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In this paper, we consider local Dirichlet problems driven by the (r(u),s(u))-Laplacian operator in the principal part. We prove the existence of nontrivial weak solutions in the case where the variable exponents r,s are real continuous functions and we have dependence on the solution u. The main contributions of this article are obtained in respect of: (i) Carathéodory nonlinearity satisfying standard regularity and polynomial growth assumptions, where in this case, we use geometrical and compactness conditions to establish the existence of the solution to a regularized problem via variational methods and the critical point theory; and (ii) Sobolev nonlinearity, somehow related to the space structure. In this case, we use a priori estimates and asymptotic analysis of regularized auxiliary problems to establish the existence and uniqueness theorems via a fixed-point argument.
In this paper, we consider local Dirichlet problems driven by the (r(u),s(u))-Laplacian operator in the principal part. We prove the existence of nontrivial weak solutions in the case where the variable exponents r,s are real continuous functions and we have dependence on the solution u. The main contributions of this article are obtained in respect of: (i) Carathéodory nonlinearity satisfying standard regularity and polynomial growth assumptions, where in this case, we use geometrical and compactness conditions to establish the existence of the solution to a regularized problem via variational methods and the critical point theory; and (ii) Sobolev nonlinearity, somehow related to the space structure. In this case, we use a priori estimates and asymptotic analysis of regularized auxiliary problems to establish the existence and uniqueness theorems via a fixed-point argument.
We consider the Dirichlet boundary value problem for equations involving the $(p(z),q(z))$ ( p ( z ) , q ( z ) ) -Laplacian operator in the principal part on an open bounded domain $\Omega \subset \mathbb{R}^{n}$ Ω ⊂ R n . Here, the $p(z)$ p ( z ) -Laplacian is weighted by a function $a \in L^{\infty}(\Omega )_{+}$ a ∈ L ∞ ( Ω ) + , and the nonlinearity in the reaction term is allowed to depend on the solution without imposing the Ambrosetti–Rabinowitz condition. The proof of the existence of solution to our problem is based on a mountain pass critical point approach with the Cerami condition at level c.
In this paper, we study the following elliptic problem involving the ( p ( y ) , q ( y ) {p(y),q(y)} )-Laplacian operator: { - div ( a ( y ) | ∇ v | p ( y ) - 2 ∇ v ) + b ( y ) | v | p ( y ) - 2 v - div ( | ∇ v | q ( y ) - 2 ∇ v ) = g ( y , v ) , y ∈ Ω , v = 0 on ∂ Ω , \left\{\begin{aligned} \displaystyle{}{-}\operatorname{div}(a(y)|\nabla v|^{p(% y)-2}\nabla v)+b(y)|v|^{p(y)-2}v-\operatorname{div}(|\nabla v|^{q(y)-2}\nabla v% )&\displaystyle=g(y,v),&&\displaystyle y\in\Omega,\\ \displaystyle v&\displaystyle=0&&\displaystyle\phantom{}\text{on }\partial% \Omega,\end{aligned}\right. with Dirichlet boundary condition in an exterior domain Ω ( ⊂ ℝ n ) {(\subset\mathbb{R}^{n})} with smooth boundary, where 1 < q ( y ) < p ( y ) < n 1<q(y)<p(y)<n . We prove the existence of solutions in W 0 1 , p ( y ) ( Ω ) {W^{1,p(y)}_{0}(\Omega)} for the superlinear case by using the Mountain Pass Theorem.
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