Enumerating a positive-density orderly-prime set
ProvedHorizontalPadicL.positiveDensityOrderlySet_to_primeSystemgalois-representationsmodular-formsnumber-theoryp-adic-l-functions
Let be a positive-density set of rational primes, all orderly with the same exponent , and all avoiding a fixed modulus . Then admits an injective enumeration which, together with its density certificate and local properties, defines a seeded horizontal prime system of order exponent .
This is the set-theoretic passage from the Chebotarev prime set to the sequence required by the horizontal measure construction.
Preamble
import Definitions.Def_KN_SeededPrimeGaloisData set_option autoImplicit false
Formal statement
namespace HorizontalPadicL
theorem positiveDensityOrderlySet_to_primeSystem
{N k p m B : ℕ} {ι : MTT.Qbar →+* ℂ} [Fact p.Prime]
{f : MTT.Eigenform N k ι} {η : DirichletCharacterWithLevel}
{V : SeededEigenformPadicPlaceData (p := p) f η}
(hm : 0 < m)
(D : SeededOrderlyFrobeniusClassData f η m B V)
(δ : ℝ) (hδ : 0 < δ)
(hdensity : HasPrimeNaturalDensity D.primes δ)
(horderly : ∀ ⦃ℓ : ℕ⦄, ℓ ∈ D.primes →
IsOrderlyPrimeForSeededEigenformV2 p m V.embedding f η ℓ) :
∃ L : SeededHorizontalPrimeSystemV2 p V.embedding f η B,
L.orderExponent = m := by sorry
end HorizontalPadicLSource
Kriz–Nordentoft, Horizontal p-adic L-functions, arXiv:2310.20678v3, §4.3, Lemma 4.14 and Corollary 4.15, pp. 30–31.