2005
DOI: 10.1007/s00211-005-0619-0
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Analysis of a one-dimensional free boundary flow problem

Abstract: A one-dimensional free surface problem is considered. It consists in Burgers' equation with an additional diffusion term on a moving interval. The well-posedness of the problem is investigated and existence and uniqueness results are obtained locally in time. A semi-discretization in space with a piecewise linear finite element method is considered. A priori and a posteriori error estimates are given for the semi-discretization in space. A time splitting scheme allows to obtain numerical results in agreement w… Show more

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Cited by 6 publications
(7 citation statements)
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“…The free surface of this compressed droplet is a surface of mean curvature R; this is not a circular arc of constant radius as R 1 varies with height. To obtain R i,1 and R i,2 of the droplet, we fit the surface using the the method of Caboussat and Glowinski 44 (an algorithm to generate the surface of a droplet compressed between two boundaries). In Fig.…”
Section: A1 Measurable Variablesmentioning
confidence: 99%
“…The free surface of this compressed droplet is a surface of mean curvature R; this is not a circular arc of constant radius as R 1 varies with height. To obtain R i,1 and R i,2 of the droplet, we fit the surface using the the method of Caboussat and Glowinski 44 (an algorithm to generate the surface of a droplet compressed between two boundaries). In Fig.…”
Section: A1 Measurable Variablesmentioning
confidence: 99%
“…The existence of a semi-discrete approximation (u h , s h ) is ensured, see [22], and there exists 0 <T ≤ T (T independent of h > 0) and a constant C independent of h such that ||u h || H 1 (0,T ,V h ) ≤ C f L 2 (QT ) + |u 0 | V . A priori error estimates are obtained in the following theorem, whose proof is based on [72]: Theorem A.3 (A priori error estimate).…”
Section: Analysis Of a One-dimensional Problemmentioning
confidence: 99%
“…All the proofs that have been disregarded here can be found in [22] for details concerning the one-dimensional problem and in [19] for details about the two-dimensional problem. Observe that the solvability of the corresponding problems with given moving boundary has also been obtained.…”
Section: Extension To the Two-dimensional Problemmentioning
confidence: 99%
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