What question did this study set out to answer?

This research aims to address the cosmological constant problem using the Organic Simulation Hypothesis framework.

February 24, 2026Open Access

The Cosmological Constant Problem from an Information-Geometric Perspective

Key Points

This research aims to address the cosmological constant problem using the Organic Simulation Hypothesis framework.
Tested the Organic Simulation Hypothesis with d_c=7.
Predicted dark energy equation of state using assisted quintessence with N=7 exponential fields.
Applied the CKN holographic bound to estimate dark energy density.
Predicted equation of state w_0 = -6/7, aligning closely with DESI DR2 measurements.
Reproduced dark energy density within a factor of 0.49.
Identified strong connections between fermion mixing and cosmological parameters.

Abstract

We test the Organic Simulation Hypothesis (OSH) framework based on dc=7 against the cosmological constant problem. The framework succeeds in predicting the dark energy equation of state: w₀ = -1 + 1/dc = -6/7, lying 0. 35 sigma from the DESI DR2 measurement w₀ = -0. 838 +/- 0. 055. The prediction is realized via assisted quintessence with N=7 exponential fields from G₂ moduli. The CKN holographic bound reproduces the observed dark energy density to within a factor of 0. 49 (with 1/ (8pi) normalization). A proposed three-scale formula fails by ~58 orders of magnitude (source document computational error, reported transparently). The same dc=7 that predicts fermion mixing angles (chi²=2. 63) also determines w₀, connecting particle physics to cosmology through a single topological invariant. Four falsification criteria are specified.

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