Relational Quantum Fields and the Emergence of Geometry Without Planck Scale

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Main Author: Francisco Ancelmo, Pinheiro Ferreira
Format: Recurso digital
Language:English
Published: Zenodo 2025
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_version_ 1866902306037956608
author Francisco Ancelmo, Pinheiro Ferreira
author_facet Francisco Ancelmo, Pinheiro Ferreira
contents <p>This work presents a novel formulation of quantum field theory (QFT) in which spacetime geometry emerges relationally from the field's own dynamics, without the need to quantize the metric or introduce a fundamental length scale such as the Planck length. The construction is based on a deformed Hopf algebra that encodes energy- and momentum-dependent commutation relations, leading to an effective metric tied to the Compton scale of the field.</p> <p>We derive a fully regularized scalar field theory, along with its quantization, propagators, and vacuum energy — all finite without ad hoc cutoffs. We then generalize to spinor fields and propose a new class of dynamical equations for geometry, from which Einstein’s equations emerge in the classical limit. Our approach resolves longstanding problems such as ultraviolet divergence, the incompatibility between quantum superposition and a fixed background metric, and the problem of time in quantum gravity.</p> <p>The resulting framework offers new insights into high-energy particle propagation, relational time, and the coexistence of superposed geometries, with potential observational consequences in astrophysics and foundational implications for quantum gravity.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_15465637
institution Zenodo
language eng
publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle Relational Quantum Fields and the Emergence of Geometry Without Planck Scale
Francisco Ancelmo, Pinheiro Ferreira
Relacional quantum geometry
Emergent spacetime
Compton-scale physics
Deformed Hopf algebra
UV-finite quantum field theory
Momentum-dependent metric
Quantum gravity without Planck scale
Einstein Equations from QFT
Noncommutative field theory
<p>This work presents a novel formulation of quantum field theory (QFT) in which spacetime geometry emerges relationally from the field's own dynamics, without the need to quantize the metric or introduce a fundamental length scale such as the Planck length. The construction is based on a deformed Hopf algebra that encodes energy- and momentum-dependent commutation relations, leading to an effective metric tied to the Compton scale of the field.</p> <p>We derive a fully regularized scalar field theory, along with its quantization, propagators, and vacuum energy — all finite without ad hoc cutoffs. We then generalize to spinor fields and propose a new class of dynamical equations for geometry, from which Einstein’s equations emerge in the classical limit. Our approach resolves longstanding problems such as ultraviolet divergence, the incompatibility between quantum superposition and a fixed background metric, and the problem of time in quantum gravity.</p> <p>The resulting framework offers new insights into high-energy particle propagation, relational time, and the coexistence of superposed geometries, with potential observational consequences in astrophysics and foundational implications for quantum gravity.</p>
title Relational Quantum Fields and the Emergence of Geometry Without Planck Scale
topic Relacional quantum geometry
Emergent spacetime
Compton-scale physics
Deformed Hopf algebra
UV-finite quantum field theory
Momentum-dependent metric
Quantum gravity without Planck scale
Einstein Equations from QFT
Noncommutative field theory
url https://doi.org/10.5281/zenodo.15465637