GLumin: Fast Connectivity Check Based on LUTs For Efficient Graph Pattern Mining

Graph Pattern Mining (GPM) has made significant progress in recent years, supporting a range of big data applications. However, GPM applications are memory-intensive as they require a tremendous amount of edge checking, which involves enumerating all possible vertex pairs and checking their connectivity or counting the common neighbors of each pair. Adjacent list or CSR format is widely used in recent GPM systems to overcome the sparsity of real-world graph, at the cost of sacrificing the ability to query the connectivity of two vertices in O(1) compared with the raw adjacent matrix. In this paper, we rethink the format to store graph in GPM systems, by partial "restoring" graph from CSR to adjacent matrix, we can significantly accelerate checking connectivity or counting common neighbors for GPM algorithms. However, directly storing graph in adjacent matrix is cost-prohibitive, thus we propose GLumin, by selectively constructing a lookup table (LUT) at the runtime, which holds the connectivity that can be repeatedly retrieved at low cost. The LUTs are compressed and tailored to fit the hierarchical memory architecture like shared memory of GPU or cache of CPU. We adopt GLumin technique to several SOTA GPM systems like AutoMine, G2Miner and GraphFold, bringing two orders of magnitude speedup to them on more than 100 different graphs and 24 patterns, demonstrating the general applicability and significance of our methods.

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Publication Details

Published
2025-02-28
DOI
https://doi.org/10.1145/3710848.3710889
Citations
4
Primary Topic
Graph Theory and Algorithms
Type
article
Field-Weighted Citation Impact
5.10
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article

GLumin: Fast Connectivity Check Based on LUTs For Efficient Graph Pattern Mining

Guangming Tan, Zhiheng Lin, Ke Meng, Weichen Cao
4 citations
Graph Theory and Algorithms
5.10
article

GLumin: Fast Connectivity Check Based on LUTs For Efficient Graph Pattern Mining

Guangming Tan, Zhiheng Lin, Ke Meng, Weichen Cao
article en
4 citations

Abstract

Graph Pattern Mining (GPM) has made significant progress in recent years, supporting a range of big data applications. However, GPM applications are memory-intensive as they require a tremendous amount of edge checking, which involves enumerating all possible vertex pairs and checking their connectivity or counting the common neighbors of each pair. Adjacent list or CSR format is widely used in recent GPM systems to overcome the sparsity of real-world graph, at the cost of sacrificing the ability to query the connectivity of two vertices in O(1) compared with the raw adjacent matrix. In this paper, we rethink the format to store graph in GPM systems, by partial "restoring" graph from CSR to adjacent matrix, we can significantly accelerate checking connectivity or counting common neighbors for GPM algorithms. However, directly storing graph in adjacent matrix is cost-prohibitive, thus we propose GLumin, by selectively constructing a lookup table (LUT) at the runtime, which holds the connectivity that can be repeatedly retrieved at low cost. The LUTs are compressed and tailored to fit the hierarchical memory architecture like shared memory of GPU or cache of CPU. We adopt GLumin technique to several SOTA GPM systems like AutoMine, G2Miner and GraphFold, bringing two orders of magnitude speedup to them on more than 100 different graphs and 24 patterns, demonstrating the general applicability and significance of our methods.

Institute of Computing Technology (CN), University of Chinese Academy of Sciences (CN)
Openalex Percentile: Top 5%
Graph Theory and Algorithms
5.10
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