Azhar Y. Tantary

Dr. Azhar Y. Tantary

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Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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14 April 2021 in Mathematical Methods in the Applied Sciences
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Journal Article
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FSFirdous Ahmad Shah
Firdous Ahmad Shah
KNKottakkaran Sooppy Nisar
Kottakkaran Sooppy Nisar
WLWaseem Lone
Waseem Lone
ATAzhar Y. Tantary
Azhar Y. Tantary

12 January 2022 in Multidimensional Systems and Signal Processing
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Journal Article
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FSFirdous Ahmad Shah
Firdous Ahmad Shah
ATAzhar Y. Tantary
Azhar Y. Tantary

2 January 2020 in Journal of Pseudo-Differential Operators and Applications
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Journal Article
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FSFirdous Ahmad Shah
Firdous Ahmad Shah
Aajaz Ahmad TealiAajaz Ahmad Teali
Aajaz Ahmad Teali
ATAzhar Y. Tantary
Azhar Y. Tantary

23 August 2022 in Journal of Pseudo-Differential Operators and Applications
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Journal Article
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FSFirdous Ahmad Shah
Firdous Ahmad Shah
ATAzhar Y. Tantary
Azhar Y. Tantary

13 August 2020 in Journal of Pseudo-Differential Operators and Applications
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Journal Article
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Hari Mohan SrivastavaHari Mohan Srivastava
Hari Mohan Srivastava
FSFirdous Ahmad Shah
Firdous Ahmad Shah
ATAzhar Y. Tantary
Azhar Y. Tantary

11 November 2020 in Integral Transforms and Special Functions
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Journal Article
Closed access
FSFirdous Ahmad Shah
Firdous Ahmad Shah
ATAzhar Y. Tantary
Azhar Y. Tantary
AZAhmed I. Zayed
Ahmed I. Zayed
In the article ‘Convolution and product theorems for the special affine Fourier transform’ [In: Nashed MZ, Li X, editors. Frontiers in orthogonal polynomials and q-series. World Scientific; 2018. p. 119–137], a convolution structure is presented in the realm of the special affine Fourier transform. In continuation of the study, we introduce a novel integral transform coined the special affine wavelet transform by combining the merits of the well-known special affine Fourier and wavelet transforms via the special affine convolution. The preliminary analysis encompasses the derivation of fundamental properties, Moyal's principle, inversion formula and range theorem. Subsequently, we obtain a mild extension of Heisenberg's uncertainty principle and also develop an analogue of Pitt's inequality for the special affine Fourier transform. In addition, we derive a Heisenberg-type uncertainty principle for the special affine wavelet transform. Finally, we extend the scope of the present study by introducing the notion of composition of special affine wavelet transforms.