Chapter 8: Q15P (page 439)
Prove L32 for. Hint: Differentiate equation (8.1) with respect to.
Short Answer
L32 for n=1 is
Chapter 8: Q15P (page 439)
Prove L32 for. Hint: Differentiate equation (8.1) with respect to.
L32 for n=1 is
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Get started for freeBy using Laplace transforms, solve the following differential equations subject to the given initial conditions.
Use the convolution integral to find the inverse transforms of:
Using Problems 29 and 31b, show that equation (6.24) is correct.
Several Terms on the Right-Hand Side: Principle of Superposition So far we have brushed over a question which may have occurred to you: What do we do if there are several terms on the right-hand side of the equation involving different exponentials?
In Problem 33 to 38 , solve the given differential equations by using the principle of superposition [see the solution of equation (6.29) . For example, in Problem 33 , solve three differential equations with right-hand sides equal to the three different brackets. Note that terms with the same exponential factor are kept together; thus a polynomial of any degree is kept together in one bracket.
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 .
Show that for a given forcing frequency , the displacement yand the velocity have their largest amplitude when .
For a given , we have shown in Section 6 that the maximum amplitude of y does not correspond to . Show, however, that the maximum amplitude of for a given does correspond to .
State the corresponding results for an electric circuit in terms of
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