<p>A recently developed fractional derivative operator involving a generalized exponential kernel, together with its extension to the singular kernel case and the corresponding fractional integral operator, have been systematically formulated and analyzed. This paper aims to introduce a higher-order fractional derivative operator associated with the considered generalized exponential kernel, along with its corresponding fractional integral operator. Specifically, it provides a modified extension of the higher-order fractional derivative operator that incorporates a singular kernel and applies to a broader function space. Several properties and relationships of the proposed operators are derived. As an application, the paper presents numerical simulations of the fractional Helmholtz-Duffing equation involving the generalized exponential kernel derivatives. The extended higher-order operator, which addresses initialization issues in the relevant fractional differential equations, offers potential for further exploration and application within the framework of fractional calculus.</p>

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On higher-order generalized exponential kernel fractional derivatives: Application to a fractional Helmholtz-Duffing equation

  • Zaid Odibat

摘要

A recently developed fractional derivative operator involving a generalized exponential kernel, together with its extension to the singular kernel case and the corresponding fractional integral operator, have been systematically formulated and analyzed. This paper aims to introduce a higher-order fractional derivative operator associated with the considered generalized exponential kernel, along with its corresponding fractional integral operator. Specifically, it provides a modified extension of the higher-order fractional derivative operator that incorporates a singular kernel and applies to a broader function space. Several properties and relationships of the proposed operators are derived. As an application, the paper presents numerical simulations of the fractional Helmholtz-Duffing equation involving the generalized exponential kernel derivatives. The extended higher-order operator, which addresses initialization issues in the relevant fractional differential equations, offers potential for further exploration and application within the framework of fractional calculus.