Predictions of Elastic Model

AbstractThis follow-up paper extends the pure geometric lattice framework introduced in Part I (DOI: [10.5281/zenodo.XXXXXXX]) by testing its discrete invariants against existing astrophysical benchmarks and formulating falsifiable predictions for next-generation observatories. Without invoking inertial mass (M), the gravitational constant (G), or Planck's constant (h_bar), the model demonstrates that LIGO-Virgo-KAGRA black hole merger luminosities (peak ~3.6 * 10^49 W) and compact-object caliber gaps (6.5 km to 14.8 km) directly reflect the mechanical discharge ceiling (L_max = 3.62826 * 10^52 W) and discrete stability steps of the elastic vacuum lattice. Furthermore, the framework yields two concrete, testable predictions: (1) the presence of an older, concentric galactic shock shell at 75,000 to 90,000 light-years beyond the Fermi and eROSITA bubbles from a prior ~5.2-million-year Sagittarius A* centrifuge cycle, and (2) the termination of Hawking evaporation at a single spatial pixel radius (Rs_min = l_P = 1.616255 * 10^-35 m), leaving behind non-radiating Planck-scale lattice nodes (E_remnant = 9.7804 * 10^8 J) as dark matter candidates.