Boundary Energy Revealed
one measured input (\sin^2\theta_W = 0.2312) · the constants \hbar, c, G, \rho_\text{DM} · one cell occupancy fraction f = 4\pi/(K\sqrt{2}) — no other adjustable parameters
the prediction scorecard — each row: quantity · expression · predicted → observed · discrepancy
1Electroweak & particle physicsevery row anchored to one angle

Higgs VEV v \sqrt{8\pi\,m_\text{eff}^2c^4\,\nu} 246.1 → 246.22 GeV 0.06%

Koide relation Q \tfrac13+(\sqrt2)^2/6 2/3 → 0.666660 9 ppm

muon/electron mass \mathbb{Z}_3 clock, \delta=2/9 rad 206.77 → 206.768 0.001%

fine structure \alpha \sin^2\!\delta_0\,\sin^2\theta_W/\pi 1/135.1 → 1/137.04 1.4%

anomalous moment (g{-}2)/2 = \alpha/2\pi 0.001178 → 0.001160 1.6%

core–boundary \eta \sqrt{\alpha/2\pi} 0.03432 → 0.03406 0.8%

the three lepton generations are the three cube-roots-of-unity phases of one vortex junction — the same \mathbb{Z}_3 that gives color and the \pm\tfrac23 quark charges
2Cosmology & gravitysame constants, cosmic scale

MOND scale a_0 c\sqrt{G\rho_\text{DM}} 1.16 \rightarrow 1.20\times10^{-10} m/s² 3%

cosmic coincidence a_0/cH_0=\sqrt{3\Omega_\text{DM}/8\pi} 0.178 → 0.179 0.7%

dark energy is transient Volovik self-tuning: C=1 DESI DR2 best fit: C=1.0 hit

dark-energy scale \rho_\Lambda^{1/4}\approx m_1c^2, one density 2.0 → 2.24 meV 8%

baryon asymmetry \eta_B \varepsilon_\text{chirality}^{\,9} 5.8 \rightarrow 6.1\times10^{-10} 5%

e-folds, untuned N_*=\ln(c/H_0\xi), geometric \approx 60; n_s 0.968 → 0.965 0.3%

the Hubble and S_8 tensions become one leftover crust profile (joint \chi^2: 68 → 10) — and \Lambda is small for the same reason gravity is weak
3Two substrate speeds, many instrumentsone lattice, cross-scale

fast solar wind ceiling v_L=v_\text{rot,outer}=0.0025\,c 749.5 → 751.5 km/s 0.3%

same v_L from Higgs VEV c\,(32\pi^2)^{1/3}(m_\text{eff}c^2/v)^{2/3} 740 → 749.5 km/s 1.3%

galaxy ↔︎ cluster switch MOND below v_L, CDM above ~750–1000 km/s, Bullet Cluster holds

beryllium shear sound c_T=\sqrt{\hbar\Omega/4m_1} 9 → 8.88 km/s 1.3%

HMX detonation velocity same c_T — the shear ceiling 9 → 9.1 km/s 1%

mantle S-wave cap V_S\lesssim c_T, planet-wide nothing propagates above 9 km/s holds

one critical velocity read at the Sun, in galaxies, and in colliding clusters; one shear speed capping the stiffest solid, the strongest explosive, and the deep mantle
4Life on the latticef = 0.5666, read in biology

B-DNA pitch 2\pi r f/h, \tan\alpha_\text{pitch}=f 10.47 → 10.5 bp/turn 0.3%

base-pair bridge C1′–C1′ standing \lambda set by r, f 10.85 → 10.85 Å exact

microtubule protofilaments unique paraxial integer 13 → 13 in vivo exact

microtubule wall ratio R/h_\text{mon}=3/(2f) 2.648 → 2.594 2%

codon–anticodon code stamp-overlap binding matrix cognate ranks #1: 64 of 64 exact

receptor affinity (nAChR) aromatic-pocket stamp distance Spearman \rho=+0.905 vs K_i —

the same cell occupancy fraction that fixes the Weinberg angle sets the double helix — axial rise = transverse extent \times f, in DNA and microtubules alike
More derived results

Schwarzschild exactly (Painlevé–Gullstrand); Hawking’s T_H=\hbar c^3/8\pi GM; Bell’s 2\sqrt2 and the Born rule; the Rydberg spectrum; g=2; the London equations & Meissner effect; Hückel’s 4n{+}2; Kleiber’s 3/4; Tully–Fisher v^4; exact charge neutrality — one mechanism, textbook results

Where it could fail — standing falsifiers

oscillatory sub-mm gravity at 0.5–1 mm; the Casimir force bending near 100 μm; a photon floor pinned at 3 THz (laser statistics, CMB dispersion); sonoluminescence’s flash width staying color-blind into the UV; lightning branch points clustering at domain edges; a smooth-d-shell superconductor would break it

One substrate, boundaries at every scale. A ~2 meV superfluid whose lattice cell (\xi\approx97\;\mum) is fixed twice over — from cosmology and, independently, from the measured Higgs VEV — agreeing to 0.04%. The same two leak coefficients that set the electron’s mass set the MOND scale, the solar wind’s ceiling, and the pitch of DNA.