A Study on Certain Special Functions Fractional Calculus of Mathematics and Its Applications
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ABSTRACT
newlineThis thesis explores the study of special functions, fractional calculus, and their
newlineapplications within the realm of mathematics, providing an in-depth analysis of the
newlineinterplay between these two areas. Special functions are mathematical constructs that
newlineextend the basic functions to solve complex problems in a variety of fields, from
newlinephysics to engineering. These functions, including Gamma, Beta, and Bessel
newlinefunctions, have widespread applications in differential equations, quantum mechanics,
newlinestatistical mechanics, and other disciplines. This study aims to explore the properties,
newlinetransformations, and applications of these functions in the context of fractional
newlinecalculus.
newlineFractional calculus is a branch of mathematical analysis that generalizes the concept
newlineof differentiation and integration to non-integer orders. Traditionally, calculus has
newlinebeen limited to integer-order derivatives and integrals, but fractional calculus provides
newlinea more versatile framework that captures the memory and hereditary properties of
newlinevarious phenomena. In this thesis, we investigate the fundamental principles of
newlinefractional calculus, focusing on the Riemann-Liouville and Caputo definitions of
newlinefractional derivatives and integrals, which have become central in modern
newlineapplications.
newlineOne of the core aims of this research is to explore how fractional calculus can be
newlineapplied to special functions, enriching their properties and expanding their potential in
newlinesolving real-world problems. The thesis examines fractional differential equations
newline(FDEs) and their solutions using special functions. The role of special functions such
newlineas Mittag-Leffler functions, which arise naturally in the solutions of fractional
newlinedifferential equations, is discussed in detail. These functions have gained significant
newlineattention due to their ability to describe processes with memory effects, anomalous
newlinediffusion, and other non-local behaviours.
newlineAdditionally, the thesis delves into the application of fractional calculus and special
newlinefunctions in various domains, such as signal processing, control theory, physics, and
newlineengineering. In signal processing, fractional-order filters are explored for their ability
newlineto provide more flexible and precise filtering characteristics. In control theory,
newlinefractional-order controllers are presented as an alternative to traditional controllers,
newlineoffering enhanced performance in systems exhibiting long-term memory effects. The
newlineapplication of these techniques to real-world problems, including viscoelastic
newlinematerials, anomalous diffusion in porous media, and electrical circuits, is also
newlinethoroughly examined.
newlineThe research highlights the connection between fractional calculus and complex
newlinephysical systems, where standard integer-order models often fail to adequately
newlinedescribe real-world phenomena. In this regard, fractional models provide a more
newlineaccurate and generalized description, particularly in systems involving memory, delay,
newlineor non-local interactions. By leveraging special functions and fractional calculus, this
newlinework contributes to the development of mathematical tools capable of addressing
newlinecomplex, real-world problems across multiple disciplines.
newlineIn conclusion, the thesis presents a comprehensive study of special functions and
newlinefractional calculus, demonstrating their profound impact on mathematical modelling
newlineand their practical applications. Through a systematic exploration of fractional
newlinedifferential equations, the study highlights the importance of these mathematical tools
newlinein advancing the understanding and solving of modern problems in various scientific
newlineand engineering fields. The findings suggest that the synergy between special
newlinefunctions and fractional calculus holds significant promise for future research and
newlineapplications, paving the way for new insights and innovations.
newline