Daou_Gravitational_Decoherence_Proposal_v1.0.pdf

We propose a novel experimental protocol to test the conservation of quantum information inmacroscopic biological systems. While standard biological decoherence is modeled as a thermodynamicentropy increase, recent developments in the Orch-OR model and Fr¨ohlich Condensatedynamics suggest that complex biological systems may maintain high-temperature quantum coherencevia topological isolation in microtubule structures. Utilizing the Mass-Energy-InformationEquivalence Principle (Landauer’s Limit), we calculate that the sudden decoherence of a criticallyentangled biological state (N ≈ 1027 qubits) releases a transient pulse of energy with a gravitationalmass equivalent of ∼ 30 ng. We distinguish this ”Information Shockwave” from thermal dissipationby calculating their respective timescales and magnitudes. We present a Near-Field Interferometricdesign (r < 3mm) capable of detecting this anomaly and define a rigorous falsifiability condition todistinguish quantum information conservation from classical heat loss. Update: The rigorous mathematical derivation of this hypothesis, including the stress-energy tensor analysis, has been published here: https://zenodo.org/records/18650313?token=eyJhbGciOiJIUzUxMiJ9.eyJpZCI6IjhiMmZkMDdlLWE2ZTUtNGExOS04NDdlLWJiMDYwZDVkNDY1OSIsImRhdGEiOnt9LCJyYW5kb20iOiI2M2JhNDBiZDRhNzdkYzhkZjY2YzgyZTU4MDAzMmRjZSJ9.0Fm7qAV0W0GRSbcdCfhsNQogxA0BiYnZMlUp86WTxbj0vNlkPothHL_HKTgDbz5H3ECGTTcJ4ZF1GgbaLwS-Lw