Pith. sign in
module module high

IndisputableMonolith.Materials.HydrideSCOptimization

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The HydrideSCOptimization module supplies definitions for Eliashberg parameters and critical-temperature functions specialized to hydride superconductors on the phi-ladder. Condensed-matter researchers applying Recognition Science to high-Tc materials would cite these when computing rung-dependent Tc values. The module contains only definitions and elementary positivity statements.

claim$\mu^* \approx 0.10$ (Coulomb pseudopotential), $\lambda_0$ (base electron-phonon coupling), $\lambda(r)$ (rung-dependent coupling), McMillan exponent, and $T_c(\text{rung})$ via the optimized McMillan formula.

background

Recognition Science places superconductivity inside the phi-ladder phonon resonance framework imported from PhiLadderPhononResonance. That module establishes the resonance condition for phonon-mediated pairing. The present module imports the RS time quantum $\tau_0 = 1$ tick from Constants and the J-cost machinery from Cost to specialize the resonance to hydrides.

The Coulomb pseudopotential is fixed at the conventional Eliashberg value $\mu^* \approx 0.10$. Subsequent definitions introduce rung-indexed coupling strengths $\lambda(r)$ and the resulting critical temperature on the phi-ladder.

proof idea

This is a definition module, no proofs. It declares the functions mu_star, lambda_0, lambda_at_rung, mcmillan_exponent, T_c_phi_rung together with the three positivity lemmas mu_star_pos, mu_star_lt_one, lambda_at_rung_pos.

why it matters in Recognition Science

The module supplies the concrete parameter set required by RS_PAT_010 (Hydride SC Optimization) and supports the screening platform of RS_PAT_008. It translates the abstract phi-ladder resonance into hydride-specific inputs for the McMillan formula.

scope and limits

depends on (3)

Lean names referenced from this declaration's body.

declarations in this module (13)