At the same time engineering as practiced by graduates is becoming increasingly less dependent on a knowledge of classical mathematics, as the tools used by professional engineers become embodied in computer packages.
The main reaction to to the perceived problems of mathematics in engineering has been a `remedial' one, i.e. either to provide additional training in mathematical skills, or, while retaining the core of the traditional mathematical approach to engineering education, to minimally simplify this mathematics.
We propose to explore the idea that since most graduates no longer use the classical mathematical skills, engineering teachers could substantially rethink the whole approach to their subject in order to eliminate the need for nearly all of classical mathematics, without damage to the quality of the `engineering' element of students' educational experience or to their final performance as professional engineers.
However, the modern practice of engineering requires a diminishing amount of skill in mathematical manipulation as sophisticated computational tools have become widely available.
Current teaching of engineering still requires significant skill in both mathematical manipulation and understanding.
Nearly all students find the mathematical content of engineering courses difficult. Students with nontraditional backgrounds find this mathematics particularly difficult or impossible.
Students' mathematical background thus limits access to engineering degree programs.
How can we adapt the teaching of engineering, including related mathematics, to provide `understanding' without extensive manipulations, so increasing the accessibility of engineering courses?
We plan to take a positive attitude to the changes which modern information technology enables us to make to our teaching, rather than taking a negative view that this has to be adapted to deal with students' diminished mathematical skills.
1b will be a review carried out by a part time research assistant in education with technical input from the engineering investigator and the supervision of the educational investigator.
1c and 1d will be covered by a combination of questionaires, which can be sent to all UK engineering departments, and by visits and interviews at a smaller number, e.g. 8-10, departments. Because of the interdisciplinary nature of fluid mechanics several different viewpoints can be covered in a single visit.