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arXiv:quant-ph/0504009 · Physics Letters A

Representations of monomiality principle with Sheffer-type polynomials and boson normal ordering

Paweł Błasiak, G. Dattoli, A. Horzela, K. A. Penson

Published Nov 29, 2005• 45 citations
arXivHTMLPDF
DOI
10.1016/j.physleta.2005.11.052

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We solve the boson normal ordering problem for ( q ( a † ) a + v ( a † )) n with arbitrary functions q ( x ) and v ( x ) and integer n , where a and a † are boson annihilation and creation operators, satisfying [ a , a † ] = 1. This consequently provides the solution for the exponential e λ( q ( a † ) a + v ( a † )) generalizing the shift operator. In the course of these considerations we define and explore the monomiality principle and find its representations. We exploit the properties of Sheffer-type polynomials which constitute the inherent structure of this problem. In the end we give some examples illustrating the utility of the method and point out the relation to combinatorial structures.
The s-ordered form of any product of single-mode boson creation and annihilation operators, containing only a single annihilator, is computed explicitly. The s-ordering concept originated in quantum optics, but subsumes normal, symmetric (Weyl), and anti-normal ordering for any two operators satisfying a canonical commutation relation. Because the s-ordering map can be viewed as producing a function of a complex variable, its inverse is a quantization map that takes such “classical” functions to quantum operators. The explicit s-ordered expressions are derived with the aid of a parametric family of Sheffer polynomial sequences (or equivalently a parametric exponential Riordan array of polynomial coefficients), called the Hsu–Shiue family. To yield orderings interpolating between normal and anti-normal, this family must be extended.