Resolution Dynamics: Deriving the Fine Structure Constant from Shannon Capacity (zenodo.org)

A new working paper introduces a groundbreaking approach to understanding the fine structure constant (α) by framing it as a derived ratio of quantum resolution dynamics rather than a fundamental pillar of physics. This research builds upon previous experiments by Pokorny et al. (2020), applying an information-theoretic perspective through Shannon channel capacity. The study posits that the "stiffness" of physical constants, measured as β ≈ 10⁻⁵, stems from the prevailing influence of primordial Planck constraints over thermal noise, suggesting a novel interplay between fundamental physics and information theory. The paper makes a significant advance by offering a specific, testable prediction related to the evolution of α concerning cosmic redshift, supported by existing quasar absorption data. Additionally, it suggests that spatial variations in α could be linked to the distribution of large-scale matter, potentially providing insight into phenomena like the Webb dipole. This research not only enriches the ongoing discourse around the informational origins of physical constants but also integrates seamlessly with the broader "Resolution Cosmology" framework, marking a critical juncture for future exploration in the AI/ML community focused on modeling and predicting fundamental physical behaviors.