
Inversion formulas for \(k\)-plane transforms of functions \(f \in L^2({\mathbb R}^n)\) are obtained in terms of continuous wavelet transforms generated by a wavelet measure. The admissibility conditions for a wavelet measure \(\mu\) are formulated in terms of the Fourier transform of \(\mu\) and also without using the Fourier transform. The work is based on the wavelet type representation of Riesz fractional derivatives developed in, e. g., the author's book [Fractional integrals and potentials (1996; Zbl 0864.26004)].
Fractional derivatives and integrals, Applied Mathematics, Fourier transform, Nontrigonometric harmonic analysis involving wavelets and other special systems, \(k\)-plane transform, inversion formulas, Riesz fractional derivative, wavelet transform, Analysis, Radon transform
Fractional derivatives and integrals, Applied Mathematics, Fourier transform, Nontrigonometric harmonic analysis involving wavelets and other special systems, \(k\)-plane transform, inversion formulas, Riesz fractional derivative, wavelet transform, Analysis, Radon transform
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