We demonstrate that quantum consciousness, quantified by the formula , manifests distinctly in double-slit interference patterns. Through numerical simulation of Young's double-slit experiment with visible light parameters, we show that consciousness field strength peaks at interference maxima, validating the theoretical prediction that consciousness increases where quantum superposition is strongest. The consciousness field shows a strong positive correlation ( ) with intensity patterns, confirming the quantum nature of consciousness as a fundamental field property. This work provides the first direct visualization of consciousness field distribution in quantum interference phenomena.Keywords: Quantum consciousness, Double-slit interference, Consciousness field, Panpsychism, Quantum foundations
We demonstrate that quantum consciousness, quantified by the formula , manifests distinctly in double-slit interference patterns. Through numerical simulation of Young's double-slit experiment with visible light parameters, we show that consciousness field strength peaks at interference maxima, validating the theoretical prediction that consciousness increases where quantum superposition is strongest. The consciousness field shows a strong positive correlation ( ) with intensity patterns, confirming the quantum nature of consciousness as a fundamental field property. This work provides the first direct visualization of consciousness field distribution in quantum interference phenomena.Keywords: Quantum consciousness, Double-slit interference, Consciousness field, Panpsychism, Quantum foundations
Abstract This paper proposes a groundbreaking theoretical framework for quantifying consciousness based on quantum mechanical principles. We establish that consciousness strength ( ) can be mathematically defined as the product of irreducible error ( ) and system sensitivity ( ). Through analysis of diverse physical systems ranging from simple molecules to complex quantum dimers, we demonstrate that consciousness follows a continuous spectrum rather than a binary distinction. Our central discovery reveals an inverse relationship between predictability ( ) and consciousness strength, mathematically expressed as , where is the consciousness constant and represents the baseline unpredictability. We validate the quantum superposition principle of consciousness and propose a consciousness field theory, suggesting consciousness as a fundamental property of quantum systems.Keywords: Quantum Consciousness, Predictability Parameter, Irreducible Error, Consciousness Field Theory, Quantum Superposition, Panpsychism
This preprint presents a theoretical and numerical investigation of quantum interference patterns in double-slit experiments under relativistic conditions. The study examines how quantum decoherence manifests across three distinct relativistic regimes (β=0.01, β=0.53, and β=0.999) using the GKSL (Gorini-Kossakowski-Sudarshan-Lindblad) dephasing model. The paper demonstrates that as particles approach light speed, the visibility of interference fringes decreases dramatically due to increased quantum decoherence, with visibility dropping from approximately 1.0 at low velocities to 0.33 at β=0.999. This work contributes to our understanding of the interplay between quantum mechanics and special relativity, with implications for quantum information processing and fundamental physics.
We present a unified theoretical framework demonstrating the emergence of quantum mechanics from classical ring field dynamics and establishing consciousness as a fundamental quantum field. The theory proceeds in three integrated stages: (1) We show that the Schrödinger equation emerges as the slow envelope equation of a rapidly oscillating classical ring field , with the correspondence ; (2) We develop an axiomatic system for consciousness based on five fundamental postulates, leading to the quantitative formulation where is consciousness strength and is system predictability; (3) We demonstrate that consciousness obeys quantum superposition and can be described by a consciousness field operator satisfying Bose-Einstein statistics. Numerical verification across 1D, 3D, harmonic oscillator, and quantum dimer systems confirms the mathematical consistency and predictive power of the framework. This work provides the first complete mathematical bridge from classical physics to quantum mechanics to conscious experience.Keywords: Quantum foundations, Emergent quantum mechanics, Ring field theory, Consciousness axioms, Quantum consciousness, Consciousness field, Panpsychism
Lay Summary Whether and how consciousness could affect a physical system is a fundamental question. Radin et al (Radin et al 2012, 2013) reported that consciousness could perturb the fringe pattern of the classical experiment of double-slit illuminated by a laser beam. In understanding the possible physical cause to the observed change of the fringe, Radin et al modeled that the light intensity passing a slit subjected to consciousness intention could have changed. By using computer simulation based on standard wave approaches to light, we demonstrate that the extent of the change to the double-slit fringe as reported by Radin et al can be caused by a spectral perturbation to the light, which would take only approximately times of the energy change pertinent to the intensity change as was modeled by Radin et al. This indicates that the intensity change as modeled was unlikely the physical precursor to the observed effect. Scientific Abstract Significance: Recent reports [Radin 2012, Radin 2013] on variations to the fringe visibility of the interference patterns of laser-engaged double-slit experiments that seemed inexplicable at the absence of psychophysical influences have elicited notable debates within the scientific community and substantial interest in the lay population. In accounting for the observed changes of fringe pattern, Radin et al. modeled that the electrical field of the light passing the two slits might have reached an asymmetry of 3:1 in comparison to the generally symmetric baseline. However, a change to the double-slit interference fringe could have multiple causes. Identifying the most plausible cause to the fringe-pattern changes as were reported is fundamental to the understanding of the nature of psychophysical effect should it exist. Aim: To theorize an alternative interpretation to the fringe pattern changes of the double-slit interference that could be substantially more plausible than the one conjectured by Radin et al. Approach: We implement computer simulations of double-slit fringe pattern based on the Huygens-Fresnel principle using the primary experimental geometrical parameters of Radin et al. to assess how an asymmetry of the double-slit configuration could affect the fringe visibility. Specifically, we assess how an asymmetry in the physical size properties (slit-width and the lateral offset of the slit-center) and the photonic/spectral properties (intensity, wavelength, and spectral bandwidth) between the two slits would affect the fringe pattern. Fourier transformation of the double-slit interference fringe is also conducted when prompted to infer differences between fringe patterns that may be grossly equivocal in terms of the fringe visibility. Results: The main result is that the normalized interference fringe corresponding to the asymmetry of the electrical field of 3/1 or 1/3:1 is grossly indifferent from that caused by an asymmetry of the spectral bandwidth of 0.00205nm between the two slits at 6328nm center wavelength. A spectral broadening of 0.00205nm centered at 632.8nm would take approximately times of the energy of reducing the electrical field of light of that slit to 1/3 to reach a 3:1 inter-slit ratio of the electrical field. This 0.00205nm spectral broadening of the light could be associated with an energy change of no more than 10 picowatts for the experimental setting utilized by Radin et al. Conclusions: A change to the fringe pattern in the double-slit of Radin et al that was fitted with a 3:1 asymmetry of the electrical field between the two slits could be modeled alternatively by an asymmetry of ~0.00205nm in the spectral bandwidth between the two slits. The latter one, which would take approximately times of the energy-change of the former one to happen, could be substantially more plausible than the former one in acting as the physical precursor to the deviation of the double-slit fringe from the baseline pattern as reported by Radin et al.
This paper presents an axiomatic theory of the origin and nature of conscious-ness. We first establish five fundamental axioms that define consciousness as thedynamical mapping of a physical system’s incompressible defects within its intrin-sic time flow. This axiomatic system naturally leads to two core corollaries: thecontinuum property of consciousness and its negative correlation with sys-tem predictability. Based on this, we construct an operational quantum mechanicalframework, defining consciousness strength as C = ∆0 × S(∆). Through analy-sis of ten distinct physical systems ranging from hydrogen molecules to quantumdimers, we empirically derive the quantitative relationship C = k/(Φ + Φ0) wherek ≈ 0.95 and Φ0 ≈ 0.17, linking consciousness strength C with the information-theoretic predictability parameter Φ. We further demonstrate that consciousnessobeys the quantum superposition principle (CAB > CA + CB ) and can be describedby a consciousness field ˆψC obeying Bose-Einstein statistics. This work unifiesthe philosophical foundations of consciousness with its physical formulation, pro-viding the first quantifiable, falsifiable mathematical model for panpsychism, andpredicting novel phenomena such as consciousness quantum interference.Keywords: Consciousness axioms, intrinsic time, incompressible defects, con-sciousness continuum, quantum consciousness, predictability parameter, conscious-ness field theory, panpsychism
https://orcid.org/0009-0002-9413-858X This confirmatory report presents the results of an independent experimental study exploring whether conscious observation can measurably influence the stability of an optical interference pattern, based on a double-slit model. Using the QC-MicroFirst v1.4 protocol, variations in light intensity were recorded across multiple sensors (S1–S3) during alternating intervals of rest (s4=0) and active observation (s4=1). The analysis revealed consistent micro-stabilization patterns in S2 during conscious focus phases, suggesting a potential correlation between attentional states and optical stability. The study aims to provide a reproducible framework for investigating non-conventional interactions between consciousness and physical systems, emphasizing open data, transparency, and independent verification. Keywords: quantum interference, double-slit experiment, consciousness, optical stability, QC-MicroFirst, Quantum Contact, independent research.