Maximizing Influence Over Streaming Graphs with Query Sequence

Now, with the prevalence of social media, such as Facebook, Weibo, how to maximize influence of individuals, products, actions in new media is of practical significance. Generally, maximizing influence first needs to identify the most influential individuals since they can spread their influence to...

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Veröffentlicht in:Data science and engineering 2021-09, Vol.6 (3), p.339-357
Hauptverfasser: Zhao, Yuying, Hu, Yunfei, Yuan, Pingpeng, Jin, Hai
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Yuan, Pingpeng
Jin, Hai
description Now, with the prevalence of social media, such as Facebook, Weibo, how to maximize influence of individuals, products, actions in new media is of practical significance. Generally, maximizing influence first needs to identify the most influential individuals since they can spread their influence to most of others in the social media. Many studies on influence maximization aimed to select a subset of nodes in static graphs once. Actually, real graphs are evolving. So, influential individuals are also changing. In these scenarios, people tend to select influential individuals multiple times instead of once. Namely, selections are raised sequentially, forming a sequence (query sequence). It raises several new challenges due to changing influential individuals. In this paper, we explore the problem of Influence Maximization over Streaming Graph (SGIM). Then, we design a compact solution for storing and indexing streaming graphs and influential nodes that eliminates the redundant computation. The solution includes Influence-Increment-Index along with two sketch-centralized indices called Influence-Index and Reverse-Influence-Index. Computing influence set of nodes will incur a large number of redundant computations. So, these indices are designed to keep track of the nodes’ influence in sketches. Finally, with the indexing scheme, we present the algorithm to answer SGIM queries. Extensive experiments on several real-world datasets demonstrate that our method is competitive in terms of both efficiency and effectiveness owing to the design of index.
doi_str_mv 10.1007/s41019-021-00158-0
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subjects Algorithm Analysis and Problem Complexity
Algorithms
Artificial Intelligence
Chemistry and Earth Sciences
Computer Science
Data Mining and Knowledge Discovery
Database Management
Digital media
Graphs
Indexing
Maximization
Nodes
Optimization
Physics
Sketches
Social networks
Statistics for Engineering
Systems and Data Security
title Maximizing Influence Over Streaming Graphs with Query Sequence
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