Necessary and sufficient conditions for the commutativity of linear time-varying systems are derived in the case of nonzero initial conditions. It is shown that some commutative class of linear time-varying systems may not commute with arbitrary initial conditions. In this respect, commutativity of Euler differential systems is investigated. Explicit commutativity conditions for the fifth-order systems are solved. New results about the effects of commutativity on system sensitivity and disturbance properties are presented, which is very important for network design and industrial applications where many of the systems are composed of subsystems cooperating one after another in a chain. The results are supported by examples treated either an...
© 2002 IEEE. Personal use of this material is permitted. Permission from IEEE must be obtained for...
A class of linear time-varying discrete systems is considered, and closed-form solutions are obtaine...
Abstract—In this note we consider continuous-time systems ẋ(t) = A(t)x(t) + B(t)u(t), y(t) = C(t)x...
Although the explicit commutativitiy conditions for second-order linear time-varying systems have be...
This paper, which is a survey and a compact reference on the commutativity of time-varying systems, ...
Necessary and sufficiently conditions are derived for the decomposition of a second order linear tim...
Although several publications have been appeared about the commutativity of linear time-varying syst...
*is paper presents decomposition of the fourth-order Euler-type linear time-varying system (LTVS) as...
This paper presents the commutativity of high-order linear time-varying systems (LTVSs). Explicit co...
In this paper we consider the commutability of linear and nonlinear blocks. We show that linearity i...
This article analyzes infinitesimal characterizations of commutativity of locally Lipschitz continuo...
<p>In this paper, the realisation problem of linear multi-input multi-output, time-varying systems i...
We discuss implicit systems of ordinary linear differential equations with (time-) variable coeffici...
We introduce a new class of dynamical systems called linear complementarity systems. The time evol...
It is shown that a criterion for the asymptotic stability-in-the-Iarge of systems containing a singl...
© 2002 IEEE. Personal use of this material is permitted. Permission from IEEE must be obtained for...
A class of linear time-varying discrete systems is considered, and closed-form solutions are obtaine...
Abstract—In this note we consider continuous-time systems ẋ(t) = A(t)x(t) + B(t)u(t), y(t) = C(t)x...
Although the explicit commutativitiy conditions for second-order linear time-varying systems have be...
This paper, which is a survey and a compact reference on the commutativity of time-varying systems, ...
Necessary and sufficiently conditions are derived for the decomposition of a second order linear tim...
Although several publications have been appeared about the commutativity of linear time-varying syst...
*is paper presents decomposition of the fourth-order Euler-type linear time-varying system (LTVS) as...
This paper presents the commutativity of high-order linear time-varying systems (LTVSs). Explicit co...
In this paper we consider the commutability of linear and nonlinear blocks. We show that linearity i...
This article analyzes infinitesimal characterizations of commutativity of locally Lipschitz continuo...
<p>In this paper, the realisation problem of linear multi-input multi-output, time-varying systems i...
We discuss implicit systems of ordinary linear differential equations with (time-) variable coeffici...
We introduce a new class of dynamical systems called linear complementarity systems. The time evol...
It is shown that a criterion for the asymptotic stability-in-the-Iarge of systems containing a singl...
© 2002 IEEE. Personal use of this material is permitted. Permission from IEEE must be obtained for...
A class of linear time-varying discrete systems is considered, and closed-form solutions are obtaine...
Abstract—In this note we consider continuous-time systems ẋ(t) = A(t)x(t) + B(t)u(t), y(t) = C(t)x...