On uniformization of N=2 superconformal and N=1 superanalytic DeWitt super-Riemann surfaces
Katrina Barron

TL;DR
This paper establishes a comprehensive uniformization theorem for N=2 superconformal and N=1 superanalytic DeWitt super-Riemann surfaces, linking their classification to cohomology groups and holomorphic line bundles.
Contribution
It provides new criteria for classifying super-Riemann surfaces via cohomology and holomorphic line bundles, extending uniformization results to supergeometric contexts.
Findings
Classifies genus-zero and genus-one super-Riemann surfaces up to superconformal equivalence.
Connects superconformal equivalence classes to holomorphic line bundles over the body Riemann surface.
Provides conditions under which super-Riemann surfaces are equivalent to ringed-space supermanifolds.
Abstract
We prove a general uniformization theorem for N=2 superconformal and N=1 superanalytic DeWitt super-Riemann surfaces, showing that in general an N=2 superconformal (resp. N=1 superanalytic) DeWitt super-Riemann surface is N=2 superconformally (resp., N=1 superanalytically) equivalent to a manifold with transition functions containing no odd functions of the even variable if and only if a certain cohomology group is trivial, namely the first Cech cohomology group of the body Riemann surface with coefficients in the sheaf consisting of the reciprocal of a line bundle tensor the holomorphic vector fields over the body. In particular, this gives a general criteria for when a DeWitt N=1 superanalytic super-Riemann surface is N=1 superanalytically equivalent to a ringed-space (1,1)-supermanifold, as studied in the algebro-geometric setting. This general classification result implies there is…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Algebraic structures and combinatorial models · Homotopy and Cohomology in Algebraic Topology
