Predicting Positive and Negative Links with Noisy Queries: Theory & Practice
Charalampos E. Tsourakakis, Michael Mitzenmacher, Kasper Green Larsen,, Jaros{\l}aw B{\l}asiok, Ben Lawson, Preetum Nakkiran, Vasileios Nakos

TL;DR
This paper develops theoretical algorithms for predicting positive and negative links in noisy signed social networks, improving query efficiency and suggesting new features based on edge-disjoint paths, with empirical validation.
Contribution
It introduces new algorithms with improved query bounds for sign prediction under noise and proposes using edge-disjoint paths as features, supported by empirical results.
Findings
Algorithms achieve near-optimal query complexity in noisy settings.
Edge-disjoint paths improve sign prediction accuracy in real-world networks.
Theoretical techniques suggest new features for online social network analysis.
Abstract
Social networks involve both positive and negative relationships, which can be captured in signed graphs. The {\em edge sign prediction problem} aims to predict whether an interaction between a pair of nodes will be positive or negative. We provide theoretical results for this problem that motivate natural improvements to recent heuristics. The edge sign prediction problem is related to correlation clustering; a positive relationship means being in the same cluster. We consider the following model for two clusters: we are allowed to query any pair of nodes whether they belong to the same cluster or not, but the answer to the query is corrupted with some probability . Let be the bias. We provide an algorithm that recovers all signs correctly with high probability in the presence of noise with …
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Taxonomy
TopicsComplex Network Analysis Techniques · Advanced Graph Neural Networks · Data Management and Algorithms
