Results 1 to 10 of about 26 (18)
Crank–Nicolson Method for the Advection-Diffusion Equation Involving a Fractional Laplace Operator
MSC2020 Classification: 35R11; 35S15; 65M12.
Martin Nitiema +2 more
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In this article, we study the following general Kirchhoff type equation: −M∫R3∣∇u∣2dxΔu+u=a(x)f(u)inR3,-M\left(\mathop{\int }\limits_{{{\mathbb{R}}}^{3}}| \nabla u{| }^{2}{\rm{d}}x\right)\Delta u+u=a\left(x)f\left(u)\hspace{1em}{\rm{in}}\hspace{0.33em}{{\
Zhang Jian, Liu Huize, Zuo Jiabin
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General boundary value problems for pseudo-differential equations and related difference equations
The author develops the theory of pseudo-differential equations and boundary value problems in non-smooth domains. A model pseudo-differential equation in a canonical flat domain is reduced to a system of linear difference equations.MSC:35S15, 39A05.
V. Vasilyev
semanticscholar +2 more sources
Time-fractional diffusion equation with dynamical boundary condition
We establish the unique solvability in Hölder spaces for an initial-boundary problem for fractional diffusion equation with fractional dynamic boundary condition. Mathematics subject classification (2010): 35S15.
M. Krasnoschok
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Infinitely many solutions for non-local problems with broken symmetry
The aim of this paper is to investigate the existence of solutions of the non-local elliptic ...
Bartolo Rossella +2 more
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Some remarks about the summability of nonlocal nonlinear problems
In this note, we will study the problem (-Δ)psu = f(x) on Ω, u = 0 in ℝN∖Ω, where 0 < s < 1, (-Δ)ps is the nonlocal p-Laplacian defined below, Ω is a smooth bounded domain. The main point studied in this work is to prove, adapting the techniques used in [
Barrios Begoña +2 more
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Very large solutions for the fractional Laplacian: Towards a fractional Keller–Osserman condition
We look for solutions of (-△)su+f(u)=0{{\left(-\triangle\right)}^{s}u+f(u)=0} in a bounded smooth domain Ω, s∈(0,1){s\in(0,1)}, with a strong singularity at the boundary. In particular, we are interested in solutions which are L1(Ω){L^{1}(\Omega)} and
Abatangelo Nicola
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ASYMPTOTICS OF PSEUDODIFFERENTIAL PARABOLIC EQUATIONS
The paper provides new type examples covered by the general theory of global attractors for abstract parabolic equations presented in the monograph [C-D 1].
J. Cholewa, Tomasz Dłotko, A. Turski
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On the fractional p-Laplacian equations with weight and general datum
The aim of this paper is to study the following problem:
Abdellaoui Boumediene +2 more
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Kirchhoff–Hardy Fractional Problems with Lack of Compactness
This paper deals with the existence and the asymptotic behavior of nontrivial solutions for some classes of stationary Kirchhoff problems driven by a fractional integro-differential operator and involving a Hardy potential and different critical ...
Fiscella Alessio, Pucci Patrizia
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