Math 3 Multivariable Calculus (4 credits) & Linear Algebra (1 credit)
Pre-Requisite: Single-Variable Calculus, Introduction to Linear Algebra (or Math 1 and 2)
Course Description:
This course is an extension of single-variable calculus and an introduction to more formal linear algebra. It focuses on vectors, parametric equations, linear transformations, surfaces, partial differentiation, optimization, multiple integrals, vector fields with line and surface integrals, and Taylor and Fourier series. There is heavy emphasis on applications, mathematical modeling, and problem solving techniques.The class meets once week in the computer laboratory. The primary software used is Mathematica . It is a required course for all mathematics majors and minors and all engineering majors.
Required Text:
Thomas' Calculus (The standard version and the Early Transcendentals version are the same for the chapters covered in this course.) (10th edition), by Finney, Weir, Giordano, © 2001, Addison Wesley
Grading Policies:
Exams are given every two to three weeks. Labs are done every week.
Relative weights: Exams (65%), Homework (10%), Projects/Labs (25%)
Projects are computer intensive and students are encouraged to work in pairs.
Some project results will be presented orally as well as in written form.
Computer printouts without comments and a summary sheet will never be accepted.
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Topics |
Chapters in Thomas’s Calculus, 10th ed. |
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Overview of Calculus Topics (1 week) |
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Basic Concepts & Important Theorems (MVTs & FTIC) |
3 & 4 |
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L’Hôpital’s Rule and Important Limits |
7 |
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Improper Integrals and Monte Carlo Numerical Integration |
7 |
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Conic Sections and Polar Coordinates |
9 & 10 |
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Vector Functions of a Scalar Variable (3 weeks) |
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Vectors in the Plane |
9 |
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Linear Regression Using Vectors |
Worksheet |
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Modeling Projectile Motion with Parametric Equations |
9 |
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Vectors in Space and the Algebra of Vectors |
10 |
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Angles, Orthogonality, and Projections |
10 |
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Equations of Lines and Planes in 3-Space |
10 |
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Linear Transformations |
10 |
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Lines and Curves in Parametric Form |
10 |
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Vector-Valued Functions and the TNB Frame |
10 |
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Scalar Functions of Vector Variables (6 weeks) |
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Cylinders and Quadric Surfaces |
10 |
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Cylindrical and Spherical Coordinates |
12 |
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Surfaces and Level Curves |
11 |
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Partial Derivatives |
11 |
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Gradient and Directional Derivative |
11 |
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Tangent Planes and Linearization |
11 |
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Unconstrained Optimization |
11 |
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Constrained Optimization |
11 |
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Partial Differential Equations |
11 |
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Multiple Integrals (Double and Triple) |
12 |
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Multiple Integrals in Different Coordinate Systems |
12 |
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Applications of Multiple Integrals |
12 |
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Jacobian Matrix for Transformations |
12 |
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Monte Carlo Methods for Double Integrals |
7 & 12 |
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Vector Functions of Vector Variables (2.5 weeks) |
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Line Integrals, Work, and Flux |
13 |
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Green's Theorem and Conservative Force Fields |
13 |
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Surface Integrals (Stokes' and Divergence) |
13 |
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Series (1.5 weeks) |
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Taylor Series and Linearizations |
8, 11 |
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Euler's Formula |
8, A-4 |
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Fourier Series |
8 |
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