Following an introductory chapter, part one focuses on understanding welding stress and distortion, with chapters on such topics as computational welding mechanics, modelling the effect of phase transformations on welding stress and distortion and using computationally efficient reduced-solution methods to understand welding distortion. Part two covers different methods of minimizing welding distortion. Chapters discuss methods such as differential heating for minimizing distortion in welded stiffeners, dynamic thermal tensioning, reverse-side heating and ways of minimizing buckling such as weld cooling and hybrid laser arc welding.
With its distinguished editor and international team of contributors, Minimization of welding distortion and buckling is an essential reference for all welders and engineers involved in fabrication of metal end-products, as well as those in industry and academia with a research interest in the area.
- Provides a systematic overview of the methods of minimizing distortion and buckling in welded structures
- Focuses on understanding welding stress and distortion featuring computational welding mechanics and modelling the effect of phase transformations
- Explores different methods of minimizing welding distortion discussing differential heating and dynamic thermal tensioning
Understanding welding stress and distortion using computational welding mechanics
Modelling the effects of phase transformations on welding stress and distortion
Modelling welding stress and distortion in large structures
Using computationally-efficient, reduced-solution methods to understand welding distortion. Part 2 Minimising welding distortion: Minimization of bowing distortion in welded stiffeners using differential heating
Dynamic thermal tensioning for controlling welding induced distortion
Minimizing buckling distortion in welding by weld cooling
Minimizing buckling distortion in welding by hybrid laser arc welding
Minimizing angular distortion in welding by reverse-side heating.
Dr. Michaleris received his Ph.D. from the University of Illinois at Urbana-Champaign. He was employed as a senior research engineer with Edison Welding Institute for three years before joining the Department of Mechanical Engineering at Penn State University as an assistant professor. He has served as the Associate Editor of the Journal of Science and Technology in Welding, as well as being a principal reviewer for the Welding Journal. Most recently, he started a company, Pan Computing, soley dedicated to the development of physics-based modeling of additive processes. In early 2016 Pan Computing was acquired by Autodesk.