The present paper deals with the solution of Abel integral equation involving Fox- H function. The method is based on approximations of fractional integrals and Caputo derivatives due to Jahanshahi et al. The approximation formula of Abel integral equation using numerical trapezoidal rule is also obtained. The paper is also illustrating the effectiveness of proposed approach in form of many particular examples. The results are mostly derived in a closed form in terms of the H-function, suitable for numerical computation. On account of general nature of H-function a number of results involving special functions can be obtained merely by specializing the parameters
AbstractA new formula for the solution of the general Abel Integral equation is derived, and an impo...
This paper presents a new computational method for solving Abel integral equation (both first kind a...
A method is presented for obtaining useful closed form solution of a system of generalized Abel inte...
We give a new method for numerically solving Abel integral equations of first kind. An estimation fo...
International audienceAnalogy between Abel's integral equation and the integral of fractional order ...
High accuracy numerical methods are derived for solving Abel integral equations. These methods are b...
It is known that Abel integral equation has a solution in a closed form, with a removable singularit...
AbstractThis paper presents a new, stable, approximate inversion of Abel integral equation. By using...
SIGLETIB: AC 8201 / FIZ - Fachinformationszzentrum Karlsruhe / TIB - Technische Informationsbiblioth...
A new formula for the solution of the general Abel Integral equation is derived, and an important sp...
Based on Jacobi polynomials, an operational method is proposed to solve the generalized Abel's integ...
SIGLETIB: RO 2233 (245) / FIZ - Fachinformationszzentrum Karlsruhe / TIB - Technische Informationsbi...
AbstractThis paper presents high accuracy mechanical quadrature methods for solving first kind Abel ...
In this article, we construct a numerical technique for solving the first and second kinds of Abel’s...
SIGLECopy held by FIZ Karlsruhe; available from UB/TIB Hannover / FIZ - Fachinformationszzentrum Kar...
AbstractA new formula for the solution of the general Abel Integral equation is derived, and an impo...
This paper presents a new computational method for solving Abel integral equation (both first kind a...
A method is presented for obtaining useful closed form solution of a system of generalized Abel inte...
We give a new method for numerically solving Abel integral equations of first kind. An estimation fo...
International audienceAnalogy between Abel's integral equation and the integral of fractional order ...
High accuracy numerical methods are derived for solving Abel integral equations. These methods are b...
It is known that Abel integral equation has a solution in a closed form, with a removable singularit...
AbstractThis paper presents a new, stable, approximate inversion of Abel integral equation. By using...
SIGLETIB: AC 8201 / FIZ - Fachinformationszzentrum Karlsruhe / TIB - Technische Informationsbiblioth...
A new formula for the solution of the general Abel Integral equation is derived, and an important sp...
Based on Jacobi polynomials, an operational method is proposed to solve the generalized Abel's integ...
SIGLETIB: RO 2233 (245) / FIZ - Fachinformationszzentrum Karlsruhe / TIB - Technische Informationsbi...
AbstractThis paper presents high accuracy mechanical quadrature methods for solving first kind Abel ...
In this article, we construct a numerical technique for solving the first and second kinds of Abel’s...
SIGLECopy held by FIZ Karlsruhe; available from UB/TIB Hannover / FIZ - Fachinformationszzentrum Kar...
AbstractA new formula for the solution of the general Abel Integral equation is derived, and an impo...
This paper presents a new computational method for solving Abel integral equation (both first kind a...
A method is presented for obtaining useful closed form solution of a system of generalized Abel inte...