An explicit two step quantization of Poisson structures and Lie bialgebras
Sergei Merkulov, Thomas Willwacher

TL;DR
This paper introduces a novel two-step explicit method for quantizing Poisson structures and Lie bialgebras, providing universal formulas and configuration space models, with the first step requiring an associator choice.
Contribution
It presents a new explicit two-step approach to deformation quantization of Lie bialgebras and Poisson structures, including universal formulas and configuration space models.
Findings
Explicit transcendental formulas for the two-step quantization process.
Configuration space models for biassociahedron and bipermutohedron.
Universal quantization formulas using smooth differential forms.
Abstract
We develop a new approach to deformation quantizations of Lie bialgebras and Poisson structures which goes in two steps. In the first step one associates to any Poisson (resp. Lie bialgebra) structure a so called quantizable Poisson (resp. Lie bialgebra) structure. We show explicit transcendental formulae for this correspondence. In the second step one deformation quantizes a quantizable Poisson (resp. Lie bialgebra) structure. We show again explicit transcendental formulae for this second step correspondence (as a byproduct we obtain configuration space models for biassociahedron and bipermutohedron). In the Poisson case the first step is the most non-trivial one and requires a choice of an associator while the second step quantization is essentially unique, it is independent of a choice of an associator and can be done by a trivial induction. We conjecture that similar…
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Taxonomy
TopicsAdvanced Topics in Algebra · Homotopy and Cohomology in Algebraic Topology · Algebraic structures and combinatorial models
