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Comprehensively introduces linear and nonlinear structural analysis through mesh generation, solid mechanics and a new numerical methodology called c-type finite element method
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Seitenzahl: 1422
Veröffentlichungsjahr: 2015
Debabrata Ray
PhD (Univ. of California, Berkeley) ME, BE (Bengal Engineering College, Shibpur) Principal, Institute for Dynamic Response
This edition first published 2016 © 2016 John Wiley & Sons, Ltd
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ISBN: 9781118996959
To the memory of my dad & mom, Provanshu and Sushila Roy, with whose altruistic love it was nurtured
&
the best thing ever happened to me, my wife, Anjana Ray, M.D., with whose infinite patience and eternal support it blossomed
&
the budding analysts and researchers like my sons, Dipanjan Ray, PhD and Shonket Ray, PhD, to whom it is offered
Acknowledgements
1 Introduction: Background and Motivation
1.1 What This Book Is All About
1.2 A Brief Historical Perspective
1.3 Symbiotic Structural Analysis
1.4 Linear Curved Beams and Arches
1.5 Geometrically Nonlinear Curved Beams and Arches
1.6 Geometrically Nonlinear Plates and Shells
1.7 Symmetry of the Tangent Operator: Nonlinear Beams and Shells
1.8 Road Map of the Book
References
Part I ESSENTIAL MATHEMATICS
2 Mathematical Preliminaries
2.1 Essential Preliminaries
2.2 Affine Space, Vectors and Barycentric Combination
2.3 Generalization: Euclidean to Riemannian Space
2.4 Where We Would Like to Go
3 Tensors
3.1 Introduction
3.2 Tensors as Linear Transformation
3.3 General Tensor Space
3.4 Tensor by Component Transformation Property
3.5 Special Tensors
3.6 Second-order Tensors
3.7 Calculus Tensor
3.8 Partial Derivatives of Tensors
3.9 Covariant or Absolute Derivative
3.10 Riemann–Christoffel Tensor: Ordered Differentiation
3.11 Partial (PD) and Covariant (C.D.) Derivatives of Tensors
3.12 Partial Derivatives of Scalar Functions of Tensors
3.13 Partial Derivatives of Tensor Functions of Tensors
3.14 Partial Derivatives of Parametric Functions of Tensors
3.15 Differential Operators
3.16 Gradient Operator:
GRAD
(•) or ∇(•)
3.17 Divergence Operator:
DIV
or ∇•
3.18 Integral Transforms: Green–Gauss Theorems
3.19 Where We Would Like to Go
4 Rotation Tensor
4.1 Introduction
4.2 Cayley's Representation
4.3 Rodrigues Parameters
4.4 Euler – Rodrigues Parameters
4.5 Hamilton's Quaternions
4.6 Hamilton–Rodrigues Quaternion
4.7 Derivatives, Angular Velocity and Variations
Part II ESSENTIAL MESH GENERATION
5 Curves: Theory and Computation
5.1 Introduction
5.2 Affine Transformation and Ratios
5.3 Real Parametric Curves: Differential Geometry
5.4 Frenet–Serret Derivatives
5.5 Bernstein Polynomials
5.6 Non-rational Curves Bezier–Bernstein–de Casteljau
5.7 Composite Bezier–Bernstein Curves
5.8 Splines: Schoenberg B-spline Curves
5.9 Recursive Algorithm: de Boor–Cox Spline
5.10 Rational Bezier Curves: Conics and Splines
5.11 Composite Bezier Form: Quadratic and Cubic B-spline Curves
5.12 Curve Fitting: Interpolations
5.13 Where We Would Like to Go
6 Surfaces: Theory and Computation
6.1 Introduction
6.2 Real Parametric Surface: Differential Geometry
6.3 Gauss–Weingarten Formulas: Optimal Coordinate System
6.4 Cartesian Product Bernstein–Bezier surfaces
6.5 Control Net Generation: Cartesian Product Surfaces
6.6 Composite Bezier Form: Quadratic and Cubic B-splines
6.7 Triangular Bezier–Bernstein Surfaces
Part III ESSENTIAL MECHANICS
7 Nonlinear Mechanics: A Lagrangian Approach
7.1 Introduction
7.2 Deformation Geometry: Strain Tensors
7.3 Balance Principles: Stress Tensors
7.4 Constitutive Theory: Hyperelastic Stress–Strain Relation
Part IV A NEW FINITE ELEMENT METHOD
8 C-type Finite Element Method
8.1 Introduction
8.2 Variational Formulations
8.3 Energy Precursor to Finite Element Method
8.4 c-type FEM: Linear Elasticity and Heat Conduction
8.5 Newton Iteration and Arc Length Constraint
8.6 Gauss–Legendre Quadrature Formulas
Part V APPLICATIONS: LINEAR AND NONLINEAR
9 Application to Linear Problems and Locking Solutions
9.1 Introduction
9.2 c-type Truss and Bar Element
9.3 c-type Straight Beam Element
9.4 c-type Curved Beam Element
9.5 c-type Deep Beam: Plane Stress Element
9.6 c-type Solutions: Locking Problems
10 Nonlinear Beams
10.1 Introduction
10.2 Beam Geometry: Definition and Assumptions
10.3 Static and Dynamic Equations: Engineering Approach
10.4 Static and Dynamic Equations: Continuum Approach – 3D to 1D
10.5 Weak Form: Kinematic and Configuration Space
10.6 Admissible Virtual Space: Curvature, Velocity and Variation
10.7 Real Strain and Strain Rates from Weak Form
10.8 Component or Operational Vector Form
10.9 Covariant Derivatives of Component Vectors
10.10 Computational Equations of Motion: Component Vector Form
10.11 Computational Derivatives and Variations
10.12 Computational Virtual Work Equations
10.13 Computational Virtual Work Equations and Virtual Strains: Revisited
10.14 Computational Real Strains
10.15 Hyperelastic Material Property
10.16 Covariant Linearization of Virtual Work
10.17 Material Stiffness Matrix and Symmetry
10.18 Geometric Stiffness Matrix and Symmetry
10.19 c-type FE Formulation: Dynamic Loading
10.20 c-type FE Implementation and Examples: Quasi-static Loading
11 Nonlinear Shell
11.1 Introduction
11.2 Shell Geometry: Definition and Assumptions
11.3 Static and Dynamic Equations: Continuum Approach – 3D to 2D
11.4 Static and Dynamic Equations: Continuum Approach – Revisited
11.5 Static and Dynamic Equations: Engineering Approach
11.6 Weak Form: Kinematic and Configuration Space
11.7 Admissible Virtual Space: Curvature, Velocity and Variation
11.8 Real Strain and Strain Rates from Weak Form
11.9 Component or Operational Vector Form
11.10 Covariant Derivatives of Component Vectors
11.11 Computational Equations of Motion: Component Vector Form
11.12 Computational Derivatives and Variations
11.13 Computational Virtual Work Equations
11.14 Computational Virtual Work Equations and Virtual Strains: Revisited
11.15 Computational Real Strains
11.16 Hyperelastic Material Property
11.17 Covariant Linearization of Virtual Work
11.18 c-type FE Formulation: Dynamic Loading
11.19 c-type FE Formulation: Quasi-static Loading
11.20 c-type FE Implementation and Examples: Quasi-static Loading
Index
EULA
Cover
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I would like to sincerely thank my friend, Anil K. Chopra, Johnson Professor of Structural Engineering, Department of Civil and Environmental Engineering, University of California, Berkeley, who introduced me to structural dynamics, for his encouragement and generous support in presenting my work to Eric Willner, Executive Commissioning Editor of John Wiley & Sons Ltd, who graciously agreed to publish the book, for which I am deeply appreciative. I must also thank Anne Hunt, Associate Commissioning Editor, Mechanical Engineering, for her unstinting support, Clive Lawson, Project Editor, Content Capture, Natural Sciences, Engineering & Stats, Professional Practice and Learning, Wiley. My special thanks for meticulous scrutiny of the manuscript to copy editor, Paul Beverley, LCGI, and Baljinder Kaur, Project Manager, Professional Publishing, Aptara.
During the writing of the manuscript for the book, I was paralysed as a result of a botched surgical procedure; however, from the initial period of rehabilitation to the date of this writing, I have been extremely fortunate to be surrounded by innumerable friends and well-wishers. I would like to thank them all; especially, my deep appreciation goes to my friend, Prof. Amitabha Basu of Dept. of South Asian Studies, University of California, Berkeley, and, to my care-givers, Levi Soler and John Viray.
Finally, however, the faults and mistakes, if any, are entirely mine.
DR August 31, 2014
