2004
DOI: 10.1007/s10711-004-8122-9
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Higher Dimensional Thompson Groups

Abstract: We construct a "higher dimensional" version 2V of Thompson's group V. Like V it is an infinite, finitely presented, simple subgroup of the homeomorphism group of the Cantor set, but we show that it is not isomorphic to V by showing that the actions on the Cantor set are not topologically conjugate: 2V has an element with "chaotic" action, while V cannot have such an element. A theorem of Rubin is then applied which shows that for these two groups, isomorphism would imply topological conjugacy.Comment: 27 pages… Show more

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Cited by 84 publications
(160 citation statements)
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References 17 publications
(37 reference statements)
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“…We determine the abelianization of V ′ d (H), show that it is always finite, and prove that the commutator subgroup [V ′ d (H), V ′ d (H)] is simple. Our arguments draw on work of Nekrashevych [11] and Brin [3].…”
Section: Theorem 11 (Main Theoremmentioning
confidence: 99%
See 1 more Smart Citation
“…We determine the abelianization of V ′ d (H), show that it is always finite, and prove that the commutator subgroup [V ′ d (H), V ′ d (H)] is simple. Our arguments draw on work of Nekrashevych [11] and Brin [3].…”
Section: Theorem 11 (Main Theoremmentioning
confidence: 99%
“…Brin [3] used the first part of the following corollary to show that 2V and V are not isomorphic. Bleak and Lanoue [2] used the second part to show nV is not isomorphic to mV if n = m. (1) For every f ∈ F and for every x ∈ X, h induces a bijection from the orbit {f n x | n ∈ Z} to the orbit {(φ(f )) n (h(x)) | n ∈ Z}.…”
Section: Theorem 72 (Rubin)mentioning
confidence: 99%
“…When n is odd, one must pass to the commutator subgroup of index 2, reflecting the observation that the corresponding split relations in G n,r do not change the parity of any decomposition as a product of transpositions.) Other families include the Brin-Thompson groups nV for which V = 1V , see [6], and the groups nV m,r that generalise the previous two families, see [20], and where we have similar simplicity considerations, see [7]. The finite presentability of these groups comes from the much stronger fact that they are all in fact F ∞ groups.…”
Section: Introductionmentioning
confidence: 95%
“…Since then, it has been the focus of a large amount of subsequent research (see, for example, [4,5,6,13,15,18,24] for a small part of that research). Thompson's group V arises in various other settings, for example, Birget [2,3] investigates connections to circuits and complexity while Lawson [19] considers links to inverse monoids and etale groupoids.…”
Section: Introductionmentioning
confidence: 99%
“…It is then shown that the geometric realisation of this poset yields the required finiteness properties. In [6] M. Brin defined a group sV generalising V for every natural number s ≥ 2. Analogously to V , these groups are defined as subgroups of the homeomorphism group of a finite Cartesian product of the Cantor-set.…”
Section: Introductionmentioning
confidence: 99%