This technical analysis re-evaluates the extreme thermal behavior of the exoplanet HD 80606 b, characterized by a rapid 600°C temperature spike during periastron. While standard models rely on radiative stellar flux and atmospheric absorption, we propose a more robust solution through the lens of Dynamic Vacuum Theory (DVT). Under this framework, the anomaly is driven by vacuum pressure gradients (- Pᵥ) and fluidic compression rather than purely radiative transfer. Central to this model is the Core Vacuum Constant, ᵥ = 2 G 4. 28 10^-11 m/s², which governs the zero-divergence fluid continuity constraint (u = 0) within the superfluid quantum vacuum ocean. Spectroscopic analysis from JWST and Spitzer reveals significant shifts in methane and carbon dioxide traces, which we identify as phase transitions mediated by the Phase Transition Coefficient (kd). By modeling HD 80606 b as a localized rotational vortex, we demonstrate that its atmospheric response is a predictable manifestation of the Galactic Pressure Law (GPL), bridging the gap between planetary perturbations and large-scale non-Keplerian velocity distributions.
Umut Artik (Sat,) studied this question.