
Master matrix multiplication by verifying the dimension rule, computing products via row by column dot products, and recognizing non-commutativity, with coverage of addition and scalar factors.
Explore the transpose of a matrix, showing how rows become columns, and introduce symmetric and skew-symmetric matrices. Decompose a matrix into symmetric and skew-symmetric parts, with conjugates and Hermitian cases.
Procedure to find determinant has been explained
Basic properties are discussed here. Few more properties are discussed in further videos as course progresses as per requirements in those concepts.
Covers how scaling a row or column by a constant scales the determinant, the effect of proportional or identical rows or columns, cofactor expansion, and triangular matrices.
the lecture introduces the multiplicative inverse of a matrix, detailing cofactors, transposed cofactors (adjoint), and inverse as adjoint divided by determinant, with examples and a singularity check.
Solves non-homogeneous systems of linear equations using row operations and Gauss elimination on augmented matrices to decide consistency and whether solutions are unique, infinite, or none.
Explore eigenvalues and eigenvectors of matrices, derive the characteristic equation, compute eigenvalues via determinant, and obtain corresponding eigenvectors with applications in stability analysis.
Learn to decompose a matrix into a lower triangular L and an upper triangular U using Gaussian elimination, constructing L and U from A and verifying LU = A.
Explore determinants and their invariance under row and column operations, and delve into eigenvalues and the characteristic equation for 3x3 matrices with practical problem solving.
The course covers concepts of Linear Algebra essential for a student of engineering background.
One with a great knowledge on Linear Algebra, going forward can easily understand concepts of vectors which is extensively used in various fields in the form of data sets which include likes of -
1. macro and micro mechanics of objects such as calculating projectile motions,
2. statistical inferences by medical researchers etc.
4. Heat Transfer, Thermodynamics concepts to understand various advanced concepts.
4. Even in computer programming and research, linear algebra plays a part in the forms such as 1-D arrays. 2-D arrays
5. Signal Analysis, design computer graphics using curves such as Bezier curves etc.
6. Advances use of eigne vectors is used for component analysis such as facial recognition
In this course we cover following:
The basics of matrices such as Determinant and its properties, Inverse of matrix etc are explained in section 1.
Once student is familiarized with basics, Concept - System of Equations is explained. Then comes Eigen values and vectors and finally followed by LU decomposition and related explanations.
14 problems of different model each are covered for benefit of students involving almost all the concepts of matrices covered in the course.
To make course a bit interactive, 2 quizzes are also included to test yourself.