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20112026
most citedThe Hörmander multiplier theorem I: The Linear Case

4 citations · 8 across the 5 of their papers we have counts for

collaborators

8 papers

math.CA2026

Multilinear rough singular integral operators may not be of the weak type at the endpoint

Petr Honzik

We show that -linear homogeneous rough singular integral operators $\LL_Ω$ associated with functions on with mean value zero may not be bounde…

math.CA2020

On pointwise a.e. convergence of multilinear operators

Loukas Grafakos, Danqing He, Petr Honzík +1

In this work we obtain the pointwise almost everywhere convergence for two families of multilinear operators: (a) truncated homogeneous singular integral operators associated with…

math.CA2020★ 1 cited

Initial bounds for multilinear operators

Loukas Grafakos, Danqing He, Petr Honzík +1

The boundedness theory of convolution operators is \linebreak based on an initial estimate derived from the Fourier transform. The corresponding theory of multil…

math.CA2018

Maximal operators associated with bilinear multipliers of limited decay

Loukas Grafakos, Danqing He, Petr Honzík

Results analogous to those proved by Rubio de Francia are obtained for a class of maximal functions formed by dilations of bilinear multiplier operators of limited decay. We focus…

math.CA2017★ 3 cited

Bilinear Spherical Maximal Function

J. A. Barrionevo, Loukas Grafakos, Danqing He +2

We obtain boundedness for the bilinear spherical maximal function in a range of exponents that includes the Banach triangle and a range of with . We also obtain countere…

math.CA2016★ 4 cited

The Hörmander multiplier theorem I: The Linear Case

Loukas Grafakos, Danqing He, Petr Honzík +1

We discuss boundedness for Fourier multiplier operators that satisfy the hypotheses of the Hörmander multiplier theorem in terms of an optimal condition that rel…

math.CA2015

Rough Bilinear Singular Integrals

Loukas Grafakos, Danqing He, Petr Honzík

We study the rough bilinear singular integral, introduced by Coifman and Meyer , $$ T_Ω(f,g)(x)=p.v. \! \int_{\mathbb R^{n}}\! \int_{\mathbb R^{n}}\! |(y,z)|^{-2n} Ω((y,z)/|(y,z)|)…

math.CA2011

On the Good- inequality for nonlinear potentials

Petr Honzík, Benjamin J. Jaye

This note concerns an extension of the good- inequality for fractional integrals, due to B. Muckenhoupt and R. Wheeden. The classical result is refined in two aspects. Firstly,…