2009
DOI: 10.1007/s00526-009-0282-x
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Weak convergence of currents and cancellation

Abstract: In this article, we study the relationship between the weak limit of a sequence of integral currents in a metric space and the possible Hausdorff limit of the sequence of supports. Due to cancellation, the weak limit is in general supported in a strict subset of the Hausdorff limit. We exhibit sufficient conditions in terms of topology of the supports which ensure that no cancellation occurs and that the support of the weak limit agrees with the Hausdorff limit of the supports. We use our results to prove coun… Show more

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Cited by 31 publications
(92 citation statements)
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References 23 publications
(63 reference statements)
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“…An example showing that X need not be countably 2-rectifiable is given in [42,Theorem A.1]. Corollary 1.5 also holds for compact metric spaces of any topological dimension n and finite Hausdorff n-measure with positive lower density almost everywhere.…”
Section: Introduction and Statement Of Main Resultsmentioning
confidence: 99%
“…An example showing that X need not be countably 2-rectifiable is given in [42,Theorem A.1]. Corollary 1.5 also holds for compact metric spaces of any topological dimension n and finite Hausdorff n-measure with positive lower density almost everywhere.…”
Section: Introduction and Statement Of Main Resultsmentioning
confidence: 99%
“…With no loss of generality we can assume that there exists an orientation ω of (X, x, H n ) associated with ω i . The first compatibility result between the intrinsic flat convergence and the mGHconvergence is given in [SW10] by Sormani-Wenger for compact manifolds with nonnegative Ricci curvature. After that Munn proved in [Mun14] similar compatibility for compact manifolds with bounded Ricci curvature.…”
Section: Compatibility With Convergence Of Metric Currentsmentioning
confidence: 99%
“…The continuity of the filling volume with respect to the intrinsic flat convergence follows from the following theorem. This fact was first observed by Sormani-Wenger [26] building upon work by Wenger on flat convergence of integral currents in metric spaces [28]. Then, (A.5) FillVol(∂M ′ (r)) = FillVol(∂M ′ (1))r n .…”
Section: Appendix a Filling Volume Of Spheres In Euclidean Spacementioning
confidence: 75%
“…Since the mass measure of an integral current space is lower semicontinuous with respect to intrinsic flat distance [27], here we study the notion of filling volume of a current. See [26]. In Theorem A.4 we see that the filling volume of a n dimensional sphere of radius r in Euclidean space rescales as r n times the filling volume of the n dimensional sphere in Euclidean space of radius 1. where ∂M = ∂N means that there is an orientation preserving isometry between ∂M and ∂N.…”
Section: Appendix a Filling Volume Of Spheres In Euclidean Spacementioning
confidence: 96%