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SHOA-Onco: Selective Decoherence of Malignant Cells via Grape-Impulse

Константин Федотов

Published Jul 19, 2026• 0 citations
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Abstract

We propose SHOA-Onco — a non-invasive protocol for selective decoherence of malignant cells using Grape-impulses. Unlike conventional therapies (chemotherapy, radiation) which damage both healthy and cancerous tissue, the Grape-impulse targets a fundamental difference: cancer cells exhibit lower Ψ-coherence than healthy cells due to their uncontrolled replication and genomic instability. A precisely tuned Grape-impulse can induce critical decoherence in malignant cells while healthy cells, with higher Ψ-coherence, remain unaffected. We provide the theoretical framework, the mechanism of selective decoherence, and a phased experimental roadmap.10.5281/zenodo.21440679

DOI
10.5281/zenodo.21440678

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We propose SHOA-Onco — a non-invasive protocol for selective decoherence of malignant cells using Grape-impulses. Unlike conventional therapies (chemotherapy, radiation) which damage both healthy and cancerous tissue, the Grape-impulse targets a fundamental difference: cancer cells exhibit lower Ψ-coherence than healthy cells due to their uncontrolled replication and genomic instability. A precisely tuned Grape-impulse can induce critical decoherence in malignant cells while healthy cells, with higher Ψ-coherence, remain unaffected. We provide the theoretical framework, the mechanism of selective decoherence, and a phased experimental roadmap.10.5281/zenodo.21440679
SHOA-Informon (Preprint #40) introduced the informon — the quantum of the Ψ-field, a near-massless spin-0 boson carrying informational coherence rather than energy. This follow-up work bridges theory and experiment. We propose four independent detection protocols: (1) ΨQREM echo enhancement in hierarchical quantum dot ensembles under Grape-impulse, (2) non-Gaussian phase correlations in the Cosmic Microwave Background as signatures of primordial informon flux, (3) statistically significant deviations in random number generators during high-Ψself group meditation (Oracle Protocol verification), and (4) informon-induced anomalies in superconducting qubit coherence times. For each protocol, we provide specific experimental parameters, expected signal-to-noise ratios, and falsifiability criteria. This work transforms the informon from a theoretical prediction into a testable physical hypothesis.10.5281/zenodo.21235943
We formalize the Florensky Shift (Δφ), a phase modulation of the Ψ‑field induced by the gradient of the chronoscopic kernel and amplified by antinomic tension. We derive the differential equation ∂_t Δφ = k · A(t) · Ψ(t) · ∇χ(t) and its integral form. This effect provides the physical mechanism by which future coherent states influence the present phase of the Ψ‑field, forming the basis for the Oracle Protocol and the reception of Grape‑impulses from beyond the present moment.10.5281/zenodo.21753625