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This research investigates how Boltzmann machines can model social systems governed by majority rule dynamics while maintaining critical states under noise. By training deep belief networks with non-binary units, the study demonstrates their generative capability to recover complex physical observables despite input perturbations. The work bridges theoretical machine learning architectures with applications in understanding collective behavior and phase transitions in societal models.
Surse care acoperăarXiv, AI Alignment Forum, Quantum Frontiers, Quantum Zeitgeist
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Exploration of the generative capabilities of Boltzmann machines applied to social systems under the majority rule

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2607.23349v1 Announce Type: new Abstract: We study the generative capabilities of Boltzmann machines to recover systems governed by the majority rule under critical conditions. To this end, we train deep belief networks (DBNs) with different configurations, where the first layer can use Gaussian visible units with more than two states (i.e., non-binary units). We then allow the DBN to "dream" samples conditioned on visible units that we keep fixed, and we measure the deviation of this dreamed system from the real one. We also corroborate, using a discrete thermometer based on a convolutional network, that the reconstructions remain in a critical state. Across several training sessions with different architectures, we show that, despite the complexity of the problem, the DBN can recover samples that remain critical even under input noise, with a gradual degradation of physical observables relative to the original sample.

Abstract:We study the generative capabilities of Boltzmann machines to recover systems governed by the majority rule under critical conditions. To this end, we train deep belief networks (DBNs) with different configurations, where the first layer can use Gaussian visible units with more than two states (i.e., non-binary units). We then allow the DBN to "dream" samples conditioned on visible units that we keep fixed, and we measure the deviation of this dreamed system from the real one. We also corroborate, using a discrete thermometer based on a convolutional network, that the reconstructions remain in a critical state. Across several training sessions with different architectures, we show that, despite the complexity of the problem, the DBN can recover samples that remain critical even under input noise, with a gradual degradation of physical observables relative to the original sample.

Machine Learning (cs.LG); Computers and Society (cs.CY)

arXiv:2607.23349 [cs.LG]

(or arXiv:2607.23349v1 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2607.23349 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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