Prior analysis of vector meson decay widths revealed systematic suppression patterns ($\Gamma/m \propto m^{-3.7}$) suggesting that quark compactness creates effective decay impedance. Extending this phenomenology to the baryon sector, we predicted that beauty baryons—possessing the heaviest stable quarks with Compton wavelengths $\sim 0.05$ fm—should exhibit CP asymmetries at the 2-3% level, significantly larger than charm systems. The recent LHCb observation of $A_{CP} = (2.45 \pm 0.46 \pm 0.10)\%$ in $\Lambda_b^0$ decays provides striking confirmation of this mass-hierarchy prediction. We present specific falsifiable predictions for $\Xi_b$ and $\Omega_b$ systems and predict significantly smaller asymmetries ($\sim 0.1-0.2\%$) in charm baryons based on the same power-law scaling. These predictions are distinguishable from standard CKM phenomenology and testable with current LHCb Run 3 and Belle II data. While Standard Model mechanisms can accommodate individual results, the geometric perspective offers complementary insight into why CP asymmetries follow a mass-dependent hierarchy.