Biological Probes of the Mass-Torsional Field: Cadmium Disruption and Thermal Threshold Tests of Torsional Coherence in Microtubules and DNA within G-MaTT

Abstract The Generalized Mass as Twisted Time (G-MaTT) framework predicts that microtubules (MTs) and DNA double helices function as torsionally coherent waveguides, maintaining long-range phase coherence at physiological temperatures through topological protection and active metabolic error correction. Coherence collapses when phase differences exceed the Twist-Untwist Threshold (\(|\Delta\phi| > \sqrt{\alpha} \approx 0.085\)). We propose two low-cost biological experiments to test this prediction: (1) cadmium ion (Cd²⁺) titration to induce phase-slip amplification, and (2) temperature ramp to cross the predicted coherence threshold near 40–45 °C. Both should produce sharp, non-linear drops in conductance and charge-transfer efficiency — distinct from gradual structural denaturation. Detailed protocols, upgraded 2D and 3D lattice simulations showing threshold cascades, and a realistic assessment of experimental feasibility are presented. Confirmation would provide direct evidence of a pre-geometric torsional field in living systems; refutation would constrain the active correction mechanism.