2021
DOI: 10.48550/arxiv.2107.13854
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The Peskin problem with $\dot B^1_{\infty,\infty}$ initial data

Abstract: In this paper we study the Peskin problem in 2D, which describes the dynamics of a 1D closed elastic structure immersed in a steady Stokes flow. We prove the local well-posedness for arbitrary initial configuration in V M O 1 satisfying the well-stretched condition, and the global well-posedness when the initial configuration is sufficiently close to an equilibrium in BM O 1 . The global-in-time solution will converge to an equilibrium exponentially as t → +∞. This is the first well-posedness result for the Pe… Show more

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Cited by 3 publications
(6 citation statements)
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“…One of the classical methods to deal with free boundary problems is to exploit potential theory in order to reformulate the problem into a new contour dynamics equation, which will be typically nonlocal and strongly non-linear. Let us mention that this kind of approach has been extensively and successfully used in other free boundary problems in fluid dynamics to show well-posedness (see [3,8] for the vortex patch, [11] for water waves, [30,18,17] for the SQG sharp-front, [12,16] for the Muskat problem and [19,9] for the Peskin problem). Furthermore, it has been applied to prove singularity formation for the water waves, the SQG sharp-front and the Muskat problem [6,4,29,18,5].…”
Section: Main Results and Methodologymentioning
confidence: 99%
See 1 more Smart Citation
“…One of the classical methods to deal with free boundary problems is to exploit potential theory in order to reformulate the problem into a new contour dynamics equation, which will be typically nonlocal and strongly non-linear. Let us mention that this kind of approach has been extensively and successfully used in other free boundary problems in fluid dynamics to show well-posedness (see [3,8] for the vortex patch, [11] for water waves, [30,18,17] for the SQG sharp-front, [12,16] for the Muskat problem and [19,9] for the Peskin problem). Furthermore, it has been applied to prove singularity formation for the water waves, the SQG sharp-front and the Muskat problem [6,4,29,18,5].…”
Section: Main Results and Methodologymentioning
confidence: 99%
“…Furthermore, both problems can be studied as a nonlinear and nonlocal partial differential equation using a contour dynamics approach similar to the one that we use in this paper. On the one hand, the Peskin problem models the dynamics of an elastic filament immersed in a Stokes fluid [43,19,34,9]. However, in the problem under consideration in this paper, the gravity driven Stokes problem, the dynamics is induced by the gravity force.…”
Section: Introductionmentioning
confidence: 99%
“…The result [8] shows the local well-posedness and smoothing for general data in the critical Besov space B 3 2 2,1 , including the case of nonlinear elastic law. The sharpest result in terms of regularity appeared in [9], where the semilinear 2D Peskin problem is shown to be well-posed in B 1 8,8 , and thus with possibly non-Lipschitz curves.…”
Section: Btmentioning
confidence: 99%
“…Since the recent breakthrough works [34] and [37], which provided the strong solution theory for the problem of an immersed elastic string in a two-dimensional fluid, the so-called 2D Peskin problem has attracted a lot of attention [8,9,23,25,33,51,52]. In this paper, we initiate the study of its three-dimensional counterpart.…”
Section: Introductionmentioning
confidence: 99%
“…Recently, Gancedo, Belinchón and Scrobogna [20] studied a toy model of the Peskin problem and proved global existence and uniqueness in the critical Lipschitz space. Then more recently, Chen and Nguyen were able to prove local well-posedness for (1.7) whenever X 1 0 is in VMO using estimates on the fundamental solution of p´∆q 1 2 and interpolation results, and they further prove global existence when X 1 0 is in BMO for initial data that is close to equilibrium [11].…”
mentioning
confidence: 99%