Nonlinear Stability and Bifurcation Theory An Introduction for Engineers and Applied Scientists
Every student in engineering or in other fields of the applied sciences who has passed through his curriculum knows that the treatment of nonlin ear problems has been either avoided completely or is confined to special courses where a great number of different ad-hoc methods are presented. The wide...
Saved in:
Main Authors | , |
---|---|
Format | eBook |
Language | English |
Published |
Vienna
Springer Wien
1991
Springer Vienna |
Edition | 1 |
Subjects | |
Online Access | Get full text |
Cover
Loading…
Table of Contents:
- Intro -- Nonlinear Stability and Bifurcation Theory -- Copyright -- Preface -- Contents -- Chapter 1 Introduction -- Chapter 2 Representation of systems and definition of stability -- Chapter 3 Reduction process, bifurcation equations -- Chapter 4 Application of the reduction process -- Chapter 5 Bifurcations under symmetries -- Chapter 6 Discussion of the bifurcation equations -- Appendix A Linear spaces and linear operators -- Appendix B Transformation of matrices to diagonal or Jordan form -- Appendix C Adjoint and self-adjoint linear differential operators -- Appendix D Projection operators -- Appendix E Spectral decomposition of the inverse of linear differential operators -- Appendix F Some formulas concerning the shell equations on the complete sphere -- Appendix G Some properties of groups -- Appendix H Stability boundaries in parameter space -- Appendix I Differential equation of an elastic ring -- Appendix J Static shallow shell and plate equations for moderately large deformations -- Appendix K Shell equations for axisymmetric deformations -- Appendix L Equations of motion of a fluid conveying tube -- Appendix M Various concepts of equivalences -- Appendix N Slowly varying parameter -- Appendix O Transformation of dynamical systems into standard form -- Bibliography -- Index
- 1 Introduction -- 2 Representation of systems -- 2.1 Dynamical systems -- 2.2 Statical systems -- 2.3 Definitions of stability -- 3 Reduction process, bifurcation equations -- 3.1 Finite-dimensional dynamical systems -- 3.2 Infinite-dimensional statical and dynamical systems. -- 4 Application of the reduction process -- 4.1 Equilibria of finite-dimensional systems -- 4.2 Periodic solutions of finite-dimensional systems -- 4.3 Finite- and infinite-dimensional statical systems -- 5 Bifurcations under symmetries -- 5.1 Introduction -- 5.2 Finite dimensional dynamical systems -- 5.3 Infinite dimensional statical systems -- 5.4 Infinite dimensional dynamical systems -- 6 Discussion of the bifurcation equations -- 6.1 Transformation to normal form -- 6.2 Codimension -- 6.3 Determinacy -- 6.4 Unfolding -- 6.5 Classification -- 6.6 Bifurcation diagrams -- A Linear spaces and linear operators -- A.1 Linear spaces -- A.2 Linear operators -- B Transformation of matrices to Jordan form -- C Adjoint and self-adjoint linear differential operators -- C.1 Calculation of the adjoint operator -- C.2 Self-adjoint differential operators -- D Projection operators -- D.1 General considerations -- D.2 Projection for non-self-adjoint operators -- D.3 Application to the Galerkin reduction -- E Spectral decomposition -- E.1 Derivation of an inversion formula -- E.2 Three examples -- F Shell equations on the complete sphere -- F.1 Tensor notations in curvilinear coordinates -- F.2 Spherical harmonics -- G Some properties of groups -- G.1 Naive definition of a group -- G.2 Symmetry groups -- G.3 Representation of groups by matrices -- G.4 Transformation of functions and operators -- G.5 Examples of invariant functions and operators -- G.6 Abstract definition of a group -- H Stability boundaries in parameter space -- I Differential equation of an elastic ring -- I.1 Equilibrium equations and bending -- I.2 Ring equations -- J Shallow shell and plate equations -- J.1 Deformation of the shell -- J.2 Constitutive law -- J.3 Equations of equilibrium -- J.4 Special cases -- J.4.1 Plate -- J.4.2 Sphere -- J.4.3 Cylinder -- K Shell equations for axisymmetric deformations -- K.1 Geometrical relations -- K.2 Stress resultants, couples and equilibrium equations -- K.3 Stress strain relations -- K.4 Spherical shell -- L Equations of motion of a fluid conveying tube -- L.1 Geometry of tube deformation -- L.2 Stress-strain relationship -- L.3 Linear and angular momentum -- L.4 Tube equations and boundary conditions -- M Various concepts of equivalences -- M.1 Right-equivalence -- M.2 Contact equivalence -- M.3 Vector field equivalence -- M.4 Bifurcation equivalence -- M.5 Recognition problem -- N Slowly varying parameter -- O Transformation of dynamical systems into standard form -- O.1 Power series expansion -- O.2 Recursive calculation.