MAT 235 Final, Fall 2003

Notre Dame University–Louaize · Ordinary Differential Equations · 13 pages

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NDU MAT 235 Ordinary Differential Equations Final Exam Wednesday February 4, 2004 Duration: 2 hours Name: ________________ Section: _______________ Instructor: ____________ Grade: ________________ 1/12 Please note that you have 10 questions and 12 pages 1) (10 points) Solve the following: a)   0 2 2 2     dy y x xydx with   y 0 1 b)     2 3 2 3 2 2        y x y x dx dy 2/12 2) (10 points) Find the orthogonal trajectories of the family of circles   2 2 2 c y c x    . 3/12 3) (4 points) Find the Laplace inverse of the following function   3 ln   s s F s 4/12 4) (8 points) Solve   1 1      y x y for x  1 5/12 5) (10 points) Solve x y y sec3 9    6/12 6) (8 points) Use Laplace transform to solve            1 0 1 0 2 7 6 t t y y y with     0 0 0   y y 7/12 7) (10 points) Solve the following initial-value problem by using Laplace transform. 0 2 3 0 2 2 2 1 2 1 1         y y y y y y with   1 1 0  y and   2 2 0  y 8/12 8) (8 points) Use the eigenvalue-eigenvector method to solve 2 1 2 2 1 1 3 7 2 2 y y y y y y       9/12 9) (12 points) Given that x0  0 is an ordinary point of the differential equation   0 2 2 1 2       y xy y x . Find the general power series solution in powers of x. 10/12 11/12 10) (20 points) Given   0 1 4 8 4 2 2 2       y x x y x y for x  0 . a) Show that x0  0 is a regular singular point. b) Find the indicial roots. c) Find the generalized power series solution in powers of x. 12/12