Bateman–Horn prime-counting conjecture in integral form
OpenFCP.BatemanHorn.integral_counting_conjectureLet be a nonempty finite set of distinct irreducible integer polynomials, each with positive leading coefficient and positive degree. Assume the Schinzel condition: no prime divides their product at every integer. Put and . Suppose the increasing-prime Euler products converge to a positive number . The integral form of the Bateman–Horn conjecture asserts
Here counts natural numbers for which all are prime. This is a conjectural assertion, not a known theorem: it retains the unresolved prime-distribution content of Bateman–Horn. Existence and positivity of are hypotheses of this node and can be proved independently.
Formalization Note. The source counts positive inputs with positive prime values. Positive leading coefficients make all values positive for sufficiently large inputs, so the existing platform convention changes only finitely many counted inputs. The integral main term diverges, hence this finite change does not affect the asserted equivalence.
import Definitions.Def_FCP_BatemanHorn open Polynomial Filter Topology Asymptotics FCP.BatemanHorn
theorem FCP.BatemanHorn.integral_counting_conjecture
(polys : Finset ℤ[X]) (h_nonempty : polys.Nonempty)
(h_bunyakovsky : ∀ f ∈ polys, BunyakovskyCondition f)
(h_schinzel : SchinzelCondition polys)
(C : ℝ) (hC : 0 < C)
(h_limit : Tendsto (partialProduct polys) atTop (𝓝 C)) :
(fun x : ℝ => (countSimultaneousPrimes polys x : ℝ)) ~[atTop]
(fun x : ℝ => C / degreesProduct polys *
∫ t in (2 : ℝ)..x, (1 : ℝ) / (Real.log t) ^ polys.card) := by sorry