2016
DOI: 10.1007/s00025-016-0558-3
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On Subprojectivity and Superprojectivity of Banach Spaces

Abstract: We obtain some results for and further examples of subprojective and superprojective Banach spaces. We also give several conditions providing examples of non-reflexive superprojective spaces; one of these conditions is stable under c 0 -sums and projective tensor products.

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Cited by 11 publications
(5 citation statements)
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“…Let d(w; 1) be the Lorentz space of [13,Theorem 5.4] and denote by d * (w; 1) its predual. The sequence of canonical unit vectors (e j ) ∞ j=1 is a 1-unconditional basis for d(w; 1) (see [1]) and the sequence of coordinate functionals (e * j ) ∞ j=1 is an unconditional basis for d * (w; 1) (see [19]), hence it is a 1-unconditional basis (see [22, p. 19]). We consider d * (w; 1) as a Banach lattice with the order given by its 1-unconditional basis and d(w; 1) with its dual structure (which coincides, by the way, with the order given by the 1-unconditional basis (e j ) ∞ j=1 ).…”
Section: Resultsmentioning
confidence: 99%
“…Let d(w; 1) be the Lorentz space of [13,Theorem 5.4] and denote by d * (w; 1) its predual. The sequence of canonical unit vectors (e j ) ∞ j=1 is a 1-unconditional basis for d(w; 1) (see [1]) and the sequence of coordinate functionals (e * j ) ∞ j=1 is an unconditional basis for d * (w; 1) (see [19]), hence it is a 1-unconditional basis (see [22, p. 19]). We consider d * (w; 1) as a Banach lattice with the order given by its 1-unconditional basis and d(w; 1) with its dual structure (which coincides, by the way, with the order given by the 1-unconditional basis (e j ) ∞ j=1 ).…”
Section: Resultsmentioning
confidence: 99%
“…Proof Let dfalse(w;1false)$d(w;1)$ be the Lorentz space of [21, Theorem 5.4] and denote by d(w;1)$d_*(w;1)$ its predual. The sequence of canonical unit vectors (ej)j=1$(e_j)_{j=1}^\infty$ is a 1‐unconditional basis for dfalse(w;1false)$d(w;1)$ (see [1]) and the sequence of coordinate functionals (ej)j=1$(e^*_j)_{j=1}^\infty$ is an unconditional basis for d(w;1)$d_*(w;1)$ (see [27]), hence it is a 1‐unconditional basis (see [33, I, p. 19]). We consider d(w;1)$d_*(w;1)$ as a Banach lattice with the order given by its 1‐unconditional basis and dfalse(w;1false)$d(w;1)$ with its dual structure (which coincides, by the way, with the order given by the 1‐unconditional basis (ej)j=1$(e_j)_{j=1}^\infty$).…”
Section: Non‐norm Null Disjoint Sequencesmentioning
confidence: 99%
“…Martínez-Abejón MJOM Let us recall that a Banach space X is said to be subprojective if every closed, infinite-dimensional subspace Y of X contains a closed, infinite-dimensional subspace Z complemented in X. For more information about subprojective spaces, see [16] and [28].…”
Section: Introductionmentioning
confidence: 99%