Exponential Sums and Lattice Points III
Экспоненциальные суммы и точки решётки III
2003-10-23
SCID: 54.1/3kwrtcuq
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Bombieri–Iwaniec–Mozzochi methodDirichlet divisor problemGauss circle problemapproximation determinant methodresonance curves
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Abstract (AI)
The Gauss circle problem and the Dirichlet divisor problem are special cases of the problem of counting the points of the integer lattice in a planar domain bounded by a piecewise smooth curve. In the Bombieri–Iwaniec–Mozzochi exponential sums method we must count the number of pairs of arcs of the boundary curve which can be brought into coincidence by an automorphism of the integer lattice. These coincidences are parametrised by integer points close to certain plane curves, the resonance curves. This paper sets up an iteration step from a strong hypothesis about integer points close to curves to a bound for the discrepancy, the number of integer points minus the area, as in the latest work on single exponential sums. The Bombieri–Iwaniec–Mozzochi method itself gives bounds for the number of integer points close to a curve in part of the required range, and it can in principle be used iteratively. We use a bound obtained by Swinnerton-Dyer's approximation determinant method. In the discrepancy estimate O(RK (log R)Λ) in terms of the maximum radius of curvature R, we reduce K from 2/3 (classical) and 46/73 (paper II in this series) to 131/208. The corresponding exponent in the Dirichlet divisor problem becomes K/2 =131/416. 2000 Mathematics Subject Classification 11P21, 11L07.
Key Findings
1
For discrepancy estimates of the form O(R^K (log R)^Λ), the curvature exponent improves from 2/3 classically and 46/73 in Paper II to 131/208.
2
It applies Swinnerton-Dyer’s approximation determinant method to bound integer points near the resonance curves arising in the Bombieri–Iwaniec–Mozzochi framework.
3
The Bombieri–Iwaniec–Mozzochi method supplies bounds in part of the required range and may, in principle, be applied iteratively.
4
The paper formulates an iteration step converting strong bounds for integer points near curves into discrepancy estimates for lattice-point counting in planar domains.
5
The resulting exponent in the Dirichlet divisor problem is K/2 = 131/416.
Research Object
integer lattice points in planar domains bounded by piecewise smooth curves
Research Subject
discrepancy bounds for lattice-point counting, including the exponent K in terms of the maximum radius of curvature
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2003-10-23
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