Influence Prediction in Collaboration Networks: An Empirical Study on arXiv

Fuente: arXiv
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Hauptverfasser: Lin, Marina, Schaposnik, Laura P., Wu, Raina
Format: Preprint
Veröffentlicht: 2025
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author Lin, Marina
Schaposnik, Laura P.
Wu, Raina
author_facet Lin, Marina
Schaposnik, Laura P.
Wu, Raina
contents This paper provides an empirical study of the Social Sphere Model for influence prediction, previously introduced by the authors, combining link prediction with top-k centrality-based selection. We apply the model to the temporal arXiv General Relativity and Quantum Cosmology collaboration network, evaluating its performance under varying edge sampling rates and prediction horizons to reflect different levels of initial data completeness and network evolution. Accuracy is assessed using mean squared error in both link prediction and influence maximization tasks. The results show that the model effectively identifies latent influencers, i.e., nodes that are not initially central but later influential, and performs best with denser initial graphs. Among the similarity measures tested, the newly introduced RA-2 metric consistently yields the lowest prediction errors. These findings support the practical applicability of the model to predict real-world influence in evolving networks.
format Preprint
id arxiv_https___arxiv_org_abs_2508_13029
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Influence Prediction in Collaboration Networks: An Empirical Study on arXiv
Lin, Marina
Schaposnik, Laura P.
Wu, Raina
Social and Information Networks
Combinatorics
This paper provides an empirical study of the Social Sphere Model for influence prediction, previously introduced by the authors, combining link prediction with top-k centrality-based selection. We apply the model to the temporal arXiv General Relativity and Quantum Cosmology collaboration network, evaluating its performance under varying edge sampling rates and prediction horizons to reflect different levels of initial data completeness and network evolution. Accuracy is assessed using mean squared error in both link prediction and influence maximization tasks. The results show that the model effectively identifies latent influencers, i.e., nodes that are not initially central but later influential, and performs best with denser initial graphs. Among the similarity measures tested, the newly introduced RA-2 metric consistently yields the lowest prediction errors. These findings support the practical applicability of the model to predict real-world influence in evolving networks.
title Influence Prediction in Collaboration Networks: An Empirical Study on arXiv
topic Social and Information Networks
Combinatorics
url https://arxiv.org/abs/2508.13029