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This research proposes a realist interpretation of quantum field theory where Planck's constant is not universal but varies with temperature and the specific observer, challenging conventional unitary evolution frameworks. By utilizing renormalization group principles, the study establishes a connection between observation and emergent quantum phenomena without introducing new dynamics beyond standard models. This theoretical shift suggests that fundamental constants may be context-dependent properties of the observing system rather than fixed values of nature.
Observers Show How Planck’s Constant Flows with Temperature
Conventional approaches treat Planck’s constant as universal; however, an emerging framework proposes it instead varies with temperature and observing entity itself. This interpretation offers a realist description of quantum field theory without adding dynamics beyond standard unitary evolution, unlike existing alternatives. By linking observation to emergent quantum phenomena via renormalization group principles, a previously inaccessible connection has been established.
A new realist interpretation inspired by the renormalization group now advances the ability to describe quantum field theory from differing observational perspectives. Gary Kapilevich, of Loyola University Maryland, introduces this framework using a classical "toy model", a non-interacting scalar field, demonstrating how an observer perceives a QFT under specific conditions within an expanded ontology. Loyola University researchers propose an interpretation of quantum field theory where…
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