25Mar 2019

MATHEMATICAL MODEL FOR ONE DIMENSIONAL DIFFUSION EQUATION WITHIN THE FIXED LIMITS.

  • Department of Mathematics, School of Basic Sciences and Research, Sharda University, Greater Noida India201306.
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A model for the mathematical description of diffusion process is presented through this work and an attempt is also made for the applicability of Green?s function method for solving the one dimensional diffusion equation within the desired limits. From this process the required solution to this diffusion equation by considering the initial condition t = 0 will be obtained. This equation describes the rate of change of concentrations of substances to its own lattice or may be in different substances with a constant diffusion coefficient. At last a computational approach will also be used for getting the numerical solutions. While solving the equation we throughout consider t = 0, so that the result may also be applicable in an isothermal diffusion.


  1. Shewmon, P. 1989. Diffusion in solids , 2nd Ed., The Minerals Metals and Materials Society.
  2. Bird, R.B., Stewart, W.E. and Lightfoot, E.N. 2002. Transport phenomenon, John Wiley and Sons Asia Pvt. Ltd, India.
  3. Boznani, E., Fytianos, K. and Voudrias, E. 2002. Sorption desorption of dyes from aqueous solution and waste waters with different sorbent materials,Global Nest. The International Journal,? 41,? 178-182.
  4. Suchecka, M., Borisovich, A. and Serbimnski, W. 2005. Green?s function methods for mathematical modeling of unidirectional diffusion process in isothermal metals bonding process, Advances in Material Science,? 5 (38),? 75-79.
  5. Petryk, M., Leclerc, S., Canet, D., and Fraissard, J. 2007. Mathematical modeling and visualization of gas transport in a zeolite bed using a slice selection procedure, Diffusion Fundamentals,? 4,? 11.1-11.23.
  6. Petryk, M.R. 2007. Mathematical modeling of mass transfer in symmetric heterogeneous and non-porous media with a system of n-interface interactions, Cybernetics and Systems Analysis,? 43,? 94-111.
  7. Kumar, S. and Mishra, A. 2009. A mathematical model for the diffusion process in a binary mixture of chemical species, International Journal of Computational Mathematics and Numerical Simulation,? 21,? 71-78.
  8. Zhang, K. and Wang, S. 2009. A computational scheme for options under jump diffusion processes, International Journal of Numerical Analysis and Modeling,? 6 (1),? 110-123.
  9. Peres,R., Muller,E., Mahajan,V. 2010. Innovation diffusion and new product growth models. A critical review and research directions, International Journal of Research in Marketing,? 272,? 91-106.
  10. Kalis, H., Rogovs, S. and Gedroics, A. 2012. On the mathematical modelling of the diffusion equation with piecewise constant coefficients in a multi layered domain, International Journal of Pure and Applied Mathematics, ?84,? 555-575.
  11. Bonforte, M. Segatti, A. and? Va ́zquez, J.L. 2016. Non-existence and instantaneous extinction of solutions for singular nonlinear fractional diffusion equations,? Calc. Var. Partial Differential Equations,? 55(3),? 1-29.
  12. Va ́zquez, J.L. 2017. The mathematical theories of diffusion. Nonlinear and fractional diffusion, arXiv 1706.08241v1.
  13. ?Kumar S. and Mishra A. 2018.? Variation of moisture content in the presence of combined flux, Journal of? Advances in Mathematics, ?141,? 7624-7630.
  14. Mishra, A. and Kumar, S. 2018. Diffusion equation model for determining the concentration of urea in artificial kidney, International Research Journal of Advanced Engineering and Science, 3(3), 214-217.

[Alpna Mishra. (2019); MATHEMATICAL MODEL FOR ONE DIMENSIONAL DIFFUSION EQUATION WITHIN THE FIXED LIMITS. Int. J. of Adv. Res. 7 (Mar). 1140-1145] (ISSN 2320-5407). www.journalijar.com


Alpna Mishra
Department of Mathematics School of Basic Sciences and Research Sharda University, Greater Noida India-201306

DOI:


Article DOI: 10.21474/IJAR01/8747      
DOI URL: https://dx.doi.org/10.21474/IJAR01/8747