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Journal Article AORM: Fast Incremental Arbitrary-Order Reachability Matrix Computation for Massive Graphs
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Authors
Sung-Soo Kim, Young-Kuk Kim, Young-Min Kang
Issue Date
2021-05
Citation
IEEE Access, v.9, pp.69539-69558
ISSN
2169-3536
Publisher
IEEE
Language
English
Type
Journal Article
DOI
https://dx.doi.org/10.1109/ACCESS.2021.3077888
Abstract
Processing a reachability query in large-scale networks using existing methods remains one of the most challenging problems in graph mining. In this paper, we propose a novel incremental algorithmic framework for arbitrary-order reachability computation in massive graphs. The proposed method is intuitive and significantly outperforms the currently known methods in terms of computation time. We focus on the arbitrary-order reachability matrix framework called AORM, which can handle directed and disconnected networks such as citation networks. The AORM can handle diverse types of real-world datasets.We conduct extensive experimental studies with twenty synthetic networks generated from five random graph generation models and twenty massive real-world networks. The experimental results show the advantages of the method in terms of both computational efficiency and approximation controllability. In particular, the proposed method outperforms up to 10 times compared to NetworkX for incremental all-pairs shortest paths computation. Moreover, the computational results of the method rapidly converge to the ground truths. Thus, we can get the correct solution in the early stage of the incremental approximation. We can employ the method as a versatile feature extraction framework for network embedding. Overall, the experimental results present a remarkable improvement in speed-up for reachability computation.
KSP Keywords
All-pairs shortest paths, Citation Network, Computational Efficiency, Feature extraction framework, Graph Mining, Massive graphs, Matrix Computation, Network embedding, Random graph generation, Reachability matrix, Reachability query
This work is distributed under the term of Creative Commons License (CCL)
(CC BY)
CC BY