2004
DOI: 10.4171/jems/13
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Exact boundary controllability of a nonlinear KdV equation with critical lengths

Abstract: Abstract. We study the boundary controllability of a nonlinear Korteweg-de Vries equation with the Dirichlet boundary condition on an interval with a critical length for which it has been shown by Rosier that the linearized control system around the origin is not controllable. We prove that the nonlinear term gives the local controllability around the origin.

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Cited by 133 publications
(171 citation statements)
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“…In this case, that is when a ≡ 0, it is important to observe that Theorem 3.2 holds if the following unique continuation principle can be proved: As far as we know, the above unique continuation principle remains to be done. Coron and Crépeau [6] studied the boundary controllability of the nonlinear KdV equation with Dirichlet boundary condition on an interval with critical length and they proved that the nonlinear term gives the local controllability around the origin.…”
Section: Final Remarksmentioning
confidence: 99%
“…In this case, that is when a ≡ 0, it is important to observe that Theorem 3.2 holds if the following unique continuation principle can be proved: As far as we know, the above unique continuation principle remains to be done. Coron and Crépeau [6] studied the boundary controllability of the nonlinear KdV equation with Dirichlet boundary condition on an interval with critical length and they proved that the nonlinear term gives the local controllability around the origin.…”
Section: Final Remarksmentioning
confidence: 99%
“…To get the controllability of the KdV equations, "Power Series Expansion" method was introduced in [1,3,13], which turned out to be a classical example of getting controllability by using nonlinear terms. The stabilization problem is even more interesting, as we need to investigate a closed-loop system which involves more difficulties (even for the well-posedness).…”
Section: Introductionmentioning
confidence: 99%
“…By a linearization argument, a local controllability result for the semilinear scalar equation was also proved in [22]. Later on, Zhang in [28] proved that using three controls, acting on all the boundary conditions, controllability holds for all values of L. More recently, Crépeau and Coron [5] and Cerpa [3] proved that, for some critical values of the length L, the nonlinear scalar model is controllable (see also [4]). When the damping function a = a(x) is active simultaneously in a neighborhood of both extremes of the interval (0, L) the problem was addressed in [16] for the scalar KdV equation…”
Section: ||U (· T)||mentioning
confidence: 91%