The Mathematics Department has adopted the following best practices for teaching this course: offering or awarding extra-credit is forbidden, the allowance of multiple attempts at exams is forbidden, and an approved on-site proctor for online course exams is required.
A. Partial Differentiation
1. Functions of two or more variables
a. Limits
b. Continuity
c. Geometric interpretation
d. Derivatives
2. Tangent planes and normal lines
3. The directional derivative
4. The gradient
5. The chain rule
6. Linearization and differentials
7. Maximum-Minimum problems
a. Use of derivatives for extreme values
b. Lagrange multipliers
c. Methods of least squares
8. Higher order derivatives
B. Multiple Integrals
1. Functions of two or more variables
a. Plane area
b. Volume
c. Center of mass
d. Moments of inertia
e. Polar coordinates
f. Surface area
2. Triple Integrals
a. Volume
b. Center of mass
c. Moments of inertia
d. Cylindrical coordinates
e. Spherical coordinates
C. Vectors and Parametric Equations
1. Parametric Equations in Kinematics
2. Parametric Equations in Analytic Geometry
3. Vectors in two dimensions
a. The i and j components
b. Vector algebra
c. Unit and Zero Vectors
4. Space Coordinates
a. Cartesian
b. Cylindrical
c. Spherical
5. Vectors in Space
6. Scalar Product of Two Vectors
a. Algebraic properties
b. Orthogonal vectors
c. Vector projection
7. Vector Product of Two Vectors
a. Algebraic properties
b. Area
8. Equations of Lines and Planes
9. Product of Three or More Vectors
10. Cylinders
11. Quadric Surfaces
D. Vector Functions and Their Derivatives
1. Derivative of a Vector Function
2. Velocity and Acceleration
3. Tangential Vectors
4. Curvature and Normal Vectors
5. Differentiation of Products of Vectors
6. Polar and Cylindrical Coordinates
E. Multi-Dimensional Vector Analysis
1. Vector fields
2. Surface integrals
3. Line integrals
4. Green's Theorem
5. Stokes' Theorem