Cosmological Constant Solver V1.0.0 — Holographic Resolution of the Hubble Tension

Complete reproducible analysis demonstrating that the Hubble tension — the 7.96-sigma discrepancy (p = 1.66 × 10⁻¹⁵) between early-universe (H₀ = 67.70 ± 0.25 km/s/Mpc from CMB/BAO) and late-universe (H₀ = 72.40 ± 0.53 km/s/Mpc from distance ladders) measurements of the Hubble constant — is a distance calibration artifact arising from information curvature (IC) in galaxy environments. The IC framework introduces a local metric perturbation, sourced by baryonic structures, that systematically biases electromagnetic distance indicators (Cepheids, TRGB, SNe Ia) by √(1 + Ω_IC) ≈ 1.069, corresponding to Δμ = 0.146 mag, while leaving geometric probes (CMB, BAO) and gravitational-wave standard sirens completely unaffected. The IC density Ω_IC = 0.151 is independently derived from fits to 175 SPARC galaxy rotation curves via a Schechter mass-function-weighted bridge equation (η = 0.949), requiring no cosmological fine-tuning. The framework passes 40/45 quantitative checks (89%) spanning galactic dynamics (175 SPARC rotation curves), cosmological observables (Pantheon+ SNe Ia, DESI BAO, CAMB CMB power spectrum, KiDS/DES weak lensing), and distance ladder calibration (9 independent methods reduced from 5.1σ to 0.44σ). Key falsifiable prediction: gravitational-wave standard sirens should measure H₀ = 67.7 km/s/Mpc (not 72.4), testable at ~6σ confidence by the Einstein Telescope (~2035). This prediction is diametrically opposite to early dark energy proposals. Includes: 23 Python analysis scripts, Pantheon+SH0ES supernova data (1,701 SNe Ia), 12 JSON results files, 4 figures, and the full manuscript. Author: Kevin Henry Miller, Founder & President, Q-Bond Network DeSci DAO, LLCORCID: 0009-0007-7286-3373Contact: Kevin@qbondnetwork.com | Quantumblackswan@protonmail.com