Variational Problems with Concentration [electronic resource] /

To start with we describe two applications of the theory to be developed in this monograph: Bernoulli's free-boundary problem and the plasma problem. Bernoulli's free-boundary problem This problem arises in electrostatics, fluid dynamics, optimal insulation, and electro chemistry. In electrostatic terms the task is to design an annular con­ denser consisting of a prescribed conducting surface 80. and an unknown conduc­ tor A such that the electric field 'Vu is constant in magnitude on the surface 8A of the second conductor (Figure 1.1). This leads to the following free-boundary problem for the electric potential u. -~u 0 in 0. \A, u 0 on 80., u 1 on 8A, 8u Q on 8A. 811 The unknowns are the free boundary 8A and the potential u. In optimal in­ sulation problems the domain 0. \ A represents the insulation layer. Given the exterior boundary 80. the problem is to design an insulating layer 0. \ A of given volume which minimizes the heat or current leakage from A to the environment ]R.n \ n. The heat leakage per unit time is the capacity of the set A with respect to n. Thus we seek to minimize the capacity among all sets A c 0. of equal volume.

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Main Authors: Flucher, Martin. author., SpringerLink (Online service)
Format: Texto biblioteca
Language:eng
Published: Basel : Birkhäuser Basel : Imprint: Birkhäuser, 1999
Subjects:Mathematics., Mathematical analysis., Analysis (Mathematics)., Analysis.,
Online Access:http://dx.doi.org/10.1007/978-3-0348-8687-1
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id KOHA-OAI-TEST:183043
record_format koha
institution COLPOS
collection Koha
country México
countrycode MX
component Bibliográfico
access En linea
En linea
databasecode cat-colpos
tag biblioteca
region America del Norte
libraryname Departamento de documentación y biblioteca de COLPOS
language eng
topic Mathematics.
Mathematical analysis.
Analysis (Mathematics).
Mathematics.
Analysis.
Mathematics.
Mathematical analysis.
Analysis (Mathematics).
Mathematics.
Analysis.
spellingShingle Mathematics.
Mathematical analysis.
Analysis (Mathematics).
Mathematics.
Analysis.
Mathematics.
Mathematical analysis.
Analysis (Mathematics).
Mathematics.
Analysis.
Flucher, Martin. author.
SpringerLink (Online service)
Variational Problems with Concentration [electronic resource] /
description To start with we describe two applications of the theory to be developed in this monograph: Bernoulli's free-boundary problem and the plasma problem. Bernoulli's free-boundary problem This problem arises in electrostatics, fluid dynamics, optimal insulation, and electro chemistry. In electrostatic terms the task is to design an annular con­ denser consisting of a prescribed conducting surface 80. and an unknown conduc­ tor A such that the electric field 'Vu is constant in magnitude on the surface 8A of the second conductor (Figure 1.1). This leads to the following free-boundary problem for the electric potential u. -~u 0 in 0. \A, u 0 on 80., u 1 on 8A, 8u Q on 8A. 811 The unknowns are the free boundary 8A and the potential u. In optimal in­ sulation problems the domain 0. \ A represents the insulation layer. Given the exterior boundary 80. the problem is to design an insulating layer 0. \ A of given volume which minimizes the heat or current leakage from A to the environment ]R.n \ n. The heat leakage per unit time is the capacity of the set A with respect to n. Thus we seek to minimize the capacity among all sets A c 0. of equal volume.
format Texto
topic_facet Mathematics.
Mathematical analysis.
Analysis (Mathematics).
Mathematics.
Analysis.
author Flucher, Martin. author.
SpringerLink (Online service)
author_facet Flucher, Martin. author.
SpringerLink (Online service)
author_sort Flucher, Martin. author.
title Variational Problems with Concentration [electronic resource] /
title_short Variational Problems with Concentration [electronic resource] /
title_full Variational Problems with Concentration [electronic resource] /
title_fullStr Variational Problems with Concentration [electronic resource] /
title_full_unstemmed Variational Problems with Concentration [electronic resource] /
title_sort variational problems with concentration [electronic resource] /
publisher Basel : Birkhäuser Basel : Imprint: Birkhäuser,
publishDate 1999
url http://dx.doi.org/10.1007/978-3-0348-8687-1
work_keys_str_mv AT fluchermartinauthor variationalproblemswithconcentrationelectronicresource
AT springerlinkonlineservice variationalproblemswithconcentrationelectronicresource
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spelling KOHA-OAI-TEST:1830432018-07-30T23:04:10ZVariational Problems with Concentration [electronic resource] / Flucher, Martin. author. SpringerLink (Online service) textBasel : Birkhäuser Basel : Imprint: Birkhäuser,1999.engTo start with we describe two applications of the theory to be developed in this monograph: Bernoulli's free-boundary problem and the plasma problem. Bernoulli's free-boundary problem This problem arises in electrostatics, fluid dynamics, optimal insulation, and electro chemistry. In electrostatic terms the task is to design an annular con­ denser consisting of a prescribed conducting surface 80. and an unknown conduc­ tor A such that the electric field 'Vu is constant in magnitude on the surface 8A of the second conductor (Figure 1.1). This leads to the following free-boundary problem for the electric potential u. -~u 0 in 0. \A, u 0 on 80., u 1 on 8A, 8u Q on 8A. 811 The unknowns are the free boundary 8A and the potential u. In optimal in­ sulation problems the domain 0. \ A represents the insulation layer. Given the exterior boundary 80. the problem is to design an insulating layer 0. \ A of given volume which minimizes the heat or current leakage from A to the environment ]R.n \ n. The heat leakage per unit time is the capacity of the set A with respect to n. Thus we seek to minimize the capacity among all sets A c 0. of equal volume.1 Introduction -- 2 P-Capacity -- 3 Generalized Sobolev Inequality -- 3.1 Local generalized Sobolev inequality -- 3.2 Critical power integrand -- 3.3 Volume integrand -- 3.4 Plasma integrand -- 4 Concentration Compactness Alternatives -- 4.1 CCA for critical power integrand -- 4.2 Generalized CCA -- 4.3 CCA for low energy extremals -- 5 Compactness Criteria -- 5.1 Anisotropic Dirichlet energy -- 5.2 Conformai metrics -- 6 Entire Extremals -- 6.1 Radial symmetry of entire extremals -- 6.2 Euler Lagrange equation (independent variable) -- 6.3 Second order decay estimate for entire extremals -- 7 Concentration and Limit Shape of Low Energy Extremals -- 7.1 Concentration of low energy extremals -- 7.2 Limit shape of low energy extremals -- 7.3 Exploiting the Euler Lagrange equation -- 8 Robin Functions -- 8.1 P-Robin function -- 8.2 Robin function for the Laplacian -- 8.3 Conformai radius and Liouville’s equation -- 8.4 Computation of Robin function -- 8.5 Other Robin functions -- 9 P-Capacity of Small Sets -- 10 P-Harmonic Transplantation -- 11 Concentration Points, Subconformai Case -- 11.1 Lower bound -- 11.2 Identification of concentration points -- 12 Conformai Low Energy Limits -- 12.1 Concentration limit -- 12.2 Conformai CCA -- 12.3 Trudinger-Moser inequality -- 12.4 Concentration of low energy extremals -- 13 Applications -- 13.1 Optimal location of a small spherical conductor -- 13.2 Restpoints on an elastic membrane -- 13.3 Restpoints on an elastic plate -- 13.4 Location of concentration points -- 14 Bernoulli’s Free-boundary Problem -- 14.1 Variational methods -- 14.2 Elliptic and hyperbolic solutions -- 14.3 Implicit Neumann scheme -- 14.4 Optimal shape of a small conductor -- 15 Vortex Motion -- 15.1 Planar hydrodynamics -- 15.2 Hydrodynamic Green’s and Robin function -- 15.3 Point vortex model -- 15.4 Core energy method -- 15.5 Motion of isolated point vortices -- 15.6 Motion of vortex clusters -- 15.7 Stability of vortex pairs -- 15.8 Numerical approximation of vortex motion.To start with we describe two applications of the theory to be developed in this monograph: Bernoulli's free-boundary problem and the plasma problem. Bernoulli's free-boundary problem This problem arises in electrostatics, fluid dynamics, optimal insulation, and electro chemistry. In electrostatic terms the task is to design an annular con­ denser consisting of a prescribed conducting surface 80. and an unknown conduc­ tor A such that the electric field 'Vu is constant in magnitude on the surface 8A of the second conductor (Figure 1.1). This leads to the following free-boundary problem for the electric potential u. -~u 0 in 0. \A, u 0 on 80., u 1 on 8A, 8u Q on 8A. 811 The unknowns are the free boundary 8A and the potential u. In optimal in­ sulation problems the domain 0. \ A represents the insulation layer. Given the exterior boundary 80. the problem is to design an insulating layer 0. \ A of given volume which minimizes the heat or current leakage from A to the environment ]R.n \ n. The heat leakage per unit time is the capacity of the set A with respect to n. Thus we seek to minimize the capacity among all sets A c 0. of equal volume.Mathematics.Mathematical analysis.Analysis (Mathematics).Mathematics.Analysis.Springer eBookshttp://dx.doi.org/10.1007/978-3-0348-8687-1URN:ISBN:9783034886871