Quaternion Fractional Fourier Transform: Bridging Signal Processing and Probability Theory

The one-dimensional quaternion fractional Fourier transform (1DQFRFT) introduces a fractional-order parameter that extends traditional Fourier transform techniques, providing new insights into the analysis of quaternion-valued signals. This paper presents a rigorous theoretical foundation for the 1DQFRFT, examining essential properties such as linearity, the Plancherel theorem, conjugate symmetry, convolution, and a generalized Parseval’s theorem that collectively demonstrate the transform’s analytical power. We further explore the 1DQFRFT’s unique applications to probabilistic methods, particularly for modeling and analyzing stochastic processes within a quaternionic framework. By bridging quaternionic theory with probability, our study opens avenues for advanced applications in signal processing, communications, and applied mathematics, potentially driving significant advancements in these fields.

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Publication Details

Journal
Mathematics
Published
2025-01-09
DOI
https://doi.org/10.3390/math13020195
Citations
3
Primary Topic
Mathematical Analysis and Transform Methods
Type
article
Field-Weighted Citation Impact
11.18

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article

Quaternion Fractional Fourier Transform: Bridging Signal Processing and Probability Theory

Saima Siddiqui, Didar Urynbassarova, M. Younus Bhat, Altyn Urynbassarova et al.
3 citations
Mathematics
Mathematical Analysis and Transform Methods
11.18
article

Quaternion Fractional Fourier Transform: Bridging Signal Processing and Probability Theory

Saima Siddiqui, Didar Urynbassarova, M. Younus Bhat, Altyn Urynbassarova, Yuanqing Xia, Muhammad Adnan Samad
article en
3 citations

Abstract

The one-dimensional quaternion fractional Fourier transform (1DQFRFT) introduces a fractional-order parameter that extends traditional Fourier transform techniques, providing new insights into the analysis of quaternion-valued signals. This paper presents a rigorous theoretical foundation for the 1DQFRFT, examining essential properties such as linearity, the Plancherel theorem, conjugate symmetry, convolution, and a generalized Parseval’s theorem that collectively demonstrate the transform’s analytical power. We further explore the 1DQFRFT’s unique applications to probabilistic methods, particularly for modeling and analyzing stochastic processes within a quaternionic framework. By bridging quaternionic theory with probability, our study opens avenues for advanced applications in signal processing, communications, and applied mathematics, potentially driving significant advancements in these fields.

MathematicsVol. 13(2)
L. N. Gumilyov Eurasian National University (KZ), Beijing Institute of Technology (CN), Zhongyuan University of Technology (CN), Satbayev University (KZ), Tashkent University of Information Technology (UZ), Ferghana Polytechnical Institute (UZ), National Academy of Sciences of the Republic of Kazakhstan (KZ), Islamic University of Science and Technology (IN)
Ministry of Education and Science of the Republic of Kazakhstan
Openalex Percentile: Top 2%
Mathematical Analysis and Transform Methods
11.18
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Quaternion Fractional Fourier Transform: Bridging Signal Processing and Probability Theory — Saima Siddiqui, Didar Urynbassarova, et al. · Mathematics (2025) | TGRS Research Map | TGRS