2017
DOI: 10.1017/s0963548317000050
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Simply Generated Non-Crossing Partitions

Abstract: We introduce and study the model of simply generated non-crossing partitions, which are, roughly speaking, chosen at random according to a sequence of weights. This framework encompasses the particular case of uniform non-crossing partitions with constraints on their block sizes. Our main tool is a bijection between non-crossing partitions and plane trees, which maps such simply generated non-crossing partitions into simply generated trees so that blocks of size k are in correspondence with vertices of outdegr… Show more

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Cited by 14 publications
(16 citation statements)
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References 39 publications
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“…, N} and consider the j-th white corner of T : it is a sector around a white vertex delimited by two consecutive edges, whose other extremity is therefore black; consider the previous black corner in contour order, in the construction of the JS bijection, an edge of T starts from this corner and we claim that the other extremity of this edge is u j the j-th vertex of T in lexicographical order. We refer to the proof of Proposition 2.1 and Figure 4 in [23]. It follows that if c • j ∈ •(T ) is the white vertex of T visited at the j-th step in the white contour sequence, then the image of u j by the JS bijection is…”
Section: The Janson-stefánsson Bijectionmentioning
confidence: 98%
See 1 more Smart Citation
“…, N} and consider the j-th white corner of T : it is a sector around a white vertex delimited by two consecutive edges, whose other extremity is therefore black; consider the previous black corner in contour order, in the construction of the JS bijection, an edge of T starts from this corner and we claim that the other extremity of this edge is u j the j-th vertex of T in lexicographical order. We refer to the proof of Proposition 2.1 and Figure 4 in [23]. It follows that if c • j ∈ •(T ) is the white vertex of T visited at the j-th step in the white contour sequence, then the image of u j by the JS bijection is…”
Section: The Janson-stefánsson Bijectionmentioning
confidence: 98%
“…, N}, we let H(j) denote the number of strict ancestors of u j whose last child is not an ancestor of u j , that is, Proof Let us first prove the equality of the label processes. We use the observation from [23] that the lexicographical order on the vertices of T corresponds to the contour order on the black corners of T which, by a shift, corresponds to the contour order on the white corners of T . Specifically, let N be the number of edges of both trees, fix j ∈ {0, .…”
Section: The Janson-stefánsson Bijectionmentioning
confidence: 99%
“…Recall that Motzkin paths are lattice paths in the plane starting from the origin up to (n, 0), using up steps (1, 1), down steps (1, −1), and horizontal steps (1, 0), and never going below the x-axis. Identifying k ∈ [n] with e −2ikπ/n , then non-crossing partitions can also be seen as compact subsets of the unit disk [43].…”
Section: Partitions and Bell Polynomialsmentioning
confidence: 99%
“…Let us now turn to the proof of (17). First, we observe that for 0 < ε < a −1 1 , we have that P (1) alt #T n − 1 a 1 > ε, #T (1) = n = P (1) alt #T > 1 a 1 + ε n, #T (1) = n + P (1) alt #T < 1 a 1 − ε n, #T (1) = n .…”
Section: Alternating Two-type Gw Treementioning
confidence: 92%
“…where H exc is the normalized excursion of the continuous-time height process process associated with a strictly stable spectrally positive Lévy process Y In recent years, this special family of two-type GW trees has been the subject of many studies due to their remarkable relationship with the study of several important objects and models of growing relevance in modern probability such that random planar maps [20], percolation on random maps [7], non-crossing partitions [17], to mention just a few. On the other hand, up to our knowledge the result of Theorem 3 has not been proved before under our assumptions on the offspring distribution.…”
Section: Alternating Two-type Gw Treementioning
confidence: 99%