\(p\)-convergent operators and the \(p\)-Schur property (Q2300127)
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scientific article
| Language | Label | Description | Also known as |
|---|---|---|---|
| English | \(p\)-convergent operators and the \(p\)-Schur property |
scientific article |
Statements
\(p\)-convergent operators and the \(p\)-Schur property (English)
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26 February 2020
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Let \(X,Y\) be Banach spaces. This interesting paper deals with the question of certain subclasses of \({\mathcal{K}}(X,Y)\) being equal to \({\mathcal{K}}(X,Y)\) for all spaces \(Y\) or equivalently for a test space \(Y\).\par For \(1 \leq p < \infty\) let \(C_p(X,Y)\) denote the class of operators which map weakly \(p\)-summable sequences to norm null sequences. It is shown that when \(C_p(X,Y) = {\mathcal{K}}(X,Y)\) for \(Y = \ell^{\infty}\), then these spaces are equal for all Banach spaces \(Y\).\par For \(1 \leq p <q < \infty\), a similar result holds for the inclusion \(C_p(X,Y) \subset C_q(X,Y)\).
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Dunford-Pettis property of order \(p\)
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\(p\)-Schur property
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\(p$-$(V)\) set
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\(p$-$(V^*)\) set
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