Inhomogeneous continuum random trees and the entrance boundary of the additive coalescent
By David J. Aldous, Jim Pitman. 2000
80 citations recorded by the source corpus.
Subfields: Condensed Matter Physics, Finance, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/046dfbd623b869759eeee81c9691cecc1de474f5
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Condensed Matter Physics
- Grégory Miermont
- Jim Pitman
- Michael Camarri
- Jean-François Le Gall
- Matthias Winkel
- Bénédicte Haas
- Yee Whye Teh
- Michael I. Jordan
In Finance
- Grégory Miermont
- Jim Pitman
- Michael Camarri
- Jean-François Le Gall
- C. Abraham
- Lancelot F. James
- Bénédicte Haas
In Mathematical Physics
- Grégory Miermont
- Jim Pitman
- Jean-François Le Gall
- Michael Camarri
- Jérémie Bettinelli
- Matthias Winkel
- Bénédicte Haas
- C. Abraham
Citations in the corpus
- Combinatorial Stochastic Processes (2006, background): “The answer, given in [21], is yes, there are rather a lot of them, but the extreme ones can all be constructed by a natural generalization of the construction of the standard additive coalescent considered in the next section.”
- Limit Distributions and Random Trees Derived from the Birthday Problem with Unequal Probabilities (2000, methodology): “See Aldous-Pitman [4] for the study of various distributional properties of the limiting ICRT T , and Aldous-Pitman [5] for the application of this ICRT to the study of a coalescent process.”
- Self-similar fragmentations derived from the stable tree II: splitting at nodes (2004, methodology): “Here, rather than adding a drift, which by analogy between [4] and [7] amounts to cut the skeleton of a continuum random tree with a homogeneous Poisson process, we will perform a “removing the jumps” operation analog to our inhomogeneous cutting on the hubs of the tree.”
- Self-similar fragmentations derived from the stable tree I (2003, background): “The recent advances in the study of coalescence and fragmentation processes pointed at the key role played by tree structures in this topic, both at the discrete and continuous level [15, 3, 4 ]. Our goal here is to push further the investigation, begun in [3, 9], of a category of fragmentations ob”