This release presents the R125–R130 master package of the Karahan-Einstein Framework / MEON V50, extending the previous galaxy-rotation and anti-cheat audit chain with direct strong-lensing and CMB validation. R125 performs a direct real-data SLACS strong-lensing audit using 43 observed lens systems. The MEONDIRECTN194 lens equation passes the held-out SLACS test thresholds with a test median absolute Einstein-radius error of 0. 135965, a mean absolute error of 0. 126607, 25% coverage of 0. 846154, and test χ² = 28. 274977. This supports MEON as a direct galaxy-scale strong-lensing candidate. R130FIXEDSTRICT performs a validated local Planck 2018 TT binned CMB audit. The audit uses the genuine Planck file COMPowerSpectCMB-TT-binnedR3. 01. txt and excludes virtual environments, site-packages, SciPy test data, and old output folders. The strict audit uses 83 TT bins and passes all R130F claim checks. MEON N194 achieves a held-out reduced χ² of 1. 328909, compared with ΛCDM at 1. 318664, giving a MEON/ΛCDM ratio of 1. 007770. In contrast, the baryon-only model gives reduced χ² = 902. 763772, corresponding to a baryon/MEON ratio of 679. 326753. Together, R125 and R130 show that MEON N194 passes direct SLACS strong-lensing validation and a strict local Planck TT binned CMB audit nearly at ΛCDM level, while baryon-only fails catastrophically. Scientific caution: This release does not claim a full official Planck clik TT/TE/EE likelihood replacement. R130FIXEDSTRICT is a strict local Planck TT binned audit. Full official Planck clik TT/TE/EE validation remains future work. Keywords: Karahan-Einstein Framework; MEON; Dark Matter Alternative; Spacetime Torsion; Galactic Rotation Curves; SLACS Strong Lensing; Planck 2018; CMB; ΛCDM; CAMB; Cosmology; R125; R130
Asil Karahan (Mon,) studied this question.