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Quantum Turing: Exploratory Analysis of Structured Signals in Quantum Contact / TORUS

Juan Sebastian Baena Cock

Published Mar 9, 2026• 0 citations
Publisher

Abstract

This publication presents an exploratory analysis within the Quantum Contact / TORUS framework. Juan Sebastián Baena Cock is the originator of the term "Quantum Turing," proposed here as a conceptual framework for the interpretation of structured, potentially non-random signal patterns detected in a highly sensitive double-slit optical system. The document includes theoretical context, experimental logic, signal-processing criteria, exploratory results, and interpretive discussion. This bilingual paper is intended as an open research contribution for public review, replication, and critical evaluation.

DOI
10.5281/zenodo.18928445

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This publication presents an exploratory analysis within the Quantum Contact / TORUS framework. Juan Sebastián Baena Cock is the originator of the term "Quantum Turing," proposed here as a conceptual framework for the interpretation of structured, potentially non-random signal patterns detected in a highly sensitive double-slit optical system. The document includes theoretical context, experimental logic, signal-processing criteria, exploratory results, and interpretive discussion. This bilingual paper is intended as an open research contribution for public review, replication, and critical evaluation.
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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.
The Quantum Turing Test (QTT) is proposed as a heuristic framework for evaluating whether outputs generated by non-conventional physical or informational systems exhibit structured behavior distinguishable from stochastic noise. Unlike the classical Turing Test, the QTT does not attempt to infer intelligence, consciousness, or agency. Instead, the framework focuses on the statistical, structural, and parametric properties of decoded outputs, including coherence, reproducibility, sensitivity to parameter perturbation, and resistance to post-hoc tuning. The Quantum Turing Test is explicitly agnostic regarding the origin of observed structure and is designed to be transparent, reproducible, and falsifiable. This work presents the conceptual foundations, scope, and limitations of the Quantum Turing Test as a methodological filter for determining when an observed result warrants further investigation beyond random processes.
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.
This working paper synthesizes the H3 line of the Quantum Contact project. H3 asks whether the decoded output of a laser-based double-slit optical system can contain recurrent, structured patterns — preambles, beacons, or organized signals — rather than uncorrelated noise. The paper describes the physical channel (laser, tube, double slit, sensors S1-S3, state marker S4), the decoding pipeline, the search logic, and the competing hypotheses H3 is designed to separate (random coincidence, instrumental artifact, informational contamination, observer self-imprint, trans-temporal self-beacon, non-conventional external influence). Reconstructed findings include repeated preamble detections, old beacon recurrence (8 detections in one report), and structured blocks repeated up to 30 times in a consolidated summary. This edition is an exploratory anomaly report and methodological consolidation, not a closed proof of a non-conventional source. Raw datasets will be deposited in a future Zenodo v2 release.