Bulk-boundary asymptotic equivalence of two strict deformation quantizations
arXiv:2005.04422 · doi:10.1007/s11005-020-01333-6
Abstract
The existence of a strict deformation quantization of , the state space of the matrices which is canonically a compact Poisson manifold (with stratified boundary) has recently been proven by both authors and K. Landsman \cite{LMV}. In fact, since increasing tensor powers of the matrices are known to give rise to a continuous bundle of -algebras over with fibers and , we were able to define a strict deformation quantization of à la Rieffel, specified by quantization maps , with a dense Poisson subalgebra of . A similar result is known for the symplectic manifold , for which in this case the fibers and form a continuous bundle of -algebras over the same base space , and where quantization is specified by (a priori different) quantization maps . In this paper we focus on the particular case (i.e the unit three-ball in ) and show that for any function one has , were denotes the symmetric subspace of . Finally, we give an application regarding the (quantum) Curie-Weiss model.
arXiv comment27 pages no figures, minor changes, accepted for publication in Letters in Mathematical Physics
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Cited by in corpus (6)
- The classical limit and spontaneous symmetry breaking in algebraic quantum theory
- The classical limit of mean-field quantum spin systems
- Injective tensor products in strict deformation quantization
- Classical and quantum KMS states on spin lattice systems
- Strict deformation quantization and local spin interactions
- The classical limit of Schrödinger operators in the framework of Berezin quantization and spontaneous symmetry breaking as emergent phenomenon