Tensor Calculus and Differential Geometry for Engineers

The book contains the basics of tensor algebra as well as a comprehensive description of tensor calculus, both in Cartesian and curvilinear coordinates. Some recent developments in representation theorems and differential forms are included. The last part of the book presents a detailed introduction to differential geometry of surfaces and curves which is based on tensor calculus. By solving numerous exercises, the reader is equipped to properly understand the theoretical background and derivations. Many solved problems are provided at the end of each chapter for in-depth learning. All derivations in this text are carried out line by line which will help the reader to understand the basic ideas. Each figure in the book includes descriptive text that corresponds with the theoretical derivations to facilitate rapid learning.

Covers fundamentals of differential geometry of surfaces and curves Provides a comprehensive treatment of tensor algebra and calculus Addressed to advanced undergraduates & graduate students of applied mathematics, physics & engineering

Autorentext
Peter Wriggers is emeritus professor at the Institute of Continuum Mechanics of Leibniz University Hannover, Germany. He served as president of GAMM (German Association for Computational Mechanics), president of GACM (Society for Applied Mathematics and Mechanics) and vice-president of IACM (International Association for Computational Mechanics). He currently acts as Editor-in-Chief of the journals "Computational Mechanics" and "Computational Particle Mechanics". He was awarded the Fellowship of IACM, and received the "Computational Mechanics Award" and the "IACM Award" of IACM, and the "Euler Medal" of ECCOMAS.

Inhalt

Algebra of Vectors.- Algebra of Tensors.- Algebra of Higher-Order Tensors.- Eigenvalues, Eigenvectors and Spectral Decompositions of Tensors.- Representation of Tensorial Variables in Curvilinear Coordinates.- Differentiation of Tensor Functions and Representation Theorems.- Gradient and Related Operators.- Integral Theorems and Differential Forms.- Differential Geometry of Surfaces and Curves.