2011
DOI: 10.2422/2036-2145.2011.2.02
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BV solutions of rate independent variational inequalities

Abstract: We prove a theorem providing a geometric characterization of BV continuous vector rate independent operators. We apply this theorem to rate independent evolution variational inequalities and deduce new continuity properties of their solution operator: the vectorial play operator.

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Cited by 13 publications
(17 citation statements)
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“…as shown in [25,Section A.4] and in [12,Theorem 3.2], or in [28,Lemma 4.1] in the more general setting of sweeping processes. We also mention another approach to the vector play operator with discontinuous inputs based on the papers [8,9,10,11].…”
Section: Introductionmentioning
confidence: 94%
See 1 more Smart Citation
“…as shown in [25,Section A.4] and in [12,Theorem 3.2], or in [28,Lemma 4.1] in the more general setting of sweeping processes. We also mention another approach to the vector play operator with discontinuous inputs based on the papers [8,9,10,11].…”
Section: Introductionmentioning
confidence: 94%
“…Consequently we traverse these trajectories with an infinite speed in order to obtain the extension of P to BV([0, T ] ; H). The main difficulty in this procedure is the choice of the trajectories: if we consider a left continuous input and we fill in the jumps with segments, which seems the natural way, then in [25] it is proved that the resulting operator is different from the play operator defined by (1.10)-(1.12) (a complete comparison between the two operators is performed in [16,17] in the finite dimensional case). Thus another choice is in order and it seems that there is no chance to join the jumps in a canonical way that is intrinsic in the nature of the play operator and independent of the particular input.…”
Section: Introductionmentioning
confidence: 99%
“…And this is how it is introduced in Krasnosel'skiǐ-Pokrovskiǐ [23] and in Visintin [31]. Possible extensions to the case of discontinuous inputs have been analyzed in Brokate-Sprekels [11], Krejčí-Laurençot [22], Recupero [19,20]. Note that, when considering discontinuous inputs, in particular a special kind of jump/continuous functions (the so-called regulated functions), one has to decide how to fill the gap in the jumps, in order to recover a (at least approximating) continuous input.…”
Section: Hysteresis Operatorsmentioning
confidence: 99%
“…Indeed, the play operator is continuous only with respect to the topology of uniform convergence but we can grant only pointwise convergence. Moreover note that the result obtained using the extended definition of the Play operator for discontinuous inputs ( [11,22,19,20]), would require the use of measure control instead of measurable ones. More precisely the good discontinuous input v such that P [v, w 0 ] = x, can be obtained using a control which is ū1 + 2ρ number of jumps δ t i , where δ t i is the Dirac delta function centered in the jumping times.…”
Section: Lemma 31mentioning
confidence: 99%
“…Several notions of a solution are thus available for (49)-(51) for discontinuous inputs. In this regard, we mention the works [31][32][33][34], where an extension approach based on a time-reparametrization was used. For q ∈ BV r (T , H) the time-reparametrization is given by the function…”
Section: The Play Operator and Its Extensions To Discontinuous Inputsmentioning
confidence: 99%