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Oct 23, 2026
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MATH 2210 - Differential Equations Credits: 4
Catalog Description Intended for students in the areas of engineering, sciences, or mathematics. Topics include first and second order differential equations; existence and uniqueness of solutions; systems of linear equations; undetermined coefficients; variation of parameters; Laplace transforms; and numerical approximation of solutions. This course serves these students with both practical applications of mathematics and as a bridge between lower-level mathematics courses and higher-level (often more theoretical) mathematical courses.
Prerequisite(s) (must have a grade of C or better): MATH 1401 with a grade of C or better, or equivalent Additional fee to student: No
Learner Outcomes
- Model using first- and second-order differential equations.
- Draw and interpret slope fields.
- Use approximation techniques for differential equations and systems of differential equations such as Euler’s method (with and without technology), Improved Euler’s method (with and without technology), and the Runge-Kutta method (with technology).
- Understand existence and uniqueness theorems for differential equations.
- Find equilibria and draw the phase line for autonomous first-order differential equations.
- Use separation of variables to solve a separable first-order differential equation.
- Use undetermined coefficients to solve a first-order linear differential equation.
- Use an integrating factor to solve a first-order linear differential equation.
- Use undetermined coefficients and/or integrating factors to solve a partially decoupled system of two linear differential equations.
- Use eigenvalues (real, repeated, and complex) and eigenvectors to solve a system of two linear differential equations.
- Solve constant-coefficient second-order linear differential equations (homogeneous and non-homogeneous).
- Model the damped harmonic oscillator.
- Model beating and resonance for a harmonic oscillator with an external forcing function.
- Use Laplace Transforms to solve first- and second-order equations, including the Heaviside and the Dirac delta functions.
Major Areas of Course Content
- First order differential equations including uniqueness and existence theorems
- Second order differential equations with undetermined coefficients and variation of parameters
- Systems of linear differential equations
- Higher order linear equations with constant coefficients
- Laplace Transforms including convolution
- Supplemental Topics (chosen from numerical approximation of solutions, series solutions, Fourier Series, and various applications)
Credit for Prior Learning Options Course-Specific Exam
Credit for Prior Learning Option Procedure(s)
- The student should contact an instructor currently teaching or scheduled to teach the desired course.
- The instructor will provide and schedule an exam date.
- The student is to bring the Credit by Exam form to the scheduled exam.
- The faculty member will notify the student and Records Office of the results.
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