A Nonmonotone Gradient-Based Algorithm for Symmetric Nonnegative Matrix Factorization and Graph Clustering

arXiv:2606.02887v1 Announce Type: new Abstract: Symmetric nonnegative matrix factorization (Symmetric NMF) approximates a matrix as $WW^T$ with nonnegative rectangular factor $W$. It has broad applications in graph clustering and machine learning. In contrast to the NMF, projected gradient methods for the symmetric problem had been associated with slow convergence. To address this, we introduce SNMPBB, the first adaptation of nonmonotone projected Barzilai-Borwein methods to Symmetric NMF, demonstrating that gradient algorithms are significantly more effective than previously understood. We fu
The paper introduces a significant algorithmic improvement for Symmetric NMF, a technique foundational to graph clustering and machine learning, at a time of increasing demand for efficient AI and data processing methods.
Improved algorithms for Symmetric NMF can make large-scale data analysis and machine learning applications more efficient, reducing computational costs and potentially enabling new functionalities for complex datasets.
The understanding of gradient-based algorithms for Symmetric NMF has shifted, demonstrating they can be far more effective than previously thought, potentially accelerating progress in related machine learning fields.
- · Machine learning researchers and practitioners
- · Companies using graph clustering for data analysis
- · AI developers focused on efficiency
- · Developers of less efficient Symmetric NMF algorithms
More efficient processing of graph data and unstructured information.
Potential for faster training times or larger models in specific machine learning applications like recommendation systems or biological sequence clustering.
Reduced compute requirements for certain AI tasks, contributing to broader computational sustainability.
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