Sufficient conditions for fixed-time convergence of matrix differential Riccati equations towards an ellipsoid in the space of symmetric non-negative matrices are proposed. These conditions are based on the classical concept of uniform complete observability. The fixed-time convergence is demonstrated for the Riccati matrix and its inverse. This convergence is then used to design a globally convergent observer for bilinear chaotic differential equations (e.g. equations with zero Lyapunov exponents). Convergence of the observer is confirmed by numerical experiments with ODEs obtained by finite-difference discretization of a hyperbolic PDE in 1D (Burgers-Hopf equation)
We revisit and extend the Riccati theory, unifying continuous-time linear-quadratic optimal permanen...
In this paper, we present an observability criterion for systems whose state is governed by a matrix...
We consider differential Riccati equations (DREs). These equations arise in many areas and are very ...
International audienceThe paper proposes a new homogeneous observer for finite-dimensional projectio...
An approximation and convergence theory was developed for Galerkin approximations to infinite dimens...
AbstractWe prove a necessary and sufficient condition for the solution of the time-invariant Riccati...
AbstractWe develop an approximation and convergence theory for Galerkin approximations to infinite d...
AbstractIn this paper we investigate generalized Riccati differential and difference equations obtai...
The convergence of the solution of the differential and difference periodic Riccati equation with no...
An abstract approximation framework for the solution of operator algebraic Riccati equations is deve...
A constant direction of the Riccati equation associated with a class of singular discrete-time optim...
Abstract: We present several methods to obtain global existence results for solutions of non-symmetr...
AbstractSufficient conditions are given for a matrix Riccati differential equation to have a bounded...
© 2018 The Franklin Institute Consider the continuous-time matrix Riccati operator Ricc(Q)=AQ+QA′−QS...
Sufficient conditions for existence and uniqueness of solutions for a coupled system of homogeneous ...
We revisit and extend the Riccati theory, unifying continuous-time linear-quadratic optimal permanen...
In this paper, we present an observability criterion for systems whose state is governed by a matrix...
We consider differential Riccati equations (DREs). These equations arise in many areas and are very ...
International audienceThe paper proposes a new homogeneous observer for finite-dimensional projectio...
An approximation and convergence theory was developed for Galerkin approximations to infinite dimens...
AbstractWe prove a necessary and sufficient condition for the solution of the time-invariant Riccati...
AbstractWe develop an approximation and convergence theory for Galerkin approximations to infinite d...
AbstractIn this paper we investigate generalized Riccati differential and difference equations obtai...
The convergence of the solution of the differential and difference periodic Riccati equation with no...
An abstract approximation framework for the solution of operator algebraic Riccati equations is deve...
A constant direction of the Riccati equation associated with a class of singular discrete-time optim...
Abstract: We present several methods to obtain global existence results for solutions of non-symmetr...
AbstractSufficient conditions are given for a matrix Riccati differential equation to have a bounded...
© 2018 The Franklin Institute Consider the continuous-time matrix Riccati operator Ricc(Q)=AQ+QA′−QS...
Sufficient conditions for existence and uniqueness of solutions for a coupled system of homogeneous ...
We revisit and extend the Riccati theory, unifying continuous-time linear-quadratic optimal permanen...
In this paper, we present an observability criterion for systems whose state is governed by a matrix...
We consider differential Riccati equations (DREs). These equations arise in many areas and are very ...