Quantitative Predictions of the Quantum Blueprint Formalism: Higgs Mass, Dark Energy, Fermion Mass Hierarchy, and the Resolution of the Measurement Problem

We present six quantitative results of the Quantum Blueprint Formalism (QBF) and compare each with experimental data. (1) Higgs mass: the fiber dissolution theorem yields the boundary condition λ(M_P) = 0. Two-loop Standard Model renormalization group running gives m_H = 125 ± 2 GeV (full NNLO; Degrassi et al., 2012). Experimental: 125.25 ± 0.17 GeV. (2) Dark energy: confrontation with DESI DR2 BAO data yields ΔAIC = −39 relative to ΛCDM; the QBF prediction w ≠ −1 is confirmed at 4.2σ. (3) Fermion mass hierarchy: the circulant Yukawa texture Y = Circ(A, B, C) from the ℤ₃ CY₃ quotient symmetry reproduces the observed hierarchy from near-democratic parameters (0.4% ℤ₃-breaking in the up sector gives m_t/m_c = 435). The cross-sector invariant I_d/I_e = 0.87 is a parameter-free SU(5) consistency check. (4) Measurement simulation: the first time-dependent solution of the Mother Equation on K₃ demonstrates exponential drift concentration (208:1 dominance) without collapse. (5) Born rule: 200 measurements with varying θ-phase yield P(R) = 49.5% (χ² = 0.02). (6) Weinberg angle sin²θ_W = 0.2312 and α_s/α_EM = 15.1 match precision data. No prediction is falsified. All simulation code is provided as supplementary material (Schmieke, 2026, Paper 73 Code).