MAT 235 Final, Spring 2004

Notre Dame University–Louaize · Ordinary Differential Equations · 12 pages

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NDU MAT 235 Ordinary Differential Equations Final Exam Duration: 2 hours Name: ________________ Section: _______________ Instructor: ____________ Grade: ________________ MAT 235 – Final Exam; Friday June 18, 2004 Name: Instructor: 1/11 Please note that you have 10 questions and 11 pages (your mobile must be turned off and unseen) 1) (8 points) Solve the differential equation x3y4 y xy    , for x  0 . 2/11 2) (6 points) Solve the initial-value problem 1    xy y dx x dy ; with   y 1  3 . Hint: Let v xy 1  3/11 3) (8 points) Solve     0 cos 2 4      y dy xy x dx y x . 4/11 4) (6 points) Solve the differential equation 0 2 2 3        y xy x y x y , for x  0 5/11 5) (10 points) Solve the differential equation   2 1 2 x e y y y x       ; for x  1 . 6/11 6) (8 points) Find the function  t x such that           t 0 u x u du t t x t sin 2 . 7/11 7) (12 points) Use Laplace transform to solve          2 1 2 2 1 1 2 5 2 4 y y y y y y ;   2 1 0  y ;   2 2 0   y . 8/11 8) (12 points) Use Laplace transform to solve         4 ;0 4 0 25; 25 2 2 t t y dt d y ;     0 0 0   y y . 9/11 9) (10 points) Use the eigenvalue-eigenvector method to solve 2 1 1 6y y y     2 1 2 2y y y    10/11 10) (20 points) Given 0 4 1 2 2             y x xy x y , for x  0 . a) Show that x0  0 is a regular singular point. b) Find the indicial roots. c) Use the method of Frobenius to find the generalized power series solution in powers of x. 11/11