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Please help both questions, thanks (1 point) Let g(t) = e2 a Solve the initial value...
(1 point) Let g(t) = e2t. a. Solve the initial value problem y – 2y = g(t), y(0) = 0, using the technique of integrating factors. (Do not use Laplace transforms.) y(t) = b. Use Laplace transforms to determine the transfer function (t) given the initial value problem $' – 20 = 8(t), $(0) = 0. $(t) = c. Evaluate the convolution integral (0 * g)(t) = Só "(t – w) g(w) dw, and compare the resulting function with the...
(1 point) Consider the following initial value problem, in which an input of large amplitude and short duration has been idealized as a delta function a Find the Laplace transform of the solution. b. Obtain the solution y(t) u(t)- C. Express the solution as a piecewise-defined function and think about what happens to the graph of the solution att 1 İf 0 < t < 1, y(t) if 1 t<oo.
(1 point) Consider the following initial value problem, in which an input of large amplitude and short duration has been idealized as a delta function. a. Find the Laplace transform of the solution. b. Obtain the solution y(t) y(t) c. Express the solution as a piecewise-defined function and think about what happens to the graph of the solution at t-5 y(f)- if5<t<oo.
(1 point) Consider the following initial value problem, in which an input of large amplitude and short duration has been idealized as a delta function. "8 6(t 1), y(0) = 3, /(0) = 0. a. Find the Laplace transform of the solution. Y(8)= L{y(t)} = | (3s+e^(-s)-24)/(s^2-8s) b. Obtain the solution y(t) y(t)=1/8(e^(8t-8)-1 )h (t- 1 )+6e^(8t)-3 c. Express the solution as a piecewise-defined function and think about what happens to the graph of the solution at t 1. if...
(1 point) Consider the following initial value problem, in which an input of large amplitude and short duration has been idealized as a delta function. y" + 167²y = 418(t – 4), y(O) = 0, y'(0) = 0. a. Find the Laplace transform of the solution. Y(s) = L {y(t)} = b. Obtain the solution y(t). yt) = c. Express the solution as a piecewise-defined function and think about what happens to the graph of the solution at t =...
(2 points) Consider the following initial value problem, in which an input of large amplitude and short duration has been idealized as a delta function. yy1+(t-4), y(0)0. a. Find the Laplace transform of the solution. Y(s) = L {y(t)) = b. Obtain the solution y(t) C. Express the solution as a piecewise-defined function and think about what happens to the graph of the solution at t = 4. if 0st<4, y(t) if 4t< o0.
Consider the following initial value problem, in which an input of large amplitude and short duration has been idealized as a delta function.y′+y=7+δ(t−1),y(0)=0.Find the Laplace transform of the solution. Y(s)=L{y(t)}=Obtain the solution y(t). y(t)=Express the solution as a piecewise-defined function and think about what happens to the graph of the solution at t=1. y(t)= { if 0≤t<1, if 1≤t<∞.
where h is the Use the Laplace transform to solve the following initial value problem: y"+y + 2y = h(t – 5), y(0) = 2, y(0) = -1, Heaviside function. In the following parts, use h(t – c) for the shifted Heaviside function he(t) when necessary. a. First, take the Laplace transform of both sides of the given differential equation to create the corresponding algebraic equation and then solve for L{y(t)}. L{y(t)}(s) = b. Express the solution y(t) as the...
Consider the following initial value problem, in which an input of large amplitude and short duration has been idealized as a delta function: x' +2=1 + (t - 2), X(0) = 0. In the following parts, use h(t – c) for the Heaviside function he(t) if necessary. a. Find the Laplace transform of the solution. L{a(t)}(8) = b. Obtain the solution z(t). (t) c. Express the solution as a piecewise-defined function and think about what happens to the graph of...
(t)= . Use the Laplace transform to solve the following initial value problem: 44" + 2y + 18y = 3 cos(3+), y(0) = 0, y(0) = 0. a. First, take the Laplace transform of both sides of the given differential equation to create the corresponding algebraic equation and then solve for L{y(t)}. Do not perform partial fraction decomposition since we will write the solution in terms of a convolution integral. L{y(t)}(s) b. Express the solution y(t) in terms of a...