Strong gravitational lensing of distant quasars produces multiple images with measurable time delays usable to infer H₀. Lensing-based H₀ (H0LiCOW, TDCOSMO) shows systematic tensions with both CMB-derived and local-ladder values. Derived H₀ depends sensitively on lens mass distribution, line-of-sight structure, and cosmological model assumptions (Suyu 2017; Wong 2020). ΛCDM struggles with mass-modeling degeneracies + dark-matter-distribution uncertainties.
The standard model has lens models with cuspy NFW dark-matter halos producing specific time-delay distances. Recovering the high H₀ values from time-delay lensing requires either revised lens-mass models (mass-sheet degeneracy issues) or accepting the H₀ tension as real. The model has no clean source for the systematic offset.
SCT replaces the hot-dense-center with a superluminal collision and the thermalized debris field. From this single change, strong-lensing time delays incorporate gravitational superposition through the Φ_mesh contribution that ΛCDM omits. The effective gravitational potential Φ_eff = Φ_local + Φ_mesh (P50, P51) adds A ≈ 5 to 6 enhancement to the lensing mass (P52, A* = 5.970 from 1/f_b in Paper 13), modifying the inferred D_Δt and H₀.
Per Paper 13, the Coma filament M_lens/M_bar = 5.97 ± 1.5 (P14 confirmed) and the cluster sample HIFLUGCS+CLASH gives A_corr = 6.006 (0.6% deviation from A* = 5.970, < 0.1σ). ΛCDM lens models that omit Φ_mesh systematically overestimate the H₀ from time-delay lensing because they attribute the full A* enhancement to the local matter alone. Full SCT modeling with the mesh contribution yields H₀ = 70.4 km/s/Mpc (Paper 16, CAR consensus), intermediate between Planck (67.4) and the high time-delay-lensing values (~73).
Pre-existing matter (P25) gives lens-galaxy population diversity. Angular-momentum inheritance (P31, P32) gives lens orientations correlated with cascade-stream J. The same M6 framework that produces the A_lens = 1.18 CMB lensing excess (recid 16, 30), the cluster GGSL excess (recid 194), and the broader no-DM-particle phenomenology accounts for strong-lensing time-delay H₀ as a coherent-mesh signature.
If next-generation TDCOSMO + LSST strong-lensing analyses with full Φ_mesh modeling deliver H₀ matching SH0ES at the 0.5% level (no Φ_mesh-driven downward shift toward 70.4), the M6 coherent-mesh-lensing explanation is refuted. The signature SCT prediction is the H₀ offset matching the A* = 5.970 mesh-enhancement framework.