Chapter 1: Q7 E (page 14)
In Problems 3–8, determine whether the given function is a solution to the given differential equation.
,
Short Answer
The given function is a solution to the given differential equation.
Chapter 1: Q7 E (page 14)
In Problems 3–8, determine whether the given function is a solution to the given differential equation.
,
The given function is a solution to the given differential equation.
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Get started for freeIn 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.
In Project C of Chapter 4, it was shown that the simple pendulum equation has periodic solutions when the initial displacement and velocity show that the period of the solution may depend on the initial conditions by using the vectorized Runge–Kutta algorithm with h= 0.02 to approximate the solutions to the simple pendulum problem on
[0, 4] for the initial conditions:
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[Hint: Approximate the length of time it takes to reach].
Stefan’s law of radiation states that the rate of change in the temperature of a body at T (t) kelvins in a medium at M (t) kelvins is proportional to . That is, where K is a constant. Let and assume that the medium temperature is constant, M (t) = 293 kelvins. If T (0) = 360 kelvins, use Euler’s method with h = 3.0 min to approximate the temperature of the body after
(a) 30 minutes.
(b) 60 minutes.
Decide whether the statement made is True or False. The relation is an implicit solution to .
Newton’s law of cooling states that the rate of change in the temperature T(t) of a body is proportional to the difference between the temperature of the medium M(t) and the temperature of the body. That is, where K is a constant. Let and the temperature of the medium be constant, . If the body is initially at 360 kelvins, use Euler’s method with h = 3.0 min to approximate the temperature of the body after
(a) 30 minutes.
(b) 60 minutes.
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