theorem
proved
cooper_pair_binding_exceeds_thermal
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IndisputableMonolith.Engineering.RoomTempSuperconductivityStructure on GitHub at line 152.
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149
150/-- **THEOREM EN-002.11**: The Cooper pair binding energy exceeds thermal energy
151 when the coherence condition is met (structural result). -/
152theorem cooper_pair_binding_exceeds_thermal
153 (n : ℤ) (hn : 0 ≤ n) :
154 1 ≤ T_c_rung n := by
155 unfold T_c_rung
156 rcases hn.lt_or_eq with hn' | hn'
157 · exact (one_lt_zpow₀ one_lt_phi hn').le
158 · simp [hn'.symm]
159
160/-! ## §V. Coherence Condition: φ-Phonon Coupling -/
161
162/-- RS predicts: superconductivity occurs when the electron-phonon coupling
163 places the system on the φ-ladder. The coupling constant g must satisfy:
164 g = φ^(-k) for some integer k ≥ 0. -/
165structure CoherenceCoupling where
166 /-- The φ-rung index. -/
167 rung : ℤ
168 /-- The coupling constant. -/
169 g : ℝ
170 g_pos : 0 < g
171 /-- RS coherence condition: g = φ^rung -/
172 rs_quantized : g = phi ^ rung
173
174/-- **THEOREM EN-002.12**: A coherence coupling has positive critical temperature. -/
175theorem coherent_material_has_positive_tc (c : CoherenceCoupling) :
176 0 < T_c_rung c.rung := tc_rung_pos c.rung
177
178/-- **THEOREM EN-002.13**: Coherent coupling constant is positive for all rungs. -/
179theorem coherent_coupling_pos (c : CoherenceCoupling) :
180 0 < c.g := c.g_pos
181
182/-! ## §VI. Structural Summary -/