NASA’s Artemis II mission (1–10 April 2026) has delivered the cleanest macroscopic free-fall acceleration dataset since Apollo. This paper presents a synthesis and modest extension of Kaluza–Klein geometry, Verlinde entropic gravity, and recent holographic approaches. Gravity emerges as the 4D projection of neutral-particle geodesics in a non-linear compactified 5D manifold, while charged-particle extra-dimensional momentum yields electromagnetism. The central advance is a frequency-dependent non-linear + entropic screening mechanism α (ω) = α₀ / (1 − iωτₑnt) with β = 2 power-law suppression arising from quadratic non-linearities in the 5D Einstein equations. This mechanism satisfies all terrestrial bounds yet predicts a measurable lunar deviation δg/g ≈ 2 × 10^-15 (R₅ = 10^-4 m, τₑnt ≈ 10^-2 s) with SNR > 5 in the Artemis-accessible low-frequency window (ω ≪ 2π/Tₒrbit). The 150 kg modular dual-species ^87Rb/^39K atom-interferometer payload Rocky is fully compatible with Starship HLS and CLPS and is targeted for the lunar South Pole near Shackleton Crater. Phase 0 re-analysis of public Artemis II data already tightens the (R₅ – τₑnt) exclusion contour by 40 %. Full repository: https: //github. com/andrewdeece/rocky-kk-yield
Andrew Deece (Sun,) studied this question.