Localizing the Elliott conjecture at strongly self-absorbing C*-algebras
Wilhelm Winter

TL;DR
This paper introduces a localized approach to the Elliott conjecture at strongly self-absorbing C*-algebras, providing new classification results for certain nuclear C*-algebras and outlining strategies to generalize these results.
Contribution
It develops a framework for localizing the Elliott conjecture at a strongly self-absorbing algebra and proves classification results under specific conditions, extending previous classification theorems.
Findings
Classification of certain simple C*-algebras satisfying the localized Elliott conjecture.
New results on the classification of ASH algebras with projections separating traces.
A strategy to potentially remove trace space and K-theory restrictions in classification.
Abstract
We formally introduce the concept of localizing the Elliott conjecture at a given strongly self-absorbing C*-algebra ; we also explain how the known classification theorems for nuclear C*-algebras fit into this concept. As a new result in this direction, we employ recent results of Lin to show that (under a mild K-theoretic condition) the class of separable, unital, simple C*-algebras with locally finite decomposition rank and UCT, and for which projections separate traces, satisfies the Elliott conjecture localized at the Jiang-Su algebra Z. Our main result is formulated in a more general way; this allows us to outline a strategy to possibly remove the trace space condition as well as the K-theory restriction entirely. When regarding both our result and the recent classification theorem of Elliott, Gong and Li as generalizations of the real rank zero case, the two approaches are…
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Taxonomy
TopicsAdvanced Operator Algebra Research · Advanced Topics in Algebra · Algebraic structures and combinatorial models
