Coded Reality Hypothesis – Maya 8

The Hypothesis of the Code-Based Reality (Māyā) proposes a radical shift in our perspective on the fundamental nature of reality. Instead of viewing the world as a continuous material continuum, Māyā interprets the universe as an emergent product of discrete information processing occurring at the level of fundamental space-time units—planxels. Each planxel represents the smallest unit of reality code with Planck length (~1.616 × 10⁻³⁵ m) and Planck time (~5.391 × 10⁻⁴⁴ s). In this model, physics no longer involves reconstructing causes from observed effects (reverse engineering) but instead describes the emergence of physical laws resulting from local informational operations and the global synchronization of planxels. The Māyā hypothesis integrates quantum mechanics with general relativity by reinterpreting phenomena such as gravity, dark matter, dark energy, and quantum fluctuations as informational effects. A key emergent parameter in Māyā is the fine-structure constant α ≈ 1/137.036, rigorously derived as the informational impedance Ξ(θ_eff) from variational minimization of logical entropy in the planxel lattice. This yields θ_eff ≈ 137.036° (golden angle with Planck-scale corrections: -2/φ³ for cubic anisotropy and +1/(3φ)⁵ for quantum noise), confirmed by 3D Monte Carlo simulations (N=20–30, converging in 3.7σ with CODATA 2018). Such unification bridges QED with gravitational effects, predicting testable variations in α (e.g., Lamb shift at 1057.8453010 MHz, verifiable via FCC). This approach helps avoid paradoxes and infinities known from classical physical theories, offering a coherent and testable vision of reality. The Māyā hypothesis is an invitation to interdisciplinary scientific collaboration, combining physics, cosmology, information theory, and numerical methods to further develop and empirically test this groundbreaking concept.