New Exact Solutions of Differential Equations Derived by Fractional Calculus
F. S. Felber
Abstract
Fractional calculus generalizes the derivative and antiderivative operations of differential and integral calculus from integer orders to the entire complex plane. Methods are presented for using this generalized calculus with Laplace transforms of complex-order derivatives to solve analytically many differential equations in physics, facilitate numerical computations, and generate new infinite-series representations of functions. As examples, new exact analytic solutions of differential equations, including new generalized Bessel equations with complex-power-law variable coefficients, are derived.
Create a lesson
Related papers
An equivalence principle for martingales
Grigori A. Karagulyan, Linda A. Khachatryan, Khazhakanush V. Navoyan
Macroscopic return-time spectra and Hausdorff dimension transitions
Jinjun Li
Homogeneous Polynomial Carleson Operators Along the Paraboloid
Alina Zhu
Stein's generalized spherical maximal operator
Luz Roncal
Arithmetic product theorems on self-similar sets of uniqueness and homogeneous Moran sets
Yan-Song Fu, Xu-Guang Wang, Meng Zhu
Sampling Density for Multi-window STFT Phase Retrieval
Wenchang Sun, Mengxuan Zhou