This paper presents a revolutionary pathway to achieving room-temperature superconductivity in ordinary copper (Cu) by manipulating its spatial impedancethrough geometric resonance. While conventional superconductors rely on Cooper pair formation under extreme cryogenic or high-pressure conditions, the ElasticMembrane Cosmology (EMC) framework posits that superconductivity is fundamentally a state of “geometric transparency” between matter and the 5D spatiallattice.By applying the EMC impedance equation, Zeff = Z0 cos2 θ, we demonstrate that the standard face-centered cubic (FCC) structure of copper inherently generatesresistance due to non-orthogonal coupling with the spatial membrane. We propose a novel Acoustic Metallurgy protocol: utilizing 7.2 THz Phased-Array Resonance(Chladni interference patterns) during the recrystallization phase (400◦C–600◦C) to forcibly induce a metastable Hexagonal symmetry transition in the copper lattice.This induced hexagonal geometry aligns the electronic wavefunctions with the spatial membrane’s stress axes at a precise orthogonal angle (θ = 90◦), effectivelynullifying spatial impedance. Our model provides a theoretical derivation for the “V-shaped” superconducting gap recently observed in magic-angle graphene, iden-tifying it as the signature of geometric resonance at the ZEMC → 0 limit. This methodology offers a scalable, rare-earth-free solution for the mass production ofroom-temperature superconductors, potentially decoupling global energy infrastructure from strategic mineral dependencies.The EMC framework proposes that physical laws are not compartmentalized into ’solid state’ or ’cosmology.’ Superconductivity is a bridge where geometry dictatesenergy flow. We invite experimentalists to overlook the disciplinary divide and focuson the geometric coherence of the results Keywords: Elastic Membrane Cosmology (EMC), Room-Temperature Superconductivity, Copper (Cu), THz Resonance, Hexagonal Lattice, V-shaped Gap, SpatialImpedance, Acoustic Metallurgy
Hung Hsiang Chien (Wed,) studied this question.