Approximate solution methods in engineering mechanics

The only complete collection of prevalent approximation methods
Unlike any other resource, Approximate Solution Methods in Engineering Mechanics, Second Edition offers in-depth coverage of the most common approximate numerical methods used in the solution of physical problems, including those used in popular computer modeling packages. Descriptions of each approximation method are presented with the latest relevant research and developments, providing thorough, working knowledge of the methods and their principles.
Approximation methods covered include:
* Boundary element method (BEM)
* Weighted residuals method
* Finite difference method (FDM)
* Finite element method (FEM)
* Finite strip/layer/prism methods
* Meshless method
Approximate Solution Methods in Engineering Mechanics, Second Edition is a valuable reference guide for mechanical, aerospace, and civil engineers, as well as students in these disciplines.

Author Notes

ARTHUR P. BORESI, PhD, is Professor Emeritus in both the Department of Civil and Architectural Engineering at the University of Wyoming and the Department of Theoretical and Applied Mechanics at the University of Illinois in Urbana-Champaign.
KEN P. CHONG, PhD, is Director of Mechanics and Materials at the National Science Foundation.
SUNIL SAIGAL, PhD, is Professor of Civil Engineering at Carnegie Mellon University.

Preface

1 The Role of Approximate Solution Methods in Engineering

1.1 Introduction

1.2 Fields of Application

1.3 Future Progress and Trends

References

Bibliography

2 Approximate Analysis and Weighted Residuals

2.1 Introduction

2.2 Approximation Problem (Trial Functions; Norms or Measures of Error)

2.3 Method of Weighted Residuals (Ordinary Differential Equations)

2.4 Method of Weighted Residuals (Partial Differential Equations)

2.5 Variation Method (Rayleigh Ritz Method)

2.6 Ritz Method Revisited and Trefftz Method

References

Bibliography

3 Finite Difference Methods

3.1 Preliminary Remarks and Concepts

3.2 Divided Differences and Interpolation Formulas

3.3 Approximate Expressions for Derivatives

3.4 Two-Dimensional Harmonic Equation, Biharmonic Equation, and Curved Boundaries

3.5 Finite Difference Approximation of the Plane Stress Problem

3.6 Torsion Problem

Appendix 3A Derivation of Eq. (3.16)

Appendix 3B Derivation of Eq. (3.38)

References

Bibliography

4 The Finite Element Method

4.1 Introduction

4.2 Formulation for Plane Elasticity

4.3 Bilinear Rectangle

4.4 Linear Isoparametric Quadrilateral

4.5 Plane Frame Element

4.6 Closing Remarks

Problems

References

Bibliography

5 Specialized Methods

5.1 Introduction

5.2 Finite Strip Method

5.3 Formulation of the Finite Strip Method

5.4 Example of the Finite Strip Method

5.5 Finite Layer Method

5.6 Finite Prism Method

5.7 Applications and Developments of FSM, FLM, and FPM

References

Bibliography

6 The Boundary Element Method

6.1 Introduction

6.2 Integrals in the Boundary Element Method

6.3 Equations of Elasticity

6.4 Fundamental or Kelvin's Solution

6.5 Boundary Element Formulation

6.6 Displacement and Traction Interpolation

6.7 Element Contributions

6.8 Assembly of Boundary Element Matrices

6.9 Rigid-Body Motion

6.10 Solution of Boundary Element Equations

6.11 Displacement at Points in the Interior

6.12 Body Forces

6.13 Particular Integral Approach

6.14 Evaluation of Stresses and Strains

6.15 Corner Problem in the Boundary Element Method

6.16 Closing Remarks

References

7 Meshless Methods of Analysis

7.1 Introduction

7.2 Equations of Elasticity

7.3 Weak Forms of the Governing Equations

7.4 Moving Least Squares Approximations

7.5 Characteristics of MLS Approximation

7.6 MLS Weight Functions

7.7 Discrete Element-free Galerkin Formulation

7.8 Numerical Implementation

7.9 Treatment of Boundary Conditions

7.10 Other Methods for Meshless Analysis

7.11 Closing Remarks

References

Author Index

Subject Index

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Bound With These Titles

On Order

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Author Notes

Table of Contents