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Bivariate Poly-analytic Hermite Polynomials

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Abstract

A new class of bivariate poly-analytic Hermite polynomials is considered. We show that they are realizable as the Fourier–Wigner transform of the univariate complex Hermite functions and form a nontrivial orthogonal basis of the classical Hilbert space on the two-complex space with respect to the Gaussian measure. Their basic properties are discussed, such as their three term recurrence relations, operational realizations and differential equations (Bochner’s property) they obey. Different generating functions of exponential type are obtained. Integral and exponential operational representations are also derived. Some applications in the context of integral transforms and the concrete spectral theory of specific magnetic Laplacians are discussed.

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Authors and Affiliations

  1. Analysis, P.D.E. & Spectral Geometry, Lab. MIA-SI, CeReMAR, Department of Mathematics, Faculty of Sciences, Mohammed V University in Rabat, P.O. Box 1014, Rabat, Morocco

    Allal Ghanmi & Khalil Lamsaf

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  1. Allal Ghanmi
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  2. Khalil Lamsaf
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Correspondence to Allal Ghanmi.

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Ghanmi, A., Lamsaf, K. Bivariate Poly-analytic Hermite Polynomials. Results Math 76, 3 (2021). https://doi.org/10.1007/s00025-020-01313-1

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