Multiple solutions of some asymptotically linear elliptic boundary value problems
Hess, P.
Similarity:
Displaying similar documents to “Nonlinear eigenvalue problems with the parameter near resonance”
Multiple solutions of some asymptotically linear elliptic boundary value problems
On nonlinear superposition, III.
J.D. Keckic (1979)
Publications de l'Institut Mathématique [Elektronische Ressource]
Similarity:
The Finite Element Method--Linear and Nonlinear Applications
Gilbert Strang (1974)
Publications mathématiques et informatique de Rennes
Similarity:
Linearization Of Nonlinear Differential Equations: Third Order Nonlinear Ordinary Differential Equations Equivalent To Linear Second Order Equations
Vlajko Lj. Kocić (1982)
Publications de l'Institut Mathématique
Similarity:
Nonlinear transmission problems.
Wegert, Elias, Khimshiashvili, Georgi, Spitkovsky, Ilya (1997)
Memoirs on Differential Equations and Mathematical Physics
Similarity:
Connected branches of asymptotically equivalent solutions to non-linear eigenvalue problems
Allan L. Edelson, Maria Patrizia Pera (1987)
Atti della Accademia Nazionale dei Lincei. Classe di Scienze Fisiche, Matematiche e Naturali. Rendiconti
Similarity:
We prove an existence theorem for connected branches of solutions to nonlinear operator equations in Banach spaces. This abstract result is applied to the asymptotically equivalent solutions to nonlinear ordinary differential equations.
Additions to Kamke's treatise VI: A nonlinear second order equation.
J.D. Keckic (1975)
Publications de l'Institut Mathématique [Elektronische Ressource]
Similarity:
Conditions for the Integrability of Second Order Nonlinear Differential Equation, II
Vlajko Lj. Kocić (1983)
Publications de l'Institut Mathématique
Similarity:
Multiplicity of positive solutions for a nonlinear differential equation with nonlinear boundary conditions
D. R. Dunninger, Haiyan Wang (1998)
Annales Polonici Mathematici
Similarity:
We study the existence and multiplicity of positive solutions of the nonlinear equation u''(x) + λh(x)f(u(x)) = 0 subject to nonlinear boundary conditions. The method of upper and lower solutions and degree theory arguments are used.