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20182022
most citedPrimes in arithmetic progressions to large moduli II: Well-factorable estimates

4 citations · 14 across the 9 of their papers we have counts for

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math.NT2022

On the largest prime factor of quartic polynomial values: the cyclic and dihedral cases

Cécile Dartyge, James Maynard

Let be an irreducible, monic, quartic polynomial with cyclic or dihedral Galois group. We prove that there exists a constant such that for a positive…

math.NT2020

Simultaneous small fractional parts of polynomials

James Maynard

Let be polynomials of degree at most with . We show that there is an integer such that the fractional parts $\|f_i(…

math.NT2020

Metric theory of Weyl sums

Changhao Chen, Bryce Kerr, James Maynard +1

We prove that there exist positive constants and such that for any integer the set of satisfying $$ cN^{1/2}\le \left|\sum^N_{n=1}\exp\le…

math.NT20202 cited

A new upper bound for sets with no square differences

Thomas F. Bloom, James Maynard

We show that if has no solutions to with and then \[|A|\ll \frac{N}{(\log N)^{c\log\log \log N}}\] for some absolute consta…

math.NT20201 cited

Primes in arithmetic progressions to large moduli III: Uniform residue classes

James Maynard

We prove new mean value theorems for primes in arithmetic progressions to moduli larger than , extending the Bombieri-Vinogradov theorem to moduli of size whic…

math.NT20204 cited

Primes in arithmetic progressions to large moduli II: Well-factorable estimates

James Maynard

We establish new mean value theorems for primes of size in arithmetic progressions to moduli as large as when summed with suitably well-factorable weights. This ext…