By introducing a new stabilization methodology, this book characterizes the stability of a certain class of systems. The stability (exponential, polynomial, or weaker) for the closed loop problem is reduced to an observability estimate for the corresponding uncontrolled system combined with a boundedness property of the transfer function of the associated open loop system. A similar strategy is applied to systems where a delay term is added. The book concludes with many concrete examples. This book is addressed to graduate students in mathematics or engineering and also to researchers with an interest in stabilization and control systems governed by partial differential equations
We consider the simplest design problem for nonlinear systems: the problem of rendering asymptotical...
We consider well-posed linear systems whose state trajectories satisfy. x = Ax + Bu, where u is the ...
Abstract: We consider in this paper the problem of (asymptotic) stabilization, via position feedback...
International audienceWe characterize the stabilization for some coupled infinite dimensional system...
Cette thèse est constituée de deux parties principales. Dans la première partie on traite l'observab...
AbstractWe present two questions connected with the stabilization of certain hyperbolic partial diff...
This monograph provides a rigorous treatment of problems related to partial asymptotic stability an...
We study a class of elastic systems described by a (hyperbolic) partial differential equation. Our w...
ru Downloaded Ffunction which is at least continuous such that the closed-loop system x ˙ 5 f (x,u ¯...
Part 4: Stabilization, Feedback, and Model Predictive ControlInternational audienceWe consider a sys...
We consider a hinged elastic beam described by the Rayleigh beam equation on the interval [0, pi]. W...
AbstractGiven a transfer function b(z)/a(z), a classical feedback problem is to find a dynamic feedb...
The final publication is available at www.springerlink.com (DOI: 10.1007/s10958-011-0234-9)We study...
International audienceWe consider a stabilization problem for a coupled string-beam system. We prove...
In this thesis the question of stabilization of perturbed (or uncertain) infinite dimensional linear...
We consider the simplest design problem for nonlinear systems: the problem of rendering asymptotical...
We consider well-posed linear systems whose state trajectories satisfy. x = Ax + Bu, where u is the ...
Abstract: We consider in this paper the problem of (asymptotic) stabilization, via position feedback...
International audienceWe characterize the stabilization for some coupled infinite dimensional system...
Cette thèse est constituée de deux parties principales. Dans la première partie on traite l'observab...
AbstractWe present two questions connected with the stabilization of certain hyperbolic partial diff...
This monograph provides a rigorous treatment of problems related to partial asymptotic stability an...
We study a class of elastic systems described by a (hyperbolic) partial differential equation. Our w...
ru Downloaded Ffunction which is at least continuous such that the closed-loop system x ˙ 5 f (x,u ¯...
Part 4: Stabilization, Feedback, and Model Predictive ControlInternational audienceWe consider a sys...
We consider a hinged elastic beam described by the Rayleigh beam equation on the interval [0, pi]. W...
AbstractGiven a transfer function b(z)/a(z), a classical feedback problem is to find a dynamic feedb...
The final publication is available at www.springerlink.com (DOI: 10.1007/s10958-011-0234-9)We study...
International audienceWe consider a stabilization problem for a coupled string-beam system. We prove...
In this thesis the question of stabilization of perturbed (or uncertain) infinite dimensional linear...
We consider the simplest design problem for nonlinear systems: the problem of rendering asymptotical...
We consider well-posed linear systems whose state trajectories satisfy. x = Ax + Bu, where u is the ...
Abstract: We consider in this paper the problem of (asymptotic) stabilization, via position feedback...