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Multilinear singular integrals on non-commutative $L^p$ spaces

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arxiv 1905.02139 v2 pith:7SWJGMYK submitted 2019-05-06 math.CA math.FA

classification math.CAmath.FA
keywords multilinearoperatorsspacespacesfunctioninstanceintegralsnon-commutative
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abstract

We prove $L^p$ bounds for the extensions of standard multilinear Calder\'on-Zygmund operators to tuples of UMD spaces tied by a natural product structure. This can, for instance, mean the pointwise product in UMD function lattices, or the composition of operators in the Schatten-von Neumann subclass of the algebra of bounded operators on a Hilbert space. We do not require additional assumptions beyond UMD on each space - in contrast to previous results, we e.g. show that the Rademacher maximal function property is not necessary. The obtained generality allows for novel applications. For instance, we prove new versions of fractional Leibniz rules via our results concerning the boundedness of multilinear singular integrals in non-commutative $L^p$ spaces. Our proof techniques combine a novel scheme of induction on the multilinearity index with dyadic-probabilistic techniques in the UMD space setting.

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  1. Multilinear operator-valued Calder\'on-Zygmund theory

    math.CA 2019-08 conditional novelty 8.0 of 10

    Operator-valued multilinear Calderón-Zygmund operators are decomposed into dyadic shifts and paraproducts, yielding a bilinear T(1) theorem on UMD spaces and a conditional theory for higher multilinearity.

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