Graph explorer

Popularity-Driven Networking

We investigate the growth of connectivity in a network. In our model, starting with a set of disjoint nodes, links are added sequentially. Each link connects two nodes, and the connection rate governing this random process is proportional to the degrees of the two nodes. Interestingly, this network exhibits two abrupt transitions, both occurring at finite times. The first is a percolation transition in which a giant component, containing a finite fraction of all nodes, is born. The second is a condensation transition in which the entire system condenses into a single, fully connected, component. We derive the size distribution of connected components as well as the degree distribution, which is purely exponential throughout the evolution. Furthermore, we present a criterion for the emergence of sudden condensation for general homogeneous connection rates.

7 nodes9 linksoverview previewPopularity-Driven Networking
7 nodes9 links
Popularity-Driven Networking7 visible / 7 total nodes / 10 links
Related contextCo-authorshipRelated contextAuthorshipAuthorshipTopic signalTopic signalTopic signalTopic signalRelated contextWPopularity-Driven Networkingpreprint / 2011AE. Ben-NaimResearcherAP. L. KrapivskyResearcherTcond-mat.stat-mech6570 worksTmath.PR7239 worksTSocial and Information ...3519 worksTphysics.soc-ph3139 works
PaperSignal 106 links

Popularity-Driven Networking

preprint / 2011

Open