Download lean/OAI/Probability/BenjaminiSchramm/ConsistentLayers.lean from roseking/openAI-math-dataset: direct link, hf CLI and curl.
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4.18 kB
| import OAI.Probability.BenjaminiSchramm.NormalizedLayerTransport | |
| namespace OAI | |
| noncomputable section | |
| open Set | |
| open scoped Classical | |
| namespace CriticalPercolation.BondGraph | |
| variable {V E : Type*} (G : BondGraph V E) | |
| def adjustedLayerIndex (a : V → ℝ) (R u : ℝ) (x y : V) : ℤ := | |
| ⌊G.orbitAdjustedHeight a x y/R+u⌋-⌊u⌋ | |
| @[simp] lemma adjustedLayerIndex_self (a : V → ℝ) (R u : ℝ) (x : V) : | |
| G.adjustedLayerIndex a R u x x=0 := by simp [adjustedLayerIndex] | |
| lemma adjustedLayerIndex_aut (a : V → ℝ) | |
| (ha : ∀ (φ : G.Aut) x, a (φ.vertex x)=a x) (R u : ℝ) | |
| (φ : G.Aut) (x y : V) : | |
| G.adjustedLayerIndex a R u (φ.vertex x) (φ.vertex y)=G.adjustedLayerIndex a R u x y := by | |
| simp only [adjustedLayerIndex,G.orbitAdjustedHeight_aut a ha] | |
| lemma adjustedLayerIndex_change_base (hc : G.fullGraph.Connected) (hl : G.LocallyFinite) | |
| (a : V → ℝ) (R u : ℝ) (x y z : V) : | |
| G.adjustedLayerIndex a R u x z = G.adjustedLayerIndex a R u x y+ | |
| G.adjustedLayerIndex a R (G.orbitAdjustedHeight a x y/R+u) y z := by | |
| unfold adjustedLayerIndex | |
| rw [G.orbitAdjustedHeight_change_base hc hl a x y z] | |
| have he : (G.orbitAdjustedHeight a x y+G.orbitAdjustedHeight a y z)/R+u = | |
| G.orbitAdjustedHeight a y z/R+(G.orbitAdjustedHeight a x y/R+u) := by ring | |
| rw [he] | |
| ring | |
| lemma adjustedLayerIndex_periodic (a : V → ℝ) (R u : ℝ) (n : ℤ) (x y : V) : | |
| G.adjustedLayerIndex a R (u+n) x y=G.adjustedLayerIndex a R u x y := by | |
| unfold adjustedLayerIndex | |
| rw [←add_assoc,Int.floor_add_intCast,Int.floor_add_intCast] | |
| ring | |
| lemma adjustedLayerIndex_height_bounds (a : V → ℝ) (R u : ℝ) (hR : 0 < R) (x y : V) : | |
| R*((G.adjustedLayerIndex a R u x y : ℝ)-1) < G.orbitAdjustedHeight a x y ∧ | |
| G.orbitAdjustedHeight a x y < R*((G.adjustedLayerIndex a R u x y : ℝ)+1) := by | |
| have h₁ := Int.floor_le (G.orbitAdjustedHeight a x y/R+u) | |
| have h₂ := Int.lt_floor_add_one (G.orbitAdjustedHeight a x y/R+u) | |
| have h₃ := Int.floor_le u | |
| have h₄ := Int.lt_floor_add_one u | |
| have he : (G.adjustedLayerIndex a R u x y : ℝ) = | |
| (⌊G.orbitAdjustedHeight a x y/R+u⌋ : ℝ)-(⌊u⌋ : ℝ) := by | |
| simp only [adjustedLayerIndex,Int.cast_sub] | |
| rw [he] | |
| constructor | |
| · have hh : (⌊G.orbitAdjustedHeight a x y/R+u⌋ : ℝ)-(⌊u⌋ : ℝ)-1 < | |
| G.orbitAdjustedHeight a x y/R := by linarith | |
| have hm := (lt_div_iff₀ hR).mp hh | |
| nlinarith | |
| · have hh : G.orbitAdjustedHeight a x y/R < | |
| (⌊G.orbitAdjustedHeight a x y/R+u⌋ : ℝ)-(⌊u⌋ : ℝ)+1 := by linarith | |
| have hm := (div_lt_iff₀ hR).mp hh | |
| nlinarith | |
| lemma adjustedLayerIndex_edge_jump (hc : G.fullGraph.Connected) (hl : G.LocallyFinite) | |
| (a : V → ℝ) (R u : ℝ) (hR : 0 < R) | |
| (hjump : ∀ e v w, v ∈ G.ends e → w ∈ G.ends e → | |
| |G.orbitAdjustedHeight a v w| ≤ R) | |
| (x v w : V) (e : E) (hv : v ∈ G.ends e) (hw : w ∈ G.ends e) : | |
| G.adjustedLayerIndex a R u x v-1 ≤ G.adjustedLayerIndex a R u x w ∧ | |
| G.adjustedLayerIndex a R u x w ≤ G.adjustedLayerIndex a R u x v+1 := by | |
| have hh := abs_le.mp (hjump e v w hv hw) | |
| have hcoc := G.orbitAdjustedHeight_change_base hc hl a x v w | |
| have hdiv : G.orbitAdjustedHeight a x v/R-1 ≤ G.orbitAdjustedHeight a x w/R ∧ | |
| G.orbitAdjustedHeight a x w/R ≤ G.orbitAdjustedHeight a x v/R+1 := by | |
| constructor | |
| · apply (le_div_iff₀ hR).mpr | |
| have he : (G.orbitAdjustedHeight a x v/R-1)*R = G.orbitAdjustedHeight a x v-R := by | |
| field_simp | |
| rw [he] | |
| linarith | |
| · apply (div_le_iff₀ hR).mpr | |
| have he : (G.orbitAdjustedHeight a x v/R+1)*R = G.orbitAdjustedHeight a x v+R := by | |
| field_simp | |
| rw [he] | |
| linarith | |
| have hlo := Int.floor_mono (add_le_add hdiv.1 (le_refl u)) | |
| have hhi := Int.floor_mono (add_le_add hdiv.2 (le_refl u)) | |
| have helo : G.orbitAdjustedHeight a x v/R-1+u = G.orbitAdjustedHeight a x v/R+u-1 := by ring | |
| have hehi : G.orbitAdjustedHeight a x v/R+1+u = G.orbitAdjustedHeight a x v/R+u+1 := by ring | |
| rw [helo,Int.floor_sub_one] at hlo | |
| rw [hehi,Int.floor_add_one] at hhi | |
| unfold adjustedLayerIndex | |
| omega | |
| end CriticalPercolation.BondGraph | |
| end | |
| end OAI | |