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Convexity properties of solutions to some classical variational problems

Convexity properties of solutions to some classical variational problems COMM. IN PARTIAL DIFFERENTTAL EQUATIONS, 7(ll), 1337-1379 (1982) CONVEXITY PROPERTIES OF SOLUTIONS TO SOME CLASSICAL VARIATIONAL PROBLEMS Luis A. ~affarelli New York University 251 Mercer St. New York, N.Y. Joel Spruck Brooklyn College CUNY Brooklyn, N.Y. 1. Introduction In this work, we study several classical varia- tional problems with the view of developing methods to show the existence of solutions that inherit convexity properties of their domain of definition. Our main effort centers on a free boundary problem arising in plasma physics [TI which may be formulated as follows: given R c R", a bounded simply connected domain, we seek a function u in $2 satisfying t Supported in part by NSF Grants MCS-8100802 and BK 780-5485. Copyright 0 1982 by Marcel Dekker, Inc. 1338 CAFFARELLI AND SPRUCX -Au = Au+ in R, u+=max(ulO) I constant (free) (1.1) ula~ Xu+ dx = I (prescribed) is given. where A > A1(R) The plasma region is the set D = Eu > 0) and the free boundary is the set r= aD. We ask for a solution that satisfies the implicit free boundary condition: u is c1 across r. Our main result (Theorem 4.1 and Corollary 4.2) asserts that if Q http://www.deepdyve.com/assets/images/DeepDyve-Logo-lg.png Communications in Partial Differential Equations Taylor & Francis

Convexity properties of solutions to some classical variational problems

Convexity properties of solutions to some classical variational problems

Communications in Partial Differential Equations , Volume 7 (11): 43 – Jan 1, 1982

Abstract

COMM. IN PARTIAL DIFFERENTTAL EQUATIONS, 7(ll), 1337-1379 (1982) CONVEXITY PROPERTIES OF SOLUTIONS TO SOME CLASSICAL VARIATIONAL PROBLEMS Luis A. ~affarelli New York University 251 Mercer St. New York, N.Y. Joel Spruck Brooklyn College CUNY Brooklyn, N.Y. 1. Introduction In this work, we study several classical varia- tional problems with the view of developing methods to show the existence of solutions that inherit convexity properties of their domain of definition. Our main effort centers on a free boundary problem arising in plasma physics [TI which may be formulated as follows: given R c R", a bounded simply connected domain, we seek a function u in $2 satisfying t Supported in part by NSF Grants MCS-8100802 and BK 780-5485. Copyright 0 1982 by Marcel Dekker, Inc. 1338 CAFFARELLI AND SPRUCX -Au = Au+ in R, u+=max(ulO) I constant (free) (1.1) ula~ Xu+ dx = I (prescribed) is given. where A > A1(R) The plasma region is the set D = Eu > 0) and the free boundary is the set r= aD. We ask for a solution that satisfies the implicit free boundary condition: u is c1 across r. Our main result (Theorem 4.1 and Corollary 4.2) asserts that if Q

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References (14)

Publisher
Taylor & Francis
Copyright
Copyright Taylor & Francis Group, LLC
ISSN
1532-4133
eISSN
0360-5302
DOI
10.1080/03605308208820254
Publisher site
See Article on Publisher Site

Abstract

COMM. IN PARTIAL DIFFERENTTAL EQUATIONS, 7(ll), 1337-1379 (1982) CONVEXITY PROPERTIES OF SOLUTIONS TO SOME CLASSICAL VARIATIONAL PROBLEMS Luis A. ~affarelli New York University 251 Mercer St. New York, N.Y. Joel Spruck Brooklyn College CUNY Brooklyn, N.Y. 1. Introduction In this work, we study several classical varia- tional problems with the view of developing methods to show the existence of solutions that inherit convexity properties of their domain of definition. Our main effort centers on a free boundary problem arising in plasma physics [TI which may be formulated as follows: given R c R", a bounded simply connected domain, we seek a function u in $2 satisfying t Supported in part by NSF Grants MCS-8100802 and BK 780-5485. Copyright 0 1982 by Marcel Dekker, Inc. 1338 CAFFARELLI AND SPRUCX -Au = Au+ in R, u+=max(ulO) I constant (free) (1.1) ula~ Xu+ dx = I (prescribed) is given. where A > A1(R) The plasma region is the set D = Eu > 0) and the free boundary is the set r= aD. We ask for a solution that satisfies the implicit free boundary condition: u is c1 across r. Our main result (Theorem 4.1 and Corollary 4.2) asserts that if Q

Journal

Communications in Partial Differential EquationsTaylor & Francis

Published: Jan 1, 1982

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