practical cases. The result is an easy-to-use, accurate analytical method for analysing crack problems, an ideal reference source for graduate students, researchers, and engineers involved with the fracture and fatigue of materials and structures.
Reviews / Votes
Mitsunori Denda, Rutgers University, USA...the book is a hallmark of the authors' dedication on the research of the weight function method...and is a timely source of information for those researchers and engineers who need not only the stress intensity factors themselves but also reliable tools to obtain them.
APPL MECH REV
More details
Language
English
Place of publication
London
United Kingdom
Publishing group
Elsevier Science & Technology
Target group
College/higher education
Professional and scholarly
Illustrations
illustrations, references
ISBN-13
978-0-08-041702-8 (9780080417028)
Copyright in bibliographic data is held by Nielsen Book Services Limited or its licensors: all rights reserved.
Schweitzer Classification
Persons
Author
Institute of Aeronautical Materials, Beijing, PRC
The Royal Institute of Technology, Stockholm, Sweden
Content
Preface. User guide. Theoretical background and overview. A center crack in a finite rectangular plate. A center crack in a circular disc. Periodic array of collinear cracks in an infinite sheet. An edge crack in a semi-infinite plate. A single edge crack in a finite width plate. Double edge cracks in a finite width plate. Single edge crack in a square plate. Compact tension specimen. A single edge crack in a solid circular disc (cylinder). Multiple edge cracks in a solid circular disc (cylinder). An edge crack at a semi-circular notch in a finite plate. Radial crack(s) at a circular hole in an infinite plate. Radial crack(s) at a circular hole in a finite plate. Radial crack(s) in a circular ring (hollow cylinder). A circumferential crack in a pipe. Crack opening displacements and dugdale model solutions. References.Numerous illus.