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E-raamat: Effects of Magnetoelastic Interactions in Conductive Plates and Shells

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This book investigates the stability and vibrations of conductive, perfectly conductive and superconductive thin bodies in electromagnetic fields. It introduces the main principles and derives basic equations and relations describing interconnected mechanical and electromagnetic processes in deformable electro conductive bodies placed in an external inhomogeneous magnetic field and under the influence of various types of force interactions. Basic equations and relations are addressed in the nonlinear formulation and special emphasis is placed on the mechanical interactions of superconducting thin-body plates with magnetic fields.

Arvustused

This book provides a solid foundation and life-long reference for anyone studying the stability and vibrations of conductive, perfectly conductive and superconductive thin bodies in electromagnetic fields. This book can be useful for specialists in engineering mechanics, continuum mechanics and applied mathematics. (Viatcheslav I. Priimenko, Mathematical Reviews, August, 2016)

Part I Interaction of Elastic Conducting Plates and Shells with Magnetic Fields
1 Governing Equations and Relations of Magnetoelasticity of Conducting Bodies
3(24)
1.1 Deformed State
3(7)
1.2 Description of the Strained State
10(2)
1.3 Governing Equations and Relations of Electrodynamics of Moving Media
12(3)
1.4 Governing Equations
15(2)
1.5 Boundary and Initial Conditions
17(2)
1.6 Equations and Boundary Conditions of Perturbed State and Their Linearization
19(8)
2 Main Equations and Relations of Magnetoelasticity of Thin Plates and Shells
27(50)
2.1 Two-Dimensional Equations of Magnetoelasticity of Thin Conducting Plates
27(16)
2.1.1 Finitely Conducting Plates
27(12)
2.1.2 Perfectly Conducting Plates
39(4)
2.2 Two-Dimensional Equations of Magnetoelasticity of Thin Conducting Shells
43(4)
2.3 Reduction of the Three-Dimensional Problem of Magnetoelasticity of Thin Plates to the Two-Dimensional One
47(7)
2.4 Reduction of the Three-Dimensional Problem of Magnetoelasticity of Cylindrical Shells to the Two-Dimensional One
54(7)
2.5 Two-Dimensional Equations of Magnetoelasticity of Thin Spherical Shells
61(3)
2.6 Influence of the Induced Electromagnetic Field in Problems of Vibrations of Conducting Plates in Transversal Magnetic Field
64(7)
2.7 Two-Dimensional Equations of Magnetoelasticity of Perfectly Conducting Plates
71(6)
3 Natural Magnetoelastic Vibrations of Conducting Plates
77(32)
3.1 Problems of Weak Interaction: Vibrations in a Transversal Magnetic Field
77(8)
3.1.1 Solution on the Basis of Hypothesis of Magnetoelasticity of Thin Bodies
77(4)
3.1.2 Solutions Taking into Account an Effect of the Electromagnetic Field
81(4)
3.2 Problems of Strong Interaction: Vibrations of Electroconducting Plate-Strip in a Longitudinal Magnetic Field
85(8)
3.3 Investigation of Magnetoelastic Vibrations of Perfectly Conducting Rectangular Plates Using the Asymptotic Method
93(9)
3.4 Investigation of Magnetoelastic Vibrations of Conducting Rectangular Plates by the Asymptotic Method
102(7)
4 Natural Vibrations of Conducting Shells in a Stationary Magnetic Field
109(22)
4.1 Vibrations of Closed Cylindrical Shell in a Longitudinal Magnetic Field (Strong Interaction)
109(8)
4.2 Vibrations of Cylindrical Panel in a Magnetic Field of Constant Current Flowing Along the Axis of the Cylinder (Strong Interaction)
117(4)
4.3 Vibrations of Conducting Cylindrical Panel in a Homogeneous Magnetic Field (Relatively Weak Interaction)
121(4)
4.4 Vibrations of a Spherical Shell in a Radial Magnetic Field (Weak Interaction)
125(6)
5 Control and Generation of Resonant Vibrations of the Parametric Type
131(32)
5.1 Elimination of the Possibility of Parametric Resonance by Way of a Stationary Magnetic Field
131(21)
5.1.1 Plate in a Transversal Constant Magnetic Field
131(4)
5.1.2 Plate in a Longitudinal Constant Magnetic Field
135(3)
5.1.3 Cylindrical Shell in a Constant Magnetic Field
138(8)
5.1.4 Cylindrical Shell in an Azimuthal Magnetic Field
146(6)
5.2 Generation of Resonant Vibrations of the Parametric Type with the Help of a Nonstationary Magnetic Field
152(11)
5.2.1 Parametric Vibrations of a Perfectly Conducting Plate Conditioned by a Nonstationary Magnetic Field
152(3)
5.2.2 Parametric Vibrations of Conducting Cylindrical Shell with the Help of a Nonstationary Magnetic Field
155(8)
6 Control of Forced Vibrations
163(28)
6.1 Forced Magnetoelastic Vibrations of Conducting Plates Conditioned by a Time-Periodic Force
164(10)
6.1.1 Plate in a Longitudinal Magnetic Field
164(6)
6.1.2 Plate in a Transversal Magnetic Field
170(4)
6.2 Generation of Forced Vibrations with the Help of a Nonstationary Magnetic Field
174(9)
6.2.1 Perfectly Conducting Plate
178(1)
6.2.2 Plate with Finite Conductivity
179(4)
6.3 Experimental Investigation of Forced and Parametric Vibrations of Conducting Plates Under the Action of a Time-Harmonic Magnetic Field
183(8)
Part II Interaction of Elastic Superconducting Plates and Shells with Magnetic Fields
7 Main Equations and Relations of Magnetoelastic Vibrations and the Stability of a Superconducting Body
191(6)
7.1 Formulation of the Problem of Vibrations
191(3)
7.2 Formulation of the Problem of Stability
194(3)
8 Superconducting Plates
197(50)
8.1 Equations of Vibrations and Stability of Superconducting Plates in a Magnetic Field
197(8)
8.1.1 Two-Dimensional Equations of Magnetoelastic Vibrations
197(2)
8.1.2 Two-Dimensional Equations of Magnetoelastic Stability
199(5)
8.1.3 Numerical Solution of the Problem of Natural Magnetoelastic Vibrations
204(1)
8.2 Bending and Vibrations of Superconducting Parallel Plates in a Longitudinal Magnetic Field
205(8)
8.2.1 Governing Equations
205(4)
8.2.2 Bending Problem
209(2)
8.2.3 Problem of Vibrations
211(2)
8.3 Noncontact Method of Generation of Resonant Vibrations of Superconducting Plates
213(12)
8.3.1 Noncontact Generation of Forced Vibrations
213(4)
8.3.2 Noncontact Generation of Parametric Vibrations
217(2)
8.3.3 The Case of One Plate Compressed by the Longitudinal Force P(T)
219(4)
8.3.4 The Case of Two Identical Plates
223(2)
8.4 Control of Forced Vibrations with the Help of a Magnetic Field
225(5)
8.5 Loss of Static Stability Under the Influence of a Constant Magnetic Field
230(13)
8.5.1 Plate in a Longitudinal Magnetic Field
230(1)
8.5.2 Plate in a Transversal Magnetic Field
231(4)
8.5.3 Numerical Solution of the Neumann Problem Outside the Rectangle
235(4)
8.5.4 Calculation of Components H0 and h of the Magnetic Field
239(4)
8.6 Loss of Dynamic Stability Under the Influence of a Time-Periodic Magnetic Field
243(4)
9 Superconducting Cylindrical Shells
247(34)
9.1 Basic Equations. Formulation of the Problem of Stability
247(2)
9.2 Static Stability
249(12)
9.2.1 Instability Under the Influence of a Longitudinal Magnetic Field
249(4)
9.2.2 Instability Under the Action of a Uniform Magnetic Field
253(8)
9.3 Dynamic Stability
261(7)
9.3.1 Parametric Vibrations of a Superconducting Cylindrical Shell Conditioned by a Magnetic Field of Nonstationery Current
261(4)
9.3.2 Parametric Vibrations of a Superconducting Cylindrical Shell Conditioned by a Nonstationery Longitudinal Magnetic Field
265(3)
9.4 Stability in the Flow of Conducting Liquids
268(13)
References 281