2017
DOI: 10.5186/aasfm.2017.4260
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The analyst's traveling salesman theorem in graph inverse limits

Abstract: Abstract. We prove a version of Peter Jones' analyst's traveling salesman theorem in a class of highly non-Euclidean metric spaces introduced by Laakso and generalized by Cheeger-Kleiner. These spaces are constructed as inverse limits of metric graphs, and include examples which are doubling and have a Poincaré inequality. We show that a set in one of these spaces is contained in a rectifiable curve if and only if it is quantitatively "flat" at most locations and scales, where flatness is measured with respect… Show more

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Cited by 14 publications
(6 citation statements)
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References 25 publications
(93 reference statements)
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“…As for addressing the analyst's traveling salesman problem in non-Euclidean spaces, the majority of the effort has been in the setting of Carnot groups [2], and in particular the Heisenberg group [4,8,10,11] (although there has also been work done in certain fractal spaces [3]).…”
Section: Theorem 11 ([7])mentioning
confidence: 99%
“…As for addressing the analyst's traveling salesman problem in non-Euclidean spaces, the majority of the effort has been in the setting of Carnot groups [2], and in particular the Heisenberg group [4,8,10,11] (although there has also been work done in certain fractal spaces [3]).…”
Section: Theorem 11 ([7])mentioning
confidence: 99%
“…For more information, we refer the reader to the books [9,25,31] There have been numerous generalizations and variants of Theorem 1.1 beyond Euclidean spaces. Schul [27] extended Theorem 1.1 to Hilbert spaces, David and Schul [11] recently considered the theorem in the graph inverse limits of Cheeger-Kleiner, and Hahlomaa and Schul (independently) [15,16,26] obtained variants of Theorem 1.1 in general metric spaces. In the last case, however, there is no natural notion of lines over which one may infimize in the definition of β, so curvature-type quantities other than β-numbers must be considered.…”
Section: Introductionmentioning
confidence: 99%
“…Schul managed to give an analogue of Okikiolu's and Jones's results in Hilbert Space by defining an infinite series of beta numbers reliant on "multiresolution families" rather than dyadic cubes; whereas the dyadic cubes are defined using the geometry of the ambient space R n , multiresolution families are collections of balls intrinsic to a given set [Sch07]. Further traveling salesman results have been proven for Radon measures [BS17] and in many different spaces such as Carnot groups [Li19], graph inverse limit spaces [DS16], Banach spaces [BM20], and general metric spaces [Hah05], [DS20].…”
Section: Introduction 1overviewmentioning
confidence: 97%