2021
DOI: 10.48550/arxiv.2104.06966
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Sums of four squareful numbers

Alec Shute

Abstract: We find an asymptotic formula for the number of primitive vectors (z 1 , . . . , z 4 ) ∈ (Z =0 ) 4 such that z 1 , . . . , z 4 are all squareful and bounded by B, andOur result agrees in the power of B and log B with the Campana-Manin conjecture of Pieropan, Smeets, Tanimoto and Várilly-Alvarado. Contents 1. Introduction 1 2. The Campana-Manin conjecture 5 3. Dealing with the large coefficients 10 4. The circle method 14 5. Proof of Theorem 1.1 36 References 43

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Cited by 2 publications
(4 citation statements)
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“…Van Valckenborgh proves in [19,Theorem 1.1] that for any n 3, we have N n (B) ∼ cB n/2 as B → ∞, for an explicit constant c > 0. In [16], we extend the treatment to handle the case n = 2. Work of Browning and Yamagishi in [3] considers a more general orbifold (P n , D), where the D i are as above, and D = n+1 i=0 (1 − 1 m i )D i for integers m 0 , .…”
Section: Introductionmentioning
confidence: 99%
See 1 more Smart Citation
“…Van Valckenborgh proves in [19,Theorem 1.1] that for any n 3, we have N n (B) ∼ cB n/2 as B → ∞, for an explicit constant c > 0. In [16], we extend the treatment to handle the case n = 2. Work of Browning and Yamagishi in [3] considers a more general orbifold (P n , D), where the D i are as above, and D = n+1 i=0 (1 − 1 m i )D i for integers m 0 , .…”
Section: Introductionmentioning
confidence: 99%
“…With this approach, the leading constant for N n (B) is expressed as an infinite sum of constants c y arising from Manin's conjecture applied to N + y (B). This is the point of view taken in [19,Section 5] for n 3, and it is also how we express the leading constant in [16] for the case n = 2. When n = 1, it leads to the following prediction in [2, Conjecture 1.1].…”
Section: Introductionmentioning
confidence: 99%
“…With this approach, the leading constant for N n (B) is expressed as an infinite sum of constants c y arising from Manin's conjecture applied to N + y (B). This is the point of view taken in [22, Section 5] for n ≥ 3, and it is also how we express the leading constant in [19] for the case n = 2. When n = 1, it leads to the following prediction [2, Conjecture 1.1].…”
mentioning
confidence: 99%
“…Van Valckenborgh [22,Theorem 1.1] proves that for any n ≥ 3, we have N n (B) ∼ cB n/2 as B → ∞, for an explicit constant c > 0. In [19], we extend the treatment to handle the case n = 2. Work of Browning and Yamagishi [3] considers a more general orbifold (P n , D), where the D i are as above, and D = n+1 i=0 (1 − 1/m i )D i for integers m 0 , .…”
mentioning
confidence: 99%