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Consider the variable coefficient linear second order non-homogeneous ODE a?y" – 2xy + (x² +2)y 3x3 for x > 0. (1) 1. Write down the associated homogeneous equation. 2. Show that yı(x) = x sin x and y2(x) = x cos x are solutions of the associated homogeneous equation. %3D 3. Use the Wronskian test to determine if y1 and y2 are linearly independent for ar > 0. 4. Write down the solution Yn(x) of the associated homogeneous equation. 5. Use the formulas in the course notes for the method of variation of parameters to find a particular solution yp(x) of equation (1). Hint: you will need to re-write the ODE in standard form in order to identify the non-homogeneous term in the formulas. 6. Write down the general solution to equation (1). 7. Find the solution to equation (1) that satisfies the initial conditions 37 y(T/2) and y(T/2) = 0. 2 8. Use Matlab to plot the solution to the IVP in 7 for 0 < x < 30. Attach the plot to your assignment and describe the solution behaviour as x → 0.

Consider the variable coefficient linear second order non-homogeneous ODE a?y" – 2xy + (x² +2)y 3x3 for x > 0. (1) 1. Write down the associated homogeneous equation. 2. Show that yı(x) = x sin x and y2(x) = x cos x are solutions of the associated homogeneous equation. %3D 3. Use the Wronskian test to determine if y1 and y2 are linearly independent for ar > 0. 4. Write down the solution Yn(x) of the associated homogeneous equation. 5. Use the formulas in the course notes for the method of variation of parameters to find a particular solution yp(x) of equation (1). Hint: you will need to re-write the ODE in standard form in order to identify the non-homogeneous term in the formulas. 6. Write down the general solution to equation (1). 7. Find the solution to equation (1) that satisfies the initial conditions 37 y(T/2) and y(T/2) = 0. 2 8. Use Matlab to plot the solution to the IVP in 7 for 0 < x < 30. Attach the plot to your assignment and describe the solution behaviour as x → 0.

Advanced Engineering Mathematics
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
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Consider the variable coefficient linear second order non-homogeneous ODE x²y" – 2xy' + (x² + 2)y = 3x³ for a > 0. (1) | 1. Write down the associated homogeneous equation. | 2. Show that yı(x) = x sin x and y2(x) = x cos x are solutions of the associated homogeneous equation. | 3. Use the Wronskian test to determine if y1 and y2 are linearly independent for x > 0. | 4. Write down the solution yp (x) of the associated homogeneous equation. | 5. Use the formulas in the course notes for the method of variation of parameters to find a particular solution yp(x) of equation (1). Hint: you will need to re-write the ODE in standard form in order to identify the non-homogeneous term in the formulas. | 6. Write down the general solution to equation (1). | 7. Find the solution to equation (1) that satisfies the initial conditions y(T/2) and y/(T/2) = 0. 2 | 8. Use Matlab to plot the solution to the IVP in 7 for 0 < x < 30. Attach the plot to your assignment and describe the solution behaviour as x → .
Transcribed Image Text:Consider the variable coefficient linear second order non-homogeneous ODE x²y" – 2xy' + (x² + 2)y = 3x³ for a > 0. (1) | 1. Write down the associated homogeneous equation. | 2. Show that yı(x) = x sin x and y2(x) = x cos x are solutions of the associated homogeneous equation. | 3. Use the Wronskian test to determine if y1 and y2 are linearly independent for x > 0. | 4. Write down the solution yp (x) of the associated homogeneous equation. | 5. Use the formulas in the course notes for the method of variation of parameters to find a particular solution yp(x) of equation (1). Hint: you will need to re-write the ODE in standard form in order to identify the non-homogeneous term in the formulas. | 6. Write down the general solution to equation (1). | 7. Find the solution to equation (1) that satisfies the initial conditions y(T/2) and y/(T/2) = 0. 2 | 8. Use Matlab to plot the solution to the IVP in 7 for 0 < x < 30. Attach the plot to your assignment and describe the solution behaviour as x → .
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