Computational methods in the fractional calculus of variations

  • What is the application of fractional calculus in biology?

    Fractional calculus provides novel mathematical tools for modeling physical and biological processes.
    The bioheat equation is often used as a first order model of heat transfer in biological systems..

  • What is the application of fractional calculus in computer science?

    Fractional calculus is used in computer vision for enhancement, better detection selectivity, developing robust denoising models, and dealing with discontinuities.
    Unlike integer-order derivatives, the non-local nature of fractional derivatives helps in gathering past and surrounding information..

  • What is the difference between fractional calculus and calculus?

    Fractional calculus is a generalization of ordinary calculus, where derivatives and integrals of arbitrary real or complex order are defined.
    These fractional operators may model more efficiently certain real world phenomena, especially when the dynamics is affected by constraints inherent to the system..

  • Where is fractional calculus used?

    However, in recent years, applications of fractional calculus in physics have become more common in fields ranging from classical and quantum mechanics, nuclear physics, hadron spectroscopy, and up to quantum field theory..

  • Why do we study fractional calculus?

    The fractional calculus (FC) generalizes the operations of differentiation and integration to non-integer orders.
    FC emerged as an important tool for the study of dynamical systems, since fractional order operators are non-local and capture the history of dynamics..

  • Why do we use fractional calculus?

    Fractional calculus is deeply related to the dynamics of complicated real-world problems.
    Fractional operators are non-local and describe several natural phenomena in a better and systematic manner.
    Many mathematical models are accurately governed by fractional order differential equations..

  • Fractional calculus provides novel mathematical tools for modeling physical and biological processes.
    The bioheat equation is often used as a first order model of heat transfer in biological systems.
  • However, in recent years, applications of fractional calculus in physics have become more common in fields ranging from classical and quantum mechanics, nuclear physics, hadron spectroscopy, and up to quantum field theory.
  • The calculus of variations (or variational calculus) is a field of mathematical analysis that uses variations, which are small changes in functions and functionals, to find maxima and minima of functionals: mappings from a set of functions to the real numbers.
This book fills a gap in the literature by introducing numerical techniques to solve problems of fractional calculus of variations (FCV). Google BooksOriginally published: 2015Authors: Shakoor Pooseh, Delfim F. M. Torres, and Ricardo Almeida

Categories

Methods of computation
Computational methods in data science
Computational methods and data engineering
Computational methods for data analysis chambers
Computational methods for single-cell data analysis
Computational methods in earthquake engineering
Computational methods in failure analysis
Computational approach machine learning
Computer methods materials
Computational methods for martingale optimal transport problems
Computational methods for mass spectrometry proteomics pdf
Computational methods in macroeconomics
Computation math method
Computational materials techniques
Nature computational methods
Computational methods for option pricing
Computational panel methods
Computational methods for partial differential equations by jain pdf
Computational methods for partial differential equations by jain
Computational methods for single-particle electron cryomicroscopy