2009
DOI: 10.33899/csmj.2009.163797
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Numerical Solution and Stability Analysis for Burger's-Huxley Equation

Abstract: The Burger's-Huxley equation has been solved numerically by using two finite difference methods, the explicit scheme and the Crank-Nicholson scheme. A comparison between the two schemes has been made and it has been found that, the first scheme is simpler while the second scheme is more accurate and has faster convergent. Also, the stability analysis of the two methods by using Fourier (Von Neumann) method has been done and the results were that, the explicit scheme is stable under the condition

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“…As the equations such as and are nonlinear parabolic equations, to analyze their stability using Von Neumann criterion, it's required that we linearize these problems to study its stability properties. To do this, we eliminate the nonlinear terms , we have u t = u x x + β u , where β is a constant that gives the following relation U j n + 1 U j n k = ( U j ) n + β U j n , using we have left ( c j 1 n + 1 + 4 c j n + 1 + c j + 1 n + 1 ) ( c j 1 n + 4 c j n + c j + 1 n ) k = ( 6 h 2 ) ( c j 1 n 2 c j n + c j + 1 n ) + β ( c j 1 n + 4 c j n + c j + 1 n ) , then substituting Eq. in we have ξ ( 4 + 2 cos θ ) ( 4 + 2 cos θ )…”
Section: Stability Analysis Of the Numerical Schemementioning
confidence: 99%
“…As the equations such as and are nonlinear parabolic equations, to analyze their stability using Von Neumann criterion, it's required that we linearize these problems to study its stability properties. To do this, we eliminate the nonlinear terms , we have u t = u x x + β u , where β is a constant that gives the following relation U j n + 1 U j n k = ( U j ) n + β U j n , using we have left ( c j 1 n + 1 + 4 c j n + 1 + c j + 1 n + 1 ) ( c j 1 n + 4 c j n + c j + 1 n ) k = ( 6 h 2 ) ( c j 1 n 2 c j n + c j + 1 n ) + β ( c j 1 n + 4 c j n + c j + 1 n ) , then substituting Eq. in we have ξ ( 4 + 2 cos θ ) ( 4 + 2 cos θ )…”
Section: Stability Analysis Of the Numerical Schemementioning
confidence: 99%