Abstract

We review several results in the theory of weighted Bergman kernels. Weighted Bergman kernels generalize ordinary Bergman kernels of domains Ω ⊂ C n but also appear locally in the attempt to quantize classical states of mechanical systems whose classical phase space is a complex manifold, and turn out to be an efficient computational tool that is useful for the calculation of transition probability amplitudes from a classical state (identified to a coherent state) to another. We review the weighted version (for weights of the form γ = | φ | m on strictly pseudoconvex domains Ω = { φ < 0 } ⊂ C n ) of Fefferman’s asymptotic expansion of the Bergman kernel and discuss its possible extensions (to more general classes of weights) and implications, e.g., such as related to the construction and use of Fefferman’s metric (a Lorentzian metric on ∂ Ω × S 1 ). Several open problems are indicated throughout the survey.

Highlights

  • The present paper is a survey of known results on the mathematical analysis of weighted Bergman kernels and their applications to mathematical physics, such as the theory of quantization of states of mechanical systems, and back to complex analysis where some of the matters regarding weighted Bergman kernels arise

  • Schmidt’s bundle boundary constructions suggesting a connection that ought to be discovered among the mathematical analysis of weighted Bergman kernels and the physics of space-time singularities

  • The Forelli–Rudin–Ligocka–Peloso expansion is discussed in Section 6 which emphasizes the authors’ work [21] (itself relying on the treatment in [2] of weighted Bergman kernels as functions K : AW (Ω) → H A(Ω) on the Banach manifold of admissible weights) vis-a-vis to that by M

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Summary

Introduction

The present paper is a survey of known results on the mathematical analysis of weighted Bergman kernels and their applications to mathematical physics, such as the theory of quantization of states of mechanical systems, and back to complex analysis where some of the matters regarding weighted Bergman kernels arise. There is a fascinating formal resemblance between Naruki’s G-admissible metrics and B.G. Schmidt’s bundle boundary constructions (cf [24]) suggesting a connection that ought to be discovered among the mathematical analysis of weighted Bergman kernels and the physics of space-time singularities (cf e.g., C.J.S. Clarke [25]). Authors’ choice of mathematical physics results as related to the theory of weighted Bergman kernels occupies Section 4 and relies mainly on the scientific creation of K. The Forelli–Rudin–Ligocka–Peloso expansion is discussed in Section 6 which emphasizes the authors’ work [21] (itself relying on the treatment in [2] of weighted Bergman kernels as functions K : AW (Ω) → H A(Ω) on the Banach manifold of admissible weights) vis-a-vis to that by M.

Admissible Weights and Reproducing Kernels
Banach Manifold of Weights
Weighted Ramadanov Theorem
Hilbert Spaces of L2 Holomorphic Sections
Hermitian Geometry of Complex Line Bundles
Canonical Hermitian Connection
Liouville Measure
Transition Probability Amplitudes
Parallel Translation and Transition Probability Amplitudes
Complex Orbifolds
Regular Quantization
Djrbashian–Karapetyan Projection
Saitoh’s Construction and Djrbashian Kernels
Djrbashian Kernels and Quantum States
Computability of γ-Bergman Kernels
Cartan Connections and Fefferman’s Theorem
Conclusions
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