International Journal of Computer Mathematics · 1998 · 56 citations · 8 references
Natural SciencesMathematicsComputational MechanicsComputational PhysicsDifferential EquationsInitial Value ProblemsNumerical AnalysisNumerical IntegrationNumerical Methods For Differential EquationsNumerical StabilityStability TheoryNonlinear Initial Value ProblemsNumerical DissipationNumerical Methods For Initial Value ProblemsReal-world ApplicationReal-world Mathematical ApplicationsSimpson's Rule
We examine stability of the class of extended one-step methods introduced in Chawla et al. [6] for the numerical integration of first-order initial-value problems y′ = f(t,y)y (t 0) = η, which possess oscillating solutions. We first characterize those methods which are non-dissipative for the integration of problems with oscillating solutions, and then derive non-dissipative methods of orders two to five. Interestingly, a modified version of Simpson's rule is shown to be non-dissipative for the integration of oscillatory problems. The obtained methods are numerically tested on problems taken from real-world applications.
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Differential equations: a modeling perspective
Choice Reviews Online · 1996 · 97 citations
Numerical Solution of Differential Equations
Isaac Fried, Ted Belytschko · Journal of Applied Mechanics · 1980 · 83 citations