Heat asymptotics for nonminimal Laplace type operators and application to noncommutative tori
arXiv:1707.09657 · doi:10.1016/j.geomphys.2018.02.014
Abstract
Let be a Laplace type operator acting on a smooth hermitean vector bundle of fiber over a compact Riemannian manifold given locally by where are -valued functions with positive and invertible. For any , we consider the asymptotics where the coefficients can be written locally as . The computation of is performed opening the opportunity to calculate the modular scalar curvature for noncommutative tori.
32 pages. v2: small modifications in the text, added the missing ancillary Mathematica notebook file which proves, by direct computations, some results established in the paper
References in corpus (7)
- The Gauss-Bonnet Theorem for the noncommutative two torus
- Modular curvature and Morita equivalence
- Heat asymptotics for nonminimal Laplace type operators and application to noncommutative tori
- The term a_4 in the heat kernel expansion of noncommutative tori
- Heat trace for Laplacian type operators with non-scalar symbols
- Modular curvature for toric noncommutative manifolds
- On the Scalar Curvature for the Noncommutative Four Torus
Cited by in corpus (12)
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- Spectral geometry of functional metrics on noncommutative tori
- Hypergeometric function and Modular Curvature II. Connes-Moscovici functional relation after Lesch's work
- Heat coefficient for nonminimal Laplace type operators
- Local invariants of non-commutative tori
- Effective actions in supersymmetric gauge theories: heat kernels for non-minimal operators
- Dixmier Trace Formulas and Negative Eigenvalues of Schroedinger Operators on Curved Noncommutative Tori
- Zeta-regularization and the heat-trace on some compact quantum semigroups
- Heat kernel approach to the one-loop effective action for nonlinear electrodynamics