Abstract

For alpha>beta-1>0, we obtain two-sided inequalities for the moment integral I(alpha,beta)=int_{mathbb{R}}|x|^{-beta}|sin x|^{alpha},dx. These are then used to give the exact asymptotic behavior of the integral as alpharightarrowinfty. The case I(alpha,alpha) corresponds to the asymptotics of Ball’s inequality, and I(alpha,[alpha]-1) corresponds to a kind of novel “oscillatory” behavior.

Highlights

  • Ball’s integral inequality [ ], in connection with cube-slicing in Rn, says that for all s ≥, ∞ sin(π x) s dx ≤, or–∞ π x s sin x s dx ≤ π–∞ x s with strict inequality except when s =

  • It suggests that the integral decays like

  • We showed that the asymptotic behavior I(α, [α]– )

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Summary

Introduction

Ball’s integral inequality [ ], in connection with cube-slicing in Rn, says that for all s ≥ ,. –∞ x s with strict inequality except when s =. It suggests that the integral decays like. < , the asymptotic result implies the inequality for large values of s. The asymptotic result, though reasonably tame, presents new difficulties when we consider a more general integral, and this is circumvented here by the proof of two new inequalities. The inequalities obtained are indispensable in obtaining the asymptotic behavior, especially in the interesting “oscillatory” cases. The oscillatory behavior makes it impossible to employ the standard methods used in connection with Ball’s inequality.

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