activity
20142016
most citedAsymptotic degree distribution of a duplication-deletion random graph model

13 citations · 29 across the 6 of their papers we have counts for

collaborators

7 papers

math.CO2016

Tournament limits: Degree distributions, score functions and self-converseness

Erik Thörnblad

Motivated by known results for finite tournaments, we define and study the score functions of tournament kernels and the degree distributions of tournament limits. Our main theorem…

math.PR2016

The greedy walk on an inhomogeneous Poisson process

Katja Gabrysch, Erik Thörnblad

The greedy walk is a deterministic walk that always moves from its current position to the nearest not yet visited point. In this paper we consider the greedy walk on an inhomogene…

math.CO2016★ 2 cited

Eplett's theorem for self-converse generalised tournaments

Erik Thörnblad

The converse of a tournament is obtained by reversing all arcs. If a tournament is isomorphic to its converse, it is called self--converse. Eplett provided a necessary and sufficie…

math.CO2016★ 1 cited

Another proof of Moon's theorem on generalised tournament score sequences

Erik Thörnblad

Landau \cite{Landau1953} showed that a sequence of integers is the score sequence of some tournament if and only if for all $…

math.CO2016★ 11 cited

Decomposition of tournament limits

Erik Thörnblad

The theory of tournament limits and tournament kernels (often called graphons) is developed by extending common notions for finite tournaments to this setting; in particular we stu…

math.PR2015★ 2 cited

The dominating colour of an infinite Pólya urn model

Erik Thörnblad

We study a Pólya-type urn model defined as follows. Start at time 0 with a single ball of some colour. Then, at each time n>0, choose a ball from the urn uniformly at random. With…

math.PR2014★ 13 cited

Asymptotic degree distribution of a duplication-deletion random graph model

Erik Thörnblad

We study a discrete-time duplication-deletion random graph model and analyse its asymptotic degree distribution. The random graphs consists of disjoint cliques. In each time step e…