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From Bose's Probabilistic Interactions to Quantum Contact: An Exploratory Framework for H1 MicroFirst and H2 EEG–Microcoherence

Juan Sebastian Baena Cock

Published Sep 21, 2026• 0 citations
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Abstract

Bilingual English–Spanish preprint. This work examines a methodological connection between S. N. Bose's probabilistic interaction framework, as revisited by Partha Ghose, and the experimental hypotheses H1 (MicroFirst) and H2 (EEG–Microcoherence) within the Quantum Contact research programme. The paper reformulates H1 and H2 in terms of measurable variability, event rates, temporal covariation and stochastic processes, while explicitly distinguishing these statistical relationships from claims of quantum-state modification or consciousness-mediated causation. The experimental apparatus, optical sensing architecture, ESP32-S3 acquisition system, sampling and filtering pipeline, and software analysis workflow are described. A staged replication protocol with reference channels, environmental controls, preregistered analyses and EEG controls is proposed.

DOI
10.5281/zenodo.22876590

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Bilingual English–Spanish preprint. This work examines a methodological connection between S. N. Bose's probabilistic interaction framework, as revisited by Partha Ghose, and the experimental hypotheses H1 (MicroFirst) and H2 (EEG–Microcoherence) within the Quantum Contact research programme. The paper reformulates H1 and H2 in terms of measurable variability, event rates, temporal covariation and stochastic processes, while explicitly distinguishing these statistical relationships from claims of quantum-state modification or consciousness-mediated causation. The experimental apparatus, optical sensing architecture, ESP32-S3 acquisition system, sampling and filtering pipeline, and software analysis workflow are described. A staged replication protocol with reference channels, environmental controls, preregistered analyses and EEG controls is proposed.
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.
This record contains a bilingual (EN/ES) protocol paper for the QuantumContact framework. The system digitises a double-slit interference field into optical sensor time series (S1–S3) plus a phase marker (S4) defining rest (S4=0) vs observation (S4=1). H1 tests observation-linked micro-stabilisation in S2 using micro-stochastic metrics (ΔCV, rolling variability, z-spikes) with spatial selectivity controls (S1). H2 tests EEG-linked micro-coherence using continuous correlation (Spearman) between ATT/MED and rolling micro-variability, gated via permutation p-values and selectivity (S1 control). H3 (TORUS/BEACON) formalises an active protocol where potential external influences are treated as binarisable anomaly signatures ("signal/no-signal"), strictly gated by statistical criteria; interpretive "levels" are secondary labels, not evidence of origin. Related public DOIs (examples): https://doi.org/10.5281/zenodo.17887428 https://doi.org/10.5281/zenodo.17904842 https://doi.org/10.5281/zenodo.18290126 Este registro contiene un paper bilingüe (EN/ES) de protocolos del marco QuantumContact. El sistema digitaliza el campo de interferencia de la doble rendija en series temporales de sensores ópticos (S1–S3) más un marcador de fase (S4) que define reposo (S4=0) vs observación (S4=1). H1 contrasta micro-estabilización en S2 asociada a observación mediante métricas micro-estocásticas (ΔCV, variabilidad móvil, z-spikes) con control de selectividad espacial (S1). H2 evalúa micro-coherencia ligada a EEG con correlación continua (Spearman) entre ATT/MED y micro-variabilidad móvil, filtrada por p-values de permutación y selectividad (S1 como control). H3 (TORUS/BEACON) formaliza un protocolo activo donde posibles influencias externas se tratan como firmas binarizables ("señal/no señal"), filtradas estrictamente por criterios estadísticos; los "niveles" son etiquetas interpretativas, no prueba de origen.
Quantum Contact H10 is a bilingual (English–Spanish) preliminary scientific paper presenting a falsifiable experimental hypothesis and a prospective testing protocol. The project investigates whether a controlled physical intervention on one optical-fiber trajectory (S2) produces an additional, reproducible response in another trajectory (S1), both illuminated by a common laser source. The proposed five-module apparatus combines an ESP32-S3 microcontroller, BPW34 photodiodes, PMMA optical fibers, magnetic and electric interventions, and an auxiliary double-slit experiment. The paper describes the experimental architecture, hardware and software implementation, Python/Flask-based acquisition, calibration procedures, randomized real-versus-sham trials, statistical analysis, and criteria for supporting, constraining, or rejecting the hypothesis. The protocol explicitly addresses common-source fluctuations, electromagnetic interference, thermal effects, vibration, and other conventional explanations. **This is a hypothesis and experimental protocol, not a report of confirmed H10 results.** No novel quantum interaction or photon entanglement is claimed. Author: J.S.Baenacock — JSBC Labs, Independent Researcher. Version 1.1 — 24 October 2026.
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.