AbstractIn this paper we give a sufficient condition for the zero solution of an n-dimensional differential-delay equation of the form ẋ(t) = A(t) x(t − r(t, xt)) to be uniformly stable. A sufficient condition for all solutions to go to zero is also stated. Although various theorems are known for characterizing stability and asymptotic stability in terms of “Liapunov” functions, it is, in general, very difficult to determine whether or not stability is present for a given system. The techniques of this paper enable one to deal with some specific nonautonomous equations in higher dimensions
AbstractLiapunov methods are used to give conditions ensuring that the zero solution of a system of ...
AbstractNew explicit conditions of exponential stability are obtained for the nonautonomous equation...
This paper is concerned with the study of the stability of ordinary and partial differential equatio...
AbstractIn this paper, we give some sufficient conditions for the zero solution of an n-dimensional ...
AbstractIn this paper we give a sufficient condition for the zero solution of an n-dimensional diffe...
AbstractConsider the following delay differential equation (DDE) y′=ƒ(t,y(t),y(t−τ(t))), t⩾t0,with t...
AbstractIn the paper, we obtain sufficient conditions for the uniform stability of the zero solution...
In this paper, a complete Lyapunov functional was con- structed and used to obtain criteria (when p ...
AbstractStability properties of numerical methods for delay differential equations are considered. S...
AbstractConsider the following two-dimensional delay differential equation (DDE) u′(t)=a1u(t)+b1v(t–...
AbstractConsider the one-dimensional nonautonomous neutral differential equation ddt[xt−ft,xpt]+gt,x...
AbstractSystems of linear nonautonomous delay differential equations are considered which are of the...
We establish some new sufficient conditions to the uniform asymptotically stability and boundedness ...
AbstractLiapunov methods are used to give conditions ensuring that the zero solution of a system of ...
The stability of the zero solution of a system of first-order linear functional differential equatio...
AbstractLiapunov methods are used to give conditions ensuring that the zero solution of a system of ...
AbstractNew explicit conditions of exponential stability are obtained for the nonautonomous equation...
This paper is concerned with the study of the stability of ordinary and partial differential equatio...
AbstractIn this paper, we give some sufficient conditions for the zero solution of an n-dimensional ...
AbstractIn this paper we give a sufficient condition for the zero solution of an n-dimensional diffe...
AbstractConsider the following delay differential equation (DDE) y′=ƒ(t,y(t),y(t−τ(t))), t⩾t0,with t...
AbstractIn the paper, we obtain sufficient conditions for the uniform stability of the zero solution...
In this paper, a complete Lyapunov functional was con- structed and used to obtain criteria (when p ...
AbstractStability properties of numerical methods for delay differential equations are considered. S...
AbstractConsider the following two-dimensional delay differential equation (DDE) u′(t)=a1u(t)+b1v(t–...
AbstractConsider the one-dimensional nonautonomous neutral differential equation ddt[xt−ft,xpt]+gt,x...
AbstractSystems of linear nonautonomous delay differential equations are considered which are of the...
We establish some new sufficient conditions to the uniform asymptotically stability and boundedness ...
AbstractLiapunov methods are used to give conditions ensuring that the zero solution of a system of ...
The stability of the zero solution of a system of first-order linear functional differential equatio...
AbstractLiapunov methods are used to give conditions ensuring that the zero solution of a system of ...
AbstractNew explicit conditions of exponential stability are obtained for the nonautonomous equation...
This paper is concerned with the study of the stability of ordinary and partial differential equatio...