Problem 1 Consider finite difference method to approximate the solution to BVP on [O, 1] y(O)...
2. Two-point boundary value problem with Dirichlet condition. Consider the two-point boundary value problem у" = х-уз, у(0) = 0, y(1) = 0. Approximate y'" by (yn-1-2yn ynt1)/Az2 and write the corresponding discretization for this BVP. Take N 4; write the nonlinear system of equations F(y) 0 for the unknowns yi, уг, уз, y4-What is the Jacobian for the problem? Once you have the Jacobian, how do you perform one Newton iteration to solve F(y)-0? 2. Two-point boundary value problem...
please answer all parts Please answer all parts, thank you Problem 3: Linear system for linear BVPs& Consider the linear BVP y(0) = -1 y(1)1 You will define a set of linear equations for yi, i-o, (y.* y(m), i = 0, ,n) and the Net of n(xk, is , n, where yi İs the approximate solution on node i with x-ih,i-0,n and h n is a fixed positive integer. (a) Write the forward difference approximation for y' on the nodes....
Consider the nonlinear BVP -u" + e-u=1, u(0) = u(1) = 1. Use finite difference techniques to reduce this approximately) to a system of nonlinear algebraic equations, and solve this system using several of the methods discussed in this chapter. Test the program on the sequence of grids h-1 = 4,8,.... 1024 (and further, if practical on your system). Compare the cost of convergence for each method in terms of the number of iterations and in terms of the number of operations.
2. Consider the nonlinear BVP y" = 2y3 – 6y – 2x", 15152, y(1) = 2, y(2) Use h = 0.1 to approximate the solution using the nonlinear shooting method. Compare the approximate solution with the exact solution: y(x) = x+
Finite difference methods are also used to approximate the solution to ordinary differential equations. Consider the boundary value problem for the general second-order equation with constant coefficients d2y dy dr2 dr Let the interval a x approximations b be divided inton subintervals of width h -(b- a)/n. Using the central difference find the linear system that must be solved to approximate y2.y3.....yn Finite difference methods are also used to approximate the solution to ordinary differential equations. Consider the boundary value...
03. Consider the boundary value problem 0 Sts1 y(0) & y(1)-1 where k > 0 is a given real parameter a. Verify that y(t) = e-kt (14) is the exact solution of the BVP. b. Use the function mybvp() from the previous problem with h -0.1 and k -10, to solve the BVP by the Finite Difference Method. Plot, on the same axes, the numerical and exact solution. c. Using a log-log plot, graph the maximum error as a function...
NOTE: h=(b - a) / N Consider the differential equation y" y' +2y + cos(), for 0 x , with boundary conditions (0) 0.3, Show that the exact solution is (x)(sin3 cos())/10. (a). Consider a uniform grid with h (b? a)/N. Set up the finite difference method for the problem. Write out this tri-diagonal system of linear equations for yi, (b). Write a Matlab program that computes the approximate solution yi. You may either use the Matlab solver to solve...
Using hand work for the parts with a paper next to them, and MatLab for the parts with the MatLab logo next to them, complete the following: Consider the linear BVP 4y " + 3y , + y = 0, 0<x<1 y(0)1 You will define a set of linear equations for yi,0, (yi y(Xi), 1 = o,.. . ,n) and the set of nodes is with xi-ih, 1-0, . . . , n and h =-. n is a fixed...
Given the following non-linear boundary value problem Use the shooting method to approximate solution Use finite difference to approximate solution Plot the approximate solutions together with the exact solution y(t) = 1/3t2 and discuss your results with both methods
(1) Use finite the difference method to solve for the temperature profile given by the equation below. The thin rod is one (1) meter long. The temperature on the left end is 100 and 0 on the right end. Set up the problem for three internal nodes (unknowns). Set up the augmented matrix for Gauss elimination solution (do not solve). Roughly sketch the five T values (including BC's). (1) Use finite the difference method to solve for the temperature profile...