2020
DOI: 10.48550/arxiv.2007.02483
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Star product representation of coherent state path integrals

Abstract: In this paper, we determine the star product representation of coherent path integrals. By employing the properties of generalized delta functions with complex arguments, the Glauber-Sudarshan P-function corresponding to a non-diagonal density operator is obtained. Then, we compute the Husimi-Kano Q-representation of the time evolution operator in terms of the normal star product. Finally, the optical equivalence theorem allows us to express the coherent state path integral as a star exponential of the Hamilto… Show more

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Cited by 1 publication
(2 citation statements)
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“…It should be noted that the right hand side of the identities (22) agrees with the holonomy-flux Poisson algebra occurring in classical cosmology [2]. Thus, we conclude that the Weyl quantization map Q LQC defined in (10) and the star product ⋆ LQC , provides a one-parameter, associative deformation of the holonomy-flux classical algebra.…”
Section: Star Product Representation Of Lqcsupporting
confidence: 68%
See 1 more Smart Citation
“…It should be noted that the right hand side of the identities (22) agrees with the holonomy-flux Poisson algebra occurring in classical cosmology [2]. Thus, we conclude that the Weyl quantization map Q LQC defined in (10) and the star product ⋆ LQC , provides a one-parameter, associative deformation of the holonomy-flux classical algebra.…”
Section: Star Product Representation Of Lqcsupporting
confidence: 68%
“…As a consequence, the introduction of the star product induces a deformation of the Poisson algebra in such a way that the information hold in the quantum commutators of any pair of self-adjoint operators is mapped to the deformed algebraic classical structures. Until now, the formalism of deformation quantization has not only provided significant contributions in pure and applied mathematics [15], [16], but it also has proved to be an outstanding tool for the quantum analysis of a broad variety of physical systems [17], [18], [19], recently including the treatment of constrained systems [20], the coherent field quantization [21], [22], and the tomographic representation for fields [23].…”
Section: Introductionmentioning
confidence: 99%