Integral Menger curvature for surfaces
By Pawel Strzelecki, H. von der Mosel. 2009
55 citations recorded by the source corpus.
Abstract We develop the concept of integral Menger curvature for a large class of nonsmooth surfaces. We prove uniform Ahlfors regularity and a C 1 , λ -a priori bound for surfaces for which this functional is finite. In fact, it turns out that there is an explicit length scale R > 0 which depends only on an upper bound E for the integral Menger curvature M p ( Σ ) and the integrability exponent p, and not on the surface Σ itself; below that scale, each surface with energy smaller than E looks like a nearly flat disc with the amount of bending controlled by the (local) M p -energy. Moreover, integral Menger curvature can be defined a priori for surfaces with self-intersections or branch points; we prove that a posteriori all such singularities are excluded for surfaces with finite integral Menger curvature. By means of slicing and iterative arguments we bootstrap the Holder exponent λ up to the optimal one, λ = 1 − ( 8 / p ) , thus establishing a new geometric ‘Morrey–Sobolev’ imbedding theorem. As two of the various possible variational applications we prove the existence of surfaces in given isotopy classes minimizing integral Menger curvature with a uniform bound on area, and of area minimizing surfaces subjected to a uniform bound on integral Menger curvature.
Subfields: Applied Mathematics, Geometry and Topology
View Paper: https://www.semanticscholar.org/paper/a10e70954082ba6e7f03353cedb2395857e13400
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In Applied Mathematics
In Geometry and Topology
Citations in the corpus
- Tangent-point self-avoidance energies for curves (2010, background): “The reader is invited to fill in the computational details or to consult [25, 27].”
- Regularizing and self-avoidance effects of integral Menger curvature (2010, unknown): “In an ongoing research project we are investigating geometric curvature energies Mp(·) for hypersurfaces; see the upcoming paper [36].”