2003
DOI: 10.1137/s0363012901395935
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On Reflecting Boundary Problem for Optimal Control

Abstract: International audienceThis paper deals with Mayer's problem for controlled systems with reflection on the boundary of a closed subset K. The main result is the characterization of the possibly discontinuous value function in terms of a unique solution in a suitable sense to a partial differential equation of Hamilton–Jacobi–Bellman type

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Cited by 33 publications
(41 citation statements)
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“…Not mentioning some works scattered in the mechanical engineering literature, some early theoretical results appeared in [20] (a Hamilton-Jacobi characterization of the value function, with C constant, later generalized in [14]) and in [17,18] (existence and discrete approximation of optimal controls, in the related framework of rate independent processes). More recently, the papers [11,12,13] are devoted to the case where the control acts on the moving set, which in turn is required to have a polyhedral structure.…”
Section: Introductionmentioning
confidence: 99%
“…Not mentioning some works scattered in the mechanical engineering literature, some early theoretical results appeared in [20] (a Hamilton-Jacobi characterization of the value function, with C constant, later generalized in [14]) and in [17,18] (existence and discrete approximation of optimal controls, in the related framework of rate independent processes). More recently, the papers [11,12,13] are devoted to the case where the control acts on the moving set, which in turn is required to have a polyhedral structure.…”
Section: Introductionmentioning
confidence: 99%
“…We can prove that n(y u (·)) is in N K (y u (·)) ∩ B(0,M ) (see [31]) and moreover we have: Consequently, …”
Section: Approximating Equations For the Reflected Control Problemmentioning
confidence: 92%
“…Here K is a nonempty closed subset of R N , U is a compact metric space, f is a bounded function from R N × U into R N and N K (x) is the normal cone to K at x ∈ K. We notice that N K (x) = {0} whenever x ∈ • K; f is only modified on the boundary of K, such that (1) is a problem with reflection at the boundary (see [31]). …”
Section: I) Y (T) ∈ F (Y(t) U(t)) − N K (Y(t)) Ae T ∈ [0 T ] Ii) Ymentioning
confidence: 99%
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