Continuous Boostlet Transform and Associated Uncertainty Principles

Fuente: arXiv
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Main Authors: Ahmad, Owais, Fayaz, Jasifa
Format: Preprint
Published: 2025
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_version_ 1866912684382879744
author Ahmad, Owais
Fayaz, Jasifa
author_facet Ahmad, Owais
Fayaz, Jasifa
contents The Continuous Boostlet Transform (CBT) is introduced as a powerful tool for analyzing spatiotemporal signals, particularly acoustic wavefields. Overcoming the limitations of classical wavelets, the CBT leverages the Poincaré group and isotropic dilations to capture sparse features of natural acoustic fields. This paper presents the mathematical framework of the CBT, including its definition, fundamental properties, and associated uncertainty principles, such as Heisenberg's, logarithmic, Pitt's, and Nazarov's inequalities. These results illuminate the trade-offs between time and frequency localization in the boostlet domain. Practical examples with constant and exponential functions highlight the CBT's adaptability. With applications in radar, communications, audio processing, and seismic analysis, the CBT offers flexible time-frequency resolution, making it ideal for non-stationary and transient signals, and a valuable tool for modern signal processing.
format Preprint
id arxiv_https___arxiv_org_abs_2504_03679
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Continuous Boostlet Transform and Associated Uncertainty Principles
Ahmad, Owais
Fayaz, Jasifa
Signal Processing
Sound
Audio and Speech Processing
Functional Analysis
42C40. 42C15. 81R30. 42A38
The Continuous Boostlet Transform (CBT) is introduced as a powerful tool for analyzing spatiotemporal signals, particularly acoustic wavefields. Overcoming the limitations of classical wavelets, the CBT leverages the Poincaré group and isotropic dilations to capture sparse features of natural acoustic fields. This paper presents the mathematical framework of the CBT, including its definition, fundamental properties, and associated uncertainty principles, such as Heisenberg's, logarithmic, Pitt's, and Nazarov's inequalities. These results illuminate the trade-offs between time and frequency localization in the boostlet domain. Practical examples with constant and exponential functions highlight the CBT's adaptability. With applications in radar, communications, audio processing, and seismic analysis, the CBT offers flexible time-frequency resolution, making it ideal for non-stationary and transient signals, and a valuable tool for modern signal processing.
title Continuous Boostlet Transform and Associated Uncertainty Principles
topic Signal Processing
Sound
Audio and Speech Processing
Functional Analysis
42C40. 42C15. 81R30. 42A38
url https://arxiv.org/abs/2504.03679