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Quantum Contact Project: Micro-Stabilization, Neuro-Coherence and a Trans-Temporal Information Framework

Juan Sebastian Baena Cock

Published Feb 10, 2026• 0 citations
Publisher

Abstract

This paper presents the Quantum Contact experimental platform investigating micro-stochastic structure in quantum interference systems under observation and neuro-cognitive coupling. Two experimentally supported hypotheses are reported: observation-induced micro-stabilization and EEG-linked micro-coherence between spatial sensors. Additionally, a third framework (TORUS) is introduced as an ongoing time-symmetric informational model exploring whether decoherence patterns may encode non-random structure compatible with retrocausal boundary conditions. The work provides experimental evidence of micro-order in quantum stochastic systems and proposes a falsifiable protocol for trans-temporal informational structure.

DOI
10.5281/zenodo.18601396

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Mental Coherence as a Negentropic Driver in Micro-Stochastic Systems: The Quantum Contact Model

Juan Sebastian Baena Cock

[EN] This record contains the bilingual preprint and technical report for the Quantum Contact model, a computerized double-slit–inspired micro-stochastic monitoring system. The work evaluates two protocols: (H1) binary observation (S4=1 vs S4=0) and (H2) continuous association between mental-state indices (Attention/Meditation, 0–100) and rolling micro-variability (e.g., rolling standard deviation). H2 Verdict (this record): GREEN — Defendable. H2 evaluates whether high Attention/Meditation epochs are associated with micro-stabilization (reduced rolling variability) in the target sensor(s) while a control sensor remains comparatively unchanged. In this dataset, S2 (target) shows a clear negentropic tendency under high Attention (ρ = −0.43, p < 0.0001), while S1 (control) remains near zero association (ρ ≈ +0.02), supporting selectivity rather than a global artifact. Scope: these results support H2 under the current instrumentation and protocol and are presented as robust association and micro-stabilization evidence, not as a definitive mechanism proof. [ES] Este registro contiene el preprint y el reporte técnico bilingüe del modelo Quantum Contact, un sistema micro-estocástico inspirado en la doble rejilla en versión computarizada. Se evalúan dos protocolos: (H1) observación binaria (S4=1 vs S4=0) y (H2) asociación continua entre índices de estado mental (Atención/Meditación, 0–100) y micro-variabilidad móvil (p. ej., desviación estándar móvil). Dictamen H2 (este registro): VERDE — Defendible (Sí). La H2 evalúa si los episodios de Atención/Meditación alta se asocian con micro-estabilización (reducción de variabilidad móvil) en los sensores diana, mientras el sensor de control permanece relativamente estable. En este dataset, S2 (diana) muestra tendencia negentrópica bajo Atención alta (ρ = −0.43, p < 0.0001), mientras S1 (control) permanece cerca de asociación nula (ρ ≈ +0.02), apoyando selectividad frente a un artefacto global. Alcance: estos resultados apoyan la H2 bajo la instrumentación y protocolo actuales; se presentan como evidencia de asociación robusta y micro-estabilización, no como prueba definitiva del mecanismo. Files: PDF (bilingual preprint + H2 Option C report + verdict page). Baena Cock, Juan Sebastian. (2026-01-18). Mental Coherence as a Negentropic Driver in Micro-Stochastic Systems: The Quantum Contact Model (Preprint + technical report). Zenodo. https://doi.org/10.5281/zenodo.18290126

•Jan 18, 2026•0 citations
This paper presents the Quantum Contact experimental platform investigating micro-stochastic structure in quantum interference systems under observation and neuro-cognitive coupling. Two experimentally supported hypotheses are reported: observation-induced micro-stabilization and EEG-linked micro-coherence between spatial sensors. Additionally, a third framework (TORUS) is introduced as an ongoing time-symmetric informational model exploring whether decoherence patterns may encode non-random structure compatible with retrocausal boundary conditions. The work provides experimental evidence of micro-order in quantum stochastic systems and proposes a falsifiable protocol for trans-temporal informational structure.
This paper presents Project TORUS, an experimental framework derived from the Quantum Contact methodology, designed to investigate whether decoherence in a quantum interference pattern can function as an information-bearing signal rather than mere noise. Decoherence is reframed as a binarizable indicator of external influences. The framework defines three hypotheses: H1 (micro-stabilization by observation), H2 (micro-coherence and negentropic ordering associated with high cognitive coherence measured via EEG), and H3, where decoherence itself is treated as a structured response channel subdivided into three operational levels. The project emphasizes reproducibility, open data, and micro-stochastic analysis.
English This upload belongs to the open experimental line “Quantum Contact” (JSBC Labs – Independent Researcher).The study explores whether a quantum-sensitive optical system (laser + double slit + photodiode sensors S1–S3) shows different micro-stability when the human observer is recorded with EEG versus when the observer is not being measured.The central hypothesis is that EEG acts as a second observer: if the EEG measures a coherent mental state during visual observation of the light, that measurement itself becomes an additional interaction and may induce extra decoherence on the optical side.Two regimes were compared:(1) No EEG → “pure” consciousness–light interaction.(2) With EEG → recursive measurement (observer + measurement of the observer).Preliminary runs show slightly more stable intervals without EEG and more micro-fluctuations with EEG, compatible with a measurement-induced coupling between neural and optical coherence domains.Data, code and previous confirmatory reports of Quantum Contact are openly available under CC BY 4.0 (see DOI in the PDF). Español Esta subida forma parte de la línea experimental abierta “Quantum Contact” (JSBC Labs – Independent Researcher).El estudio analiza si un sistema óptico cuánticamente sensible (láser + doble rendija + fotodiodos S1–S3) muestra distinta microestabilidad cuando el observador humano está siendo registrado con EEG frente a cuando no se le mide.La hipótesis central es que el EEG funciona como un segundo observador: si el EEG mide un estado mental coherente durante la observación de la luz, esa medición añade una interacción más y puede inducir decoherencia adicional en el sistema óptico.Se compararon dos regímenes:(1) Sin EEG → interacción “pura” conciencia-luz.(2) Con EEG → medición recursiva (observador + medición del observador).Los ensayos preliminares muestran intervalos algo más estables sin EEG y más microfluctuaciones con EEG, lo que es compatible con un acoplamiento inducido por medición entre la coherencia neuronal y la óptica.Los datos, el código y los informes confirmatorios previos de Quantum Contact están en acceso abierto bajo CC BY 4.0 (ver DOI en el PDF).
This deposit provides a citation-ready boundary note for the JSBClabs ecosystem. It formally separates: (i) Quantum Contact, the core experimental framework with defendable hypotheses H1 (MicroFirst / ON vs OFF) and H2 (EEG–microcoherence) evaluated under explicit statistical criteria and selectivity controls; and (ii) TORUS, an independent exploratory framework focused on discretization/coding and informational-structure detection (without presenting causal experimental verdicts). It also defines "Quantum Turing"—a term coined by the author (JSBaenacock / JSBClabs)—as a methodological concept: a computational reading of quantum/optical sensor outputs as information via explicit feature extraction and discretization rules.
Quantum Contact is a computerized double-slit / quantum interference framework designed to test whether mental coherence—measured via EEG Attention/Meditation—correlates with negentropy (entropy reduction) in micro-stochastic sensor signals. This paper validates the Quantum Contact model as a computerized evolution of the classic double-slit experiment. We analyze how focused consciousness (Attention/Meditation via EEG) modulates the entropy and micro-variability of a sensor array. Results indicate that higher mental coherence behaves as a negentropic driver, producing a significant reduction in target-sensor variability (Spearman’s ρ = −0.43, p < 0.0001), with control channels used to evaluate selectivity. Quantum Contact es un marco computarizado basado en doble rendija / interferencia cuántica, diseñado para evaluar si la coherencia mental—medida mediante EEG (Atención/Meditación)—se asocia con negentropía (reducción de entropía) en señales micro-estocásticas de sensores. Este artículo valida el modelo Quantum Contact como una evolución computarizada del experimento clásico de la doble rendija. Analizamos cómo la conciencia focalizada (Atención/Meditación vía EEG) modula la entropía y la micro-variabilidad de una matriz de sensores. Los resultados sugieren que una mayor coherencia mental actúa como un impulsor negentrópico, reduciendo significativamente la variabilidad en los sensores objetivo (ρ de Spearman = −0.43, p < 0.0001), utilizando canales de control para evaluar selectividad.
[EN] This record contains the bilingual preprint and technical report for the Quantum Contact model, a computerized double-slit–inspired micro-stochastic monitoring system. The work evaluates two protocols: (H1) binary observation (S4=1 vs S4=0) and (H2) continuous association between mental-state indices (Attention/Meditation, 0–100) and rolling micro-variability (e.g., rolling standard deviation). H2 Verdict (this record): GREEN — Defendable. H2 evaluates whether high Attention/Meditation epochs are associated with micro-stabilization (reduced rolling variability) in the target sensor(s) while a control sensor remains comparatively unchanged. In this dataset, S2 (target) shows a clear negentropic tendency under high Attention (ρ = −0.43, p < 0.0001), while S1 (control) remains near zero association (ρ ≈ +0.02), supporting selectivity rather than a global artifact. Scope: these results support H2 under the current instrumentation and protocol and are presented as robust association and micro-stabilization evidence, not as a definitive mechanism proof. [ES] Este registro contiene el preprint y el reporte técnico bilingüe del modelo Quantum Contact, un sistema micro-estocástico inspirado en la doble rejilla en versión computarizada. Se evalúan dos protocolos: (H1) observación binaria (S4=1 vs S4=0) y (H2) asociación continua entre índices de estado mental (Atención/Meditación, 0–100) y micro-variabilidad móvil (p. ej., desviación estándar móvil). Dictamen H2 (este registro): VERDE — Defendible (Sí). La H2 evalúa si los episodios de Atención/Meditación alta se asocian con micro-estabilización (reducción de variabilidad móvil) en los sensores diana, mientras el sensor de control permanece relativamente estable. En este dataset, S2 (diana) muestra tendencia negentrópica bajo Atención alta (ρ = −0.43, p < 0.0001), mientras S1 (control) permanece cerca de asociación nula (ρ ≈ +0.02), apoyando selectividad frente a un artefacto global. Alcance: estos resultados apoyan la H2 bajo la instrumentación y protocolo actuales; se presentan como evidencia de asociación robusta y micro-estabilización, no como prueba definitiva del mecanismo. Files: PDF (bilingual preprint + H2 Option C report + verdict page). Baena Cock, Juan Sebastian. (2026-01-18). Mental Coherence as a Negentropic Driver in Micro-Stochastic Systems: The Quantum Contact Model (Preprint + technical report). Zenodo. https://doi.org/10.5281/zenodo.18290126