Sheo Kumar
Dr. B. R. Ambedkar National Institute of Technology Jalandhar
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Publication
Featured researches published by Sheo Kumar.
Computing | 1979
M. M. Chawla; Sheo Kumar
AbstractQuadrature formulas based on the “practical” abscissasxk=cos(k π/n),k=0(1)n, are obtained for the numerical evaluation of the weighted Cauchy principal value integrals
Journal of Computational Science | 2012
S. Dhawan; S. Kapoor; Sheo Kumar
Journal of Computational Science | 2012
S. Dhawan; S. Kapoor; Sheo Kumar; S. Rawat
\mathop {\rlap{--} \smallint }\limits_{ - 1}^1 (1 - x)^\alpha (1 + x)^\beta (f(x))/(x - a)){\rm E}dx,
Journal of Computational and Applied Mathematics | 2016
Inderdeep Singh; Sheo Kumar
International Journal for Computational Methods in Engineering Science and Mechanics | 2013
J. N. Sharma; Dinkar Sharma; Sheo Kumar
where α,β>−1 andaε(−1, 1). An interesting problem concerning these quadrature formulas is their convergence for a suitable class of functions. We establish convergence of these quadrature formulas for the class of functions which are Hölder-continuous on [−1, 1].ZusammenfassungErmittelt werden die auf den “praktischen” Abszissenxk=cos(k π/n),k=0(1)n, basierten Quadraturformeln für die numerische Berechnung von Cauchyschen gewichteten Hauptwerten
Bit Numerical Mathematics | 1979
Sheo Kumar
Applied Mathematics and Computation | 2015
Sharanjeet Dhawan; Samir Kumar Bhowmik; Sheo Kumar
\mathop {\rlap{--} \smallint }\limits_{ - 1}^1 (1 - x)^\alpha (1 + x)^\beta (f(x))/(x - a)){\rm E}dx,
Bit Numerical Mathematics | 1981
Sheo Kumar
Bit Numerical Mathematics | 1980
Sheo Kumar
wobei α,β>−1 undaε(−1, 1). Ein interessantes Problem bezüglich dieser Quadraturformeln ist ihre Konvergenz für die Klasse von Funktionen, die auf [−1, 1] Hölder-kontinuierlich sind.
international conference on modeling, simulation, and applied optimization | 2011
S. Dhawan; S. Rawat; Sheo Kumar; S. Kapoor
Abstract In the present work, a comprehensive study of advection–diffusion equation is made using B-spline functions. Advection–diffusion equation has many physical applications such as dispersion of dissolved salts in groundwater, spread of pollutants in rivers and streams, water transfer, dispersion of tracers, and flow fast through porous media. Motivation behind the proposed scheme is to present a solution scheme which is easy to understand. Both linear and quadratic B-spline functions have been used in the present work to understand the basic aspect and advantages of the presented scheme. Along with this, some test examples are studied to observe the correctness of the numerical experiments. Finally, different comparisons are made to cross check the results obtained by the given scheme.
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Dr. B. R. Ambedkar National Institute of Technology Jalandhar
View shared research outputsDr. B. R. Ambedkar National Institute of Technology Jalandhar
View shared research outputsDr. B. R. Ambedkar National Institute of Technology Jalandhar
View shared research outputsDr. B. R. Ambedkar National Institute of Technology Jalandhar
View shared research outputs