MATH 3191: Applied Linear Algebra
Spring 2007
Department of Mathematical Sciences
University of Colorado at Denver

COMING DEADLINES (NO LATE WORK IS ACCEPTED!):

PREREQUISITE:
MATH 2411: Calculus II, or with instructor's approval

HOURS, PLACE: TR 10-11:15 pm, AR (Arts Bld) 298.

INSTRUCTOR:
Prof. Andrew Knyazev
Office: CU (Dravo) 644. Phone: 556-8102.
Office hours: TR 2-3 pm (or by appointment)
WWW: http://math.ucdenver.edu/~aknyazev/

TEXTBOOKS: Required:
Linear Algebra and Its Applications, Updated plus MyMathLab Student Access Kit, 3/E
by David C. Lay
Addison-Wesley (January 2006) ISBN-10: 0321280628 ISBN-13: 978-0321280626

Optional (a new copy of the textbook bundled with MyMathLab includes Interactive tutorial exercises amd Study plan for self-paced learning):
Student Study Guide Update, 3/E (S/Sg Updt Linear Alg App) Addison-Wesley ISBN-10: 0321280660 ISBN-13: 9780321280664
Optional (already included with a new copy of the textbook bundled with MyMathLab):
Stand-Alone Access Code for the Tutor Center Addison-Wesley (Frm. Pearson Higher Education) ISBN-10: 0201721708 ISBN-13: 9780201721706
Optional (already included with a new copy of the textbook bundled with MyMathLab):
MyMathLab: Student Stand Alone Access Kit Addison-Wesley ISBN-10: 032119991X ISBN-13: 9780321199911

GRADING will be based on MyMathLab assignments (40% extra credit), homework assignments (40%), 3 take-home quizzes: one quiz for every two chapters, 10% each (30%), and the final in-class test (30%). MATLAB computer project gives 20% extra credit.

IMPORTANT: Every student must open a personal MyMathLab account in order to complete the MyMathLab assignments. To start, visit MyMathLab registration or just go directly to CourseCompass. To register at MyMathLab/CourseCompass, use your personal MyMathLab access code provided with a new textbook copy bundled with MyMathLab, or with the MyMathLab: Student Stand Alone Access Kit Addison-Wesley ISBN-10: 032119991X ISBN-13: 9780321199911. When asked during the registration process, enter the Course ID knyazev58137. For any questions with the registration and use of the MyMathLab/CourseCompass, please see CourseCompass/MyMathLab Contact page or call Product Support at 1-800-677-6337.

SUBJECT:
Topics include systems of equations, Gaussian elimination with partial pivoting, LU--decomposition of matrices, matrix algebra, determinants, vector spaces, linear transformations, eigenvalues and applications.

CONTENTS:
The class will follow the outline below, touching on each major topic in a depth that will be determined by the pace of the class.

Chapter 1  Linear Equations in Linear Algebra

1.1                   Systems of Linear Equations

1.2                   Row Reduction and Echelon Forms

1.3                   Vector Equations

1.4                   The Matrix Equation Ax = b

1.5                   Solution Sets of Linear Systems

1.6                   Applications of Linear Systems

1.7                   Linear Independence

1.8                   Introduction to Linear Transformations

1.9                   The Matrix of a Linear Transformation

1.10                 Linear Models in Business, Science, and Engineering (Optional, independent reading)

Chapter 2  Matrix Algebra

2.1                   Matrix Operations

2.2                   The Inverse of a Matrix

2.3                   Characterizations of Invertible Matrices

2.4                   Partitioned Matrices

2.5                   Matrix Factorizations

2.6                   The Leontief Input=Output Model (Optional, independent reading)

2.7                   Applications to Computer Graphics (Optional, independent reading)

2.8                   Subspaces of R^n

2.9                   Dimension and Rank

Chapter 3  Determinants

3.1                   Introduction to Determinants

3.2                   Properties of Determinants

3.3                   Cramer’s Rule, Volume, and Linear Transformations

Chapter 4  Vector Spaces

4.1                   Vector Spaces and Subspaces

4.2                   Null Spaces, Column Spaces, and Linear Transformations

4.3                   Linearly Independent Sets; Bases

4.4                   Coordinate Systems

4.5                   The Dimension of a Vector Space

4.6                   Rank

4.7                   Change of Basis

4.8                   Applications to Difference Equations (Optional, independent reading)

4.9                   Applications to Markov Chains (Optional, independent reading)

Chapter 5  Eigenvalues and Eigenvectors

5.1                   Eigenvectors and Eigenvalues

5.2                   The Characteristic Equation

5.3                   Diagonalization

5.4                   Eigenvectors and Linear Transformations

5.5                   Complex Eigenvalues (Optional, independent reading)

5.6                   Discrete Dynamical Systems (Optional, independent reading)

5.7                   Applications to Differential Equations (Optional, independent reading)

5.8                   Iterative Estimates for Eigenvalues (Optional, independent reading)

Chapter 6  Orthogonality and Least Squares

6.1                   Inner Product, Length, and Orthogonality

6.2                   Orthogonal Sets

6.3                   Orthogonal Projections

6.4                   The Gram-Schmidt Process

6.5                   Least-Squares Problems (Optional, independent reading)

6.6                   Applications to Linear Models (Optional, independent reading)

6.7                   Inner Product Spaces (Optional, independent reading)

6.8                   Applications of Inner Product Spaces (Optional, independent reading)

Chapter 7  Symmetric Matrices and Quadratic Forms (Optional, independent reading)

7.1                   Diagonalization of Symmetric Matrices

7.2                   Quadratic Forms

7.3                   Constrained Optimization

7.4                   The Singular Value Decomposition

7.5                   Applications to Image Processing and Statistics

ONLINE ONLY Chapter 8  The Geometry of Vector Spaces (Optional, independent reading)

8.1                   Affine Combinations

8.2                   Affine Independence

8.3                   Convex Combinations

8.4                   Hyperplanes

8.5                   Polytopes

8.6                   Curves and Surfaces

Chapter 9  Optimization (Optional, independent reading)

9.1                    Matrix Games

9.2                    Linear Programming — Geometric Method

9.3              Linear Programming — Simplex Method

9.4              Duality


REQUIRED INFORMATION FROM CLAS:

Spring 2007 CLAS Academic Policies


The following policies pertain to all students and are strictly adhered to by the College of Liberal Arts and Sciences (CLAS).



Spring 2007 Important Dates