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Investigating Modulated Internal States that Influence QRNG Output: A Hypothesis-Driven Exploratory Study

Adam George, Andrew Ryan, Jaspal Panesar (Software Developer)

Published Oct 7, 2025• 0 citations
OpenAlex

Abstract

This study tests whether modulated internal states (e.g., meditation, ritual, REM sleep, emotional arousal) produce measurable ordering effects on quantum randomness, as inferred from deviations in raw QRNG output. Using CryptaLabs USB and PCIe devices, the project investigates “coherence” and “ripple effects” under blinded, timestamped, and environmentally controlled conditions. Data, methods, and analysis code will be published openly upon completion. This is an exploratory hypothesis-driven study that refines and tests specific modulation conditions using rigorous protocols.

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•Dec 14, 2016•0 citations
This study tests whether modulated internal states (e.g., meditation, ritual, REM sleep, emotional arousal) produce measurable ordering effects on quantum randomness, as inferred from deviations in raw QRNG output. Using CryptaLabs USB and PCIe devices, the project investigates “coherence” and “ripple effects” under blinded, timestamped, and environmentally controlled conditions. Data, methods, and analysis code will be published openly upon completion. This is an exploratory hypothesis-driven study that refines and tests specific modulation conditions using rigorous protocols.
This study establishes a chance-performance baseline for the Juke-Mand Anti-Signal Protocol, which tests whether volitional intent or emotional states can influence quantum random number generator (QRNG) outcomes. The baseline will also be robust enough to serve as a control for testing volitional quantum intent decoherence effects, which involve participants attempting to mentally influence the collapse of a quantum wave function to produce specific numbers within the 0-255 range of the uint8 output.
Protocol TEC‑89 implements the unified metrological framework of Protocol 9.0 to test the claimed phenomenon of intention influence on quantum random number generators (QRNG) – the alleged ability of a person (the "intender") to bias the output of a true hardware‑based quantum random number generator (e.g., ID Quantique Quantis, ANU Quantum Numbers, or equivalent) through intention alone, without physical contact. The primary observable is the deviation of the QRNG bit distribution (mean z‑score) from the expected chance level (50/50) during active intention periods, compared to control periods (no intention, sham intention, or trap conditions). The experimental design includes a certified hardware QRNG (Quantis‑v10.10.08 or equivalent) with direct USB connection (no buffer), real‑time visual/audio feedback for the intender (to enhance engagement), continuous logging of all bits with time stamps, triple blinding (intender, experimenter, and analyst are blind to condition), trap conditions (the intender is told to "influence" but the QRNG is replaced by a deterministic pseudo‑RNG), sham conditions (the intender is told to "influence" but is actually resting), catch conditions (a known bias is introduced into the QRNG output to validate the measurement system's sensitivity), positive controls (known effects, e.g., varying the number of bits per trial, to calibrate the system), physiological monitoring (skin conductance, heart rate variability, EEG alpha/theta power) to correlate with intention states, comprehensive environmental monitoring (temperature, humidity, electromagnetic fields), and automated data logging. The protocol mandates a pilot phase to calibrate the QRNG, establish the baseline noise floor, and validate the blinding procedure. The primary analysis uses a Linear Mixed Model (LMM) or a Binomial GLM comparing the z‑score (or proportion of 1s) between active and control conditions, with α = 0.025 (two‑tailed) and power ≥ 0.90 for a small effect (Cohen's d ≥ 0.05). The sample size is N = 10,000 bits per block (baseline, with adaptive increase to N = 100,000 bits if pilot shows high variability). Statistical analyses are preregistered, include Bayesian inference (BF₁₀), permutation tests, and multiverse robustness checks (≥70% of 12 forks). The aim is to detect a reproducible intention‑induced QRNG bias or to establish an upper bound on the effect size with unprecedented rigor.
This project hosts the core research documents defining the Stochastic Field Modulation (SFM) framework: a mechanism-neutral, empirically grounded method for analysing structured deviations in multi-device quantum randomness under modulated internal states. The SFM framework has evolved from over a year of continuous experimentation using high-rate QRNG devices, environmental controls, EEG monitoring, and multi-stage signal analysis. Purpose of This Project This OSF project serves as the canonical home for the formal, citable SFM documents: SFM–FS (Formal Specification) — the operational, linearised measurement model describing how deviations are quantified, standardised, segmented, and statistically validated. SFM–TFED (Theoretical Foundations & Extended Dynamics) — the conceptual layer interpreting empirical features such as asymmetric temporal profiles, anticipatory structure, spatial receptivity, multi-device synchrony, and nonlinear relaxation behaviour. (Future) SFM–PT (Philosophical Theory) — broad interpretive considerations consistent with FS and TFED. These documents supersede earlier drafts and working notes, which now exist only as archival material in legacy OSF projects. What This Project Contains DOI-assigned citable versions of the SFM documents Versioned LaTeX source and PDF outputs Component-level documentation and wikis Cross-references between FS, TFED, and future PT layers Links to legacy experimental projects without importing their data or metadata What This Project Does Not Contain Raw QRNG bitstreams Individual session analyses Experimental QS reports EEG datasets Environmental logs These remain in their original projects for now and may be cross-linked later. Intended Audience Researchers, theorists, statisticians, and interdisciplinary scholars interested in: non-classical coherence phenomena stochastic field modelling QRNG deviations consciousness modulation protocols nonlinear relaxation dynamics statistical signal analysis in complex systems Citation Each SFM document will have its own DOI and should be cited individually.
Cette thèse s'articule autour de l'étude de la cohérence de la lumière produite à partir de sources de paires de photons intriqués et de micro-lasers. Nous avons produit et manipulé des états photoniques intriqués, et conduit des investigations à la fois fondamentales et appliquées. Les deux études menées sur les aspects fondamentaux de la non localité avaient pour but de relaxer partiellement deux contraintes sur lesquelles s'appuie l'inégalité de Bell standard en vue d'applications à la cryptographie quantique. Ainsi, en collaboration avec l'Université de Genève, nous avons redéfini la notion de localité en prenant en compte les influences sur les mesures de corrélations des choix des configurations expérimentales et d'une efficacité globale de détection limitée. Cela a permis de définir des inégalités de Bell généralisées et les violations expérimentales qui en découlent permettent d'attester de la non localité des états quantiques observés. Nous avons aussi étudié et mis en place une solution expérimentale autorisant l'émission de photons intriqués dans des pairs de canaux télécoms pour la cryptographie quantique. Nous avons montré la préservation de l'intrication sur 150 km et obtenu des débits records en comparaison avec les réalisations similaires. Enfin, nous avons étudié les propriétés de l’émission de lasers à semi-conducteurs aux dimensions réduites. L’émission de ces composants microscopiques s'accompagne de grandes fluctuations en intensité lorsque ceux-ci sont pompés en-dessous du seuil laser. Cette étude a permis de mieux comprendre comment se construit la cohérence laser dans ces systèmes.