This publication demonstrates a new analytical framework for extracting macroscopic forces, indicating significant advancements in theoretical physics.
Key Points
The aim is to create a mathematical framework that connects physical mechanisms to statistical bounds in fifth-force extraction.
Utilized Non-Stationary Matérn covariance for spatial mapping.
Employed Mahalanobis distance for dynamic variance assessment during multi-shock events.
Implemented a covariant algebraic floor to manage heat depletion effects.
Updated anisotropic scaling metrics through discrete protocols to prevent nonlinearities.
Derived numerical scenarios to evaluate extraction confidence and signal-to-noise ratio.
Determined baseline variance of 0.9216 meV^2 with a target shift of 0.131 meV.
Achieved a signal-to-noise ratio of 2.48, leading to an extraction veto.
Successfully recentered the target shift to zero after planetary occlusion.
Cite This Study
Darren Dominic Fabri (2026) studied this question.