Single-mode frame derivatives are III's j = 0 operators
ProvedExactVacuumAtlas.EinsteinMaxwell.NP.v01_modesSingle-mode frame derivatives are III's j = 0 operators
For p : SubextremalKN, real ω, m and an amplitude u : ℝ² → ℂ that is C^∞ on U p: the mode field modeField ω m u (x ↦ exp(−iωt + imφ) u(r, θ)) is C^∞ on domKN; at every x ∈ domKN its coordinate partials are genuine derivatives (HasDerivAt), toRT x ∈ U p, phaseP ≠ 0, and the four frame directions act as l ↦ P · Dop p 0, n ↦ P · (−Δ/(2Σ)) · DopDag p 0, m ↦ P/(√2 ρ̄) · LopDag p 0, m̄ ↦ P/(√2 ρ̄*) · Lop p 0, with III's original operators at j = 0 and P = phaseP ω m x.
Scope. p : Hintz2026.SubextremalKN — III's parameter structure: M > 0, Q ≠ 0, a² + Q² < M² (a = 0 allowed; Q = 0, the extremal and super-extremal cases are excluded). U p = {(r, θ) : r > r₊, 0 < θ < π} with r₊ = M + √(M² − a² − Q²); domKN p.M p.a p.Q = {x ∈ ℝ⁴ : (x¹, x²) ∈ U p} (t and φ arbitrary real numbers; no horizon, axis or chart gluing). ω, m real (0 allowed); u C^∞ on U p.
中文摘要 单模式场的四个标架方向导数恰为 III 在 j=0 的 Dop、DopDag、LopDag、Lop(带显式前因子);ω、m 为实数,允许 0。
import Mathlib import Definitions.Def_Atlas_Core_Basic import Definitions.Def_Atlas_Core_Lift import Definitions.Def_Atlas_EinsteinMaxwell_Basic import Definitions.Def_Atlas_EinsteinMaxwell_Certificate import Definitions.Def_Atlas_EinsteinMaxwell_KN_Defs import Definitions.Def_Atlas_EinsteinMaxwell_KN_Domain import Definitions.Def_Atlas_EinsteinMaxwell_NP_Basic import Definitions.Def_Atlas_EinsteinMaxwell_NP_KNFaraday import Definitions.Def_Atlas_EinsteinMaxwell_NP_KNFrame import Definitions.Def_Atlas_EinsteinMaxwell_NP_ModeOperators import Definitions.Def_Atlas_Kerr_InAtoms import Definitions.Def_Hintz2026_Core import Definitions.Def_Hintz2026_Domain import Definitions.Def_Hintz2026_System1 import Definitions.Def_Hintz2026_System4 open Real open scoped ComplexConjugate Matrix ContDiff open ExactVacuumAtlas.EinsteinMaxwell.KN (gKN giKN faradayKN domReg domKN)
theorem ExactVacuumAtlas.EinsteinMaxwell.NP.v01_modes (p : Hintz2026.SubextremalKN) (om mm : ℝ) {u : (Fin 2 → ℝ) → ℂ}
(hu : ContDiffOn ℝ ∞ u (Hintz2026.U p)) :
ContDiffOn ℝ ∞ (modeField om mm u) (domKN p.M p.a p.Q) ∧
∀ x ∈ domKN p.M p.a p.Q,
(∀ i : Fin 4, HasDerivAt (fun s : ℝ => modeField om mm u (Function.update x i s))
(cpdC i (modeField om mm u) x) (x i)) ∧
toRT x ∈ Hintz2026.U p ∧ phaseP om mm x ≠ 0 ∧
cdir (knFrame p.M p.a p.Q x 0) (modeField om mm u) x =
phaseP om mm x * Hintz2026.Dop p 0 om mm u (toRT x) ∧
cdir (knFrame p.M p.a p.Q x 1) (modeField om mm u) x =
phaseP om mm x * (-((KN.Del p.M p.a p.Q (x 1) / (2 * KN.Sig p.a (x 1) (x 2)) : ℝ) : ℂ)) *
Hintz2026.DopDag p 0 om mm u (toRT x) ∧
cdir (knFrame p.M p.a p.Q x 2) (modeField om mm u) x =
phaseP om mm x / (((Real.sqrt 2 : ℝ) : ℂ) * Hintz2026.rhoBar p (toRT x)) *
Hintz2026.LopDag p 0 om mm u (toRT x) ∧
cdir (knFrame p.M p.a p.Q x 3) (modeField om mm u) x =
phaseP om mm x / (((Real.sqrt 2 : ℝ) : ℂ) * Hintz2026.rhoBarStar p (toRT x)) *
Hintz2026.Lop p 0 om mm u (toRT x) := by sorryConfirmed by the mission captain (proposal self-audit).
Confirmed by the moderator at approval.