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Main Author: Chatterjee, Dristi
Format: Recurso digital
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Published: Zenodo 2025
Online Access:https://doi.org/10.5281/zenodo.14786915
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author Chatterjee, Dristi
author_facet Chatterjee, Dristi
contents <p>We present a novel theoretical framework in which the Higgs field, coupled to an emergent antiHiggs measurement operator, governs mass-energy evolution and spacetime curvature via a HiggsZeno effect. This framework modifies Einstein’s equations by introducing a time-dependent massenergy evolution equation that influences gravitational dynamics. We explore the implications of this<br>model on quantum measurement theory, black hole physics, and cosmology. The Higgs-Zeno effect<br>introduces modifications to the Higgs potential, impacts vacuum stability, and alters mass-energy<br>conservation. We discuss experimental constraints from high-energy colliders, dark matter searches,<br>and gravitational wave detectors. Numerical simulations of Higgs-Zeno mass decay and gravitational<br>modifications are presented, along with their potential astrophysical and cosmological implications.<br>This model provides a testable mechanism linking Higgs interactions with fundamental spacetime<br>properties and may offer insight into black hole entropy dynamics and dark matter phenomenology</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_14786915
institution Zenodo
language
publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle Higgs-Zeno Spacetime: Quantum Measurement, Dual Hamiltonians, and Mass-Energy Evolution
Chatterjee, Dristi
<p>We present a novel theoretical framework in which the Higgs field, coupled to an emergent antiHiggs measurement operator, governs mass-energy evolution and spacetime curvature via a HiggsZeno effect. This framework modifies Einstein’s equations by introducing a time-dependent massenergy evolution equation that influences gravitational dynamics. We explore the implications of this<br>model on quantum measurement theory, black hole physics, and cosmology. The Higgs-Zeno effect<br>introduces modifications to the Higgs potential, impacts vacuum stability, and alters mass-energy<br>conservation. We discuss experimental constraints from high-energy colliders, dark matter searches,<br>and gravitational wave detectors. Numerical simulations of Higgs-Zeno mass decay and gravitational<br>modifications are presented, along with their potential astrophysical and cosmological implications.<br>This model provides a testable mechanism linking Higgs interactions with fundamental spacetime<br>properties and may offer insight into black hole entropy dynamics and dark matter phenomenology</p>
title Higgs-Zeno Spacetime: Quantum Measurement, Dual Hamiltonians, and Mass-Energy Evolution
url https://doi.org/10.5281/zenodo.14786915