Chapter 8: Q4P (page 439)
By differentiating the appropriate formula with respect to, verify L12.
Answer
Short Answer
It is verified that
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Chapter 8: Q4P (page 439)
By differentiating the appropriate formula with respect to, verify L12.
Answer
It is verified that
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Consider an equation for damped forced vibrations (mechanical or electrical) in which the right-hand side is a sum of several forces or emfs of different frequencies. For example, in (6.32) let the right-hand side be ,
Write the solution by the principle of superposition. Suppose, for giventhat we adjust the system so that ; show that the principal term in the solution is then the first one. Thus, the system acts as a "filter" to select vibrations of one frequency from a given set (for example, a radio tuned to one station selects principally the vibrations of the frequency of that station).
For each of the following differential equations, separate variables and find a solution containing one arbitrary constant. Then find the value of the constant to give a particular solution satisfying the given boundary condition. Computer plot a slope field and some of the solution curves.
y = 1When x = 1.
Find the position x of a particle at time t if its acceleration is.
Using , find the general solution of each of the following differential equations. Compare a computer solution and, if necessary, reconcile it with yours. Hint: See comments just after , and Example 1.
Find the distance which an object moves in time if it starts from rest and has acceleration. Show that for smallthe result is approximately, and for very large, the speedis approximately constant. The constant is called the terminal speed . (This problem corresponds roughly to the motion of a parachutist.)
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