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LeanPool.ArnoldKAM.Arnold1963.Step.InductiveDomains

Supporting results for the analytic Hamiltonian KAM construction.

def KamProject.Arnold1963.IterationInput.newDomain {n : ℕ} {G Ω : Set (ComplexSpace n)} {ρ β δ γ θ Θ : NNReal} {K M : ℝ} {a : ComplexSpace n → ℂ} {f : AnalyticPhaseFunction n G ρ} {g : ComplexSpace n → ComplexSpace n} (i : IterationInput a f g β δ γ θ Θ K M) :

The action domain retained by corrected frequency inversion and finite resonance removal.

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    def KamProject.Arnold1963.IterationInput.wideDomain {n : ℕ} {G Ω : Set (ComplexSpace n)} {ρ β δ γ θ Θ : NNReal} {K M : ℝ} {a : ComplexSpace n → ℂ} {f : AnalyticPhaseFunction n G ρ} {g : ComplexSpace n → ComplexSpace n} (i : IterationInput a f g β δ γ θ Θ K M) :

    The wider action domain used before the final inductive restriction.

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      theorem KamProject.Arnold1963.IterationInput.newDomain_subset {n : ℕ} {G Ω : Set (ComplexSpace n)} {ρ β δ γ θ Θ : NNReal} {K M : ℝ} {a : ComplexSpace n → ℂ} {f : AnalyticPhaseFunction n G ρ} {g : ComplexSpace n → ComplexSpace n} (i : IterationInput a f g β δ γ θ Θ K M) :
      i.newDomain ⊆ erosion G β
      theorem KamProject.Arnold1963.IterationInput.newChart {n : ℕ} {G Ω : Set (ComplexSpace n)} {ρ β δ γ θ Θ : NNReal} {K M : ℝ} {a : ComplexSpace n → ℂ} {f : AnalyticPhaseFunction n G ρ} {g : ComplexSpace n → ComplexSpace n} (i : IterationInput a f g β δ γ θ Θ K M) :
      theorem KamProject.Arnold1963.IterationInput.new_derivative_bounds {n : ℕ} {G Ω : Set (ComplexSpace n)} {ρ β δ γ θ Θ : NNReal} {K M : ℝ} {a : ComplexSpace n → ℂ} {f : AnalyticPhaseFunction n G ρ} {g : ComplexSpace n → ComplexSpace n} (i : IterationInput a f g β δ γ θ Θ K M) {p : ComplexSpace n} (hp : p ∈ i.newDomain) (v : ComplexSpace n) :
      theorem KamProject.Arnold1963.IterationInput.frequency_displacement {n : ℕ} {G Ω : Set (ComplexSpace n)} {ρ β δ γ θ Θ : NNReal} {K M : ℝ} {a : ComplexSpace n → ℂ} {f : AnalyticPhaseFunction n G ρ} {g : ComplexSpace n → ComplexSpace n} (i : IterationInput a f g β δ γ θ Θ K M) {p : ComplexSpace n} (hp : p ∈ i.newDomain) :
      theorem KamProject.Arnold1963.IterationInput.new_width_pos {n : ℕ} {G Ω : Set (ComplexSpace n)} {ρ β δ γ θ Θ : NNReal} {K M : ℝ} {a : ComplexSpace n → ℂ} {f : AnalyticPhaseFunction n G ρ} {g : ComplexSpace n → ComplexSpace n} (i : IterationInput a f g β δ γ θ Θ K M) :
      0 < ρ - 3 * γ
      theorem KamProject.Arnold1963.IterationInput.phase_buffer {n : ℕ} {G Ω : Set (ComplexSpace n)} {ρ β δ γ θ Θ : NNReal} {K M : ℝ} {a : ComplexSpace n → ℂ} {f : AnalyticPhaseFunction n G ρ} {g : ComplexSpace n → ComplexSpace n} (i : IterationInput a f g β δ γ θ Θ K M) :
      phaseDomain i.newDomain (ρ - 3 * γ) ⊆ erosion (phaseDomain i.wideDomain (ρ - (γ + γ))) β
      theorem KamProject.Arnold1963.IterationInput.phase_subset_wide {n : ℕ} {G Ω : Set (ComplexSpace n)} {ρ β δ γ θ Θ : NNReal} {K M : ℝ} {a : ComplexSpace n → ℂ} {f : AnalyticPhaseFunction n G ρ} {g : ComplexSpace n → ComplexSpace n} (i : IterationInput a f g β δ γ θ Θ K M) :
      phaseDomain i.newDomain (ρ - 3 * γ) ⊆ phaseDomain i.wideDomain (ρ - (γ + γ))
      theorem KamProject.Arnold1963.IterationInput.phase_subset_old_erosion {n : ℕ} {G Ω : Set (ComplexSpace n)} {ρ β δ γ θ Θ : NNReal} {K M : ℝ} {a : ComplexSpace n → ℂ} {f : AnalyticPhaseFunction n G ρ} {g : ComplexSpace n → ComplexSpace n} (i : IterationInput a f g β δ γ θ Θ K M) :
      phaseDomain i.newDomain (ρ - 3 * γ) ⊆ erosion (phaseDomain G ρ) β