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Upon successful completion of the course, the student should be able to:
- Define a differential equation.
- Identify and classify equations.
- Recognize initial-value problems.
- Find the general solutions of a differential eqution.
- Apply this solution to velocity and acceleration.
- Show the existence and uniqueness of solutions.
- Separate the variables in a diferential equation.
- Apply this technique to ntural growth and to cooling and heating problems.
- Examine linear first order equations.
- Examine substitution methods including Bernoulli's equations.
- Find a method of solution for exact equations.
- Define second order linear equations.
- Define integrating factors for a linear equation.
- Establish linear depedence and independence of second order equations.
- Distinguish homogeneous from nonhomogeneous second order equations.
- Study the solutions for homogneous equations with constant coefficents.
- Apply solutions of second order equations to mechanical vibration problems.
- Look at the methods of reducion of order and Euler-Cauchy equations.
- Discuss the method of variations of parameters to find a particular solution of nonhomogeneous equations.
- Review power series including definition, types and radius of convergence.
- Examine the power series method of solving linear equations.
- Look at series solutions near ordinary points.
- Look at series solutions near singular points.
- Introduce Bessel's and Legendre's equations.
- Define Laplace transforms and inverse transforms.
- Apply Laplace transforms to solve a linear differential equation with constant coefficients.
- Use the inverse transform to solve rational functions by first using partial function decomposition. (optional)
- Look at derivatives, integrals and products of transforms.(optional)
Optional
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