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As the title of the book indicates, this is primarily a book on partial differential equations (PDEs) with two definite slants: toward inverse problems and to the inclusion of fractional derivatives. The standard paradigm, or direct problem, is to take a PDE, including all coefficients and initial/boundary conditions, and to determine the solution. The inverse problem reverses this approach asking what information about coefficients of the model can be obtained from partial information on the solution. Answering this question requires knowledge of the underlying physical model, including the exact dependence on material parameters.The last feature of the approach taken by the authors is the inclusion of fractional derivatives. This is driven by direct physical applications: a fractional derivative model often allows greater adherence to physical observations than the traditional integer order case.The book also has an extensive historical section and the material that can be called ""fractional calculus"" and ordinary differential equations with fractional derivatives. This part is accessible to advanced undergraduates with basic knowledge on real and complex analysis. At the other end of the spectrum, lie nonlinear fractional PDEs that require a standard graduate level course on PDEs.
Barbara Kaltenbacher, University of Klagfurt, Klagenfurt, Austria.William Rundell, Texas A&M University, College Station, TX.
PreambleGenesis of fractional modelsSpecial functions and toolsFractional calculusFractional ordinary differential equationsMathematical theory of subdiffusionAnalysis of fractionally damped wave equationsMethods for solving inverse problemsFundamental inverse problems for fractional order modelsInverse problems for fractional diffusionInverse problems for fractionally damped wave equationsOutlook beyond AbelMathematical preliminariesBibliographyIndex