2016
DOI: 10.1016/j.jde.2016.04.027
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The Łojasiewicz–Simon gradient inequality for open elastic curves

Abstract: In this paper we consider the elastic energy for open curves in Euclidean space subject to clamped boundary conditions and obtain the Lojasiewicz-Simon gradient inequality for this energy functional. Thanks to this inequality we can prove that a (suitably reparametrized) solution to the associated L 2 -gradient flow converges for large time to an elastica, that is to a critical point of the functional.

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Cited by 39 publications
(32 citation statements)
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References 17 publications
(27 reference statements)
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“…Note that A η is well defined by Lemma 3.4. It can be associated with the second variation of the energy E at η restricted to normal perturbations, see [6,Proposition 3.6]. In what follows we will use a general principle from analysis.…”
Section: Wwwmn-journalcommentioning
confidence: 99%
“…Note that A η is well defined by Lemma 3.4. It can be associated with the second variation of the energy E at η restricted to normal perturbations, see [6,Proposition 3.6]. In what follows we will use a general principle from analysis.…”
Section: Wwwmn-journalcommentioning
confidence: 99%
“…Additionally, from the global existence of the flow it is deduced that the family of curves subconverges after reparametrization by arc length to an equilibrium. Dall'Acqua, Pozzi, and Spener strengthened the result of Lin in [14] by showing that up to a time dependent reparametrization φ(t, ·) : I → I, t ∈ [0, ∞), the whole solution f (t, φ(t, ·)) converges to a critical point of the energy in L 2 for t → ∞, see [10].…”
Section: )mentioning
confidence: 69%
“…[40] [ 40] [ 40,41] Open curves, clamped b.c. [52] [ 29] [ 18,41] Non compact curves [40] [ 40] Networks [15,22,23] [ 14,22] [ 14] We refer also to the two recent PhD theses [38,48]. The aim of this expository paper is to arrange (most of) this material in a unitary form, proving in full detail the results for the elastic flow of closed curves and underlying the differences with the other cases.…”
Section: Asymptotic Analysismentioning
confidence: 99%
“…In this part we compute the second variation of the elastic energy functional E μ . We are interested only in showing its structure and analyze some properties, instead of computing it explicitly (for the full formula of the second variation we refer to [18,47]). In fact, we will exploit the properties of the second variation only in the proof of the smooth convergence of the elastic flow of closed curves in Section 5.…”
Section: Second Variation Of the Elastic Energymentioning
confidence: 99%
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