Experimental Call to Verify Anisotropic Nuclear Bifurcation: Macroscopic Phase-Locking and Directional Emission in 60Co-Cobalamin Crystals

The current paradigm of nuclear physics (the Standard Model) postulates that spontaneous radioactive decay is a stochastic, spatially isotropic process practically uninfluenceable by external chemical bonds or standard electromagnetic fields. This paper presents a precise, low-cost laboratory experiment design that directly tests this premise based on the Topological Resonant Fractal Continuum (TRFC) theory. According to the TRFC framework, an ordered 2D macrocycle (such as the corrin ring in Vitamin B12) combined with an external exciting radiofrequency field creates anisotropic acoustic pressure within the 4D vacuum. We predict that a monocrystalline sample of 60Co-cobalamin under resonant excitation will exhibit a symmetry breaking of its decay (focusing gamma emission along the axial axis) and, upon sudden deactivation of the field, induce phase-locked Dicke superradiance. The paper defines the exact measurement methodology and invites experimental laboratories to empirically verify this phenomenon.