Linear Algebra 00071004

发布时间:2016-09-08浏览次数:1645

Syllabus for Linear Algebra 

00071004 

  Current Lecturer

  Dr. Xiaofei Xu,   Email: xfxu@suda.edu.cn

  

  Course Time

  1st Semester

  Lectures: 3 sessions/week, 50 min/session. 18 weeks.

  

  Office Hours

  Thursday 2:00—4:00 PM, Building of Physical Technology 232

  

  Course Description

  Linear algebra is the branch of mathematics concerning vector spaces and linear mapping between such spaces.  It is central to both pure and applied mathematics.  Techniques from linear algebra are useful in both social sciences and natural sciences.  The course aims to (1) provide students with a good understanding of the concepts and methods of linear algebra; (2) help the students develop the ability to solve problems using linear algebra; (3) connect linear algebra to other fields both within and without mathematics; (4) develop abstract and critical reasoning by studying logical proofs and the axiomatic method as applied to linear algebra.

  

  Prerequisites

  Mathematics in high school.

  

  Textbooks

  Linear Algebra with Applications, 8th edition, Steven J. Leon, China Machine Press, 2011, ISBN: 978-7-111-34199-4

  

  Main Contents

  Week

  Teaching Contents

  Sessions

  Objectives

  1

  Chapter 1: Matrices and systems of equations

  3

  Systems of linear equations; Row Echelon Form; Matrix Arithmetic;

  2

  Chapter 1: Matrices and systems of equations

  3

  Matrix Algebra; Elementary Matrices; Partitioned Matrices

  3

  Chapter 2: Determinants

  3

  The determinant of a matrix; Properties of determinants; Cramer’s Rule;

  4

  Quiz 1

  3

  Review and quiz

  5

  Chapter 3: Vector spaces

  3

  Vector spaces; Subspaces; Linear Independence;

  6

  Chapter 3: Vector spaces

  3

  Basis and dimension; Change of Basis

  7

  Chapter 3: Vector spaces

  3

  Row space and column space; Linear transformations;

  8

  Chapter 4: Linear transformations

  3

  Matrix representation of linear transformation; Similarity;

  9

  Mid-term exam

  3

  Review and exam

  10

  Chapter 5: Orthogonality

  3

  The scalar product; Orthogonal subspaces

  11

  Chapter 5: Orthogonality

  3

  Least squares problems; Inner product spaces

  12

  Chapter 5: Orthogonality

  3

  Orthonormal sets; The Gram-Schmidt orthogonalization process

  13

  Chapter 5: Orthogonality

  Chapter 6: Eigenvalues

  3

  Orthogonal polynomials; Eigenvalues and Eigenvectors

  14

  Quiz 2

  3

  Review and quiz

  15

  Chapter 6: Eigenvalues

  3

  Diagonalization; Hermitian matrices; The singular value decomposition;

  16

  Chapter 6: Eigenvalues

  3

  Quadratic forms; Positive definite matrices;

  17

  Review

  3

  Review for final exam

  18

  Final exam

  3

  Final exam

  

  

  Grading Scheme:

  Homework

  Attendance

  Quiz

  Midterm

  Final exam

  15%

  10%

  2*10%

  15%

  40%

  

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