Chapter 6: Q30E (page 337)
use the annihilator method to determinethe form of a particular solution for the given equation.
Chapter 6: Q30E (page 337)
use the annihilator method to determinethe form of a particular solution for the given equation.
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Get started for freeAs an alternative proof that the functions are linearly independent on (∞,-∞) when are distinct, assume holds for all x in (∞,-∞) and proceed as follows:
(a) Because the ri’s are distinct we can (if necessary)relabel them so that .Divide equation (33) by to obtain Now let x→∞ on the left-hand side to obtainC1 = 0.(b) Since C1 = 0, equation (33) becomes
= 0for all x in(∞,-∞). Divide this equation by
and let x→∞ to conclude that C2 = 0.
(c) Continuing in the manner of (b), argue that all thecoefficients, C1, C2, . . . ,Cn are zero and hence are linearly independent on(∞,-∞).
use the method of undetermined coefficients to determine the form of a particular solution for the given equation.
use the method of undetermined coefficients to determine the form of a particular solution for the given equation.
Determine whether the given functions are linearly dependent or linearly independent on the specified interval. Justify your decisions.
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Determine the largest interval (a, b) for which Theorem 1 guarantees the existence of a unique solution on (a, b) to the given initial value problem.
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