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This paper proposes a realist, anti-psi interpretation of quantum field theory grounded in renormalization group flow and a classical scalar field toy model. By utilizing the inverse renormalization group (IRG), it aims to derive observer-dependent definitions of Planck's constant and establish new prescriptions for constructing QFTs. The work targets foundational insights into quantum mechanics rather than immediate applications or hardware developments.
Renormalization group ontology in quantum foundations: a non-interacting spin-0 toy model
arXiv:2608.19458v1 Announce Type: new Abstract: A realist, anti-psi interpretation of quantum field theory is introduced, based on an expanded ontology that was inspired by the renormalization group. A goal will be to work with a classical non-interacting scalar field "toy model" in the canonical ensemble and show that an observer in this expanded ontology, under certain limiting conditions, will see a QFT. The inverse renormalization group (IRG) will be key in both interpreting this expanded ontology and furnishing novel examples of QFTs. This will lead to a definition of Planck's constant that flows as we head towards a fixed point, is expressed in terms of a temperature, and depends on the observer being studied in this expanded ontology. Our hope is that this approach will lead both to insights into quantum foundations and to prescriptions for developing new QFTs.
Abstract:A realist, anti-psi interpretation of quantum field theory is introduced, based on an expanded ontology that was inspired by the renormalization group. A goal will be to work with a classical non-interacting scalar field "toy model" in the canonical ensemble and show that an observer in this expanded ontology, under certain limiting conditions, will see a QFT. The inverse renormalization group (IRG) will be key in both interpreting this expanded ontology and furnishing novel examples of QFTs. This will lead to a definition of Planck's constant that flows as we head towards a fixed point, is expressed in terms of a temperature, and depends on the observer being studied in this expanded ontology. Our hope is that this approach will lead both to insights into quantum foundations and to prescriptions for developing new QFTs.
arXiv:2608.19458 [quant-ph]
(or arXiv:2608.19458v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2608.19458 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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