On the Equivalence of Geometric and Analytic K-Homology
By P. Baum, N. Higson, Thomas Schick. 2007
100 citations recorded by the source corpus.
We give a proof that the geometric K-homology theory for finite CWcomplexes defined by Baum and Douglas is isomorphic to Kasparov’s Khomology. The proof is a simplification of more elaborate arguments which deal with the geometric formulation of equivariantK-homology theory.
Subfields: Computational Theory and Mathematics, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/0815c338873c5afda0dad0c59086b8c98c412a91
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In Computational Theory and Mathematics
In Mathematical Physics
- Rufus Willett
- Guoliang Yu
- Thomas Schick
- J. Roe
- N. Higson
- U. Bunke
- E. Guentner
- Nathanial P. Brown Narutaka Ozawa
Citations in the corpus
- Higher index theory for certain expanders and Gromov monster groups I (2010, methodology): “Using the Baum–Douglas geometric model of K-homology as recently studied by Baum–Higson–Schick [7], [x] can be represented by a cycle (M,E, f) whereM is a compact spin manifold, E is a complex vector bundle overM , and f : M → Y is a continuous map.”
- SMOOTH K-THEORY (2007, background): “he Spinc-cobordism theory, and β is the homological Chern character. We consider all groups as Z/2Z-graded. The homological Chern character is a rational isomorphism. Furthermore one knows by [BD82], [BHS] that ΩSpinc ∗ (B) →α K ∗(B) is surjective. It follows that the composition β ◦α : ΩSpinc(B)⊗ Q”
- K-Homology, Assembly and Rigidity Theorems for Relative Eta Invariants (2010, methodology): “They may be concretely defined using either functional analysis [25, 12] (as first suggested by Atiyah [1]) or geometry [8, 10].”