GIFT: Geometric Information Field Theory

6 Physical Relations

6.1 Weinberg Angle

The weak mixing angle \(\theta _W\) is one of the most precisely measured parameters in the Standard Model. GIFT derives an exact prediction.

Definition 6.1 Weinberg Numerator
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The numerator is \(b_2= 21\).

Definition 6.2 Weinberg Denominator

The denominator is \(b_3+ \mathrm{dim}(G_2) = 77 + 14 = 91\).

Theorem 6.3 Exact Weinberg Angle
\[ \sin ^2\theta _W = \frac{b_2}{b_3+ \mathrm{dim}(G_2)} = \frac{21}{91} = \frac{3}{13} \]
Proof

Cross-multiplication: \(21 \times 13 = 273 = 3 \times 91\).

Theorem 6.4 Weinberg Simplified

\(\frac{3}{13} = 0.230769\ldots \) vs experimental \(0.23122 \pm 0.00004\) (deviation: 0.19%).

6.2 Koide Formula

The Koide formula relates the masses of charged leptons. It remained unexplained for 43 years until GIFT derived it from topology.

Definition 6.5 Koide Numerator
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The numerator is \(\mathrm{dim}(G_2) = 14\).

Definition 6.6 Koide Denominator
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The denominator is \(b_2= 21\).

Theorem 6.7 Koide Formula
\[ Q_{\mathrm{Koide}} = \frac{\mathrm{dim}(G_2)}{b_2} = \frac{14}{21} = \frac{2}{3} \]
Proof

Cross-multiplication: \(14 \times 3 = 42 = 21 \times 2\).

Remark 6.8 Historical Context
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The Koide formula \(Q = 2/3\) was discovered empirically in 1981 and remained unexplained for 43 years. GIFT derives it in two lines from topology.

6.3 Fine Structure Constant

Definition 6.9 Algebraic Component

\(\alpha ^{-1}_{\mathrm{alg}} = \frac{\mathrm{dim}(E_8) + \mathrm{rank}(E_8)}{2} = \frac{248 + 8}{2} = 128\)

Definition 6.10 Bulk Component

\(\alpha ^{-1}_{\mathrm{bulk}} = \frac{H^*}{D_{\mathrm{bulk}}} = \frac{99}{11} = 9\)

Theorem 6.11 Fine Structure Base

\(\alpha ^{-1}_{\mathrm{base}} = 128 + 9 = 137\)

Theorem 6.12 Fine Structure Complete

With torsion correction:

\[ \alpha ^{-1} = \frac{267489}{1952} = 137.033... \]

(experimental: \(137.035999...\), deviation: 0.002%)

6.4 Strong Coupling

Definition 6.13 Strong Coupling Denominator

\(\mathrm{dim}(G_2) - p_2 = 14 - 2 = 12\)

Theorem 6.14 Strong Coupling Structure

\(\alpha _s = \frac{\sqrt{2}}{12}\), where \(12 = \mathrm{dim}(G_2) - p_2\)

6.5 Lepton Mass Ratios

Definition 6.15 Muon Base
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\(m_\mu /m_e\) base: \(\mathrm{dim}(J_3(\mathbb {O})) = 27\) (exceptional Jordan algebra)

Theorem 6.16 Muon/Electron from Jordan

\(m_\mu /m_e \approx 27^\phi \) where \(\phi = (1 + \sqrt{5})/2\) is the golden ratio.

Theorem 6.17 Tau/Electron Ratio
\[ \frac{m_\tau }{m_e} = \mathrm{dim}(K_7) + 10 \times \mathrm{dim}(E_8) + 10 \times H^*= 7 + 2480 + 990 = 3477 \]
Theorem 6.18 Tau/Electron Factorization

\(3477 = 3 \times 19 \times 61 = N_{\mathrm{gen}} \times p_8 \times \kappa _T^{-1}\)

6.6 Higgs Quartic

Definition 6.19 Higgs Numerator

\(\lambda _H^2\) numerator: \(\mathrm{dim}(G_2) + 3 = 17\)

Theorem 6.20 Higgs Quartic Coupling
\[ \lambda _H^2 = \frac{17}{1024} \implies \lambda _H = \frac{\sqrt{17}}{32} \approx 0.129 \]

6.7 Cosmological Parameters

Theorem 6.21 Spectral Index Indices

The spectral index \(n_s = \zeta (11)/\zeta (5)\) uses:

  • \(11 = D_{\mathrm{bulk}}\) (M-theory dimension)

  • \(5 = \) Weyl factor

Theorem 6.22 Dark Energy Fraction

\(\Omega _{DE} = \ln (2) \times \frac{98}{99} = \ln (2) \times \frac{H^*- 1}{H^*}\)