Five deficiency-threshold branches for planar distinct distances
ProvedEsgk.distinct_distances_deficiency_threshold_alternativesdiscrete-geometrydistinct-distances
Let be an injectively indexed set of planar points in general position, let be its number of distinct distances, and define the natural deficiency by
There are absolute positive integers and a threshold such that, whenever , at least one of the following holds:
- ;
- ;
- ;
- ;
- .
The same work for every qualifying configuration. These are the exact circle, nonabsolute, small-deficiency, threshold-failure, and threshold-success branches of the distance--Newton bootstrap.
Preamble
/- Copyright (c) 2026 Adam McKenna. All rights reserved. Released under Apache 2.0 license as described in the file LICENSE. Authors: Adam McKenna -/ import Definitions.Def_Esgk_Foundation open EuclideanGeometry Filter
Formal statement
namespace Esgk
/-- The deficiency--Newton argument reaches one of five exact numerical branches. -/
theorem distinct_distances_deficiency_threshold_alternatives :
∃ T C : ℕ, 0 < T ∧ 0 < C ∧
∀ᶠ n : ℕ in Filter.atTop,
∀ p : Config n,
Function.Injective p →
InGeneralPosition (Config.toFinset p) →
∃ σ : ℕ,
(n - 1) + σ = 3 * distinctDistances (Config.toFinset p) ∧
let s := σ + 1
n ≤ 3 * s ∨ n ≤ s ^ 2 ∨ n ≤ s ∨
n ^ 2 < 128 * T * s ^ 7 ∨ n ≤ 32 * C * s ^ 5 := by
sorry
end Esgk
Source
Consolidated argument for a fifth-root additive bound (dated 2026-08-25; revision 2026-09-13; Git revision 8a4c11ac6083f1c5e354b1a2556eae086f4b3ee5; file SHA-256 af6ee6023fe1ff3730b492ea3756d240818df46a877abe3b7ac1153fc7c0245c); Sections 2 and 15--16.