Math 430 - Matrix Analysis
Spring 2025 - Syllabus - Matthias K. Gobbert
This page can be reached via my homepage at
http://www.umbc.edu/~gobbert.
Basic Information
- Instructor: Matthias K. Gobbert, gobbert@umbc.edu,
office hours Tuesdays and Thursdays 11:30-12:30 in MP 416 in-person,
by appointment online, or by e-mail.
Dr. Gobbert has accumulated extensive experience in teaching
with state-of-the-art technology.
Since participating in the
first cohort in the Alternative Delivery Program (ADP) in 2006,
he uses hand-writing on tablet laptops for all lectures.
These lectures are taped and hosted online for streaming,
with the added benefits of allowing for pausing, rewinding, and reviewing.
Using the taped lectures for contents delivery,
Dr. Gobbert uses a team-based active-learning teaching model,
in which students work on problems in learning groups during class.
Since 2019, his classes use online comprehension quizzes on the lectures
and fully online submission of all assignments, complete with online grading.
Since starting online teaching full-time in 2020,
the synchronous class meetings are used additionally for
student presentations to maximize active student engagement.
In 2010, Dr. Gobbert received the
University System of Maryland Board of Regents'
Faculty Award for Excellence in Mentoring.
- This syllabus consists of this frontpage and the sub-pages
- Classes:
Tuesdays and Thursdays, 01:00-02:15,
in SOND 409;
see the detailed schedule
for more information on the coverage, due dates,
and timing of the synchronous class meetings.
Note on time commitment: Notice that in a regular semester,
you are supposed to spend about 10 to 12 hours per week on this course.
If you cannot devote this time,
consider if you want to be in this course.
This course will be taught as a reading class. This means
that you need to study the textbook ahead of class and
be ready to discuss its contents in our class meetings.
The synchronous class meetings will
use a team-based active-learning teaching model, in which
students work on problems in learning groups formed by the instructor
with the help of the instructor.
Learning groups:
I will form learning groups of about four students.
These groups are strongly encouraged
to also communicate outside of class.
Synchronous class meetings:
Our synchronous class meetings are an opportunity for
active teamwork with your learning group,
while the instructor is available immediately for questions.
These meetings will take place in-person in the classroom.
We will also have presentations by students
on homework solutions
in the synchronous class meetings.
This and the other strategies above are designed to
foster student engagement as well as give you chances
to participate more actively and to get to know each other better.
If you have any concerns about any of these items,
such as concerns about adequate internet connection,
about team work, or special needs related to learning styles,
please reach out to me as soon as possible,
so I can clarify questions and/or
we can work out alternate appropriate approaches and metrics.
My goal is definitely that anyone can participate successfully
in this course, even if you might need to do it completely
asynchronously, but we need to communicate about this.
- Prerequisites: a grade of C or better in
Math 221 Linear Algebra,
Math 251 Multivariable Calculus,
MATH 300 Introduction to Mathematical Reasoning,
Math 301 Mathematical Analysis I,
or consent of instructor.
- These books are available as hardcover as well as eTexts.
You need to have at least the required textbook available in class.
-
Required textbook:
Carl D. Meyer,
Matrix Analysis and Applied Linear Algebra,
2nd edition, SIAM, 2023.
Webpages of the textbook
(SIAM Book Code OT188, ISBN 978-1-61197-743-1, eISBN 978-1-61197-744-8)
https://epubs.siam.org/doi/10.1137/1.9781611977448
and the Study and Solutions Guide
(SIAM Book Code OT189, ISBN 978-1-61197-745-5, eISBN 978-1-61197-746-2)
https://epubs.siam.org/doi/10.1137/1.9781611977462.
The publisher SIAM gives you a 20% discount for buying this book,
since it is adopted as required textbook.
But there is an even better option:
Our department has a SIAM Student Chapter.
If you join SIAM, which is free of charge to you,
through our student chapter,
you become a (student) member of SIAM.
Buying any SIAM book as a member gives a 30% discount.
I would recommend to proceed in this way.
You will then also get invited to activities of our student chapter,
which is great for meeting other students and faculty.
The link to join SIAM is
www.siam.org/membership.
You will have to create an account.
To join for free, you have to select UMBC as institution;
there is a detailed FAQ item on how to do this:
on this Membership page, next to Join and Renew, click on Member FAQ.
Then scroll down to and expand the subheader
"How do I get a free student membership online?"
We are in the list as UNIVERSITY OF MARYLAND BALTIMORE COUNTY.
After joining, you can order the textbook from the above
textbook page with the member discount.
-
Textbook from Math 221 Linear Algebra as reference:
David C. Lay, Steven R. Lay, Judi J. McDonald,
Linear Algebra and Its Applications,
6th edition, Pearson, 2021.
Any recent edition should suffice.
- Grading rule:
Participation
| Quizzes and Homeworks
| Test 1
| Test 2
| Test 3
| Final Exam
|
10%
| 10%
| 20%
| 20%
| 20%
| 20%
|
-
Active participation is the key to success in
any class, mathematics or otherwise.
This category gives you credit for all associated activities
including studying the textbook completely,
preparing for the synchronous class meetings as assigned,
the active participation in team work,
the participation in synchronous class meetings,
and
adequate professional behavior in all aspects of the course,
such as communicating with the instructor, team mates,
respectful behavior in communications,
and timely submission of work, for instance.
-
The homework assignments will be posted in
the Blackboard site of our course, see below.
The detailed schedule indicates
the planned due date of each homework,
but the Blackboard assignments list the official due dates and times.
Working the homework is vital to understanding the course material,
and you are expected to work all problems.
In the flipped classroom format of this course,
you should work on the homework
about the associated textbook sections before class.
We will then compare and complete the homework in class,
and it is then due before the start of the next topic.
Late submission of homeworks, except Homework 0,
cannot be accepted under any circumstances.
Homework 0 is required of all students and is accepted late.
The team work in this class is educational in nature,
meaning that each and every student has to solve
each and every problem; the work is not split up
and credit is only given to team members who actively
participate (and in particular only if you are present).
The detailed schedule indicates
the planned due dates of some quizzes,
but the Blackboard assignments list the official due dates and times.
There will also be in-class quizzes
using learning groups formed by the instructor.
For instance, they may be designed to initiate class discussion
or to give me feedback on your learning.
They may be technical or non-technical in nature.
A Quiz 0 will be given
on some material that is critical to
your success in this class.
-
The tests and final exam
are conventional pencil-and-paper exams.
To help you focus on what is relevant,
they are closed-book and closed-notes.
See the detailed schedule for the dates
of the exams.
Additional details or changes will be announced as necessary.
See also general rules and procedures
for more information.
Announcements may be made in class, by e-mail, or in Blackboard.
You are responsible for checking
your UMBC e-mail address sufficiently frequently.
-
We will use the course management system
Blackboard Ultra
for posting of all material
and
for submissions.
Notice that Blackboard Ultra is the new version of Blackboard
that is more mobile friendly.
The main navigation buttons are arranged along the top of the screen,
with Content, Announcements, and Gradebook the ones we will use.
I will also use Blackboard to send Announcements to the class,
which goes to your UMBC account by default.
Therefore, you must either check your UMBC e-mail regularly
or have the mail forwarded to an account that you check frequently.
You should have your notifications in Blackboard turned on!
Do not use Blackboard to message me,
since I may not find it in a timely fashion;
rather use conventional e-mail to my UMBC address listed above.
Course Description
Topics in this course will include a review of basic matrix operations, determinants, rank, matrix inverse and solving linear equations. The course then will study partitioned matrices, eigenvalues and eigenvectors, spectral decomposition, singular-value decomposition, orthogonal projections, idempotent matrices, quadratic forms, extrema of quadratic forms, non-negative definite and positive definite matrices, and matrix derivatives.
The intent is to teach this course as a deepening of the coverage of
Math 221 Linear Algebra. To this end, I will make complete review material
of that course available and we will beging by summarizing that material.
We will build on that by studying the required textbook of this course and
practicing solving problems together.
Note that there is a complete Study and Solutions Guide available,
which can provide useful starting ideas and a final check,
but additional details will be needed for successful homework submission.
Learning Goals
By the end of this course, you should:
-
understand and remember the key ideas, concepts, definitions,
and theorems of the subject.
Examples in this course include
linear dependence and independence, the concept of a vector space,
eigenvalues and eigenvectors, and the rank theorem.
More broadly, you should also understand the purpose of
linear algebra.
--> This information will be discussed in the lecture.
You will apply and use them on homeworks, quizzes, and exams.
-
be able to apply mathematical theorems and computational algorithms
correctly to answer questions,
and interpret their results correctly, including potentially
non-unique solutions or breakdowns of algorithms.
Examples include choosing among several methods to solve
a problem and how to react to intermediate solutions found
that may indicate a breakdown of the method.
--> The class discussions, homework, and exams address these skills.
-
appreciate the power of mathematical abstraction and
understand how mathematical theory is developed.
Classical example of mathematical abstraction in this class are
the existence and uniqueness theorem for systems of linear equations and
the axiomatic definition of a vector space which is done in
abstract generality after observing that the axioms hold true concretely
for vectors in the special case of Rn.
--> These integration goals will be supported by the lectures.
-
have experience working actively with peers in a group,
both on the scale of the class and in a smaller team.
Group work requiring communication for effective collaboration
with peers and supervisors is a vital professional skill,
and the development of professional skills including this networking
is a declared learning goal of this course.
Additionally, getting to know other students as part of learning groups
will prove invaluable for homework and exams.
--> Group discussions and quizzes will contribute to this goal.
-
have gained experience with a wide variety of teaching and learning techniques,
with the goal of encouraging life-long learning.
Examples of teaching techniques include:
the use of recorded lectures (that are to be studied before class meetings),
the pedagogical technique of a flipped classroom (where we work actively),
the user of team-based learning (where you work with peers), and more.
Examples of learning techniques include:
learning by reading (e.g., assigned reading before class meetings),
learning by hearing
(e.g., voice-over in recorded lectures or verbal discussions in class meetings),
learning by writing (e.g., answering interpretative questions
that require long-hand English answers),
learning by talking (e.g., verbal presentations to class), and more.
The reflection on your use of study techniques
is a declared learning goal of this course,
since it is vital to recognize one's own strengths and weaknesses
for best success in live-long learning.
-->All aspects of the course will serve as examples.
Philosophical Underpinning
To provide some context of the more formal learning goals above,
I am sharing some deeper thoughts how we fit into the grander scheme of things.
The rationale of a state university is to provide a well-educated
workforce to the companies in the State of Maryland as well as
to the state and local governments themselves.
On a fundamental level therefore,
you need to able to learn new material
as well as have demonstrated evidence of this ability.
These are the fundamental purposes of university courses.
This requires us to engage in the learning itself and its demonstration;
I am trying to say that
it is not the solution to a problem that we are after,
and in broader thinking it is not even the solution process,
but it is your active struggle to learn that we must encourage.
This leads me to the following philosophical grade rubric:
To earn a passing grade,
you need to solve the problem correctly.
To earn a good grade,
you need to solve the problem correctly
and present the solution process completely and professionally.
To earn a very good grade, you need to do these and
additionally prove that your solution is correct.
This rubric comes from the fact that neither you as customer
would be willing to accept a faulty solution or unprofessional
or incomplete presentation,
nor would the companies in the State be served by faulty solutions.
These are some of the guiding principles behind my teaching.
Other Information
UMBC Statement of Values for Academic Integrity
Academic integrity is an important value at UMBC.
By enrolling in this course, each student assumes the responsibilities of
an active participant in UMBC's scholarly community in which everyone's
academic work and behavior are held to the highest standards of honesty.
Cheating, fabrication, plagiarism, and helping others to commit these acts
are all forms of academic dishonesty, and they are wrong.
Academic misconduct could result in disciplinary action that may include,
but is not limited to, suspension or dismissal.
Consult the the UMBC webpage on Academic Integrity at
academicconduct.umbc.edu
for the
UMBC Undergraduate Student Academic Conduct Policy
for undergraduate students
and the
UMBC Graduate School's Policy and Procedures for Student Academic Misconduct
for graduate students.
Copyright © 1999-2025 by Matthias K. Gobbert. All Rights Reserved.
This page version 0.2, November 2024.