Plates : theories and applications /

• Κύριος συγγραφέας: Bhaskar, K.
• Άλλοι συγγραφείς: Varadan, T. K.
• Μορφή: Ηλ. βιβλίο
• Γλώσσα: English
• Έκδοση: Chichester, West Sussex, UK : Wiley ; 2014.; New Delhi, India : Ane Books, 2014.
• Θέματα: Acoustical engineering.; Geology, Stratigraphic.; Plate tectonics.; NATURE > Natural Resources.; NATURE > Rocks & Minerals.; Electronic books.

Plates: Theories and Applications provides a comprehensive introduction to plate structures, covering classical theory and applications. It considers plate structures in several forms, starting from the simple uniform, thin, homogeneous metallic structure to more efficient and durable alternatives i...

Πίνακας περιεχομένων:

• Cover; Title Page; Copyright ; Preface ; Contents; Part A Classical Theory and Straightforward Applications; 1 Definition of a Thin Plate; 1.1 The Elasticity Approach; 1.2 A Test Problem; 1.3 The Case of a Thin Plate; 2 Classical Plate Theory; 2.1 Assumptions of Classical Plate Theory; 2.2 Moment-Curvature Relations; 2.3 Equilibrium Equations; 2.4 Governing Biharmonic Equation; 2.5 Boundary Conditions; 2.6 Solution of a Problem; 2.7 Inclusion of an Elastic Foundation/Thermal Effects; 2.7.1 Elastic Foundation; 2.7.2 Thermal Effects; 2.8 Strain Energy of the Plate.
• 3 A Critical Assessment of Classical Plate Theory3.1 CPT Solution for the Test Problem of Section 1.2; 3.2 Comparison with the Elasticity Solution; 3.3 Why the Plane-Stress Constitutive Law?; 4 Analysis of Rectangular Plates; 4.1 Recapitulation of Fourier Series; 4.2 Navier's Method; 4.3 Levy's Method; 4.4 Closed-form Solution for a Plate with Corner Supports; 5 Analysis of Circular Plates; 5.1 Equations of the Theory of Elasticity; 5.2 Equations of CPT; 5.3 Solution of Axisymmetric Problems; 6 Free and Forced Vibrations; 6.1 Equations of Motion; 6.2 Free Vibration Analysis.
• 6.3 Forced Vibration Analysis7 Effect of In-plane Forces on Static Flexure, Dynamics and Stability; 7.1 Governing Equations for Combined Bending and Stretching; 7.2 Analysis for Stability; 7.3 Static Flexure; 7.4 Free Vibrations; 8 Approximate Solutions; 8.1 Analytical and Numerical Methods; 8.2 Rayleigh-Ritz Method; 8.2.1 Static Flexure; 8.2.2 Buckling; 8.2.3 Free Vibration Analysis; 8.3 Galerkin's Method; Appendix
• Solutions for Problems; Part B Complicating Effects and Corresponding Theories; 9 Anisotropic, Laminated and Functionally-Graded Plates.
• 9.1 CPT for Homogeneous Anisotropic Plates9.1.1 The Anisotropic Constitutive Law; 9.1.2 Plate Equations; 9.2 Classical Laminated Plate Theory; 9.3 CPT for Functionally-Graded Plates; 10 Elasticity Solutions for Plates; 10.1 Cylindrical Bending of a Cantilevered Plate Strip Under Tip Shear; 10.1.1 Homogeneous Strip; 10.1.2 A Laminated Strip; 10.2 Flexure of Simply Supported Rectangular Plates/Laminates Due to Transverse Loading; 10.3 Vibrations and Stability of Simply Supported Rectangular Plates and Laminates; 10.4 Solutions for Rectangular Plates with Other Edge Conditions.
• 10.5 Corner Reactions in Simply Supported Plates
• Insight Obtained from Elasticity Solutions10.6 Plates under Thermal Loads; 11 Shear Deformation Theories; 11.1 First-order Shear Deformation Theory; 11.2 Higher-order Theories; 12 Variable Thickness Plates; 12.1 Stepped versus Smooth Thickness Variation; 12.2 Rectangular Plates; 12.3 Circular Plates; 13 Plate Buckling due to Non-Uniform Compression; 13.1 The In-plane Problem; 13.2 Determination of the Critical Load; 13.3 Some Other Approaches; 14 Non-Linear Flexure and Vibrations; 14.1 Cylindrical Bending of a Simply Supported Plate Strip.