Speed of light c
c is the propagation speed of substrate disturbances, c = √(K_s / ρ_s). Not a property of light alone.
Papers: P17, P23
Vijay Shankar Sharma
Vijay Shankar Sharma
These are outputs of the substrate, not fitted inputs. The short logic is from the current claims record. The full step-by-step derivation pages will be written from the Word file when you send it. The live calculator will sit on the same chain.
c is the propagation speed of substrate disturbances, c = √(K_s / ρ_s). Not a property of light alone.
Papers: P17, P23
K_s = ρ_s c² = 5.30 × 10⁻¹⁰ Pa.
Papers: P17, P18
1/137.037 from substrate rotational mode geometry. Measured 1/137.036.
Papers: P19, P25, P66
ħ from condensation geometry. Agreement at 0.0001% against CODATA r_p.
Papers: P19, P27, P54
Follows from ħ. Derived in the Planck paper, not inserted as an input.
Papers: P27
1/4 at condensation scale → 0.2312 at m_Z. Measured 0.2312.
Papers: P19, P25
0.120 from 3-core topology. Measured 0.1179 at m_Z.
Papers: P19, P25
m_W = 80.4 GeV from ρ_s. Measured 80.4 GeV.
Papers: P19, P25
m_Z = m_W / cos θ_W = 91.24 GeV. Measured 91.19 GeV.
Papers: P19, P25
m_H = √(m_t · m_Z) = 125.51 GeV. Measured 125.25 GeV.
Papers: P19, P25
m_e = E_unit / (6π⁴) = 0.511009 MeV. Measured 0.511 MeV.
Papers: P16, P25
r_p = (1 + 2/√3) · r_q = 0.8414 fm. Measured 0.8414 fm.
Papers: P16, P25
m_e, m_μ, m_τ from one angle θ = (2π+Q)/3 with Q = 2/3.
Papers: P25, P57
SR and GR dilation are one mechanism: accumulated substrate state evolution.
Papers: P22