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In this paper, we define generalized Fourier and inverse Fourier transforms containing the h-exponential function in their kernels and give the fundamental properties of these transforms. We also compute the transforms of both the classical and the generalized Riemann-Liouville and Caputo fractional operators. In addition, we compute the transforms of some elementary and generalized special functions as well. Finally, as applications, we obtain the solutions of two differential equations with ordinary and fractional derivatives using the transforms we have defined. [ABSTRACT FROM AUTHOR]

In this paper, we introduce three types of generalized special functions: beta, Gauss hypergeometric, and confiuent hypergeometric, all involving two generalized M-series at their kernels. We then give several properties of these functions, such as integral representations, functional relations, summation relations, derivative formulas, transformation formulas, and double Laplace transforms. Furthermore, we obtain solutions of fractional partial differential equations involving these new generalized special functions and then we present graphs of the approximate behavior of the solutions. Also, we introduce a new generalized beta distribution and incomplete beta function. Finally, we establish relationships between the new generalized special functions and other generalized special functions found in the literature. [ABSTRACT FROM AUTHOR]

In this paper, a new generalized Laplace transform is defined and its certain properties are given. By using the new transform, the solutions of fractional Bagley-Torvik and fractional harmonic vibration problems are obtained, as application. Also transformations of some elementary functions and the relationships between the new transform with other generalized Laplace transforms are given in separate tables. [ABSTRACT FROM AUTHOR]

In this paper, we first draw attention to the relationships between the original definitions and their k-generalizations of some known functions and fractional operators. Using these relationships, we not only easily reacquired the results which can be found in the existing literature for the k- generalizations, but also show how to achieve new results with the help of known properties of the original functions and operators. We conclude our paper by observing that, since the definitions of k-generalizations are closely related to the original definitions (that is, the k = 1 case), most of the formulas and results for the k = 1 case can be translated rather trivially and simply by appropriate parameter and notational changes to hold true for the corresponding k-case. [ABSTRACT FROM AUTHOR]