On a conditionally Poissonian graph process
By Ilkka Norros, Hannu Reittu. Advances in Applied Probability, 2006
240 citations recorded by the source corpus.
Subfields: Computational Theory and Mathematics, Mathematical Physics, Statistical and Nonlinear Physics
View Paper: https://www.semanticscholar.org/paper/1f6b4e4d0613209221aeeb3a56077925ba239627
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Computational Theory and Mathematics
- Remco van der Hofstad
- Shankar Bhamidi
- Gerard Hooghiemstra
- Johan van Leeuwaarden
- Tomasz Łuczak
- Svante Janson
- Ilkka Norros
- D. Znamenski
In Mathematical Physics
- Remco van der Hofstad
- Gerard Hooghiemstra
- Shankar Bhamidi
- D. Znamenski
- Johan van Leeuwaarden
- Svante Janson
- Tomasz Łuczak
- Ilkka Norros
In Statistical and Nonlinear Physics
- Remco van der Hofstad
- Gerard Hooghiemstra
- Shankar Bhamidi
- D. Znamenski
- Johan van Leeuwaarden
- Svante Janson
- Tomasz Łuczak
- Ilkka Norros
Citations in the corpus
- Large Cliques in a Power-Law Random Graph (2009, methodology): “The model and the results The model we study is a modification of the conditionally Poissonian random graph studied in [14] (the significance of this modification will be studied in Subsection 6.”
- Novel scaling limits for critical inhomogeneous random graphs (2009, methodology): “The model in [31] is a random multigraph, that is, a random graph potentially having self-loops and multiple edges.”
- Distances in Random Graphs with Finite Mean and Infinite Variance Degrees (2005, result): “In the latter case, the graph distance scales like log N log log N . A related model to the one studied here can also be found in [ 31 ], where a graph process is defined by adding and removing edges.”
- Random Graphs and Complex Networks (2016, methodology): “A further adaptation is the so-called Poissonian random graph or Norros-Reittu model (introduced by Norros and Reittu (2006)), for which pij = p (NR) ij = 1− exp (−wiwj/`n) .”
- Scale-free percolation (2011, unknown): “One example is the Poissonian random graph [29], where each vertex i in a set of n vertices is assigned a random weight Wi and two vertices i and j are then connected by an edge if a Poisson variable with mean WiWj/ ∑n k=1Wk takes on a positive value.”
- First passage percolation on random graphs with finite mean degrees (2009, unknown): “Similar results have appeared for related models in [11, 16, 28].”