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MathlibNt.AnalyticNumberTheory.Chen1973.Chen1973Lemma6Equation21UniformVerticalEstimate

theorem AnalyticNumberTheory.LargeSieve.chen1973Lemma6_eq21_primeRegion_log_y {x : } (hx : 3 x) {pp : × } (hpp : pp chen1973Lemma6Eq21PrimeRegion x) :
1 < x / (pp.1 * pp.2) Real.log x / 3 Real.log (x / (pp.1 * pp.2))

Source-region geometry, extracted without changing the analytic-payments module.

A fixed, explicit finite coefficient; no cell parameter occurs here.

Equations
Instances For
    theorem AnalyticNumberTheory.LargeSieve.chen1973Lemma6_eq21_budget_uniform {x d : } (hu : 4 Real.log x) (hd : 1 d) (hdu : d Real.log x ^ 100) (r : ) :
    have a := chen1973PerronScale x; have N := chen1973PerronOrder x + 1; have D := 1 + Real.log (d * (1 + a)); have σ := chen1973Lemma6Eq21Sigma x; (σ⁻¹ + Real.log a) * D ^ r + jFinset.range (r + 1), (r.choose j) * D ^ (r - j) * (j.factorial / N ^ (j + 1)) chen1973Lemma6Eq21UniformBudgetConstant r * (1 + Real.log (Real.log x)) ^ (r + 1)

    Uniform arithmetic bound for the already-integrated kernel budget. We deliberately discard the helpful order denominators and use a loose fixed coefficient, rather than impose an integral-shaped premise.

    Every fixed polynomial in 1 + log log x is absorbed by log x. The cutoff is independent of all conductor and prime-pair cells.

    A single pre-cell threshold absorbs the real vertical-integral budget into PrimitiveVerticalEstimate 1. The only analytic input is the actual full-height pointwise L'/L bound; it is retained as a hypothesis, not claimed proved.