Sobolev gradients and differential equations
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Více o knize
A Sobolev gradient of a real-valued functional is a gradient of that functional taken relative to the underlying Sobolev norm. This book shows how descent methods using such gradients allow a unified treatment of a wide variety of problems in differential equations. Equal emphasis is placed on numerical and theoretical matters. Several concrete applications are made to illustrate the method. These applications include (1) Ginzburg-Landau functionals of superconductivity, (2) problems of transonic flow in which type depends locally on nonlinearities, and (3) minimal surface problems. Sobolev gradient constructions rely on a study of orthogonal projections onto graphs of closed densely defined linear transformations from one Hilbert space to another. These developments use work of Weyl, von Neumann and Beurling.
Nákup knihy
Sobolev gradients and differential equations, John W. Neuberger
- Jazyk
- Rok vydání
- 2010
Doručení
Platební metody
2021 2022 2023
Navrhnout úpravu
- Titul
- Sobolev gradients and differential equations
- Jazyk
- anglicky
- Autoři
- John W. Neuberger
- Vydavatel
- Springer
- Rok vydání
- 2010
- Vazba
- měkká
- ISBN10
- 3642040403
- ISBN13
- 9783642040405
- Série
- Lecture notes in mathematics
- Kategorie
- Matematika
- Anotace
- A Sobolev gradient of a real-valued functional is a gradient of that functional taken relative to the underlying Sobolev norm. This book shows how descent methods using such gradients allow a unified treatment of a wide variety of problems in differential equations. Equal emphasis is placed on numerical and theoretical matters. Several concrete applications are made to illustrate the method. These applications include (1) Ginzburg-Landau functionals of superconductivity, (2) problems of transonic flow in which type depends locally on nonlinearities, and (3) minimal surface problems. Sobolev gradient constructions rely on a study of orthogonal projections onto graphs of closed densely defined linear transformations from one Hilbert space to another. These developments use work of Weyl, von Neumann and Beurling.