MAU11100 Linear algebra
Module Code | MAU11100 |
---|---|
Module Title | Linear algebra |
Semester taught | Semesters 1,2 (yearlong) |
ECTS Credits | 10 |
Module Lecturer | Prof. Miriam Logan |
Module Prerequisites | N/A |
Assessment Details
- This module is examined in a 3-hour examination at the end of Semester 2.
- Continuous assessment contributes 20% towards the final grade for this module.
- Re-assessment, if needed, consists of 100% exam.
Contact Hours
11+11 weeks of teaching with 3 lectures and 1 tutorial per week.
Learning Outcomes
On successful completion of this module, students will be able to
- Apply various standard methods to solve systems of linear equations.
- Compute the sign of a given permutation and apply known results to compute the determinant of a given square matrix.
- Demonstrate that a given set of vectors forms a basis for a vector space, compute the coordinates of a given vector relative to this basis, and find the matrix of a linear operator with respect to this basis.
- Give examples of sets where some of the defining properties of vectors, matrices, vector spaces, subspaces and linear operators fail.
- Find an explicit basis for the null space of a given matrix.
- Solve linear recursive relations involving two or more terms.
- Apply standard techniques to obtain the Jordan form and a Jordan basis for a given complex square matrix.
- Compute the matrix of a bilinear form with respect to a given basis.
- Apply various standard method to determine the signature of a given symmetric bilinear form.
- Combine various results established in the module to either prove or disprove statements involving concepts introduced in the module.
Module Content
- Lines, planes and vectors, dot and cross product.
- Linear systems, Gauss-Jordan elimination, reduced row echelon form.
- Matrix multiplication, elementary row operations, inverse matrix.
- Odd and even permutations, determinants, transpose matrix.
- Minors, cofactors, adjoint matrix, inverse matrix, Cramer's rule.
- Vector spaces, linear independence and span, basis and dimension.
- Linear operators, matrix of a linear operator with respect to a basis.
- Diagonalisation: recursive relations, diagonalisable matrix, eigenvalues, eigenvectors, characteristic polynomial, null space, nullity.
- Jordan forms: generalised eigenvectors, column space, rank, direct sum, invariant subspace, Jordan chain, Jordan block, Jordan form, Jordan basis, similar matrices, minimal polynomial.
- Bilinear forms: matrix of a bilinear form, positive definite, symmetric, inner product, orthogonal and orthonormal basis, orthogonal matrix, quadratic form, signature, Sylvester's criterion.
Recommended Reading
- Algebra by Michael Artin.
- Basic linear algebra by Blyth and Robertson.
- Elementary linear algebra with applications by Anton and Rorres.