Temporal Activity Path Based Character Correction in Social Networks
Jun Long, Lei Zhu, Zhan Yang, Chengyuan Zhang, Xinpan Yuan

TL;DR
This paper introduces a novel method for merging character vertices in social networks by analyzing temporal activity paths derived from multimedia data, improving character identification accuracy without relying heavily on supplementary attribute data.
Contribution
The paper proposes a new approach using temporal activity paths to accurately merge character vertices, addressing issues of character duplication in large-scale social networks.
Findings
High accuracy in confirming character uniqueness
Effective merging of vertices based on TAP similarity
Applicable to large-scale social network analysis
Abstract
Vast amount of multimedia data contains massive and multifarious social information which is used to construct large-scale social networks. In a complex social network, a character should be ideally denoted by one and only one vertex. However, it is pervasive that a character is denoted by two or more vertices with different names, thus it is usually considered as multiple, different characters. This problem causes incorrectness of results in network analysis and mining. The factual challenge is that character uniqueness is hard to correctly confirm due to lots of complicated factors, e.g. name changing and anonymization, leading to character duplication. Early, limited research has shown that previous methods depended overly upon supplementary attribute information from databases. In this paper, we propose a novel method to merge the character vertices which refer to as the same entity…
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Taxonomy
TopicsComplex Network Analysis Techniques · Advanced Graph Neural Networks · Human Mobility and Location-Based Analysis
