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Ngā kaituhi matua: Aandriamifidisoa, Ramamonjy, Saindou, Loukman Ben
Hōputu: Preprint
I whakaputaina: 2025
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Urunga tuihono:https://arxiv.org/abs/2508.04708
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author Aandriamifidisoa, Ramamonjy
Saindou, Loukman Ben
author_facet Aandriamifidisoa, Ramamonjy
Saindou, Loukman Ben
contents We generalize the framework of discrete algebraic dynamical systems \cite{Andriamifidisoa2014} to Laurent polynomials and series over \(\Z^r\), enabling the modeling of bidirectional discrete systems. By redefining the spaces \(\Dprime\) and \(\Aprime\), introducing a bilinear mapping (defined as the scalar product in Section 3), and extending the shift operator, we preserve the duality and adjoint properties of \cite{Andriamifidisoa2014}. These properties are rigorously proved and illustrated through examples and a data processing case study on bidirectional sequence transformations. In contrast to Oberst \cite{Ob90}, our algebraic approach emphasizes the structure of Laurent series, providing a streamlined framework for multidimensional systems. This work addresses an open question from \cite{Andriamifidisoa2014} and has applications in multidimensional data processing, such as image filtering and control theory.
format Preprint
id arxiv_https___arxiv_org_abs_2508_04708
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Algebraic Framework for Discrete Dynamical Systems over Laurent Series
Aandriamifidisoa, Ramamonjy
Saindou, Loukman Ben
General Mathematics
13C60, 18A40
We generalize the framework of discrete algebraic dynamical systems \cite{Andriamifidisoa2014} to Laurent polynomials and series over \(\Z^r\), enabling the modeling of bidirectional discrete systems. By redefining the spaces \(\Dprime\) and \(\Aprime\), introducing a bilinear mapping (defined as the scalar product in Section 3), and extending the shift operator, we preserve the duality and adjoint properties of \cite{Andriamifidisoa2014}. These properties are rigorously proved and illustrated through examples and a data processing case study on bidirectional sequence transformations. In contrast to Oberst \cite{Ob90}, our algebraic approach emphasizes the structure of Laurent series, providing a streamlined framework for multidimensional systems. This work addresses an open question from \cite{Andriamifidisoa2014} and has applications in multidimensional data processing, such as image filtering and control theory.
title Algebraic Framework for Discrete Dynamical Systems over Laurent Series
topic General Mathematics
13C60, 18A40
url https://arxiv.org/abs/2508.04708