The Linear Algebra: Matrix Algebra, Determinants, & Eigenvectors course is the second offering in the Linear Algebra Specialization provided by Johns Hopkins University. With a focus on advanced techniques and theory, the course aims to equip learners with the expertise to study matrices as special linear transformations on vectors. By delving into topics such as matrix algebra, determinants, and eigenvectors, the course provides essential tools for better analysis and solution of systems of linear equations. Furthermore, the course explores the properties of invertible matrices and relevant subspaces in R^n, imparting practical knowledge applicable to various mathematical and applied fields.
One of the course highlights is the in-depth exploration of the matrix transformation's geometry through the study of eigenvalues and eigenvectors. The practical applications of these concepts are also emphasized, with insights into their relevance in mathematics, data science, machine learning, artificial intelligence, and dynamical systems. Additionally, the course culminates with an application of Markov Chains and the Google PageRank Algorithm, providing a real-world context for the concepts covered.
Throughout the course, learners will engage in hands-on practice to reinforce their understanding of the concepts, with dedicated modules for each topic, ensuring a comprehensive grasp of the material.
Certificate Available ✔
Get Started / More InfoThis course comprises six modules, covering matrix algebra, subspaces, determinants, eigenvectors, diagonalization, and a final assessment. Each module provides in-depth learning and practical application, ensuring a comprehensive understanding of the course material.
The Matrix Algebra module provides an in-depth exploration of matrix operations, inverse matrices, and the characterization of invertible matrices. Learners will engage in practical exercises to reinforce their understanding, preparing them for advanced applications of matrix algebra.
The Subspaces module delves into the properties of subspaces of R^n, introducing learners to the concept of dimension and rank. Through practical exercises, learners will gain a comprehensive understanding of subspaces and their relevance in linear algebra.
The Determinants module offers insights into the fundamental properties of determinants, including Cramer's Rule, volume, and their applications in linear transformations. Practical exercises will reinforce learners' understanding of determinants and their practical significance.
The Eigenvectors and Eigenvalues module explores the essential concepts of eigenvalues and eigenvectors, delving into the characteristic equation and their practical applications. Learners will engage in exercises to solidify their understanding of these crucial concepts.
The Diagonalization and Linear Transformations module provides in-depth knowledge of diagonalization, eigenvectors, and linear transformations. Practical exercises will enable learners to apply these concepts effectively, preparing them for real-world applications.
The Final Assessment module serves as a comprehensive evaluation of the knowledge and skills acquired throughout the course, ensuring learners have mastered the advanced concepts of matrix algebra, determinants, and eigenvectors.
Discover the power of machine learning on Google Cloud. Learn to build, train, and deploy models using Vertex AI, BigQuery ML, and TensorFlow with no coding required....
Lead the transformation to create and lead an ethical data-driven organization. Develop strategies to promote an ethical culture and implement ethical policies for...
Learn to apply image data augmentation in Keras through a practical, project-based course that covers a variety of options available in the ImageDataGenerator class....
Learn to predict future product prices using Facebook Prophet in this 1-hour guided project.