Paper 2; Testable Deviations from CDM: A Redshift Framework from Rotational Coherence

We present a new redshift model derived from the Holosphere lattice framework, which interprets the universe as a finite, discrete, rotating medium composed of coherently spinning units. In this model, cosmological redshift arises from two distinct mechanisms: a relativistic Doppler-like shift due to spiral emission from rotating shells, and an exponential phase drag caused by accumulated angular strain across the lattice. This hybrid equation reproduces the standard Hubble relation at low redshift, but diverges at high redshift in ways that eliminate the need for dark energy, inflation, or superluminal expansion. We compare this framework to ΛCDM across multiple observables—including luminosity distance, surface brightness, lensing, and time dilation—demonstrating consistent fits without invoking free parameters beyond the coherence boundary radius R. The model predicts redshift saturation effects, coherence loss at high z, and lensing anomalies tied to rotational strain, all of which offer falsifiable deviations from standard cosmology. This approach provides a unified, physically discrete foundation for interpreting both gravitational and quantum phenomena through coherence propagation in a rotating spacetime lattice.