Faithful odd-prime theta elements using nonzero moduli
OpenHorizontalPadicL.seededFiniteThetaElements_exist_with_normRelation_v3modular-formsmodular-symbolsnumber-theoryp-adic-l-functions
For odd p, the faithfully pushed-forward plus theta elements are integral after uniform period scaling and satisfy the horizontal norm relations. The algebraic/classical symbol comparison is required only for nonzero moduli, which are the only moduli occurring in the construction.
Deprecated. The conclusion is too weak to characterize the modular-symbol theta system: the theta family may be identically zero, making the norm relations automatic, and no finite-level character-evaluation formula ties it to critical L-values. A replacement should construct the same theta elements together with both their norm relations and their explicit evaluation formula.
Preamble
import Definitions.Def_KN_SeededThetaConstructionV2 set_option autoImplicit false noncomputable section
Formal statement
namespace HorizontalPadicL
/-- For odd `p`, the plus modular-symbol theta elements push forward along the
chosen quotient maps and satisfy the horizontal norm relations. The comparison
with algebraic symbols is required only at the nonzero moduli used here. -/
theorem seededFiniteThetaElements_exist_with_normRelation_v3
{N k p B : ℕ} {ι : MTT.Qbar →+* ℂ} [Fact p.Prime]
(hN : 0 < N) (hk : 2 ≤ k) (heven : Even k)
(f : MTT.Eigenform N k ι) (hnew : IsNewEigenform f)
(P : MTT.Periods k ι f.form) (η : DirichletCharacterWithLevel)
(hηprim : η.2.IsPrimitive) (hηeven : η.2 (-1) = 1)
(ιp : MTT.Qbar →+* ℂ_[p]) (hpodd : p ≠ 2)
(L : SeededHorizontalPrimeDataV2 p ιp f η B)
(characters : SeededHorizontalCharacterRealizationV2 L)
(scale : IntegralPeriodScale f ιp P)
(hcomparison : ∀ s j a m, j ≤ k - 2 → m ≠ 0 →
ι (MTT.algebraicSymbol P s j a m) * P.omega s =
signedModularSymbol f.form s j a m) :
∃ Θ : SeededFiniteThetaDataV2 L,
Θ.characters = characters ∧ Θ.SatisfiesNormRelations := by
sorry
end HorizontalPadicLSource
Mazur--Tate--Teitelbaum modular-symbol period formalism; the analytic binomial-collapse argument formalized in the MTT distribution-relation development; Kriz--Nordentoft, https://arxiv.org/pdf/2310.20678, Section 3.