2013
DOI: 10.1215/00127094-2371416
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Shifted convolution sums for GL(3)×GL(2)

Abstract: For the shifted convolution sumwhere λ 1 (1, m) are the Fourier coefficients of a SL(3, Z) Maass form π 1 , and λ 2 (m) are those of a SL(2, Z) Maass or holomorphic form π 2 , and 1 ≤ |h| ≪ X 1+ε , we establish the bound D h (X) ≪π 1 ,π 2 ,ε X 1− 1 20 +ε . The bound is uniform with respect to the shift h.1991 Mathematics Subject Classification. 11F66, 11M41.

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Cited by 37 publications
(33 citation statements)
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“…Thus Theorem 5.4 follows also from the fact that the group G FT ψ (K 2 ) is trivial, which is not very difficult to prove. Interestingly, other correlations sums attached to the same sheaf appeared in other papers in the literature: we are aware of its occurrence in works of Pitt [25] and Munshi [24].…”
Section: Theorem 51 ([8]mentioning
confidence: 61%
“…Thus Theorem 5.4 follows also from the fact that the group G FT ψ (K 2 ) is trivial, which is not very difficult to prove. Interestingly, other correlations sums attached to the same sheaf appeared in other papers in the literature: we are aware of its occurrence in works of Pitt [25] and Munshi [24].…”
Section: Theorem 51 ([8]mentioning
confidence: 61%
“…[1,Corollary 11.24,Lemma 12.8]); -cases where k = 2 and γ 1 , γ 2 are diagonal are found in the thesis of Michel and his subsequent papers (e.g. [2]); -for k = 2, γ 1 = 1 and h = 0, we obtain the general 'correlation sums' (for the Fourier transform of K) defined in [3]; these are crucial to our works [3][4][5]; -special cases of this situation of correlation sums can be found (sometimes implicitly) in earlier works of Iwaniec [6], Pitt [7] and Munshi [8]; -the case k = 2, γ 1 and γ 2 diagonal, h arbitrary and K a Kloosterman sum in two variables (or a variant with K a Kloosterman sum in one variable and γ 1 , γ 2 not upper triangular) occurs in the work of Friedlander & Iwaniec [9], and it is also used in the work of Zhang [10] on gaps between primes; -cases where k is arbitrary, the γ i are upper triangular and distinct, and h may be non-zero appear in the work of Fouvry et al [11,Lemma 2.1], indeed in a form involving different trace functions K i (γ i • x) related to symmetric powers of Kloosterman sums; -the sums for k arbitrary and h = 0, with K a hyper-Kloosterman sum appear in the works of Fouvry et al [12] and Kowalski & Ricotta [13] (with γ i diagonal); -this last case, but with arbitrary h and the γ i being translations also appears in the work of Irving [14], and (for very different reasons) in work of Kowalski & Sawin [15]; and -another instance, with k = 4, h arbitrary and γ i upper triangular, occurs in the work of Blomer & Milićević [16,§11].…”
Section: Introductionmentioning
confidence: 56%
“…The shifted convolution sum n≤X a 1 (n + h)a 2 (n) where a 1 (n) and a 2 (n) are two arithmetic functions and h ≥ 1 an integer, is an interesting and important object in analytic number theory and has been studied intensively by many authors with various applications (see for example [2], [6], [11], [13], [15]). For the arithmetic function r ℓ (n) = # (n 1 , n 2 , .…”
Section: Introductionmentioning
confidence: 99%
“…To prove Theorem 1, we apply Jutila's variation of the circle method (see [9]) which gives an approximation for where L = q∈Q φ(q). Then I Q,δ (x) is an approximation for I [0,1] (x) in the following sense (see Lemma 4 in Munshi [15]):…”
Section: Introductionmentioning
confidence: 99%