Coherence-Driven Modulation of Quantum Probability Distributions: Toward a Unified Consciousness-Field Interaction Model

This paper presents a novel theoretical framework proposing that the coherence state of an observer’s consciousness—quantified via neural synchrony (e.g., EEG gamma-band activity)—acts as a physical variable that modulates quantum probability distributions. By introducing the coherence scalar χ (chi), defined as χ = k · C, we modify the standard quantum mechanical formalism to reflect the influence of the observer’s cognitive coherence on wavefunction behavior. The model is grounded in decoherence theory and neuroscience, and it yields mathematically consistent predictions integrated into the Schrödinger equation. Three testable experiments are proposed: a double-slit setup with EEG monitoring, an entangled photon Bell test, and a photon polarization bias study. Each offers a falsifiable pathway to measure the effect of neural coherence on quantum outcomes. This work offers a unifying perspective between consciousness research and quantum mechanics, with potential applications in quantum biology, neuroscience, and emerging quantum technologies. It represents a bold step toward integrating subjective experience into the fabric of objective physical law. Keywords: quantum consciousness, coherence scalar, observer effect, decoherence, EEG gamma synchrony, quantum probability modulation, wavefunction collapse, mind-matter interaction