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This research investigates the emergence of classical collective records and Bell inequality violations within dynamically formed quantum bodies constructed from field vacuum. The study bridges dynamical subsystem formation with microscopic nonlocality, demonstrating that binding contributions can alter formation signals despite vanishing mean energy density. It advances foundational understanding in quantum information by analyzing how coarse-grained records precede all-outcome Bell violations using polynomial resources.
Classical records and Bell correlations in a dynamically formed quantum body
arXiv:2611.05826v1 Announce Type: new Abstract: Competing quantum contacts can create a boundary that was absent from the specification of a subsystem. We construct approximately isolated bodies from bare field vacuum and zero-centred contact packets. A binding contribution with vanishing mean energy density nevertheless changes a bounded formation signal by order one at the same clock. On the formed material spins and their original memories, coarse collective records precede an all-outcome Bell violation. The field evolves dynamically, with the finite bath, residual boundary interaction, failed records and preparation costs retained. The result connects dynamical subsystem formation, classical collective records and microscopic nonlocality, with polynomial resources in the stated preparation and measurement class.
Abstract:Competing quantum contacts can create a boundary that was absent from the specification of a subsystem. We construct approximately isolated bodies from bare field vacuum and zero-centred contact packets. A binding contribution with vanishing mean energy density nevertheless changes a bounded formation signal by order one at the same clock. On the formed material spins and their original memories, coarse collective records precede an all-outcome Bell violation. The field evolves dynamically, with the finite bath, residual boundary interaction, failed records and preparation costs retained. The result connects dynamical subsystem formation, classical collective records and microscopic nonlocality, with polynomial resources in the stated preparation and measurement class.
arXiv:2611.05826 [quant-ph]
(or arXiv:2611.05826v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2611.05826 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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