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This research presents a significant acceleration for dynamic graph clustering by leveraging GPU architectures within the NVIDIA RAPIDS ecosystem, achieving up to three orders of magnitude speedup over CPU implementations. The framework extends spectral clustering and modularity-based algorithms to handle temporal networks efficiently while maintaining compatibility with existing analytics pipelines like NetworkX-Temporal. Such advancements are critical for scaling community detection tasks in high-stakes domains including cybersecurity, financial systems, and epidemic modeling where real-time processing is essential.
Accelerating Dynamic Graph Clustering on GPU Architectures with cuGraph
arXiv:2608.03695v1 Announce Type: cross Abstract: This work addresses community detection in temporal networks through GPU-accelerated extensions of spectral clustering and modularity-based algorithms originally designed for static graphs. Built on the NVIDIA RAPIDS ecosystem, the framework enables the characterization and tracking of communities in snapshot-based dynamic graphs, either by Leiden greedy optimization with multi-GPU support via Dask-based workload distribution, or eigendecomposition of a symmetric Bethe-Hessian operator. Our multislice modularity backend achieves up to roughly three orders of magnitude speedup over the CPU reference under an equal-work budget, depending on graph density and snapshot count, while preserving compatibility with existing graph analytics pipelines. We demonstrate its applicability on real-world and synthetic datasets, facilitating exploratory analysis of structural network properties over time. Such capabilities are relevant across several application domains, such as epidemic spreading, financial systems, cybersecurity, and trajectory and mobility analysis. We release our implementation as free and open-source software, including Python bindings through the NetworkX-Temporal library for ease of use and zero-code acceleration with existing codebases.
Abstract:This work addresses community detection in temporal networks through GPU-accelerated extensions of spectral clustering and modularity-based algorithms originally designed for static graphs. Built on the NVIDIA RAPIDS ecosystem, the framework enables the characterization and tracking of communities in snapshot-based dynamic graphs, either by Leiden greedy optimization with multi-GPU support via Dask-based workload distribution, or eigendecomposition of a symmetric Bethe-Hessian operator. Our multislice modularity backend achieves up to roughly three orders of magnitude speedup over the CPU reference under an equal-work budget, depending on graph density and snapshot count, while preserving compatibility with existing graph analytics pipelines. We demonstrate its applicability on real-world and synthetic datasets, facilitating exploratory analysis of structural network properties over time. Such capabilities are relevant across several application domains, such as epidemic spreading, financial systems, cybersecurity, and trajectory and mobility analysis. We release our implementation as free and open-source software, including Python bindings through the NetworkX-Temporal library for ease of use and zero-code acceleration with existing codebases.
12 pages, 2 figures. Accepted at FRAME 2026, Euro-Par 2026 Workshops; to appear in Springer LNCS
Distributed, Parallel, and Cluster Computing (cs.DC); Machine Learning (cs.LG)
arXiv:2608.03695 [cs.DC]
(or arXiv:2608.03695v1 [cs.DC] for this version)
https://doi.org/10.48550/arXiv.2608.03695 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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