 Summer 2018
Syllabus Description:
Lectures: MWF 10:5011:50 am, EEB 125
Website: https://canvas.uw.edu/courses/1204820
Instructor: Saumya Sinha (Email: saumya@uw.edu)
Office Hours: Mon 1:302:30 pm, LEW 129; Wed 1:302:30 pm, LEW 128.
Teaching Assistant: YuChen Cheng (Email: yuchench@uw.edu)
TA Office Hours: Thursday, 35pm, LEW 129
Prerequisites: MATH 126 or MATH 136.
Course description: Linear algebra plays a fundamental role in a wide range of applications from physical and social sciences, statistics, engineering, finance, computer graphics, big data and machine learning. This course covers basic concepts of linear algebra, with an emphasis on computational techniques. We will study vectors, vector spaces, linear transformations, solving linear systems, least squares problems, matrix decompositions (e.g. LU, QR, SVD), and eigenvalue problems. The emphasis will be on practical aspects of linear algebra and numerical methods for solving these problems.
Course materials: There is no textbook for this class. Instead, we will follow reference notes written by R. LeVeque and Ulrich Hetmaniuk (available under the 'Files' tab as '352Book.pdf').
The following texts are freely available online and can be used to supplement the course notes.
 Jim Hefferon, Linear Algebra. The LaTeX source files and answers to exercises are available from Jim Hefferon's web page.
 Stephen Boyd and Lieven Vandenberghe, Introduction to Applied Linear Algebra. The basics of vectors and matrices along with regression and least squares.
 Cleve Moler, Numerical Computing with MATLAB. Cleve Moler is the original developer of MATLAB.
Additional reference texts are:
 G. Strang, Introduction to Linear Algebra, Wellesley Cambridge Press, 2009.
 R.L. Burden and J.D. Faires, Numerical Analysis.
Computing: We will use Matlab for computation, and you must obtain access to Matlab or Octave (a free alternative) for your use.
 You may obtain a Matlab license through the University for $30 (UW Matlab). Note that these will only be available from July 1st.
 You may purchase a student license for Matlab here. (The unbundled version ($50) will be sufficient for this class, but the $100 version has other useful packages.)
 Matlab is also available at several labs on campus, including the ICL (Communications, B022). Remote access is available through the College of Engineering.
 You may also download Octave, an opensource Matlablike program, here. We will, however, not be available to provide support for this.
Grading:

Homework: There will be a total of six graded homeworks worth 40% of the course grade. (Homework 0 will not be graded.) I strongly urge you to type up the homework using LATEX or another typesetting software. Typesetting the first homework will be worth 5 bonus points, and typesetting subsequent homeworks will each be worth 2 bonus points. Typed homeworks may be submitted through Canvas, while handwritten ones must not be submitted online.
Each homework will also consist of a programming portion and you will be asked to submit your Matlab scripts online via Scorelator where they will be graded automatically. Written answers must be submitted for the remaining problems.
Late policy: Late homework will not be accepted under any circumstances except certified medical reasons.
You are encouraged to discuss and collaborate with your peers on the homework, but solutions must be written up individually and not shared with others. Questions may be brought to class, office hours and the Canvas discussion board. Please note that homeworkrelated questions will not be answered via email.  Exams: The midterm will be in class on Monday, July 16. The final exam will be in class on Friday, August 17.
Your course grade will be a weighted sum of your score in the homeworks, midterm and final, added in the proportions 40%, 30% and 30% respectively. The grade for this class will not be curved.
Date  Class  Topic 
06/18/18  Lecture 1  ndimensional vectors. 
06/20/18  Lecture 2  Norms in R^n. 
06/22/18  Lecture 3  Inner products in R^n, linear spaces. 
06/25/18  Lecture 4  Subspaces of linear spaces. 
06/27/18  Lecture 5  Linear independence and span of vectors, basis of a linear space. 
06/29/18  Lecture 6  Basis and dimension of a linear space. 
07/02/18  Lecture 7  Linear functions, matrices. 
07/04/18  No class.  4th of July holiday. 
07/06/18  Lecture 8  Multiplication of matrices, range and rank. 
07/09/18  Lecture 9  Matrices  range, null space, rank and nullity. 
07/11/18  Lecture 10  Matrices  rank and nullity, determinants. Midterm review. 
07/13/18  Lecture 11  Revisiting inverses, eigenvalues and eigenvectors. 
07/16/18  Midterm  Inclass midterm. 
07/18/18  Lecture 12  Matrix norms. 
07/20/18  Lecture 13  Inner products, solutions of linear systems. Numerical errors. 
07/23/18  Lecture 14  Conditioning, computer arithmetic, operations counts and complexity. 
07/25/18  Lecture 15  QR factorization, GramSchmidt orthogonalization. 
07/27/18  Lecture 16  GramSchmidt: examples and modifications. 
07/30/18  Lecture 17  LU decomposition without pivoting. 
08/01/18  Lecture 18  LU decomposition with pivoting. 
08/03/18  Lecture 19  LU decomposition with pivoting. Least squares. 
08/06/18  Lecture 20  Least squares and function approximation, interpolation. 
08/08/18  Lecture 21  Interpolation and curve fitting, regression. 
08/10/18  Lecture 22  Eigenvalue decomposition. 
08/13/18  Lecture 23  Singular Value Decomposition, Principal Component Analysis. 
08/15/18  Lecture 24  Iterative solvers. Final Review. 
08/17/18  Final Exam  Inclass final. 