y(t) +4 et"y(t – v)dv = 3. Let Y(s) denote the Laplace transform of y. (a) Apply the Laplace transform L to the integral equation and write down the resulting equation about Y(s). (b) Solve for Y(s). (c) Take the inverse Laplace transform L-1 and obtain the solution y(t) for the initial value problem.
y(t) +4 et"y(t – v)dv = 3. Let Y(s) denote the Laplace transform of y. (a) Apply the Laplace transform L to the integral equation and write down the resulting equation about Y(s). (b) Solve for Y(s). (c) Take the inverse Laplace transform L-1 and obtain the solution y(t) for the initial value problem.
y(t) +4 et"y(t – v)dv = 3. Let Y(s) denote the Laplace transform of y. (a) Apply the Laplace transform L to the integral equation and write down the resulting equation about Y(s). (b) Solve for Y(s). (c) Take the inverse Laplace transform L-1 and obtain the solution y(t) for the initial value problem.
With differentiation, one of the major concepts of calculus. Integration involves the calculation of an integral, which is useful to find many quantities such as areas, volumes, and displacement.
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