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Theoretical modeling demonstrates sub-per-cent relativistic orbital corrections around Sagittarius A, indicating supermassive black holes can be modeled as non-singular Planck star cores.
This monograph applies the mathematically continuous scalar-tensor formulation of the Dewhirst Horizon Relation to analyze the orbital kinematics and relativistic corrections of test stars orbiting Sagittarius A* (Sgr A*) at the center of the Milky Way. Mainstream Schwarzschild metric calculations achieve sub-per-cent mass precision but require an infinite-density point singularity, introducing severe mathematical divergences. By applying the density-dependent screening loop of the Dewhirst operator, this paper demonstrates that the hyper-dense baryonic environment (rho -> high) of the galactic center forces the effective mass of the scalar field to infinity. This completely screens out field interactions, smoothly driving phi -> 0. Operating strictly within this continuous limit, the framework natively recovers classical Einsteinian relativity (E=mc²) inside the central core. This seamless transition accounts for all measured dominant relativistic corrections—including gravitational redshift, the transverse Doppler effect, and prograde Schwarzschild precession—with sub-per-cent precision, while physically tracking the central mass as a stable, non-singular Planck Star core configuration. This file forms Document 30 of the ongoing independent physics library.
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Richard Stephen Dewhirst (2026) studied this question.
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