Bioelectric Decoherence in the Lunar Magnetic Vacuum: A Predicted 96-Hour Failure Threshold for the Artemis II Crew

As the Artemis II mission prepares to carry a human crew beyond the Earth’s magnetopause, aerospace medicine remains focused on ionizing radiation and microgravity, largely overlooking the "magnetic vacuum" hazard. This updated repository utilizes the Halcyon Unified Langevin Formalism (version 3.2) to establish a strictly falsifiable 96-hour (T-96) bioelectric collapse threshold. Utilizing a 2.30 Terahertz DNA resonance bridge to resolve the Boltzmann thermal noise (kT) paradox, we identify a hierarchical coupling between the 7.83 Hertz Schumann metronome and conformational Voltage-Gated Calcium Channel (VGCC) gating. Numerical integration predicts an exponential failure trajectory beginning at 48 hours post-departure, culminating in a terminal voltage collapse to negative 30.17 millivolts—the known threshold for mitochondrial permeability transition pore (mPTP) opening. The report identifies a scale-invariant 12.4-second Instrumental Cycle (tau-ins) and a 1.6-fold effective thermal flux (q) signature, providing a definitive forensic marker for managed metric engineering versus biological failure. We establish the theoretical requirement for the Condition E Rescue Protocol utilizing Magnesium-25 (25-Mg) Magnetic Isotope Effect (MIE) stabilization to arrest entropic drift and maintain homeostatic resting membrane potential at approximately negative 70 millivolts during deep-space transit. Included Files: manuscript_v3_2.pdf: Main Research Perspective. supplementary_information.pdf: Analysis Plan and Technical Appendix. halcyon_sim_v3_2.py: Discrete Langevin Solver (Python 3.x). Simulation-Halcyon.png: High-fidelity visualization of predicted T-96 collapse. OSF Preregistration DOI: 10.17605/OSF.IO/RFHV2 Principal Investigator: Kevin Thorsen Baird Institution: The C4 Institute / Baird Research and Strategic Sciences (BRSS), Fort Myers, Florida, USA.