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This research proposes a novel Restricted Boltzmann Machine where visible units represent quantum states, bridging the gap between quantum data and classical optimization through trainable circuit templates. By addressing normalization challenges in high-dimensional Hilbert spaces, the study demonstrates effective recognition of quantum phases and multicomponent feature extraction via numerical simulations. The work advances hybrid architectures that leverage quantum overlaps as features for machine learning tasks without requiring full-scale quantum hardware.
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A Restricted Boltzmann Machine with Quantum-State Visible Units

arXiv2 min read

arXiv:2609.19619v1 Announce Type: new Abstract: We construct a restricted Boltzmann machine (RBM) whose visible input is a quantum state rather than a classical configuration. Each hidden unit carries a trainable quantum template prepared by a parametrized circuit and converts its overlap with the input into a feature. Treating quantum states as high-dimensional continuous visible objects creates nontrivial normalization and scaling problems. We regularize the continuous likelihood and derive two controlled high-dimensional limits, yielding a Hopfield-type network with continuous Hilbert-space patterns and a data-augmented Gram likelihood. The resulting algorithms are compact and use trainable circuit-prepared templates as measurement intermediaries between quantum data and classical optimization. Numerical simulations across several many-body systems demonstrate effective quantum-phase recognition and multicomponent feature extraction.

Abstract:We construct a restricted Boltzmann machine (RBM) whose visible input is a quantum state rather than a classical configuration. Each hidden unit carries a trainable quantum template prepared by a parametrized circuit and converts its overlap with the input into a feature. Treating quantum states as high-dimensional continuous visible objects creates nontrivial normalization and scaling problems. We regularize the continuous likelihood and derive two controlled high-dimensional limits, yielding a Hopfield-type network with continuous Hilbert-space patterns and a data-augmented Gram likelihood. The resulting algorithms are compact and use trainable circuit-prepared templates as measurement intermediaries between quantum data and classical optimization. Numerical simulations across several many-body systems demonstrate effective quantum-phase recognition and multicomponent feature extraction.

arXiv:2609.19619 [quant-ph]

(or arXiv:2609.19619v1 [quant-ph] for this version)

https://doi.org/10.48550/arXiv.2609.19619 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

Supplemental_Material.pdf

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Full text under the publisher's open licence · 205 words

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