Inelastic Analysis of Solids and Structures [electronic resource] /
Kojic, M.author.
Bathe, Klaus-Jurgen.author.
This book presents computational procedures for the stress integration of inelastic constitutive relations within the incremental-iterative finite element analysis and general strain-driven problems of solids and structures. The book gives the physical and theoretical foundations of inelastic material models commonly used in engineering practice, and focuses on the formulation of robust, efficient and accurate computational algorithms for the response solution of 2-D and 3-D solids, shells, and beam and pipe structures. The algorithms are based on the concept that the implicit stress integration can frequently be reduced to the solution of a single nonlinear equation (an equation for a governing parameter). Many solved engineering examples illustrate the effectiveness of the computational procedures and elucidate inelastic material behavior. The computational schemes can be used for further developments of stress integration algorithms in topics of inelastic material modeling not included in the book.
Description based upon print version of record.
Includes bibliographical references and index.
An Introduction to the Incremental-Iterative Solution of Nonlinear Structural Problems -- Fundamental Notions of Metal Plasticity -- A General Procedure for Stress Integration and Applications in Metal Plasticity -- Creep and Viscoplasticity -- Plasticity of Geological Materials -- Large Strain Elastic-Plastic Analysis.
This book presents computational procedures for the stress integration of inelastic constitutive relations within the incremental-iterative finite element analysis and general strain-driven problems of solids and structures. The book gives the physical and theoretical foundations of inelastic material models commonly used in engineering practice, and focuses on the formulation of robust, efficient and accurate computational algorithms for the response solution of 2-D and 3-D solids, shells, and beam and pipe structures. The algorithms are based on the concept that the implicit stress integration can frequently be reduced to the solution of a single nonlinear equation (an equation for a governing parameter). Many solved engineering examples illustrate the effectiveness of the computational procedures and elucidate inelastic material behavior. The computational schemes can be used for further developments of stress integration algorithms in topics of inelastic material modeling not included in the book.
Mechanics.
Mechanics, Applied.
Solid Mechanics.
Solid Mechanics.
Classical Mechanics.


Computational Fluid and Solid Mechanics