This is the third and final course in the Linear Algebra Specialization that focuses on the theory and computations that arise from working with orthogonal vectors. This includes the study of orthogonal transformation, orthogonal bases, and orthogonal transformations. The course culminates in the theory of symmetric matrices, linking the algebraic properties with their corresponding geometric equivalences. These matrices arise more often in applications than any other class of matrices.
The theory, skills and techniques learned in this course have applications to AI and machine learning. In these popular fields, often the driving engine behind the systems that are interpreting, training, and using external data is exactly the matrix analysis arising from the content in this course.
Successful completion of this specialization will prepare students to take advanced courses in data science, AI, and mathematics.
Syllabus 4
Orthogonality 2.5 hours
In this module, we define a new operation on vectors called the dot product. This operation is a function that returns a scalar related to the angle between the vectors, distance between vectors, and length of vectors. After working through the theory and examples, we hone in on both unit (length o…
Orthogonal Projections and Least Squares Problems 3.5 hours
In this module we will study the special type of transformation called the orthogonal projection. We have already seen the formula for the orthogonal projection onto a line so now we generalize the formula to the case of projection onto any subspace W. The formula will require basis vectors that ar…
Symmetric Matrices and Quadratic Forms 2.5 hours
In this module we look to diagonalize symmetric matrices. The symmetry displayed in the matrix A turns out to force a beautiful relationship between the eigenspaces. The corresponding eigenspaces turn out to be mutually orthogonal. After normalizing, these orthogonal eigenvectors give a very specia…
Final Assessment 30 minutes
Advantages and disadvantages
Advantages
Structured courses with graded quizzes, assignments and deadlines you can reset.
A shareable certificate from the university or company when you pay.
Financial aid is often approved for students in India (apply 15 days before you need it).
Taught by Johns Hopkins University, one of the strongest names in its field.
Rated 4.8 out of 5 by 55 learners.
Self-paced: start any time.
A clear syllabus (4 parts) you can see before you start.
Disadvantages
Paid after a 7-day free trial (Coursera Plus or per course).
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Taught by
Joseph W. Cutrone, PhDAssociate Teaching Professor and Director of Online Programs, Mathematics
Instructor(s): Tom Leighton, Marten van Dijk This course covers elementary discrete mathematics. Mathematical definitions and proofs are emphasized. Topics include formal logic, induction, graph theory, asymptotic notation and growth of functions, counting principles, and discrete probability.
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