CMB Anisotropy as the Mathematical Refutation of the Big Bang Theory and the Validation of NMSI

Abstract This paper rigorously analyzes the Cosmic Microwave Background (CMB) anisotropy as a decisive empirical test capable of falsifying the Big Bang Theory (BBT) and validating the New Subquantum Informational Mechanics (NMSI) framework. While BBT assumes a stochastic origin for the CMB's anisotropic structure—attributed to early-universe quantum fluctuations—NMSI predicts that these patterns arise from deterministic, phase-locked subquantum oscillations that permeate the entire cosmos. We demonstrate that the statistical and harmonic structures present in the CMB, particularly low-ℓ mode coherence and large-angle anomalies, align more closely with NMSI’s mathematical predictions than with BBT's inflationary assumptions. Through the use of Kuramoto- like synchronization models and Stuart–Landau amplitude dynamics, we map subquantum harmonic resonances to spherical harmonic coefficients Y_{ℓm} of the CMB and propose specific observational tests, including targeted analysis of Planck data for Fibonacci-based spectral banding.