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This paper introduces an online, biologically plausible learning algorithm designed to generate sparse, shift-invariant representations that address scalability issues in conventional matrix optimization methods. By relaxing constraints on sample size scaling, the approach offers practical solutions for large-scale tasks such as community detection, manifold tiling, and sparse coding. The method's versatility allows it to adapt to various data structures without relying on computationally intractable completely positive matrices.
Flexible Online Representation Learning Based on Similarity Matching
arXiv:2606.01546v2 Announce Type: replace Abstract: Sparse high-dimensional representations are conducive to uncovering nontrivial structures in unsupervised exploration of data. Such a representation can deal with the dense connectivity in graphs relevant to community detection problems. However, sparse high-dimensional representations are capable of doing more, including manifold tiling and feature learning. Conventional algorithms optimize in the space of computationally intractable completely positive matrices or relax the problem to the space of doubly nonnegative matrices that scale with sample size in a way rendering them impractical for large data sets. Some of these methods also impose a row sum constraint, such as double stochasticity. Row sum constraints have the added advantage of being shift-invariant, in the context of manifold tiling. Constraints on the row sum of output similarity matrices require nontrivial online learning rules. Addressing these needs, we propose a versatile online biologically plausible learning algorithm capable of learning sparse shift-invariant representations, useful for clustering, manifold tiling, or sparse coding, depending on the data structure.
Abstract:Sparse high-dimensional representations are conducive to uncovering nontrivial structures in unsupervised exploration of data. Such a representation can deal with the dense connectivity in graphs relevant to community detection problems. However, sparse high-dimensional representations are capable of doing more, including manifold tiling and feature learning. Conventional algorithms optimize in the space of computationally intractable completely positive matrices or relax the problem to the space of doubly nonnegative matrices that scale with sample size in a way rendering them impractical for large data sets. Some of these methods also impose a row sum constraint, such as double stochasticity. Row sum constraints have the added advantage of being shift-invariant, in the context of manifold tiling. Constraints on the row sum of output similarity matrices require nontrivial online learning rules. Addressing these needs, we propose a versatile online biologically plausible learning algorithm capable of learning sparse shift-invariant representations, useful for clustering, manifold tiling, or sparse coding, depending on the data structure.
6 pages, 3 figures. Originally accepted to IJCNN 2023 but not presented owing to visa issues
Machine Learning (cs.LG)
arXiv:2606.01546 [cs.LG]
(or arXiv:2606.01546v2 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2606.01546 Focus to learn more arXiv-issued DOI via DataCite
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