2017
DOI: 10.1016/j.jmaa.2016.12.054
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A unified class of integral transforms related to the Dunkl transform

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Cited by 18 publications
(13 citation statements)
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“…In the last few years authors built a class of linear integral transform with a kernel involving a Bessel function and matrix parameter m ∈ SL(2, R). In [9], the authors introduced the Dunkl linear canonical transform (DLCT) which is a generalization of the LCT. DLCT includes many well-known transforms such as the Dunkl transform [5], the fractional Dunkl transform [7], the linear canonical Fourier Bessel transform [4] and the generalized linear canonical Fourier Bessel transform [1].…”
Section: Introductionmentioning
confidence: 99%
“…In the last few years authors built a class of linear integral transform with a kernel involving a Bessel function and matrix parameter m ∈ SL(2, R). In [9], the authors introduced the Dunkl linear canonical transform (DLCT) which is a generalization of the LCT. DLCT includes many well-known transforms such as the Dunkl transform [5], the fractional Dunkl transform [7], the linear canonical Fourier Bessel transform [4] and the generalized linear canonical Fourier Bessel transform [1].…”
Section: Introductionmentioning
confidence: 99%
“…Definition The canonical Fourier–Bessel transform of a function fscriptL1,ν$$ f\in {\mathcal{L}}_{1,\nu } $$ is defined by Ghazouani et al [5] scriptFνboldmffalse(xfalse)=cνfalse(ibfalse)ν+10+0.1emKνboldmfalse(x,yfalse)ffalse(yfalse)y2ν+1dy,$$ {\mathcal{F}}_{\nu}^{\mathbf{m}}f(x)=\frac{c_{\nu }}{(ib)^{\nu +1}}{\int}_0^{+\infty}\kern0.1em {K}_{\nu}^{\mathbf{m}}\left(x,y\right)f(y){y}^{2\nu +1} dy, $$ where Kνboldmfalse(x,yfalse)=ei2()dbx2+aby20.1emjν()xyb.$$ {K}_{\nu}^{\mathbf{m}}\left(x,y\right)={e}^{\frac{i}{2}\left(\frac{d}{b}{x}^2+\frac{a}{b}{y}^2\right)}\kern0.1em {j}_{\nu}\left(\frac{xy}{b}\right). $$ …”
Section: Canonical Fourier–bessel Transformmentioning
confidence: 99%
“…Throughout this paper, we denote by m = a b c d an arbitrary matrix in SL(2, R). For m ∈ SL(2, R) such that b = 0, the canonical Fourier Bessel transform of a function f ∈ L 1,ν is defined by [6,9]…”
Section: Canonical Fourier Bessel Transformmentioning
confidence: 99%
“…Special cases of this transformation are the Hankel transform and the fractional Hankel transform [13]. In [9], the authors introduced the Dunkl linear canonical transform (DLCT) which is a generalization of the LCT in the framework of Dunkl transform [4]. DLCT includes many well-known transforms such as the Dunkl transform [4,7], the fractional Dunkl transform [10,11] and the canonical Fourier Bessel transform [6,9].…”
Section: Introductionmentioning
confidence: 99%
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