MTH4103 Geometry I 2009/10

Lecturer: Prof. L.H. Soicher
Office: Room B52 in the Mathematics Building
Semester B Office Hours: Monday 10:30-11:30, Tuesday 14:30-15:30
Module text: A.E. Hirst, Vectors in 2 or 3 Dimensions, Elsevier, 1995.

Actual lecture notes so far
Coursework and solutions

Week-12 Test information update

Revision and final exam information

Key Objectives

The following is a list of basic material you should study and understand first, before studying the more advanced material. If you master these Key Objectives then you should be reasonably sure of at least passing the final examination. A good proportion of these Key Objectives will be covered on the final examination, as well as more advanced material. If you wish to obtain a B or an A grade, you should be familiar with all the material in the Geometry I online lecture notes.

  1. Vectors in 3 dimensions: know the definitions of sum, scalar multiple, position vector, scalar product, vector product, and triple scalar product, and be able to do calculations using coordinates to be able to apply all this to find distances, areas, volumes, and equations of lines and planes given information about them.
  2. Systems of linear equations in 2 and in 3 variables: know how to perform Gaussian elimination to echelon form, and back substitution, in order to be able to find all solutions of a system of linear equations in 2 or in 3 variables.
  3. Matrices, especially 2x2 and 3x3: know the definitions and methods to be able to find: sums, scalar multiples, products, determinants, whether invertible, eigenvalues and eigenvectors.
  4. Linear transformations: know the definition of a linear transformation, know how to obtain a matrix representing a linear transformation, know the matrices representing rotations and reflections in the (x,y)-plane.

About coursework

Notes

Useful material

Previous in-term tests

Previous examinations

Examination Rubric

These are the instructions that will appear on the final examination. I expect they will be the same as on the front page of the 2008/09 final examination.

Assessment Profile

Performance on this module will be assessed as follows:

Last modified: 22 January 2010
L.H. Soicher, School of Mathematical Sciences, Queen Mary, University of London