Location Promoting Influence Maximization in Social Networks

With the widespread use of GPS-enabled smart devices, online social networks are increasingly integrated with offline local services. People are also more inclined to share their real-time offline location and time information with friends on online platforms. Influence maximization, which involves selecting a set of seed nodes to maximize influence within an online social network, has gained significant attention, especially on location-based social networks. However, most recent studies have focused on users’ discrete check-in data and used bipartite graphs to model the one-way relationship between online users and offline locations, without considering the interactions between different offline location. To address this gap, we introduce the location promoting influence maximization (LPIM), which aims to maximize the number of online users visiting promotional offline location. We also propose the TrajectoryCompetition algorithm, which takes into account users’ movement trajectories to capture their mobility patterns and characteristics, along with the competitive relationships between similar offline locations. Furthermore, the algorithm explores potential connections between online users to better estimate their influence. Extensive experiments conducted on datasets from six real-world cities validate the efficiency and effectiveness of the TrajectoryCompetition algorithm.

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Publication Details

Journal
IEEE Transactions on Computational Social Systems
Published
2025-06-17
DOI
https://doi.org/10.1109/tcss.2025.3571758
Primary Topic
Complex Network Analysis Techniques
Type
article
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article

Location Promoting Influence Maximization in Social Networks

Ziwei Liang, Hongwei Du, Zhilong Liu, Wen Xu
IEEE Transactions on Computational Social Systems
Complex Network Analysis Techniques
article

Location Promoting Influence Maximization in Social Networks

Ziwei Liang, Hongwei Du, Zhilong Liu, Wen Xu
article en

Abstract

With the widespread use of GPS-enabled smart devices, online social networks are increasingly integrated with offline local services. People are also more inclined to share their real-time offline location and time information with friends on online platforms. Influence maximization, which involves selecting a set of seed nodes to maximize influence within an online social network, has gained significant attention, especially on location-based social networks. However, most recent studies have focused on users’ discrete check-in data and used bipartite graphs to model the one-way relationship between online users and offline locations, without considering the interactions between different offline location. To address this gap, we introduce the location promoting influence maximization (LPIM), which aims to maximize the number of online users visiting promotional offline location. We also propose the TrajectoryCompetition algorithm, which takes into account users’ movement trajectories to capture their mobility patterns and characteristics, along with the competitive relationships between similar offline locations. Furthermore, the algorithm explores potential connections between online users to better estimate their influence. Extensive experiments conducted on datasets from six real-world cities validate the efficiency and effectiveness of the TrajectoryCompetition algorithm.

IEEE Transactions on Computational Social SystemsVol. 12(6)
Texas Woman's University (US), Harbin Institute of Technology (CN)
Reduced inequalities
Openalex Percentile: Top 89%
Complex Network Analysis Techniques
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