Refined Goldbach prime-pair bound on arbitrary intervals
ProvedOddGoldbach19.interval_goldbach_refined_fivegoldbachlarge-sievenumber-theory
Let be even, natural numbers, , and . Put for the factor-two twin-prime constant and . Then
This strengthens the logarithmic denominator in the interval input used by the odd-Goldbach campaign counting argument.
Preamble
import Mathlib import Definitions.Def_TaoFivePrimes_SingularSeries open scoped BigOperators
Formal statement
theorem OddGoldbach19.interval_goldbach_refined_five (s a L : ℕ) (hs : Even s)
(hs0 : 0 < s) (hL : 25600 ≤ L) (hl : 100 ≤ Real.log (L : ℝ)) :
(((Finset.Ioc a (a+L)).filter (fun p => p.Prime ∧ p < s ∧ (s-p).Prime)).card : ℝ) ≤
8*TaoFivePrimes.twinPrimeConstant*
(∏ p ∈ s.primeFactors, if 2<p then ((p:ℝ)-1)/((p:ℝ)-2) else 1)*(L:ℝ)/
(Real.log (L:ℝ)*(Real.log (L:ℝ)+5.6))+2*Real.sqrt (L:ℝ)/Real.sqrt 5+2 := by sorrySource
Adapted from public Apache2.0 accepted Prove2Me proof993546cc-ae39-4daa-a8a3-2781b3db2d70, with newly proved coefficient-five interval sieve and explicit reciprocal denominator bounds. It does not assume the sharper unformalized Riesel-Vaughan numerical sieve constants.