Complete Parameter Derivation from the Vacuum Condensate Poisson Ratio: Gauge Couplings, Boson Masses, Planck Scale, Dark Matter, and the Cosmological Constant

Building on the vacuum condensate framework (Paper I, DOI 10.5281/zenodo.19143779) and the fermion mass formula (Paper II, DOI 10.5281/zenodo.19143896), we derive over thirty additional observables from the single condensate parameter nu = 0.4555. The strong coupling constant is obtained as alpha_s(M_Z) = (mu/kappa) x 9/7 = 0.1179, matching the measured value to 0.06%. The Higgs boson mass follows from the quartic coupling lambda = sqrt(2) x mu/kappa, giving m_H = 125.3 GeV (0.04%). The Planck mass is M_P = v x R^(16 + mu/kappa), accurate to 0.02%, resolving the hierarchy problem as a material property of the condensate raised to a power fixed by the Pati-Salam gauge structure. The dark matter to baryonic matter density ratio is derived as kappa/(2 mu) = 5.45, matching the observed 5.36 to 1.7%, identifying dark matter with longitudinal condensate modes. The cosmological constant is obtained within a factor of two via a double see-saw suppression of the condensate self-energy. We prove three structural results from the Frobenius theorem and quaternion algebra: exactly three fermion generations, 3+1 spacetime dimensions, and theta_QCD = 0 exactly from quaternionic conjugation symmetry -- the last implying no QCD axion exists. The CKM mixing angles are derived using gamma_U = 0.824 as a universal dynamical exponent acting on down-type mass ratios. The NLO mass correction coefficients are shown to be ratios of three integers: b_0 = 11 (QCD beta function), N_c = 3 (colors), and N_PS = 4 (Pati-Salam colors), consistent with one-loop self-energy structure. In total, the three-paper series addresses 41 quantitative observables, proves 4 structural theorems, and makes 2 falsifiable predictions, with zero free parameters beyond nu and v = 246 GeV, and zero failures against experiment.