McKay correspondence for elliptic genera
By L. Borisov, A. Libgober. 2002
64 citations recorded by the source corpus.
We establish a correspondence between orbifold and singular elliptic genera of a global quotient. While the former is defined in terms of the fixed point set of the action, the latter is defined in terms of the resolution of singularities. As a byproduct, the second quantization formula of Dijkgraaf, Moore, Verlinde and Verlinde is extended to arbitrary Kawamata log-terminal pairs.
Subfields: Geometry and Topology, Mathematical Physics, Statistical and Nonlinear Physics
View Paper: https://www.semanticscholar.org/paper/69aaa4d18a2da730b6dfcab6112c1bb077404fbe
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In Geometry and Topology
- Joerg Schuermann
- Shoji Yokura
- A. Libgober
- Alexander I. Suciu
- Nero Budur
- Stefan Papadima
- Laurentiu G. Maxim
- Alexandru Dimca
In Mathematical Physics
- Joerg Schuermann
- Shoji Yokura
- A. Libgober
- Alexander I. Suciu
- Stefan Papadima
- Laurentiu G. Maxim
- Mihnea Cristian Popa
- C. Schnell
In Statistical and Nonlinear Physics
Citations in the corpus
- Elliptic genera, real algebraic varieties and quasi-Jacobi forms (2009, background): “…( X , G ) where X is a non-singular variety, D is a divisor and G is a finite group of biholomorphic automorphisms is called G -normal (cf. [2], [9]) if the components of D form a normal crossings divisor and the isotropy group of any point acts trivially on the components of D containing this…”
- A survey of characteristic classes of singular spaces (2005, methodology): “Similarly it will be enough to conside r only the complex elliptic genus and classes corresponding to k = 0 (as in [BL1, BL2 ]), since the case of general k follows then from the projection formula (as already explained before).”