2002
DOI: 10.1090/s0025-5718-02-01409-6
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Analysis of a variable time-step discretization of the three-dimensional Frémond model for shape memory alloys

Abstract: Abstract. This paper deals with a semi-implicit time discretization with variable step of a three-dimensional Frémond model for shape memory alloys. Global existence and uniqueness of a solution is discussed. Moreover, an a priori estimate for the discretization error is recovered. The latter depends solely on data, imposes no constraints between consecutive time steps, and shows an optimal order of convergence when referred to a simplified model.

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Cited by 7 publications
(5 citation statements)
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“…By (13), it turns out that the subdifferential * is a maximal monotone operator with 0 ∈ * (0). In particular, it follows that…”
Section: Introductionmentioning
confidence: 99%
“…By (13), it turns out that the subdifferential * is a maximal monotone operator with 0 ∈ * (0). In particular, it follows that…”
Section: Introductionmentioning
confidence: 99%
“…Indeed, the argument follows closely the lines of the proof of the continuous dependence estimate (4.1). The additional intricacy related to the fact that the continuous and the discrete solutions do not solve the same equations may be overcome by the same techniques of the two papers [34,35], where indeed the abstract analysis of [28,29] is applied in a similar context. On the other hand, some comment is in order.…”
Section: Error Estimatesmentioning
confidence: 99%
“…Concerning the mathematical analysis of the system (1.1-1.6), we notice that the existence proof (as in the most part of the systems related to Frémond model, see, e.g., Colli, 1995) relies on a suitable time discretization-a priori estimates-passage to the limit procedure. We remind that the investigation on the error control for problems Downloaded by [North Dakota State University] related to Frémond's model, and in general for phase transition problems, has recently received a good deal of interest as the papers Klein and Verdi (2003) and Stefanelli (1999Stefanelli ( , 2000Stefanelli ( , 2002 show. More precisely, we present the system (1.1-1.6) as an abstract Cauchy problem for two coupled evolution equations, and we investigate in detail its fully implicit time discretization.…”
Section: Error Estimates For Phase Transition Model 549mentioning
confidence: 99%