Summary

Developments in numerical methods and higher-speed computing are providing rapid advances in the analysis and design of complex structures--so rapid that it can be difficult for engineers to keep abreast of this expanding knowledge. Modeling Complex Engineering Structures provides an overview of cutting-edge developments in computational theory and techniques as currently applied in various fields of structural analysis, in the United States and around the world. Individual contributors discuss research and practice in diverse but related applications such as high-rise buildings, lightweight long-span roofs, bridges, geotechnical structures, aging nuclear structures, offshore structures, automobiles, aircraft, and ships.

By presenting a state-of-the-art view across so many applications of structural analysis, Modeling Complex Engineering Structures encourages the cross fertilization of modeling approaches, computational techniques, and performance assessment analyses from one engineering discipline to another, making this book an essential reference for analysts and designers from all disciplines.

About the Editors
Robert E. Melchers, Ph.D., is a professor of civil engineering at the University of Newcastle, Australia, where his main research areas are structural reliability theory applied to complex structures.

Richard Hough is a principal in the Sydney office of Arup and professor of multidisciplinary design at the University of New South Wales.

Choice Review

This book presents analysis and design based on state-of-the-art modeling methods and computational techniques of complex and challenging structures found in several engineering disciplines. Structures include high-rise buildings, lightweight long-span roofs, bridges, various geotechnical structures, aging nuclear structures, offshore structures, automotive structures, composite aircraft structures, and ship structures. The book covers modeling based on the finite element method. Presented are linear and nonlinear analyses of structures under static and several types of dynamic loadings, such as impact, wave, and earthquake. Analysis and modeling based on reliability concept are included. The 12 chapters begin with an overview of structural modeling and conclude with reflections. Each chapter provides relevant references. This book is valuable for practicing structural engineers, university and college faculty, researchers, and graduate students; senior-level undergraduates in civil, mechanical, aerospace, offshore, and nuclear engineering will also find it a good resource. For libraries serving programs in engineering. Summing Up: Recommended. Upper-division undergraduates through professionals. R. B. Malla University of Connecticut