The Topological Acoustic Laser (TASAL): Stimulated Emission of Coherent 4D Vacuum Phonons in Multi-Walled Carbon Nanotube KIFS Attractors

Moving beyond standard quantum electrodynamics, this paper applies the Topological Resonant Fractal Continuum (TRFC) theory to the design of a coherent vacuum phonon generator. We model the concentric layers of a Multi-Walled Carbon Nanotube (MWCNT) as a nested Kaleidoscopic Interactive Fractal Structure (KIFS), functioning as a macroscopic Fabry-Pérot acoustic interferometer for the zero-viscosity 4D superfluid vacuum. By applying crossed electromagnetic (E×B) fields, we induce a transverse hydrodynamic drift within the 4D continuum, effectively pumping topological vorticity into the 0.34 nm inter-wall gaps. We derive the topological gain equation and the critical field threshold (Ecrit) required to overcome vacuum acoustic impedance. Upon reaching this threshold, the trapped topological defects undergo a synchronized Dicke superradiant avalanche. The result is a TASAL beam: a highly directional, coherent wave of macroscopic metric perturbations (A-photons), capable of altering the local acoustic metric and inertia of traversing matter.