Endpoint sparse domination for classes of multiplier transformations

Abstract

We prove endpoint results for sparse domination of translation invariant multiscale operators. The results are formulated in terms of dilation invariant classes of Fourier multipliers based on natural localized $M^{p\to q}$ norms which express appropriate endpoint regularity hypotheses. The applications include new and optimal sparse bounds for classical oscillatory multipliers and multi-scale versions of radial bump multipliers.

Typo in Theorem 1.3 corrected (the result is proved for $1<p<2<q\le p^{\prime }$ with the endpoint $q=p^{\prime }$ included). 55 pages, 1 figure

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Cited by in corpus (1)

• Bochner-Riesz means at the critical index: Weighted and sparse bounds