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Machine-certificate renewal · 13 August 2026 · MASS-PHI-LADDER-20260813
The plate’s half-step recurrence is the shifted Planck–φ scale lattice and is now attached to this existing citizen rather than duplicated.
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$$ \frac{m(N+\tfrac12)}{m(N)}=\phi^{-1/2},\qquad m(2.5)=M_P $$
implies uniquely
$$ m(N)=M_P\phi^{-(N-2.5)}. $$
Using $M_P=1.22091\times10^{19}\,\mathrm{GeV}$ and $\phi=(1+\sqrt5)/2$, Python deterministically reconstructs:
No particle mass enters the recurrence. The displayed particle values are downstream holdout comparisons.
Synthesis route: Professor’s Cube Exhibit — Shared-Carrier S₃ Symmetry Bridge
$\mathcal Q[\mathsf{Planck\text{-}\phi\ Scale\ Lattice}\mid m_N=m_{\mathrm{Pl}}\phi^{-N};\ \mathbb R_{>0};\ N(m)=-\ln(m/m_{\mathrm{Pl}})/\ln\phi;\ E0;\ \iota\text{ required for }E_{47}]$
$\phi=\frac{1+\sqrt5}{2},\qquad m_N=m_{\mathrm{Pl}}\phi^{-N}.$
$N(m)=-\frac{\ln(m/m_{\mathrm{Pl}})}{\ln\phi}.$
$N\xrightarrow{\iota}x(N)\in V_2^{\otimes3}\xrightarrow{P_{47}}P_{47}x(N).$