Chapter 1: Q5.3-11E (page 1)
In Problems 10–13, use the vectorized Euler method with h = 0.25 to find an approximation for the solution to the given initial value problem on the specified interval.
Short Answer
The solution is:
Chapter 1: Q5.3-11E (page 1)
In Problems 10–13, use the vectorized Euler method with h = 0.25 to find an approximation for the solution to the given initial value problem on the specified interval.
The solution is:
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Show that is a solution tolocalid="1663944867164" for any choice of the constant C. Thus, is a one-parameter family of solutions to the differential equation. Graph several of the solution curves using the same coordinate axes.
In Problems , solve for , the Laplace transform of the solution to the given initial value problem.
Pendulum with Varying Length. A pendulum is formed by a mass m attached to the end of a wire that is attached to the ceiling. Assume that the length l(t)of the wire varies with time in some predetermined fashion. If
U(t) is the angle in radians between the pendulum and the vertical, then the motion of the pendulum is governed for small angles by the initial value problem where g is the acceleration due to gravity. Assume that where is much smaller than . (This might be a model for a person on a swing, where the pumping action changes the distance from the center of mass of the swing to the point where the swing is attached.) To simplify the computations, take g = 1. Using the Runge– Kutta algorithm with h = 0.1, study the motion of the pendulum when . In particular, does the pendulum ever attain an angle greater in absolute value than the initial angle ?
In Problems 21–26, solve the initial value problem.
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