Course Syllabus
College
of Arts and Sciences
Department
of Mathematics
Date:
Fall/Winter, 05-06
Course MATH- 272 Name: Introduction to Linear Algebra _
Credit hours 4 Lecture hours/week 0 Lab hours/week
Instructor Staff
Usual student level Sophomore
Course required of students in
Chemistry, Engineering, and Mathematics
Course frequency per year Fall, Winter
Average enrollment per year 120
This course has a prerequisite MATH-164 or consent of the
instructor
This course is a prerequisite for MATH-332, MATH-336, MATH-361 and
MATH-461
Catalogue description
Linear systems of
equations and Gauss elimination. Vector spaces. Linear
Transformations and their Matrices. Eigenvalues and eigenvectors. Applications of eigenvalues.
Course Objectives
To introduce the student to the
essential concepts of matrix algebra, to give the student an informal and
concrete introduction to linear algebra and to equip the student with the basic
mathematical tools necessary to solve significant linear algebra problems on a
computer.
Textbook Linear Algebra and It’s Applications, updated 3rd edition, by David C.
Lay
Outline of content follows:
(See attached)
Course Outline
MATH-272
Introduction
to Linear Algebra
1. Linear Equations in Linear Algebra. 9 hours
Systems of Linear Equations.
Row Reduction and Echelon Forms.
Vector Equations.
The Matrix Equation Ax = b.
Solution Sets of Linear Systems.
Linear Independence.
Introduction to Linear Transformations.
The Matrix of a Linear Transformation.
2. Matrix Algebra. 5
hours
Matrix
Operations.
The Inverse of a Matrix.
Characterizations of Invertible Matrices.
Subspaces of Rn.
Dimensions and Rank.
3. Determinants. 3
hours
Introduction to Determinants.
Properties of Determinants.
Cramer's Rule, Volume, and Linear Transformations.
4. Vector Spaces. 5
hours
Vector Spaces and Subspaces.
Null Spaces, Column Spaces, and Linear Transformations.
Linearly Independent Sets; Bases.
Coordinate Systems.
The Dimension of Vector Space
Rank.
Change of Basis.
5. Eigenvalues
and Eigenvectors. 9
hours
Eigenvectors and Eigenvalues.
The Characteristic Equation.
Diagonalization.
Eigenvectors and Linear Transformations.
Complex Eigenvalues.
Discrete Dynamical Systems.
Applications to Differential Equations.(OPTIONAL)
6. Orthogonality and Least-Squares. (OPTIONAL) 4 hours
Inner Product, Length, and Orthogonality.
Orthogonal Sets.
Orthogonal Projections.
The Gram-Schmidt Process.
Total of 35 hours. Review and
examination 5 hours.
NOTES:
1)
There
are many applications throughout the course. To maintain a pace to cover the
topics, some applications will probably need to be omitted. It is expected that
in total about 6 hours will be spent on the applications of the instructor’s
choice.
2)
It
is expected that technology will be incorporated into the course where
appropriate.