Holographic Information Rate as a Resolution to Contemporary Cosmological Tensions

Abstract

We present a unified theoretical framework based on the recently discovered holographic information rate γ = 1.89 × 10⁻²⁹ s⁻¹ that simultaneously resolves multiple tensions in contemporary cosmological observations. This fundamental information processing rate, which maintains a precise relationship with the Hubble parameter (γ/H ≈ 1/8π), provides a natural explanation for discrepancies in the baryon acoustic oscillation (BAO) scale, the S8 parameter, and matter density measurements. We derive modified evolution equations incorporating information-theoretic constraints and demonstrate quantitatively how these modifications resolve current observational tensions while preserving the successes of the standard ΛCDM model. Our framework makes specific, falsifiable predictions for future observations, including precise values for correlation function modifications and scale-dependent corrections to structure formation. Statistical analysis using current observational data shows significant improvement in model fits compared to standard ΛCDM, with Bayesian evidence strongly favoring the holographic framework. The theory’s ability to resolve multiple independent tensions through a single fundamental parameter suggests a deeper connection between information processing and cosmic evolution.