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Main Authors: Braunsteins, Peter, Mandjes, Michel, Montalescot, Florian
Format: Preprint
Published: 2026
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Online Access:https://arxiv.org/abs/2603.04671
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author Braunsteins, Peter
Mandjes, Michel
Montalescot, Florian
author_facet Braunsteins, Peter
Mandjes, Michel
Montalescot, Florian
contents In this paper we consider a population process evolving on a dynamic random graph. The dynamic random graph is an Erdős--Rényi graph that is resampled every time unit, independently of the previous ones, with `edge existence probability' $p$. The population process consists of $M$ individuals which reside at the vertices of the dynamic graph. At each point in time any of the $M$ individuals, supposing it resides at a vertex with $k$ neighbors, jumps to an adjacent vertex with probability $k/(k+1)$ (where this adjacent vertex is picked uniformly at random), and with probability $1/(k+1)$ it stays where it is. We suppose we observe the numbers of individuals at each of the vertices, but not the evolving random graph itself. We propose two estimators for $p$, and establish their consistency and asymptotic normality.
format Preprint
id arxiv_https___arxiv_org_abs_2603_04671
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Estimating Graph Dynamics from Population Observations
Braunsteins, Peter
Mandjes, Michel
Montalescot, Florian
Probability
Statistics Theory
In this paper we consider a population process evolving on a dynamic random graph. The dynamic random graph is an Erdős--Rényi graph that is resampled every time unit, independently of the previous ones, with `edge existence probability' $p$. The population process consists of $M$ individuals which reside at the vertices of the dynamic graph. At each point in time any of the $M$ individuals, supposing it resides at a vertex with $k$ neighbors, jumps to an adjacent vertex with probability $k/(k+1)$ (where this adjacent vertex is picked uniformly at random), and with probability $1/(k+1)$ it stays where it is. We suppose we observe the numbers of individuals at each of the vertices, but not the evolving random graph itself. We propose two estimators for $p$, and establish their consistency and asymptotic normality.
title Estimating Graph Dynamics from Population Observations
topic Probability
Statistics Theory
url https://arxiv.org/abs/2603.04671