By Juan Sebastián Baena Cock
QuantumContact 👉 JSBC Labs – Independent Researcher, Ojén, Málaga (Spain)
Abstract
This paper explores a speculative yet physically grounded hypothesis: whether a non-quantum biological brain could interact indirectly with quantum-sensitive systems through classical interfaces such as neuro-apps and optoelectronic infrastructures. Drawing from the author’s Quantum Contact framework, the concept envisions a hybrid bridge between neural coherence (EEG-level) and photonic fluctuation detection, suggesting that focused mental states may produce measurable correlations within quantum-scale interference patterns.
1. The Classical Brain as a Coherent System
While the brain shows no direct evidence of operating on quantum principles, it does maintain high-level temporal coherence through synchronized oscillations (particularly in gamma and beta bands). These coherent states can be described as organized classical fields, producing measurable electromagnetic patterns that extend beyond single neurons.
Thus, even a non-quantum brain can, in theory, interact with a quantum apparatus—not by entanglement, but by serving as a coherent modulator.
In this view, consciousness functions analogously to a classical controller in a quantum computer: an interface that manipulates inputs without collapsing its own computational framework.
2. Apps as Cognitive Translators
Within this conceptual model, a mobile or digital app acts as the bridge between biological intent and quantum-sensitive instrumentation.
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The brain provides dynamic input via measurable EEG or bioelectric signals.
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The app translates those signals into formatted parameters or synchronization events.
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The quantum system (e.g., an optical interference grid or photonic detector array) receives this input as modulation or correlation data.
This triad effectively transforms the mind’s coherence into a data-driven handshake with quantum noise, producing a testable framework for mind–matter studies without invoking metaphysics.
3. Indirect Interaction Through Hybrid Systems
Current physics already supports hybrid quantum–classical couplings.
Examples include:
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Optomechanical feedback systems.
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Quantum sensors modulated by classical signals.
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Brain–computer interfaces where EEG activity gates signal acquisition.
In such cases, the coupling does not require quantum cognition, only synchronization between classical and quantum domains via measurable channels (voltage, photon count, or timing phase).
4. The Role of Intention and Focus
From a neurophysical standpoint, sustained attention reduces neural entropy and increases oscillatory coherence.
These coherent fields may generate subtle electromagnetic fluctuations detectable by sensitive optical instruments.
If such coherence synchronizes temporally with quantum-sensitive detectors, one might observe statistical deviations — not supernatural effects, but low-energy information couplings between organized biological activity and stochastic quantum systems.
In this sense, intention functions as a control signal rather than a mystical force.
5. Conceptual Framework
| Component | Function |
|---|---|
| Brain | Generates structured classical fields and intentional focus. |
| App | Acts as translator and correlator between EEG signals and physical sensors. |
| Quantum System | Provides a noise-sensitive physical substrate where potential correlations can be detected. |
This framework forms the conceptual foundation for Quantum Contact, an open-science exploration into the limits of conscious interaction with light interference.
6. Implications and Future Research
If reproducible correlations between attention states and quantum instability were observed, it would not imply “mind over matter” but a novel information-coupling channel between coherent biological systems and quantum environments.
Such a discovery would invite re-evaluation of observation not as a mystical act but as a thermodynamic exchange of information.
References
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Baena Cock, J. S. (2025). Quantum Contact: Testing Conscious Observation Through a Double-Slit Optical Model. Academia.edu.
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Penrose, R. (1994). Shadows of the Mind. Oxford University Press.
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Stapp, H. P. (2007). Mindful Universe: Quantum Mechanics and the Participating Observer. Springer.
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Tegmark, M. (2000). “The importance of quantum decoherence in brain processes.” Phys. Rev. E, 61(4).
© 2025 Juan Sebastián Baena Cock — QuantumContact 👉 JSBC Labs – Independent Researcher
Licensed under CC BY 4.0 International


