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Quantum Contact — JSBClabs

Juan Sebastian Baena Cock

Published Jan 1, 2026• 0 citations
Publisher

Abstract

Experimental platform studying micro-stochastic structure in a double-slit interference system. Includes H1 (MicroFirst global) and H2 (EEG-linked micro-coherence). Repository for papers, datasets, and analysis artifacts (PDF/CSV).
DOI
10.17605/osf.io/gjx4k

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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 project collects materials related to Hypothesis 1 (H1) of the QuantumContact research line. In this experiment, a home-built double-slit setup is used to study micro-stability in the interference pattern, focusing on sensor S2 and, in an exploratory extension, on EEG-derived channels (ATT, MED, BLINK, POOR). The main dataset, analysis code and the bilingual Monte Carlo report for sensor S2 are archived in Zenodo and should be cited as the primary record: https://doi.org/10.5281/zenodo.17782214 This OSF project provides: – A high-level description of the H1 protocol and session. – Links to Zenodo, Figshare and other repositories. – Additional EEG-focused Monte Carlo reports and figures (ATT/MED/BLINK/POOR). En conjunto, este proyecto OSF funciona como “hub” abierto donde se documenta la hipótesis H1 de QuantumContact, se enlazan los datos oficiales en Zenodo y se añaden análisis exploratorios centrados en el EEG.
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.