Runge-Kutta Method The fourth-order approximation invented by Runge and Kutta can be surprisingly accurate, even with a ridiculously large step size. To see this, for Problem, use the given step size with the IVP
to do the following:
(a) Compute for a single step the Euler approximation, the second-order Runge-Kutta approximation, and the fourth-order Runge-Kutta approximation.
(b) Add the three approximations in part (a)to the graph of the actual solution, as given in Fig. 8, and describe what you see.
Figure 8 Actual solution of y' = t + y, y(ɸ), on [−1, 1]
(c) Verify that y(t) = et − t − 1 satisfies the DE, then calculate the numerical values for the actual solution at y(1) or y(−1).
h = −1.0
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