Using the classical method, solve
if the initial conditions are
,
, and if the input if f(t)=u(t)
Do not use convolution.
Using the classical method, solve if the initial conditions are , , and if the input...
9) Using Euler method, solve this with following initial conditions that t = 0 when y = 1, for the range t = 0 to t = 1 with intervals of 0.25 dr + 2x2 +1=0.3 dt 1o) Using second order Taylor Series method, solve with following initial conditions to-0, xo-1 and h-0.24 11) x(1)-2 h-0.02 Solve the following system to find x(1.06) using 2nd, and 3rd and 4th order Runge-Kutta (RK2, RK3 and RK4)method +2x 2 +1-0.3 de sx)-cox(x/2)...
8. Consider the LTI system described by the differential equation in Problem 2.5-1. Solve the (forced) response of the system to the following everlasting signals: (a) ft) 1, (b) ftet, (c) f(t) = 100cos(2t- 60°) Using the classical method, solve 2.5-1 (D +7D+12) ye) (D+ 2)f(¢} (0*)= 0, s(0+ ) = 1, and if the input f(t) is if the initial conditions are
8. Consider the LTI system described by the differential equation in Problem 2.5-1. Solve the (forced) response...
For the following problems solve the IVP using Laplace Method - be careful of initial conditions and coefficients which change in each problem: a. y" + 5y' + 6y = 5e-5t ; y'(0) = 0, y(0) = 0 b. y' + 6y = t ; y(0) = 0
Solve the equation yu- xui = u, t > 0,x >0 with the initial conditions u(x, 0) =1 + x2 using the method of characteristics. Find the u(x, y). Substitute your found solution u(x, y) in the equation and verify that it satisfies the equation. solution explicitly in the form u =
convert boundary condition problem to initial condition
problem and solve with using classical R-K 4.
ff" +2f" = 0 with the boundary conditions n = 0 f = f' = 0 n + f' = 1
• Solve this difference equation by hand using the classical method. y[n] – 1.5 y[n-1] – y[n-2] = x[n], with y[0] = 1 and y[-1] = 0, x[n] = (0.5) n u[n-1].
1.7-3 For a certain LTI system with the input f(t), the output y(t) and the two initial conditions (0) and 2(0), following observations were made 1(0) z2(0) eu(t) e(3+2)u(t) 2u(t) 0 0 (t) Determine v(t) when both the initial conditions are zero and the input f(t) is as shown in Fig. P1.7-3. Hint: There are three causes: the input and each of the two initial conditions. Because of linearity property, if a cause is increased by a factor k, the...
Exercise 3: Solve the following differential equation (with
initial conditions) for the three cases below..
Solve the following differential equation (with initial conditions) for the three cases below (by hand!). You may use whatever method you find simplest. You may check your work in MATLAB or Python. 2ä + 3c – 2x = f(t), x(0) = 1, ¿(0) = 3. (a) For f(t) = 0. Note that this is just the homogeneous ODE, 2ä + 3i – 2x = 0....
Use the method of Laplace transforms and the accompanying proof results to solve the initial value problem o y" +34 +2y=f(y(0)=0.7'0) = 0 Here, ft) is the periodic function defined in the graph to the right Click the icon to review the results of a proof. Square wave Choose the correct answer to the initial value problem below. O A. y(t)=2(1 - - O B. y(t) = 2 (-1" (1- e-(-3) u(t - 3n) 00 0 C. y(t) = (1...
IMPORTANT NOTES:
Using the Classical Fouth-order Runge-Kutta method to solve
all the following problems, with step size h = 0.01, and t =
[0:1]
Please use MATLAB to solve the problem. Thanks!
1. Consider the equation of motion governing large deflections of a simple pendulum do + mulsin Mu. ED) where m-mass of the bob - Ikg. I-length, c-damping constant, acceleration due to gravity, MO external torque, e - angular deflection, and t-time. MO) (a) Linearize the equation for small...