ArSyD learns image representations where each generative factor is a separate hypervector, enabling property editing by vector exchange and dimension-agnostic disentanglement evaluation.
Hyperseed: Unsupervised Learning with Vector Symbolic Architectures
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abstract
Motivated by recent innovations in biologically-inspired neuromorphic hardware, this article presents a novel unsupervised machine learning algorithm named Hyperseed that draws on the principles of Vector Symbolic Architectures (VSA) for fast learning of a topology preserving feature map of unlabelled data. It relies on two major operations of VSA, binding and bundling. The algorithmic part of Hyperseed is expressed within Fourier Holographic Reduced Representations model, which is specifically suited for implementation on spiking neuromorphic hardware. The two primary contributions of the Hyperseed algorithm are, few-shot learning and a learning rule based on single vector operation. These properties are empirically evaluated on synthetic datasets as well as on illustrative benchmark use-cases, IRIS classification, and a language identification task using n-gram statistics. The results of these experiments confirm the capabilities of Hyperseed and its applications in neuromorphic hardware.
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Symbolic Disentangled Representations for Images
ArSyD learns image representations where each generative factor is a separate hypervector, enabling property editing by vector exchange and dimension-agnostic disentanglement evaluation.