Boundary value problem for one-dimensional fractional differential advection-dispersion equation

An equation commonly used to describe solute transport in aquifers has attracted more attention in recent years. After a formal study of some aspects of the advection-diffusion equation, basically from the mathematical point of view with the solution of a differential equation with fractional deriva...

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Main Authors: Khasambiev Mokhammad Vakhaevich, Aleroev Temirkhan Sultanovich
Format: Article
Language:English
Published: Moscow State University of Civil Engineering (MGSU) 2014-07-01
Series:Vestnik MGSU
Subjects:
Online Access:http://vestnikmgsu.ru/files/archive/issues/2014/6/ru/8.pdf
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spelling doaj-fefb148ed8ba4638912f365e61de54c52020-11-24T21:13:30ZengMoscow State University of Civil Engineering (MGSU)Vestnik MGSU 1997-09352014-07-0167176Boundary value problem for one-dimensional fractional differential advection-dispersion equationKhasambiev Mokhammad Vakhaevich0Aleroev Temirkhan Sultanovich1Moscow State University of Civil Engineering (MGSU)Moscow State University of Civil Engineering (MGSU)An equation commonly used to describe solute transport in aquifers has attracted more attention in recent years. After a formal study of some aspects of the advection-diffusion equation, basically from the mathematical point of view with the solution of a differential equation with fractional derivative, the main interest to this problem shifted onto physical aspects of the dynamical system, such as the total energy and the dynamical response. In this regard it should be pointed out that the interaction with environment is expressed in terms of stochastic arrow of time. This allows one also to reach a progress in one more issue. Formerly the equation of advection-diffusion was not obtained from any physical principles. However, mainly the success concerns linear fractional systems. In fact, there are many cases in which linear treatments are not sufficient. The more general systems described by nonlinear fractional differential equations have not been studied enough. The ordinary calculus brings out clearly that essentially new phenomena occur in nonlinear systems, which generally cannot occur in linear systems. Due to vast range of application of the fractional advection-dispersion equation, a lot of work has been done to find numerical solution and fundamental solution of this equation. The research on the analytical solution of initial-boundary problem for space-fractional advection-dispersion equation is relatively new and is still at an early stage of development. In this paper, we will take use of the method of variable separation to solve space-fractional advection-dispersion equation with initial boundary data.http://vestnikmgsu.ru/files/archive/issues/2014/6/ru/8.pdfthe Mittag - Leffler functionfractional derivativefractional orderequation
collection DOAJ
language English
format Article
sources DOAJ
author Khasambiev Mokhammad Vakhaevich
Aleroev Temirkhan Sultanovich
spellingShingle Khasambiev Mokhammad Vakhaevich
Aleroev Temirkhan Sultanovich
Boundary value problem for one-dimensional fractional differential advection-dispersion equation
Vestnik MGSU
the Mittag - Leffler function
fractional derivative
fractional order
equation
author_facet Khasambiev Mokhammad Vakhaevich
Aleroev Temirkhan Sultanovich
author_sort Khasambiev Mokhammad Vakhaevich
title Boundary value problem for one-dimensional fractional differential advection-dispersion equation
title_short Boundary value problem for one-dimensional fractional differential advection-dispersion equation
title_full Boundary value problem for one-dimensional fractional differential advection-dispersion equation
title_fullStr Boundary value problem for one-dimensional fractional differential advection-dispersion equation
title_full_unstemmed Boundary value problem for one-dimensional fractional differential advection-dispersion equation
title_sort boundary value problem for one-dimensional fractional differential advection-dispersion equation
publisher Moscow State University of Civil Engineering (MGSU)
series Vestnik MGSU
issn 1997-0935
publishDate 2014-07-01
description An equation commonly used to describe solute transport in aquifers has attracted more attention in recent years. After a formal study of some aspects of the advection-diffusion equation, basically from the mathematical point of view with the solution of a differential equation with fractional derivative, the main interest to this problem shifted onto physical aspects of the dynamical system, such as the total energy and the dynamical response. In this regard it should be pointed out that the interaction with environment is expressed in terms of stochastic arrow of time. This allows one also to reach a progress in one more issue. Formerly the equation of advection-diffusion was not obtained from any physical principles. However, mainly the success concerns linear fractional systems. In fact, there are many cases in which linear treatments are not sufficient. The more general systems described by nonlinear fractional differential equations have not been studied enough. The ordinary calculus brings out clearly that essentially new phenomena occur in nonlinear systems, which generally cannot occur in linear systems. Due to vast range of application of the fractional advection-dispersion equation, a lot of work has been done to find numerical solution and fundamental solution of this equation. The research on the analytical solution of initial-boundary problem for space-fractional advection-dispersion equation is relatively new and is still at an early stage of development. In this paper, we will take use of the method of variable separation to solve space-fractional advection-dispersion equation with initial boundary data.
topic the Mittag - Leffler function
fractional derivative
fractional order
equation
url http://vestnikmgsu.ru/files/archive/issues/2014/6/ru/8.pdf
work_keys_str_mv AT khasambievmokhammadvakhaevich boundaryvalueproblemforonedimensionalfractionaldifferentialadvectiondispersionequation
AT aleroevtemirkhansultanovich boundaryvalueproblemforonedimensionalfractionaldifferentialadvectiondispersionequation
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