Spectral Geometry of Conscious-State Space: Replacing Operator Proliferation in Consciousness-Based Collapse Models

Elias Okon, Miguel Ángel Sebastián

Darren J. Edwards

Kelvin J. McQueen, Ian T. Durham, Markus P. Müller

Could there be quantum superpositions of conscious states, as suggested by the Wigner's friend thought experiment? Mathematical theories of consciousness, notably integrated information theory (IIT), make this question more precise by associating physical systems with both quantitative amounts of consciousness and structural characterizations of conscious states. Motivated by a recent proposal that ties wave-function collapse to integrated information, we construct a simple quantum circuit that would, on that proposal, place a minimal system-a feedback dyad-into a superposition of states that differ in their associated conscious states. This "Schrödinger's dyad" provides a controlled setting for evaluating a central desideratum of consciousness-based collapse models: that collapse rates depend on how different the experiences in the superposition are. We prove a structural constraint on collapse dynamics of a standard (Lindblad) type: if collapse is governed by too few collapse operators, collapse rates cannot in general be made to depend solely on qualitative differences between conscious states. Avoiding this limitation requires introducing many commuting operators, leading to a rapid proliferation of collapse terms even for very simple systems. This proliferation bears directly on claims that IIT-based collapse theories may be especially experimentally tractable, since the required dynamics becomes highly complex. More generally, the difficulty is not specific to IIT: any Wigner-style collapse theory that distinguishes experiences using rich internal organization (such as neural connectivity in addition to neural state) will face a comparable explosion in dynamical complexity.

JOHN M. COWLEY

Anatolii Mukha

This monograph introduces ZEBTS‑SUPER, a unified χ‑spectral and χ‑operator‑geometric reconstruction of physical reality. It establishes χ‑Reality as the fundamental ontological structure, defined by 𝑋 𝜒 = ( 𝐺 𝜒 , 𝑆 𝜒 , 𝐴 𝜒 , 𝐶 𝜒 ) , where geometry, spectrum, operators, and consciousness form an inseparable whole. Matter is redefined as a χ‑spectral configuration of the operator algebra. Vacuum becomes a χ‑coherent geometric medium with curvature and spectral weight. Collapse is formulated as χ‑actualization performed by consciousness, resolving the measurement problem and positioning the observer as a χ‑boundary operator. Human beings are shown to be χ‑constants of reality, possessing χ‑spectral signatures that stabilize vacuum, curve geometry, and anchor temporal direction. The monograph integrates key experimental anomalies—EDM deviations, lepton universality violation, atomic clock drift, sub‑millimeter gravity behavior, neutrino coherence anomalies, and gravitational‑wave population clustering—into a single χ‑framework. Each anomaly arises naturally from χ‑spectral curvature, χ‑vacuum coherence, or χ‑boundary effects, providing a unified explanation across particle physics, quantum theory, and cosmology. The work demonstrates the collapse of physicalism, quantum orthodoxy, cosmological orthodoxy, classical geometry, and the Standard Model, replacing them with χ‑ontology. It outlines the foundations of χ‑physics for the 21st century, including χ‑vacuum engineering, χ‑spectral computing, χ‑geometric materials, and χ‑mind‑integrated systems. ZEBTS‑SUPER presents the first complete ontological, spectral, operator‑geometric, and consciousness‑integrated physics, offering a coherent reconstruction of matter, vacuum, geometry, and mind.

Danah Zohar