SIGMA 3 (2007), 089, 12 pages      arXiv:0707.3164      https://doi.org/10.3842/SIGMA.2007.089
Contribution to the Proceedings of the 2007 Midwest Geometry Conference in honor of Thomas P. Branson

The Symmetric Tensor Lichnerowicz Algebra and a Novel Associative Fourier-Jacobi Algebra

Karl Hallowell and Andrew Waldron
Department of Mathematics, University of California, Davis CA 95616, USA

Received July 21, 2007; Published online September 13, 2007

Abstract
Lichnerowicz's algebra of differential geometric operators acting on symmetric tensors can be obtained from generalized geodesic motion of an observer carrying a complex tangent vector. This relation is based upon quantizing the classical evolution equations, and identifying wavefunctions with sections of the symmetric tensor bundle and Noether charges with geometric operators. In general curved spaces these operators obey a deformation of the Fourier-Jacobi Lie algebra of sp(2,R). These results have already been generalized by the authors to arbitrary tensor and spinor bundles using supersymmetric quantum mechanical models and have also been applied to the theory of higher spin particles. These Proceedings review these results in their simplest, symmetric tensor setting. New results on a novel and extremely useful reformulation of the rank 2 deformation of the Fourier-Jacobi Lie algebra in terms of an associative algebra are also presented. This new algebra was originally motivated by studies of operator orderings in enveloping algebras. It provides a new method that is superior in many respects to common techniques such as Weyl or normal ordering.

Key words: symmetric tensors; Fourier-Jacobi algebras; higher spins; operator orderings.

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