2019
DOI: 10.4171/ggd/531
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On the subexponential growth of groups acting on rooted trees

Abstract: We show that every group in a large family of (not necessarily torsion) spinal groups acting on the ternary rooted tree is of subexponential growth.

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Cited by 5 publications
(5 citation statements)
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References 9 publications
(14 reference statements)
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“…We deduce that none of these groups has bounded generation. Combining this result with known results on intermediate growth among spinal groups (see [15, 18]), we get new examples of groups without rational cross‐sections. Corollary The following spinal groups do not admit any rational cross‐section.…”
Section: Monsters Without Rational Cross‐sectionssupporting
confidence: 55%
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“…We deduce that none of these groups has bounded generation. Combining this result with known results on intermediate growth among spinal groups (see [15, 18]), we get new examples of groups without rational cross‐sections. Corollary The following spinal groups do not admit any rational cross‐section.…”
Section: Monsters Without Rational Cross‐sectionssupporting
confidence: 55%
“…This includes the (nontorsion) Grigorchuk-Erschler group 𝐺 (01) ∞ . (b) Spinal groups 𝐺 𝜔 with 𝑝 = 3 satisfying hypothesis of [15,Theorem 4.6]. This includes the Fabrykowski-Gupta group.…”
Section: Groups Acting On Regular Rooted Treesmentioning
confidence: 99%
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“…First introduced technique for getting an upper bound for G uses the strong contraction property [12] (also known as sum contraction property), which says that there is a finite index subgroup H of G such that any element g ∈ H can be uniquely decomposed into some elements, whose sum of lengths in not larger than C|g| + D, where 0 < C < 1 and D are constants independent of g [12]. Later this technique was developed and many variants were introduced [2,7,9]. In 2004, to get a lower bound for a certain class of groups of intermediate growth, Anna Erschler introduced a method for partial description of the Poisson boundary [7].…”
Section: Introductionmentioning
confidence: 99%
“…All spinal groups with d = 2 are of intermediate growth. For d ≥ 3, this is known for some but not all of them ( [3,4,14]). All spinal groups are amenable [25].…”
Section: Introductionmentioning
confidence: 99%