The depth first processes of Galton--Watson trees converge to the same Brownian excursion
By Jean-François Marckert, Abdelkader Mokkadem. 2003
112 citations recorded by the source corpus.
Subfields: Artificial Intelligence, Mathematical Physics, Statistics and Probability
View Paper: https://www.semanticscholar.org/paper/acc13052262ec8ffb43795a2201d8ca912e85afe
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Artificial Intelligence
- Igor Kortchemski
- Jean-François Le Gall
- Louigi Addario-Berry
- Jim Pitman
- Nicolas Broutin
- Christina Goldschmidt
- Grégory Miermont
- C. Abraham
In Mathematical Physics
- Jean-François Le Gall
- Grégory Miermont
- Igor Kortchemski
- C. Abraham
- Jim Pitman
- Louigi Addario-Berry
- Nicolas Broutin
- Christina Goldschmidt
In Statistics and Probability
- Igor Kortchemski
- C. Abraham
- Jean-François Le Gall
- Christina Goldschmidt
- Thomas Duquesne
- Jim Pitman
- Louigi Addario-Berry
- Nicolas Broutin
Citations in the corpus
- Random real trees (2006, methodology): “A simple approach to the convergence of the rescaled contour functions towards the normalized Brownian excursion was provided in [51].”
- Recent progress in coalescent theory (2009, unknown): “Further details can be found in Aldous [3], but see also Marckert and Mokkadem [117] and Le Gall and Le Jan [114].”
- Some families of increasing planar maps (2007, unknown): “In a ternary tree, the process giving the successive height of the nodes of degree 3 coincides with H ◦. Using [ 38 ], one check easily that”
- The continuum limit of critical random graphs (2009, methodology): “An essential tool in what follows will be the following estimate on the distance between the depth-first walk and the height process (Theorem 3 of [39]).”
- Random Trees, Lévy Processes and Spatial Branching Processes (2005, background): “This is of course reminiscent of a result of Aldous [3] who proved that in the case of a critical offspring distribution μ with finite variance, the contour process of a μ-Galton-Watson tree conditioned to have exactly p vertices converges after a suitable rescaling towards a normalized Brownian exc”
- A Simple Proof of Duquesne’s Theorem on Contour Processes of Conditioned Galton–Watson Trees (2011, background): “In [21], under an additional exponential moment condition, Marckert & Mokkadem showed that the rescaled Lukasiewicz path, height function and contour function all converge in distribution to the same Brownian excursion.”
- Rescaled bipartite planar maps converge to the Brownian map (2013, methodology): “In the case of Galton-Watson trees with a fixed size, the fact that the height process and the contour function converge jointly to the same Brownian excursion is due to Marckert and Mokkadem in [13].”
- Itô’s excursion theory and random trees (2010, result): “Our proof is close in spirit to the one provided by Marckert and Mokkadem [21] under the assumption that the offspring distribution has exponential moments (see also Section 1.5 in [19]).”
- Random trees and applications (2005, background): “The derivation is quite simple if the conditioning is “non-degenerate”: For instance if the tree is conditioned to have height greater than n (resp. total progeny greater than n), the scaling limit of the height function will be a Brownian excursion conditioned to have height greater than 1 (resp.…”
- Combinatorial Stochastic Processes (2006, background): “Marckert and Mokkadem [293] derive Theorem 6.”