The Integer Architecture of Physical Reality: Eliminating Human Artifacts from Fundamental Constants

This article examines the relationship among fundamental constants and presents an approach for deriving a consistent and comprehensive set of natural constants with minimal unit pressure, achieving close agreement with CODATA2018 values. The approach is based on the Metric Model (MM), in addition incorporating the integer geometric properties of the so-called iSpace. Inspired by a 1965 lecture held by Cornelius Lanczos, the model interprets the expansion of the universe as a consequence of a metric wave field. It enables the exact calculation of most natural and cosmological constants, including the Hubble parameter(s) in close agreement with current observations. The model further suggests that most natural constants are not truly constant but depend on the reference frame defined by space, time, distance, mass, and velocity. However, except for mass and velocity, most of these variations cancel each other, resulting in a virtual relativity principle. The article analyzes a set of about 85 fundamental constants for consistency and accuracy by applying electromagnetic, quantum, and gravitational relations. The results indicate that the growing discrepancies revealed by increasingly precise experiments point to a deep inconsistency in our current understanding of fundamental physics.