Honest Assessment

14,585 galaxies. Environment-dependent RAR (Radial Acceleration Relation) scatter (Novel Prediction 2) at p = 5×10⁻⁶. σ_int = 0.086 ± 0.003 dex, below CDM (Cold Dark Matter) prediction.

Caveat: MOND + mass-to-light corrections explain all variance. 86% of RAR scatter remains unexplained (R² = 0.14).

MOND's acceleration constant a₀ related to cosmological parameters via a₀ = cH₀/(2π). 10% error vs observed value. This numerical coincidence has been noted since Milgrom (1983), and other frameworks (McCulloch 2007, Verlinde 2017, Smolin 2017) derive the same relation with the same geometric factor. The quantities c, H₀, and G are the only dimensionally relevant cosmological constants, and cH₀ naturally has units of acceleration. Best classified as dimensional analysis, not a unique derivation.

1,703 chemical phenomena. Sound velocity r = 0.982, electronegativity r = 0.979. Top correlations are strong.

Caveat: ~11% failure rate. Era 2 chemistry (sessions 134-2660) identified as template-based.

Unresolved interpretive question: The 89% rate mixes prospective predictions and post-hoc correlations, and the 1,703 phenomena are not all statistically independent (sound velocity, electronegativity, and atomic volume co-vary across the periodic table for well-known bonding reasons). Until the rate is decomposed into independent prospective predictions, “89% validated” is better read as “89% consistent with the γ ≈ 1 boundary” — a weaker but still meaningful statement.

Surface density Σ₀ = cH₀/(4π²G). 12% error vs Freeman's observed value (124 M☉/pc²).

Average error 53%. Crystal structure dominates melting behavior, and C(ρ) has no crystal-specific parameters.

Predicted exponents differ from observed by a factor of ~2. Universality class physics can't be captured by a single coherence parameter.

T_c = Δ/(1.76k_Bη) predicts 607K for YBCO (yttrium barium copper oxide). Actual: 93K. Off by 6.5×.

Independently derived, then found to be identical to Abrikosov-Gor'kov pair-breaking efficiency (1960). All 23 superconductor predictions are standard condensed matter in different notation.

C(ρ) was proposed to explain cross-scale hierarchy boundaries. 36/36 tests: 0/7 boundaries predicted. The tanh form is generic (Landau theory). C(ρ) is description, not explanation.

The TEST-03 kill criterion states: “TFR residual explains <20% of scatter.” The measured value is R² = 0.14 (environmental term explains 14% of total RAR scatter). Under a literal reading, the kill criterion is triggered: 14% < 20%.

One open question: whether the kill criterion was intended against total RAR scatter or against the residual-after-MOND scatter — a difference that could change the verdict. Until the archive source is audited, TEST-03 is classified as presumptively failed. The Tier 1 catalog carries a matching notice.

The site previously stated a universal BTFR exponent n ≈ 2.2. This number has no archive source — it was a site→archive transcription error (explorer finding, 2026-04-23). The archive (Session 193, Paper Summary) actually predicts regime-dependent slopes: n → 4 in the deep-MOND limit, n → 2 in the near-Newtonian limit, n ≈ 2.75 for transition-dominated full-sample fits. Lelli 2019's n = 3.85 ± 0.09 is consistent with the archive's per-regime prediction for a SPARC-like deep-MOND-dominated sample. TEST-09 has been restated in the Tier-1 catalog as a regime-dependent slope test.

CFD mapping: C = 1/μ_eff. Dark matter (low C) should mean high viscosity = more sticky. But the Bullet Cluster shows dark matter passes through itself — LESS sticky than baryons. The viscosity interpretation predicts the wrong direction.

Parallel update eliminates scan-axis preference, but no discrete 3D lattice has continuous rotational symmetry SO(3). “No preferred direction” does not imply “full Lorentz invariance.” Grid geometry must be specified.

The only genuine novel prediction path (R(I) viscosity correction to quantum pressure) gives corrections of ~10⁻⁸⁰ at the densest accessible physics. Lives at Planck-scale densities. Not accessible to any foreseeable experiment.

From oscillation basis: particles must complete at least one Compton oscillation before decaying. Derivable from first principles; not derivable from QFT. The f₀(500)/sigma (Γ/m ≈ 1.16) is predicted “not a particle” — consistent with genuine PDG controversy. Strongest candidate novel prediction found across all 8 sessions.

34 falsifiable predictions. Requires EEG (electroencephalography) experiments ($150K, 12 months).

6 testable protocols for MRH-based (Markov Relevancy Horizon) measurement theory. Requires dedicated experiments.

Synchronism predicts density-dependent modulation of baryon acoustic oscillation peak positions. Testable with existing survey data.