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A continuation of 200-level linear algebra with computational and theoretical aspects and applications.
This course looks at how matrix algebra can be applied to solve a variety of problems in commerce, data science, engineering, operations research, and elsewhere. The course has three main sections: orthogonal decomposition, positive definiteness, and linear programming. Applications are explored in some depth.
Students who completely master the course material will:Be knowledgeable ofThe Frobenius and other matrix norms. Orthogonal (including Householder and Givens) and unitary matrices. The QR factorization. Projection and orthogonal projection matrices;The singular value decomposition, low rank approximations, total least squares, and the Moore-Penrose pseudo-inverse;Linear programming and applications, revised simplex, artificial variables, shadow prices, duality, degeneracy, Bland’s anti-cycling rules, the integer solution property of integer transportation problems, integer and logical variables;Positive definiteness, congruence, the modified Cholesky factorization. Quadratic forms, equality constrained quadratic programming.Be able to use techniques from the course (including MATLAB where appropriate) toCalculate the QR factorization of a matrix via Givens and via Householder matrices;Find least squares / shortest solutions via the QR factorization and the SVD;Find orthogonal bases for the range and null spaces of a matrix;Find the total least squares fit to a set of data points via the SVD;Form linear programming models of data fitting (one and infinity norm), blending, transportation, rostering, resource allocation, stock cutting, and similar problems. Put a linear program into standard form, obtain an initial basic feasible solution via artificial variables, and then solve the original linear program via revised simplex;Solve an integer linear or mixed integer linear program via branch and bound;Identify a positive definite matrix by calculating its’ modified Cholesky factorization;Categorize stationary points of multivariable functions via the Hessian;Find the minimizer of a real valued complex quadratic;Solve equality constrained quadratic programs.
This course will provide students with an opportunity to develop the Graduate Attributes specified below:
Critically competent in a core academic discipline of their award
Students know and can critically evaluate and, where applicable, apply this knowledge to topics/issues within their majoring subject.
MATH203 or EMTH211.
MATH352, EMTH412
Christopher Price
Recommended Reading:•Noble and Daniel, "Applied Linear Algebra". Third edition.•Strang, "Linear Algebra and its Applications".•Fletcher, "Practical Methods of Optimization".
General information for students Library portal LEARN
Domestic fee $749.00
International fee $3,788.00
* All fees are inclusive of NZ GST or any equivalent overseas tax, and do not include any programme level discount or additional course-related expenses.
For further information see Mathematics and Statistics .