Discrete multilinear maximal functions and number theory
Theresa C. Anderson

TL;DR
This paper explores the discrete slicing method for multilinear maximal functions, establishing bounds and connections to number theory, aiming to expand its applications in discrete harmonic analysis.
Contribution
It generalizes the discrete slicing technique for multilinear operators, providing a unified framework and new insights with number theoretic links.
Findings
Established sharp bounds for multilinear discrete operators
Connected discrete slicing to number theory
Unified theory for discrete multilinear maximal functions
Abstract
Many multilinear discrete operators are primed for pointwise decomposition; such decompositions give structural information but also an essentially optimal range of bounds. We study the (continuous) slicing method of Jeong and Lee -- which when debuted instantly gave sharp multilinear operator bounds -- in the discrete setting. Via several examples, number theoretic connections, pointed commentary, and a unified theory we hope that this useful technique will lead to further applications. This work generalizes, and was inspired by, the author's work with Palsson on a special case.
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Taxonomy
TopicsMathematical Analysis and Transform Methods · Approximation Theory and Sequence Spaces · Numerical Methods and Algorithms
