This study presents empirical evidence suggesting that consciousness, specifically during meditative states, influences quantum interference patterns without collapsing quantum states. Using IBM's quantum processors, we developed and implemented experimental protocols to assess how different consciousness states affect quantum measurements. Our results demonstrate that meditation significantly alters quantum interference (p=0.025, Cohen's d=-2.88) while having minimal impact on coherence or entanglement. Individual meditation sessions suppressed interference by 73.3% on average, while synchronized meditation enhanced interference by 340%. Furthermore, these effects gradually dissipate following meditation with a characteristic relaxation time (τ) of approximately 74 minutes. These findings challenge von Neumann-Wigner collapse interpretations while supporting a Quantum Bayesian (QBism) model where consciousness modifies quantum probability distributions without forcing collapse. We present a mathematical framework integrating QBism with our empirical findings and discuss implications for quantum mechanics, consciousness studies, and information theory.
This study presents empirical evidence suggesting that consciousness, specifically during meditative states, influences quantum interference patterns without collapsing quantum states. Using IBM's quantum processors, we developed and implemented experimental protocols to assess how different consciousness states affect quantum measurements. Our results demonstrate that meditation significantly alters quantum interference (p=0.025, Cohen's d=-2.88) while having minimal impact on coherence or entanglement. Individual meditation sessions suppressed interference by 73.3% on average, while synchronized meditation enhanced interference by 340%. Furthermore, these effects gradually dissipate following meditation with a characteristic relaxation time (τ) of approximately 74 minutes. These findings challenge von Neumann-Wigner collapse interpretations while supporting a Quantum Bayesian (QBism) model where consciousness modifies quantum probability distributions without forcing collapse. We present a mathematical framework integrating QBism with our empirical findings and discuss implications for quantum mechanics, consciousness studies, and information theory.
The von Neumann‐Wigner consciousness-collapse interpretation of quantum mechanics was explored by testing if human observation of interference in an optical interferometer might act like a weak quantum measurement effect. Forty-seven participants selected via a worldwide search for individuals with experience in focusing their attention were each provided with a custom-made optical apparatus. Using this device, they ran a preassigned series of test sessions to see if illumination recorded in a portion of the interference pattern would be affected when a feedback signal based on that measure was observed versus unobserved. Another portion of the interference pattern was recorded simultaneously but never observed to provide control data. Environmental sensors and real-time encryption of the illumination data were among the methods included in the design of the experiment to help ensure data integrity. With all data combined the results did not support three preregistered hypotheses, but for one of those hypotheses participants selected for experience in an outward versus an inward focus of attention achieved significantly better results in reducing interference (p = 0.008). An exploratory analysis found a progressive decline in interference while participants observed a portion of the interference pattern, as compared to data recorded simultaneously from an unobserved portion (p = 5.9 × 10−14). By comparison, applying the same analysis during no-observation periods found no differences in trends (p = 0.77). Control data run with no observers present and subjected again to this same trend analysis showed uniformly nonsignificant results. Alternative explanations, including possible environmental influences that might have caused these outcomes, as well as recommendations for future studies, are discussed.
A double-slit optical system was used to test the possible role of consciousness in the collapse of the quantum wavefunction. The ratio of the interference pattern's double-slit spectral power to its single-slit spectral power was predicted to decrease when attention was focused toward the double slit as compared to away from it. Each test session consisted of 40 counterbalanced attention-toward and attention-away epochs, where each epoch lasted between 15 and 30 s. Data contributed by 137 people in six experiments, involving a total of 250 test sessions, indicate that on average the spectral ratio decreased as predicted (z=-4:36, p=6*10-6). Another 250 control sessions conducted without observers present tested hardware, software, and analytical procedures for potential artifacts; none were identified (z=0:43, p=0:67). Variables including temperature, vibration, and signal drift were also tested, and no spurious influences were identified. By contrast, factors associated with consciousness, such as meditation experience, electrocortical markers of focused attention, and psychological factors including openness and absorption, significantly correlated in predicted ways with perturbations in the double-slit interference pattern. The results appear to be consistent with a consciousness-related interpretation of the quantum measurement problem.
This paper proposes a unified mathematical framework that bridges quantum mechanics, neuroscience, and the philosophy of consciousness. It addresses the "hard problem" of consciousness and the quantum measurement problem by introducing three fundamental postulates: Discrete Time: Time is quantized at the Planck scale (tP≈5.4×10−44tP≈5.4×10−44 s). Field-Particle Duality as Rendering: Particles do not move continuously but exist as fields between discrete Planck frames, re-emerging as localized entities at each time step. Wave-particle duality is derived as a theorem of this discrete rendering process. Consciousness as Interference: Subjective experience arises from the interference pattern Φ(r⃗,t)Φ(r,t) of neural oscillators. The clarity of consciousness is defined by phase coherence C(t)C(t), modeled using the Kuramoto order parameter. Key Contributions: The 72° Geometric Filter: The model introduces a geometric projector based on pentagonal symmetry (72∘72∘), ubiquitous in biological structures, which filters the Planck-scale field into 3D perceptual space. Quantification of Perception: We estimate that human consciousness perceives only η≈10−41%η≈10−41% of the total information in the Planck field, explaining why direct measurement of subjective experience is fundamentally limited. Resolution of the Measurement Problem: "Collapse" is reinterpreted not as a mystical event, but as the discrete emergence of a particle at a specific frame update, sampled by the observer's neural network. Empirical Predictions & Alignment with 2025-2026 Data: The model aligns with recent findings in: Alpha-Rhythm Modulation: Individual Alpha Frequency (IAF) as the temporal sampling rate of reality (Nature Communications, 2026). Neural Synchronization: Hierarchical Kuramoto models describing brain criticality (PNAS, 2026). Inter-Brain Entanglement: Quantum-like correlations in empathetic dyads (PNAS, 2026). Testable Predictions: Meditation increases phase coherence C(t)C(t), correlating with gamma-band EEG synchronization. Empathetic interaction leads to measurable cross-brain phase locking (CABCAB). Perceptual bias towards stimuli with 72∘72∘ (pentagonal) symmetry. Intuitive decision-making correlates with the gradient of the interference field ∇∣Φ∣2∇∣Φ∣2. This work provides a falsifiable, engineering-grade ontology of reality, suggesting that matter is "frozen light" and consciousness is the active demodulation of the Planck carrier wave. Keywords: Consciousness, Quantum Mechanics, Planck Scale, Neural Oscillations, Interference, Wave-Particle Duality, Kuramoto Model, Reality Rendering, Discrete Time, 72-degree symmetry.
The consciousness-collapse interpretation of quantum mechanics was explored by testing if human observation might act like a weak quantum measurement effect in an optical interferometer. Forty-seven participants selected via a worldwide search for individuals with experience in focusing their attention were each provided with a custom-made optical apparatus. Using this device, they ran a preassigned series of test sessions to see if illumination recorded in a portion of the interference pattern would be affected when a feedback signal based on that measure was observed versus unobserved. Another portion of the interference pattern was recorded simultaneously but never observed to provide control data. Environmental sensors and real-time encryption of the illumination data were among the methods included in the design of the experiment to help ensure data integrity.With all data combined the results did not support three preregistered hypotheses, but for one of those hypotheses participants partitioned by those experienced in an outward vs. an inward focus of attention achieved significantly better results in reducing interference (p = 0.008). An exploratory hypothesis also found a significant difference in skewness of the distribution of interference measures recorded in observed vs. unobserved periods (p = 0.004). In addition, an exploratory analysis showed a clear trend – a progressive decline in interference – while participants observed a portion of the interference pattern, as compared to data recorded simultaneously from an unobserved portion (p = 5.9 × 10-14). By comparison, applying the same analysis during no-observation periods found no differences in trends (p = 0.77). Control data run with no observers present and subjected again to this same trend analysis showed uniformly nonsignificant results. Alternative explanations, including possible environmental influences that might have caused these outcomes, as well as recommendations for future studies, are discussed.
Abstract Does consciousness collapse the quantum wave function? This idea was taken seriously by John von Neumann and Eugene Wigner but is now widely dismissed. We develop the idea by combining a mathematical theory of consciousness (integrated information theory) with an account of quantum collapse dynamics (continuous spontaneous localization). Simple versions of the theory are falsified by the quantum Zeno effect, but more complex views remain compatible with empirical evidence. In principle, versions of the theory can be tested by experiments with quantum computers. The upshot is not that consciousness-collapse interpretations are clearly correct, but that there is a research program here worth exploring.
A controlled experimental protocol for testing the von Neumann–Wigner (VNW) interpretation of quantum mechanics, the hypothesis that consciousness plays a role in quantum state reduction, against the prevailing environmental decoherence framework (Zurek, Zeh, Joos). The experimental platform places a single experienced meditator in EEG-verified cognitive states inside a shielded environment. A quantum coherence sensor measures decoherence rates (T₂) across seven consciousness conditions (C1–C7) spanning the full cognitive-excitation axis, against a separate empty-chamber instrumental baseline. The primary pre-registered hypothesis is that T₂ at C7 (Cessation / Objectless Awareness) and T₂ at C6 (Minimal Phenomenal Experience) will both exceed T₂ at the chamber baseline and at conditions C1–C5, and that T₂ at C7 will further exceed T₂ at C6. This is tested via two pre-registered orthogonal planned contrasts: (i) [C6, C7] vs. [baseline, C1–C5], and (ii) C7 vs. C6, both with directional predictions. All other cross-condition comparisons are treated as exploratory. A secondary experiment uses quantum random number generators with improved shielding, blinding, and instrumentation. The protocol is phased: a Phase 0 foundational test using nitrogen-vacancy centers in diamond, and a Phase 1 full protocol using superconducting qubits in an underground laboratory, conditional on Phase 0 results and adoption by an institutional host. The protocol employs blinding when feasible and pre-registered statistical thresholds. Null results establish pre-registered upper bounds; positive results require replication. The theoretical basis for this protocol is detailed in the companion paper, The Silence Paradigm.