Chapter 7: Q4P (page 343)
Find the amplitude, period, frequency, and velocity amplitude for the motion of a particle whose distance from the origin is the given function.
Short Answer
The velocity amplitude of motion of a particle is 5.
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Chapter 7: Q4P (page 343)
Find the amplitude, period, frequency, and velocity amplitude for the motion of a particle whose distance from the origin is the given function.
The velocity amplitude of motion of a particle is 5.
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In Problem 26 and 27, find the indicated Fourier series. Then differentiate your result repeatedly (both the function and the series) until you get a discontinuous function. Use a computer to plot and the derivative functions. For each graph, plot on the same axes one or more terms of the corresponding Fourier series. Note the number of terms needed for a good fit (see comment at the end of the section).
Sketch several periods of the corresponding periodic function of period. Expand the periodic function in a sine-cosine Fourier series.
Following a method similar to that used in obtaining equations(12.11) to (12.14), show that if f(x)is even, thenis even too. Show that in this case f(x)andcan be written as Fourier cosine transforms and obtain (12.15).
(a) Prove that by making the change of variable in one of the integrals.
(b) Use the same method to prove that the averages of and are the same over a period.
In Problems 17to 20, find the Fourier sine transform of the function in the indicated problem, and write f(x)as a Fourier integral [use equation (12.14)]. Verify that the sine integral for f(x)is the same as the exponential integral found previously.
Problem 12
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