2010
DOI: 10.1007/s11228-010-0151-y
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Well-Posedness of Minimal Time Problems with Constant Dynamics in Banach Spaces

Abstract: This paper concerns the study of a general minimal time problem with a convex constant dynamics and a closed target set in Banach spaces. We pay the main attention to deriving sufficient conditions for the major well-posedness properties that include the existence and uniqueness of optimal solutions as well as certain regularity of the optimal value function with respect to state variables. Most of the results obtained are new even in finite-dimensional spaces. Our approach is based on advanced tools of variat… Show more

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Cited by 18 publications
(9 citation statements)
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References 14 publications
(31 reference statements)
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“…Furthermore, we give a representation formula for the Clarke (Fréchet or Mordukhovich) subdifferential ofû (·) atx in terms of the respective constructions for F , θ (·) and C. A similar result was obtained in [26] in the case θ ≡ 0 (see also [14]). …”
Section: Regularity Of the Value Functionsupporting
confidence: 61%
See 1 more Smart Citation
“…Furthermore, we give a representation formula for the Clarke (Fréchet or Mordukhovich) subdifferential ofû (·) atx in terms of the respective constructions for F , θ (·) and C. A similar result was obtained in [26] in the case θ ≡ 0 (see also [14]). …”
Section: Regularity Of the Value Functionsupporting
confidence: 61%
“…Recalling the characterization of the duality mapping through the subdifferential of the Minkowski functional (see (10)) we derive from (14) that the uniform rotundity of F w.r.t. U implies, in particular, the uniform continuity of the Fréchet gradient ∇ρ F 0 (·) on the set U .…”
Section: Preliminariesmentioning
confidence: 99%
“…with the sets of ε-normals N ε (·; Ω) defined for ε ≥ 0 by 7) where N ε (x; Ω) := ∅ ifx / ∈ Ω for convenience. When the set Ω is locally closed aroundx and the space X is Asplund, we can equivalently replace N ε (·; Ω) in (2.7) by the prenormal/Fréchet normal cone N (·; Ω) := N 0 (·; Ω).…”
Section: Tools Of Variational Analysismentioning
confidence: 99%
“…with the constant dynamicsẋ ∈ F described by a closed, bounded, and convex subset F = ∅ of a Banach space X and with the closed target set Ω = ∅ in X; these are our standing assumptions in this paper. We refer the reader to [7,8,9,15] and the bibliographies therein for various results on minimal time functions and their applications. When F is the closed unit ball IB of X, the minimal time function (1.1) becomes the standard distance function d(x; Ω) = inf x − ω ω ∈ Ω (1.2) generated by the norm · on X.…”
Section: Introduction and Problem Formulationmentioning
confidence: 99%
“…Variational analysis and generalized differentiations of the minimal time function associated with a convex dynamics set, which contains the origin in its interior, in a Hilbert space was initially studied by Colombo and Wolenski in [8,9]. Since then, the minimal time function has been extensively studied by many researchers in various ways and for different purposes; see, e.g., [2,3,7,13,17,18,22,23,26,29,31]. In [17], He and Ng studied generalized differentiations of the minimal time function in Banach spaces.…”
Section: Introductionmentioning
confidence: 99%