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Consider the initial-value problem y' = 2x - 3y + 1, y(1) = 9. The analytic...
Consider the initial-value problem y' = 2x – 3y + 1, y(1) = 9. The analytic solution is 1 2 74 e-3(x - 1). 9 3 9 (a) Find a formula involving c and h for the local truncation error in the nth step if Euler's method is used. 372²e -3(0-1) (b) Find a bound for the local truncation error in each step if h = 0.1 is used to approximate y(1.5). (Proceed as in Example 1 of Section 6.1.)...
VOX) + Consider the initial value problem y' - 2x - 3y + 1, y(1) 9. The analytic solution is 1 2 74 + -3x - 1) 3 9 (a) Find a formula involving c and h for the local truncation error in the nth step if Euler's method is used. (b) Find a bound for the local truncation error in each step ith-0.1 is used to approximate y(1.5). (Proceed as in Example 1 of Section 6.1.) (c) Approximate y(1.5)...
YOUR TEACHER Consider the initial-value problem y = (x + y - 1)?.Y(0) - 2. Use the improved Euler's method with h = 0.1 and h = 0.05 to obtain approximate values of the solution at x = 0.5. At each step compare the approximate value with the actual value of the analytic solution (Round your answers to four decimal places.) h 0.1 Y(0.5) h 0.05 Y(0.5) actual value Y(0.5) = Need Help? Tuto Tutor
YOUR TEACHER Consider the initial-value problem y = (x + y - 1)?.Y(0) - 2. Use the improved Euler's method with h = 0.1 and h = 0.05 to obtain approximate values of the solution at x = 0.5. At each step compare the approximate value with the actual value of the analytic solution. (Round your answers to four decimal places.) 0.1 y(0.5) h 0.05 (0.5) actual value Y(0.5) - Need Help? Tuto Tutor
Complete using MatLab 1. Consider the following initial value problem 3t2-y, y(0) = 1 Using Euler's Method and the second order Runge-Kutta method, for t E [0, 1] with a step size of h 0.05, approximate the solution to the initial value problem. Plot the true solution and the approximate solutions on the same figure. Be sure to label your axis and include an a. appropriate legend b. Verify that the analytic solution to the differential equation is given by...
. Consider the IVP y'= 1 + y?, y(0) = 0 a. Solve the IVP analytically b. Using step size 0.1, approximate y(0.5) using Euler's Method c. Using step size 0.1, approximate y(0.5) using Euler's Improved Method d. Find the error between the analytic solution and both methods at each step
SOLVE USING MATLAB ONLY AND SHOW FULL CODE. PLEASE TO SHOW TEXT BOOK SOLUTION. SOLVE PART D ONLY Apply Euler's Method with step sizes h # 0.1 and h 0.01 to the initial value problems in Exercise 1. Plot the approximate solutions and the correct solution on [O, 1], and find the global truncation error at t-1. Is the reduction in error for h -0.01 consistent with the order of Euler's Method? REFERENCE: Apply the Euler's Method with step size...
Consider the IVP y" - 4y' + 4y = 0, y = -2, y'(0) = 1 a. Solve the IVP analytically b. Using step size 0.1, approximate y(0.5) using Euler's Method c. Find the error between the analytic solution and the approximate solution at each step
a use Euler's method with each of the following step sizes to estimate the value of y 0.4 where y is the solution of the initial value problem y -y, y 0 3 カー0.4 0.4) (i) y10.4) (in) h= 0.1 b we know that the exact solution of the initial value problem n part a s yー3e ra , as accurately as you can the graph of y e r 4 together with the Euler approximations using the step sizes...
Please help with all the parts to the question Consider the initial value problem y (t)-(o)-2. a. Use Euler's method with At-0.1 to compute approximations to y(0.1) and y(0.2) b. Use Euler's method with Δ-0.05 to compute approximations to y(0.1) and y(02) 4 C. The exact solution of this initial value problem is y·71+4, for t>--Compute the errors on the approximations to y(0.2) found in parts (a) and (b). Which approximation gives the smaller error? a. y(0.1)s (Type an integer...