Synthetic Networks That Preserve Edge Connectivity
Lahari Anne, The-Anh Vu-Le, Minhyuk Park, Tandy Warnow and, George Chacko

TL;DR
This paper introduces RECCS, a method to modify stochastic block models for generating synthetic networks that better preserve edge connectivity within clusters, improving realism for community detection evaluation.
Contribution
RECCS enhances SBM-based synthetic networks by improving cluster edge connectivity while maintaining overall network statistical similarity to real-world data.
Findings
RECCS produces networks with better cluster edge connectivity.
RECCS maintains similar overall network statistics as unmodified SBMs.
Effective on large-scale real-world networks up to 13.9 million nodes.
Abstract
Since true communities within real-world networks are rarely known, synthetic networks with planted ground truths are valuable for evaluating the performance of community detection methods. Of the synthetic network generation tools available, Stochastic Block Models (SBMs) produce networks with ground truth clusters that well approximate input parameters from real-world networks and clusterings. However, we show that SBMs can produce disconnected ground truth clusters, even when given parameters from clusterings where all clusters are connected. Here we describe the REalistic Cluster Connectivity Simulator (RECCS), a technique that modifies an SBM synthetic network to improve the fit to a given clustered real-world network with respect to edge connectivity within clusters, while maintaining the good fit with respect to other network and cluster statistics. Using real-world networks up…
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Taxonomy
TopicsMolecular Communication and Nanonetworks · Advanced Memory and Neural Computing · Quantum-Dot Cellular Automata
