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arxiv 2502.09871 v1 pith:OXUAUYVK submitted 2025-02-14 math.FA math.AP

An atomic decomposition of one-dimensional metric currents without boundary

classification math.FA math.AP
keywords closedepsilonlengthwhoseatomicboundarycurrentscurves
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This paper proves an atomic decomposition of the space of $1$-dimensional metric currents without boundary, in which the atoms are specified by closed Lipschitz curves with uniform control on their Morrey norms. Our argument relies on a geometric construction which states that for any $\epsilon>0$ one can express a piecewise-geodesic closed curve as the sum of piecewise-geodesic closed curves whose total length is at most $(1+\epsilon)$ times the original length and whose Morrey norms are each bounded by a universal constant times $\epsilon^{-2}$. In Euclidean space, our results refine the state of the art, providing an approximation of divergence free measures by limits of sums of closed polygonal paths whose total length can be made arbitrarily close to the norm of the approximated measure.

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Reviewed papers in the Pith corpus that reference this work. Sorted by Pith novelty score.

  1. Potential Estimates and Hodge Systems with $L^1$ data on compact manifolds

    math.AP 2026-06 unverdicted novelty 7.0

    Optimal Lorentz estimates are established for Riesz potentials of L1 closed or co-closed forms on compact manifolds, implying bounds for the Hodge system with finite mass data.