AbstractThe aim of this paper is to prove the existence of Levitan/Bohr almost periodic, almost automorphic, recurrent and Poisson stable solutions of the second order differential equation(1)x″=f(σ(t,y),x,x′)(y∈Y) where Y is a complete metric space and (Y,R,σ) is a dynamical system (also called a driving system). When the function f in (1) is increasing with respect to its second variable, the existence of at least one quasi periodic (respectively, Bohr almost periodic, almost automorphic, recurrent, pseudo recurrent, Levitan almost periodic, almost recurrent, Poisson stable) solution of (1) is proved under the condition that (1) admits at least one solution φ such that φ and φ′ are bounded on the real axis
AbstractFor abstract linear functional differential equations with an almost automorphic forcing ter...
Abstract. We give sufficient conditions of the existence of a compact invariant manifold, almost per...
1991 Mathematics Subject Classification. Primary 34C27, 34C28, 37B55; Secondary 54H20, 58F14, 58F05...
The aim of this paper is to prove the existence of Levitan/Bohr almost periodic, almost automorphic,...
AbstractThe aim of this paper is to prove the existence of Levitan/Bohr almost periodic, almost auto...
AbstractThe well-known Favard's theorem states that the linear differential equation(1)x′=A(t)x+f(t)...
AbstractIn this paper we continue the research started in a previous paper, where we proved that the...
The well-known Favard's theorem states that the linear differential equation x′=A(t)x+f(t) Turn...
We analyze the existence of almost periodic (respectively, almost automorphic, recurrent) solutions ...
In this paper we continue the research started in a previous paper, where we proved that the linear ...
AbstractIn this work, we study the existence of almost automorphic solutions for some partial functi...
AbstractIn this note, we present a Massera type theorem for the existence of almost automorphic solu...
International audienceWe give sufficient conditions for the existence of almost periodic solutions o...
AbstractLet L be an arbitrary linear partial differential operator and let f be an almost periodic f...
AbstractWe describe the set of bounded or almost periodic solutions of the following Liénard system:...
AbstractFor abstract linear functional differential equations with an almost automorphic forcing ter...
Abstract. We give sufficient conditions of the existence of a compact invariant manifold, almost per...
1991 Mathematics Subject Classification. Primary 34C27, 34C28, 37B55; Secondary 54H20, 58F14, 58F05...
The aim of this paper is to prove the existence of Levitan/Bohr almost periodic, almost automorphic,...
AbstractThe aim of this paper is to prove the existence of Levitan/Bohr almost periodic, almost auto...
AbstractThe well-known Favard's theorem states that the linear differential equation(1)x′=A(t)x+f(t)...
AbstractIn this paper we continue the research started in a previous paper, where we proved that the...
The well-known Favard's theorem states that the linear differential equation x′=A(t)x+f(t) Turn...
We analyze the existence of almost periodic (respectively, almost automorphic, recurrent) solutions ...
In this paper we continue the research started in a previous paper, where we proved that the linear ...
AbstractIn this work, we study the existence of almost automorphic solutions for some partial functi...
AbstractIn this note, we present a Massera type theorem for the existence of almost automorphic solu...
International audienceWe give sufficient conditions for the existence of almost periodic solutions o...
AbstractLet L be an arbitrary linear partial differential operator and let f be an almost periodic f...
AbstractWe describe the set of bounded or almost periodic solutions of the following Liénard system:...
AbstractFor abstract linear functional differential equations with an almost automorphic forcing ter...
Abstract. We give sufficient conditions of the existence of a compact invariant manifold, almost per...
1991 Mathematics Subject Classification. Primary 34C27, 34C28, 37B55; Secondary 54H20, 58F14, 58F05...