1978
DOI: 10.1112/jlms/s2-18.3.519
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The Von Neumann Inequality for Polynomials in Several Hilbert-Schmidt Operators

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Cited by 21 publications
(23 citation statements)
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“…(14) is called the (s; r ) norm of T , and we write T (s;r ) . The key result is the following generalization of Grothendieck's inequality, which appears explicitly in [53, Corollary 2.5] (see also [11,17,37,69]). …”
Section: Here Both Identifications Are Isometricmentioning
confidence: 99%
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“…(14) is called the (s; r ) norm of T , and we write T (s;r ) . The key result is the following generalization of Grothendieck's inequality, which appears explicitly in [53, Corollary 2.5] (see also [11,17,37,69]). …”
Section: Here Both Identifications Are Isometricmentioning
confidence: 99%
“…Since Grothendieck stated his theorem, a lot of effort has been devoted to find suitable multilinear generalizations (see for instance [11,12,17,53,56,69]). However, up until now, the validity of a trilinear Grothendieck's Theorem in the context of operator spaces (and hence in the context of Bell Inequalities) has been open.…”
Section: N (C B(e F)) = C B(e M N (F))mentioning
confidence: 99%
“…As mentioned before, there are several generalizations of Grothendieck's matrix inequality ( [3], [19]). Next we state one more such generalization, apparently new.…”
Section: Multiple Summing Operators On L 1 Spacesmentioning
confidence: 99%
“…In Section 4 we generalize Krivine's version of Grothendieck's inequality. As an application we give a simpler proof of one of the multilinear Grothendieck's inequalities stated in [19]. Our proof works for both the real and the complex case and it shows that the constant involved, K n G , is optimal, improving therefore the previous proofs (Tonge's proof works only in the complex case and gives a worse constant and Carne's proof, although it gives the same constant, is not as simple and does not allow to obtain easily the optimality of the constant).…”
Section: Introduction and Notationmentioning
confidence: 99%
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