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Preface | |
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Historical Survey | |
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The Origin of the Fractional Calculus | |
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The Contributions of Abel and Liouville | |
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A Longstanding Controversy | |
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Riemann's Contribution, Errors by Noted Mathematicians | |
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The Mid-Nineteenth Century | |
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The Origin of the Riemann-Liouville Definition | |
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The Last Decade of the Nineteenth Century | |
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The Twentieth Century | |
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The Modern Approach | |
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The Iterated Integral Approach | |
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The Differential Equation Approach | |
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The Complex Variable Approach | |
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The Weyl Transform | |
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The Fractional Derivative | |
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The Definitions of Grunwald and Marchaud | |
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The Riemann-Liouville Fractional Integral | |
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Definition of the Fractional Integral | |
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Some Examples of Fractional Integrals | |
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Dirichlet's Formula | |
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Derivatives of the Fractional Integral and the Fractional Integral of Derivatives | |
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Laplace Transform of the Fractional Integral | |
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Leibniz's Formula for Fractional Integrals | |
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The Riemann-Liouville Fractional Calculus | |
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The Fractional Derivative | |
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A Class of Functions | |
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Leibniz's Formula for Fractional Derivatives | |
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The Law of Exponents | |
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Integral Representations | |
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Representations of Functions | |
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Integral Relations | |
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Laplace Transform of the Fractional Derivative | |
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Fractional Differential Equations | |
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Motivation: Direct Approach | |
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Motivation: Laplace Transform | |
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Motivation: Linearly Independent Solutions | |
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Solution of the Homogeneous Equation | |
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Explicit Representation of Solution | |
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Relation to the Green's Function | |
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Solution of the Nonhomogeneous Fractional Differential Equation | |
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Convolution of Fractional Green's Functions | |
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Reduction of Fractional Differential Equations to Ordinary Differential Equations | |
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Semidifferential Equations | |
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Further Results Associated with Fractional Differential Equations | |
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Fractional Integral Equations | |
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Fractional Differential Equations with Nonconstant Coefficients | |
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Sequential Fractional Differential Equations | |
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Vector Fractional Differential Equations | |
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Some Comparisons with Ordinary Differential Equations | |
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The Weyl Fractional Calculus | |
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Good Functions | |
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A Law of Exponents for Fractional Integrals | |
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The Weyl Fractional Derivative | |
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The Algebra of the Weyl Transform | |
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A Leibniz Formula | |
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An Application to Ordinary Differential Equations | |
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Some Historical Arguments | |
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Abel's Integral Equation and the Tautochrone Problem | |
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Heaviside Operational Calculus and the Fractional Calculus | |
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Potential Theory and Liouville's Problem | |
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Fluid Flow and the Design of a Weir Notch | |
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Appendix A. Some Algebraic Results | |
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Some Identities Associated with Partial Fraction Expansions | |
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Zeros of Multiplicity Greater than One | |
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Complementary Polynomials | |
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Some Reduction Formulas | |
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Some Algebraic Identities | |
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Appendix B. Higher Transcendental Functions | |
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The Gamma Function and Related Functions | |
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Bessel Functions | |
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Hypergeometric Functions | |
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Legendre and Laguerre Functions | |
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Appendix C. The Incomplete Gamma Function and Related Functions | |
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The Incomplete Gamma Function | |
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Some Functions Related to the Incomplete Gamma Function | |
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Laplace Transforms | |
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Numerical Results | |
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Appendix D. A Brief Table of Fractional Integrals and Derivatives | |
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References | |
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Index of Symbols | |
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Index | |