Chapter 8: Q19P (page 436)
Solve the following equations using method (d) above .
Short Answer
The general solution of the equation is .
Chapter 8: Q19P (page 436)
Solve the following equations using method (d) above .
The general solution of the equation is .
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Get started for freeBy using Laplace transforms, solve the following differential equations subject to the given initial conditions.
By using Laplace transforms, solve the following differential equations subject to the given initial conditions.
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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 1.
The speed of a particle on the x axis, , is always numerically equal to the square root of its displacement x. If when , find x as a function of t. Show that the given conditions are satisfied if the particle remains at the origin for any arbitrary length of time and then moves away; find x for for this case.
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