This paper presents a novel reinterpretation of the Higgs mechanism through the lens of quantum information theory and extended quantum gravity. We propose that the Higgs field emerges from the entanglement structure of quantum gravitational degrees of freedom, with spontaneous symmetry breaking arising as a complexity threshold phenomenon. Our framework introduces quantum informational measures directly into the gravitational field equations, leading to a novel understanding of spacetime as an emergent phenomenon rooted in quantum information. We develop a mathematical formalism that relates the Higgs potential and couplings to quantum entanglement entropy and complexity, predicting specific quantum gravitational corrections to Standard Model physics. Our approach offers potential resolutions to long-standing issues such as the hierarchy problem and the cosmological constant problem, while suggesting deep connections between particle physics and cosmology through a holographic perspective. The paper outlines experimental proposals to test our theory, including precision Higgs measurements at future colliders, cosmological observations, and quantum simulations. We also explore the philosophical implications of our framework, challenging traditional notions of physical law and the nature of reality itself.
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Logan Nye (2024) studied this question.
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