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Schatten--Lorentz characterization of Riesz transform commutator associated with Bessel operators
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abstract
Let $\Delta_\lambda$ be the Bessel operator on the upper half space $\mathbb{R}_+^{n+1}$ with $n\geq 0$ and $\lambda>0$, and $R_{\lambda,j}$ be the $j-$th Bessel Riesz transform, $j=1,\ldots,n+1$. We demonstrate that the Schatten--Lorentz norm ($S^{p,q}$, $1<p<\infty$, $1\leq q\leq \infty$) of the commutator $[b,R_{\lambda,j}]$ can be characterized in terms of the oscillation space norm of the symbol $b$. In particular, for the case $p=q$, the Schatten norm of $[b,R_{\lambda,j}]$ can be further characterized in terms of the Besov norm of the symbol. Moreover, the critical index is also studied, which is $p=n+1$, the lower dimension of the Bessel measure (but not the upper dimension). Our approach relies on martingale and dyadic analysis, which enables us to bypass the use of Fourier analysis effectively.
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Spectral asymptotic formula of Bessel--Riesz commutator
For Bessel-Riesz commutators on R^{n+1}_+, the singular values obey lim t^{1/(n+1)} mu(t,[M_f,R_{lambda,k}]) = C ||f||_{W-dot}^{1,n+1}, and the endpoint weak Schatten norm is equivalent to the same Sobolev norm.
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