import Mathlib set_option maxHeartbeats 100000 namespace ES_46_RV6 structure FormalContext where D : ℝ D_rho_R : ℝ DivergesToInfinity : ℝ → Prop E : ℝ F : ℝ F3 : ℝ G : ℝ G_fn_1 : ℝ → ℝ I : ℝ L : ℝ L_fn_2 : ℕ → ℝ → ℝ Lap : ℝ Mc : ℝ P : ℝ P_F3 : ℝ P_VR : ℝ P_VR_fn_1 : ℝ → ℝ R_VED : ℝ R_VED_fn_2 : ℕ → ℝ → ℝ Rim : ℝ S : ℝ Sch : ℝ Stable : ℝ Stable_Rim : ℝ Stable_Rim_fn_1 : ℂ → Prop T : ℝ T_fn_2 : ℕ → ℝ → ℝ Text_cierre_exacto_en_fase : Prop Text_cierre_no_estable : Prop Text_clase_estable : Prop Text_clase_no_estable : Prop Text_clasifica_su_localizaci_n_transversal : Prop Text_estado_estable : Prop Text_estado_no_estable : Prop U : ℝ U_Rim : Set (ℂ) U_Rim_rho : Set (ℂ) U_Sch : ℝ U_VED : ℝ U_VED_cerrado : ℝ U_VED_rho : Set (ℝ) VED : ℝ VED_to_Lap : ℝ VR : ℝ Z_Rim : ℝ Z_Rim_nt : Set (ℂ) Z_Rim_triv : Set (ℝ) Z_VED_to_Lap : Set (ℂ) a : ℝ b : ℝ bT : ℝ b_fn_2 : ℕ → ℝ → ℝ b_k : ℝ c : ℝ cerrado : ℝ d : ℝ dist : ℝ dist_fn_2 : ℝ → Set (ℕ) → ℝ ds : ℝ dt : ℝ dt_fn_1 : ℝ → ℝ dt_prime : ℝ dt_prime_to_0 : ℝ dv : ℝ e : ℝ f : ℝ f_fn_1 : ℝ → ℂ f_inv : ℝ f_inv_fn_1 : ℂ → ℝ h : ℝ hc : ℝ i : ℂ ib : ℝ ibT : ℝ k : ℕ lambda : ℝ ldots : ℝ lim : ℝ lim_n_to_INFINITY : ℝ longleftrightarrow : ℝ m : ℕ mathcal_E : ℝ mathcal_E_VED : Set (ℕ × ℕ) mathcal_I : ℝ mathcal_I_VED : ℝ n : ℝ n_s : ℝ n_to_INFINITY : ℝ nt : ℝ onda : ℝ rho : ℝ rho_R : ℝ rho_R_fn_1 : ℂ → ℝ rho_VED : ℝ rho_VED_fn_1 : ℝ → ℝ s : ℂ s_PM : ℝ sqrt : ℝ → ℝ sum : ℝ t : ℝ t_prime : ℝ triv : ℝ v : ℝ v_onda : ℝ v_to_c : ℝ varepsilon : ℝ x : ℝ z : ℂ z_varepsilon_PM : ℝ zeta : ℂ → ℂ -- FORMAL_NODE: D_U -- SOURCE: ES_46_RV6.md:29 -- FORMULA: \boxed{ U=3S+T. } def Node_D_U (ctx : FormalContext) : Prop := (ctx.U = (((3 : ℝ) * ctx.S) + ctx.T)) -- DEMUESTRA_ASSERTION: D_U|COMPLETA|NO_APLICA -- FORMAL_NODE: D_t_prime -- SOURCE: ES_46_RV6.md:65 -- FORMULA: \frac{dt'}{dt}. -- FORMULA: t' -- FORMULA: t' -- FORMULA: dt' def Node_D_t_prime (ctx : FormalContext) : Prop := True -- DEMUESTRA_ASSERTION: D_t_prime|INCOMPLETA|NO_INICIADA -- FORMAL_NODE: A_L -- SOURCE: ES_46_RV6.md:77 -- FORMULA: dt' = dt \sqrt{ 1-\frac{v^2}{c^2} }. -- FORMULA: \boxed{ v=\frac{ds}{dt}. } -- FORMULA: c=1. -- FORMULA: dt'^2 = dt^2-ds^2, -- FORMULA: v def Node_A_L (ctx : FormalContext) : Prop := (ctx.v = (ctx.ds / ctx.dt)) -- DEMUESTRA_ASSERTION: A_L|COMPLETA|PENDIENTE -- FORMAL_NODE: D_lambda -- SOURCE: ES_46_RV6.md:174 -- FORMULA: E=\frac{hc}{\lambda}, -- FORMULA: E=Mc^2, -- FORMULA: Mc^2=\frac{hc}{\lambda}, -- FORMULA: \boxed{ \lambda=\frac{h}{Mc}. } -- FORMULA: \lambda def Node_D_lambda (ctx : FormalContext) : Prop := (ctx.lambda = (ctx.h / ctx.Mc)) -- DEMUESTRA_ASSERTION: D_lambda|COMPLETA|NO_APLICA -- FORMAL_NODE: D_L -- SOURCE: ES_46_RV6.md:202 -- FORMULA: \boxed{ L=n\lambda. } -- FORMULA: n\in\mathbb R^+. -- FORMULA: L def Node_D_L (ctx : FormalContext) : Prop := (ctx.L = (ctx.n * ctx.lambda)) -- DEMUESTRA_ASSERTION: D_L|COMPLETA|NO_APLICA -- FORMAL_NODE: D_k -- SOURCE: ES_46_RV6.md:314 -- FORMULA: k\in\mathbb N^+ def Node_D_k (ctx : FormalContext) : Prop := (ctx.k ∈ {n : ℕ | 0 < n}) -- DEMUESTRA_ASSERTION: D_k|COMPLETA|NO_APLICA -- FORMAL_NODE: D_rho -- SOURCE: ES_46_RV6.md:316 -- FORMULA: \boxed{ \rho = \operatorname{dist}(n,\mathbb N^+). } -- FORMULA: \boxed{ 0\le\rho\le\frac12. } -- FORMULA: \boxed{ n=k\pm\rho, \qquad k\in\mathbb N^+, \qquad 0\le\rho\le\frac12. } -- FORMULA: \boxed{ L(k,\rho) = (k\pm\rho)\lambda, } -- FORMULA: \boxed{ R_{\rm VED}(k,\rho) = \frac{(k\pm\rho)\lambda}{2\pi}. } -- FORMULA: \rho=1/2 -- DEMUESTRA_SOURCE_CLAIM: {"node": "D_rho", "formula": 2, "location": "ES_46_RV6.md:316:D_rho:formula-2", "source": "\\boxed{ 0\\le\\rho\\le\\frac12. }", "status": "FORMALIZED_UNPROVEN"} def Node_D_rho_source_2 (ctx : FormalContext) : Prop := ((0 ≤ ctx.rho) ∧ (ctx.rho ≤ ((1 : ℝ) / (2 : ℝ)))) def Node_D_rho_clause_1 (ctx : FormalContext) : Prop := (ctx.rho = (ctx.dist_fn_2 ctx.n {n : ℕ | 0 < n})) def Node_D_rho_clause_2 (ctx : FormalContext) : Prop := (((ctx.L_fn_2 ctx.k ctx.rho) = ((((ctx.k : ℝ) + ctx.rho) * ctx.lambda)) ∨ (ctx.L_fn_2 ctx.k ctx.rho) = ((((ctx.k : ℝ) - ctx.rho) * ctx.lambda)))) def Node_D_rho_clause_3 (ctx : FormalContext) : Prop := (((ctx.R_VED_fn_2 ctx.k ctx.rho) = (((((ctx.k : ℝ) + ctx.rho) * ctx.lambda) / ((2 : ℝ) * Real.pi))) ∨ (ctx.R_VED_fn_2 ctx.k ctx.rho) = (((((ctx.k : ℝ) - ctx.rho) * ctx.lambda) / ((2 : ℝ) * Real.pi))))) def Node_D_rho (ctx : FormalContext) : Prop := True -- DEMUESTRA_ASSERTION: D_rho|INCOMPLETA|NO_INICIADA -- FORMAL_NODE: D_Rim -- SOURCE: ES_46_RV6.md:912 -- FORMULA: z=a\pm ib -- FORMULA: \zeta(s) = \sum_{n=1}^{\infty}\frac1{n^s} -- FORMULA: \boxed{s=1.} -- FORMULA: \boxed{ Z_{\rm Rim}^{\rm triv} = \{-2,-4,-6,\ldots\} = \{-2m:m\in\mathbb N^+\}. } -- FORMULA: \boxed{ Z_{\rm Rim}^{\rm nt} = \{ z\in\mathbb C: \zeta(z)=0, \; 0<\Re(z)<1 \}. } -- FORMULA: \boxed{ z=a\pm ib, \qquad 01 -- DEMUESTRA_SOURCE_CLAIM: {"node": "D_Rim", "formula": 4, "location": "ES_46_RV6.md:912:D_Rim:formula-4", "source": "\\boxed{ Z_{\\rm Rim}^{\\rm triv} = \\{-2,-4,-6,\\ldots\\} = \\{-2m:m\\in\\mathbb N^+\\}. }", "status": "UNTRANSLATED"} def Node_D_Rim_clause_1 (ctx : FormalContext) : Prop := (ctx.s = 1) def Node_D_Rim_clause_2 (ctx : FormalContext) : Prop := (ctx.Z_Rim_nt = ({z | ((z ∈ (Set.univ : Set ℂ)) ∧ ((ctx.zeta z) = 0)) ∧ ((0 < (Complex.re z)) ∧ ((Complex.re z) < 1))})) def Node_D_Rim_clause_3 (ctx : FormalContext) : Prop := (ctx.a = ((1 : ℝ) / (2 : ℝ))) def Node_D_Rim (ctx : FormalContext) : Prop := True -- DEMUESTRA_ASSERTION: D_Rim|INCOMPLETA|NO_INICIADA -- FORMAL_NODE: D_rho_R -- SOURCE: ES_46_RV6.md:1003 -- FORMULA: \qquad \rho_R = \left| a-\frac12 \right|. } -- FORMULA: 00. -- FORMULA: \rho = \left| a-\frac12 \right| >0. -- FORMULA: \rho>0 \Rightarrow \text{estado no estable}. -- FORMULA: \boxed{ \rho=0. } -- FORMULA: a\neq\frac12 -- FORMULA: \boxed{ a=\frac12. } -- FORMULA: \boxed{ \forall z\in Z_{\rm Rim}^{\rm nt}, \qquad \Re(z)=\frac12. } -- FORMULA: \boxed{ Z_{\rm Rim}^{\rm nt} \subseteq \left\{ s\in\mathbb C: \Re(s)=\frac12 \right\}. } -- FORMULA: Z_{\rm Rim}^{\rm nt} -- FORMULA: Z_{\rm Rim}^{\rm nt} -- FORMULA: U_{\rm Rim} -- FORMULA: D_{\rho_R} -- FORMULA: P_{\rm VR}(\rho) -- FORMULA: U_{\rm VED} -- FORMULA: P_{\rm VR}(\rho) -- FORMULA: U_{\rm VED} -- FORMULA: \zeta(z)=0 -- FORMULA: U_{\rm Rim} -- FORMULA: U_{\rm VED} -- FORMULA: U_{\rm VED} -- FORMULA: a\neq1/2 -- FORMULA: U_{\rm Rim} -- FORMULA: U_{\rm VED} -- FORMULA: \zeta(z)=0 -- FORMULA: z -- FORMULA: Z_{\rm Rim}^{\rm nt} -- DEMUESTRA_SOURCE_CLAIM: {"node": "T_RIEMANN", "formula": 2, "location": "ES_46_RV6.md:1472:T_RIEMANN:formula-2", "source": "\\boxed{ a=\\frac12. }", "status": "FORMALIZED_UNPROVEN"} def Node_T_RIEMANN_source_2 (ctx : FormalContext) : Prop := (ctx.a = ((1 : ℝ) / (2 : ℝ))) def Node_T_RIEMANN (ctx : FormalContext) : Prop := (∀ z : ℂ, (z ∈ ctx.Z_Rim_nt) → ((Complex.re z) = ((1 : ℝ) / (2 : ℝ)))) -- DEMUESTRA_ASSERTION: T_RIEMANN|INCOMPLETA|NO_INICIADA -- FORMAL_NODE: P_VED_Completo -- SOURCE: ES_46_RV6.md:494 -- FORMULA: \quad U_{\rm VED}^{\rm cerrado} = \mathcal E_{\rm VED} \sqcup \mathcal I_{\rm VED}, } -- FORMULA: n\to\infty -- DEMUESTRA_SOURCE_CLAIM: {"node": "P_VED_Completo", "formula": 2, "location": "ES_46_RV6.md:494:P_VED_Completo:formula-2", "source": "n\\to\\infty", "status": "UNTRANSLATED"} def Node_P_VED_Completo (ctx : FormalContext) : Prop := True -- DEMUESTRA_ASSERTION: P_VED_Completo|INCOMPLETA|NO_INICIADA -- FORMAL_NODE: P_VS -- SOURCE: ES_46_RV6.md:557 -- FORMULA: \qquad U_{\rm VED}\cong U_{\rm Sch}. } -- FORMULA: \boxed{ G(2)=G, } -- FORMULA: \boxed{ \lim_{n\to\infty}G(n)=0. } -- FORMULA: n -- FORMULA: n=2 -- FORMULA: U_{\rm Sch} -- DEMUESTRA_SOURCE_CLAIM: {"node": "P_VS", "formula": 3, "location": "ES_46_RV6.md:557:P_VS:formula-3", "source": "\\boxed{ \\lim_{n\\to\\infty}G(n)=0. }", "status": "UNTRANSLATED"} def Node_P_VS (ctx : FormalContext) : Prop := ((ctx.G_fn_1 2) = ctx.G) -- DEMUESTRA_ASSERTION: P_VS|INCOMPLETA|NO_INICIADA -- FORMAL_NODE: P_F -- SOURCE: ES_46_RV6.md:601 -- FORMULA: \qquad F = (dt^2-dt'^2) + \frac{d}{dt}(dt^2-dt'^2). } -- FORMULA: dt' -- FORMULA: t def Node_P_F (ctx : FormalContext) : Prop := (ctx.F = ((ctx.dt ^ 2 - ctx.dt_prime ^ 2) + ((ctx.d / ctx.dt) * (ctx.dt ^ 2 - ctx.dt_prime ^ 2)))) -- DEMUESTRA_ASSERTION: P_F|COMPLETA|PENDIENTE -- FORMAL_NODE: P_F1 -- SOURCE: ES_46_RV6.md:617 -- FORMULA: \qquad F = dt^2-dt'^2 + 2dt - 2dt'\frac{dt'}{dt}. } -- FORMULA: dt' -- FORMULA: dt'/dt def Node_P_F1 (ctx : FormalContext) : Prop := (ctx.F = (((ctx.dt ^ 2 - ctx.dt_prime ^ 2) + ((2 : ℝ) * ctx.dt)) - (((2 : ℝ) * ctx.dt_prime) * (ctx.dt_prime / ctx.dt)))) -- DEMUESTRA_ASSERTION: P_F1|COMPLETA|PENDIENTE -- FORMAL_NODE: P_W -- SOURCE: ES_46_RV6.md:639 -- FORMULA: \qquad v_{\rm onda}=c. } -- FORMULA: c=1. -- FORMULA: v=\frac{ds}{dt}, -- FORMULA: \frac{ds}{dt}=1. -- FORMULA: ds=dt, -- FORMULA: dt' = dt \sqrt{ 1-\frac{v^2}{c^2} }. -- FORMULA: v\to c, -- FORMULA: \boxed{ dt'\to0. } -- FORMULA: dt'^2\to0, -- FORMULA: \frac{dt'}{dt}\to0. -- DEMUESTRA_SOURCE_CLAIM: {"node": "P_W", "formula": 8, "location": "ES_46_RV6.md:639:P_W:formula-8", "source": "\\boxed{ dt'\\to0. }", "status": "UNTRANSLATED"} def Node_P_W (ctx : FormalContext) : Prop := True -- DEMUESTRA_ASSERTION: P_W|INCOMPLETA|NO_INICIADA -- FORMAL_NODE: P_F2 -- SOURCE: ES_46_RV6.md:712 -- FORMULA: \qquad F=dt^2+2dt. } -- FORMULA: dt^2+2dt = 2dt \left( 1+\frac12dt \right), def Node_P_F2_clause_1 (ctx : FormalContext) : Prop := (ctx.F = (ctx.dt ^ 2 + ((2 : ℝ) * ctx.dt))) def Node_P_F2_clause_2 (ctx : FormalContext) : Prop := ((ctx.dt ^ 2 + ((2 : ℝ) * ctx.dt)) = ((2 : ℝ) * (ctx.dt_fn_1 ((1 : ℝ) + (((1 : ℝ) / (2 : ℝ)) * ctx.dt))))) def Node_P_F2 (ctx : FormalContext) : Prop := True -- DEMUESTRA_ASSERTION: P_F2|AMBIGUA|NO_INICIADA -- FORMAL_NODE: P_F3 -- SOURCE: ES_46_RV6.md:733 -- FORMULA: \qquad F = 2dt \left( 1+\frac12dt \right). } -- FORMULA: \boxed{ \frac12 } -- FORMULA: F def Node_P_F3 (ctx : FormalContext) : Prop := (ctx.F = ((2 : ℝ) * (ctx.dt_fn_1 ((1 : ℝ) + (((1 : ℝ) / (2 : ℝ)) * ctx.dt))))) -- DEMUESTRA_ASSERTION: P_F3|COMPLETA|PENDIENTE -- FORMAL_NODE: D_Lap -- SOURCE: ES_46_RV6.md:764 -- FORMULA: \boxed{ s_\pm = a\pm ib. } -- FORMULA: \boxed{ a=\frac12 } -- FORMULA: T(k,\rho) = (k\pm\rho)\lambda -- FORMULA: e^{\pm ibT}=1. -- FORMULA: bT=2\pi. -- FORMULA: \boxed{ b(k,\rho) = \frac{2\pi} {(k\pm\rho)\lambda}. } -- FORMULA: \rho=0, -- FORMULA: \boxed{ b_k = \frac{2\pi}{k\lambda}. } -- FORMULA: \boxed{ Z_{\rm VED\to Lap} = \left\{ \frac12 \pm i\frac{2\pi}{k\lambda} : k\in\mathbb N^+ \right\}. } -- FORMULA: P_{F3} -- FORMULA: c=1 -- DEMUESTRA_SOURCE_CLAIM: {"node": "D_Lap", "formula": 9, "location": "ES_46_RV6.md:764:D_Lap:formula-9", "source": "\\boxed{ Z_{\\rm VED\\to Lap} = \\left\\{ \\frac12 \\pm i\\frac{2\\pi}{k\\lambda} : k\\in\\mathbb N^+ \\right\\}. }", "status": "UNTRANSLATED"} def Node_D_Lap_clause_1 (ctx : FormalContext) : Prop := (((ctx.s_PM) = ((ctx.a + ctx.ib)) ∨ (ctx.s_PM) = ((ctx.a - ctx.ib)))) def Node_D_Lap_clause_2 (ctx : FormalContext) : Prop := (ctx.a = ((1 : ℝ) / (2 : ℝ))) def Node_D_Lap_clause_3 (ctx : FormalContext) : Prop := (((ctx.b_fn_2 ctx.k ctx.rho) = ((((2 : ℝ) * Real.pi) / (((ctx.k : ℝ) + ctx.rho) * ctx.lambda))) ∨ (ctx.b_fn_2 ctx.k ctx.rho) = ((((2 : ℝ) * Real.pi) / (((ctx.k : ℝ) - ctx.rho) * ctx.lambda))))) def Node_D_Lap_clause_4 (ctx : FormalContext) : Prop := (ctx.b_k = (((2 : ℝ) * Real.pi) / ((ctx.k : ℝ) * ctx.lambda))) def Node_D_Lap (ctx : FormalContext) : Prop := True -- DEMUESTRA_ASSERTION: D_Lap|INCOMPLETA|NO_INICIADA -- FORMAL_NODE: P_Lap_Z -- SOURCE: ES_46_RV6.md:851 -- FORMULA: \Re(s)=\frac12. -- FORMULA: U_{\rm VED} -- FORMULA: k -- FORMULA: k def Node_P_Lap_Z (ctx : FormalContext) : Prop := ((Complex.re ctx.s) = ((1 : ℝ) / (2 : ℝ))) -- DEMUESTRA_ASSERTION: P_Lap_Z|COMPLETA|PENDIENTE end ES_46_RV6 -- DEMUESTRA_AUDIT_BEGIN -- DEMUESTRA_CONSTRUCTION_COMPLETE: FALSE -- DEMUESTRA_PROOF_COMPLETE: FALSE -- DEMUESTRA_FORMALIZATION_STATUS: PARTIAL -- DEMUESTRA_RESULT_PENDING: ES_46_RV6.Node_T_RIEMANN -- DEMUESTRA_JSON_NODE: T_RIEMANN #check ES_46_RV6.Node_T_RIEMANN -- DEMUESTRA_AUDIT_END