Decomposition Rank of Subhomogeneous C*‐Algebras
By W. Winter. 2002
56 citations recorded by the source corpus.
We analyze the decomposition rank (a notion of covering dimension for nuclear C*‐algebras introduced by E. Kirchberg and the author) of subhomogeneous C*‐algebras. In particular, we show that a subhomogeneous C*‐algebra has decomposition rank n if and only if it is recursive subhomogeneous of topological dimension n, and that n is determined by the primitive ideal space.
Subfields: Algebra and Number Theory, Computational Theory and Mathematics, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/4ac87df98cfd5e5f9ac5152542ab00c9c50041cf
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In Algebra and Number Theory
- W. Winter
- Stuart White
- Aaron Tikuisis
- Andrew S. Toms
- G'abor Szab'o
- Eberhard Kirchberg
- M. Rørdam
- Yasuhiko Sato
In Computational Theory and Mathematics
In Mathematical Physics
- W. Winter
- Stuart White
- Aaron Tikuisis
- G'abor Szab'o
- Andrew S. Toms
- David Kerr
- Eberhard Kirchberg
- Yasuhiko Sato
Citations in the corpus
- FLAT DIMENSION GROWTH FOR C ∗ -ALGEBRAS (2005, background): “Let dr(•) denote the decomposition rank of a nuclear C ∗-algebra. In [ 39 ] it is proved that”
- Quasidiagonality of nuclear C*-algebras (2015, background): “ models constructed in [29] (since those exhaust the invariant), which in turn have topological dimension at most 2, as pointed out in [78, 1.11]; the UCT is of course necessary for this argument. By [78] these models have decomposition rank at most 2, and therefore so does the limit Aby [46, (3.2)]”
- Strongly self-absorbing C*-algebras (2005, methodology): “We refer the interested reader to [29], [28] and [41] for more details on recursive subhomogeneous C∗-algebras.”
- COVERING DIMENSION AND QUASIDIAGONALITY (2002, background): “(iii) In [24] it will be shown that, for a subhomogeneous algebra A, we have drA = maxk dim(PrimkA), where PrimkA is the (locally compact Hausdorff) space of kernels of k-dimensional irreducible representations.”
- Minimal Dynamics and K-Theoretic Rigidity: Elliott’s Conjecture (2009, methodology): “It then follows from the main theorem of [ 29 ] that each AYm has decomposition rank at most dim(X).”