Use a centered difference approximation of
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- Integrate the function X^2+2*x on the interval 0 to 3 with a step size of .5 using the trapezoid rule.arrow_forward3. Using the trial function u¹(x) = a sin(x) and weighting function w¹(x) = b sin(x) find an approximate solution to the following boundary value problems by determining the value of coefficient a. For each one, also find the exact solution using Matlab and plot the exact and approximate solutions. (One point each for: (i) finding a, (ii) finding the exact solution, and (iii) plotting the solution) a. (U₁xx -2 = 0 u(0) = 0 u(1) = 0 b. Modify the trial function and find an approximation for the following boundary value problem. (Hint: you will need to add an extra term to the function to make it satisfy the boundary conditions.) (U₁xx-2 = 0 u(0) = 1 u(1) = 0arrow_forwardProblem # 2 Use a centered difference approximation of O(h²) to estimate the second derivative of the function examined in Problem A. Perform the evaluation at x = 2 using step sizes ofh=0.2 and 0.1. Problem A Use zero- through third-order Taylor series expansions to predict (3) for f(x)= 25x – 6x² + 7x – 88arrow_forward
- b. Solve the following higher order ODE using Laplace Transformation for y(t). y" + 3y" + 7y + 5y = 0, with y(0) = 1, y'(0) = 0, %3Darrow_forward3. Using the trial function uh(x) = a sin(x) and weighting function wh(x) = b sin(x) find an approximate solution to the following boundary value problems by determining the value of coefficient a. For each one, also find the exact solution using Matlab and plot the exact and approximate solutions. (One point each for: (i) finding a, (ii) finding the exact solution, and (iii) plotting the solution) a. (U₁xx - 2 = 0 u(0) = 0 u(1) = 0 b. Modify the trial function and find an approximation for the following boundary value problem. (Hint: you will need to add an extra term to the function to make it satisfy the boundary conditions.) (U₁xx - 2 = 0 u(0) = 1 u(1) = 0arrow_forward4. Solve the 2D Laplace's equation on a square domain using finite difference method based on central differences with error O(h2). Use four nodes in each direction. 0 (1.y)--5 (2.1) 0arrow_forward
- GIVE ME THE COMPLETE SOLUTION FOR THISTHIS IS THE ANSWER AS PER THE ANSWER KEY JUST HELP ME WITH THE SOLUTION PLSX3/F = (16s^4 + 32s^3 + 56s^2 + 48s + 36)/(64s^6 + 192s^5 + 464s^4 + 568s^3 + 568s^2 + 312s + 72)arrow_forwardHow do you get from equation 3.1.1 to 3.1.5? I understand that yoy mutiply both sides by Ui, but I'm confused on the math that is done to bring Ui into the partial derivative. Please show all intermediate steps.arrow_forwardConsider the following linear equations,arrow_forward
- An object is shot upward from the ground with an initial velocity of 640 ft/sec, and experiencés a constant deceleration of 32 ft/sec² due to gravity as well as a deceleration of (v(t) / 10) ft/sec due to air resistance, where v(t) is the object's velocity in ft/sec. (a) Set up and solve an initial-value problem to determine the object's velocity v(t) at time t. (b) At what time does the object reach its highest point?arrow_forward2. In class, we derived an expression for hR/RT for a gas that obeyed the Pressure Explicit Virial Expansion truncated after the third term. In class, we assumed that B and C were not functions of temperature. a. Please rework the derivation with B = B(T) and C = 0. b. Please continue the derivation under the assumption that B(T) = mT + b. Where m and b are the slope and y-intercept of a straight, respectively. %3Darrow_forwardVerify if the following functions are Linear or not. Support your conclusion with appropriate reason. a) F(x) = b) f(x) =rcos wtarrow_forward
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