On weighted norm inequalities for the Carleson and Walsh-Carleson operators
arXiv:1312.0833 · doi:10.1112/jlms/jdu049
Abstract
We prove bounds for the Carleson operator , its lacunary version , and its analogue for the Walsh series $\W$ in terms of the constants for . In particular, we show that, exactly as for the Hilbert transform, is bounded linearly by for . We also obtain bounds in terms of , whose sharpness is related to certain conjectures (for instance, of Konyagin \cite{K2}) on pointwise convergence of Fourier series for functions near . Our approach works in the general context of maximally modulated Calderón-Zygmund operators.
A major revision of arXiv: 1310.3352. In particular, the main result is proved under a different assumption, and applications to the lacunary Carleson operator and to the Walsh-Carleson operator are given
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Cited by in corpus (12)
- A sparse domination principle for rough singular integrals
- Weighted norm inequalities for rough singular integral operators
- Maximal polynomial modulations of singular integrals
- An abstract theory of singular operators
- Polynomial Carleson operators along monomial curves in the plane
- Multi-scale sparse domination
- Sparse bounds for maximal rough singular integrals via the Fourier transform
- Sparse Bounds for Maximally Truncated Oscillatory Singular Integrals
- Quadratic sparse domination and Weighted Estimates for non-integral Square Functions
- Endpoint sparse bounds for Walsh-Fourier multipliers of Marcinkiewicz type
- On a weak type estimate for sparse operators of strong type
- Weak Type Bound for Oscillatory Singular Integrals