Name:
Andrew Knyazev
Email:
Andrew.Knyazev[at]ucdenver.edu
Office:
1250 14th St. UC Denver Room 644
Office Hours:
Tue.,Th. 2:30-4PM
MATH 3200-3. Elementary Differential Equations. First and second order differential equations, Laplace transforms, systems of equations, with an emphasis on modeling and applications.
Section Details - MATH 3200 - 001
NO JOINT CREDIT WITH MATH 3195.
Prereq: MATH 2411; coreq is MATH 3191.
Meetings
T R - 01:00PM to 02:15PM at WC 159

| % | 0-20% | 21-40% | 41-60% | 61-80% | 81-100% | |||||||
|---|---|---|---|---|---|---|---|---|---|---|---|---|
| Metro | F | D | C | B | A | |||||||
| % | 0-20% | 21-27% | 28-34% | 35-40% | 41-47% | 48-54% | 55-60% | 61-67% | 68-74% | 75-80% | 81-90% | 91-100% |
| UCD | F | D- | D | D+ | C- | C | C+ | B- | B | B+ | A- | A |
Chapter 1. BASIC CONCEPTS.
TRADITIONAL FIRST ORDER DIFFERENTIAL EQUATIONS
Some Basic Terminology
Separable Differential Equations
Some Physical Problems arising as Separable Equations
Exact Equations
Linear Equations
GEOMETRICAL & NUMERICAL METHODS FOR FIRST ORDER EQUATIONS
Direction Fields - the Geometry of Differential Equations
Existence and Uniqueness for First Order Equations
First Order Autonomous Equations - Geometrical Insight
Population Modeling: An Application of Autonomous Equations (independent reading)
Numerical Approximation with the Euler Method
ELEMENTS OF HIGHER ORDER LINEAR EQUATIONS
Some Terminology
Essential Topics from Linear Algebra
Reduction of Order - The Case n=2
Operator Notation
Numerical Considerations for nth Order Equations
TECHNIQUES OF HIGHER ORDER LINEAR EQUATIONS
Homogeneous Equations with Constant Coefficients
A Mass on a Spring (independent reading)
Nonhomogeneous Equations
The Method of Undetermined Coefficients via Tables
FUNDAMENTALS OF SYSTEMS OF DIFFERENTIAL EQUATIONS
Systems of Two Equations - Motivational Examples (independent reading)
Useful Terminology
Linear Transformations and the Fundamental Subspaces
Eigenvalues and Eigenvectors
TECHNIQUES OF SYSTEMS OF DIFFERENTIAL EQUATIONS
A General Method, Part I: Solving Systems with Real, Distinct Eigenvalues
A General Method, Part II: Solving Systems with Repeated Real or Complex Eigenvalues
Solving Linear Homogeneous and Nonhomogeneous Systems of Equations