Engineering graduates for industry - Royal Academy of Engineering
Engineering graduates for industry - Royal Academy of Engineering
Engineering graduates for industry - Royal Academy of Engineering
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Understanding the needs <strong>of</strong> <strong>industry</strong><br />
An important additional stage in the development <strong>of</strong> a restructured and re-focused engineering programme has been<br />
the rejuvenation <strong>of</strong> the Industrial Liaison Committee which had previously been under-utilised. After the Industrial<br />
Liaison Committee has met, follow-up discussions are arranged with the industrial members <strong>of</strong> the committee to<br />
maintain an active dialogue between the participants and the Department.<br />
Effective practice exemplar 8: Active learning and CDIO at Liverpool<br />
To enhance the student experience, ‘active<br />
learning experiences’ have been incorporated<br />
throughout all the undergraduate programmes.<br />
Active learning occurs whenever a student<br />
actively participates and engages in a learning<br />
opportunity, as opposed to passively receiving<br />
in<strong>for</strong>mation. It is felt that this type <strong>of</strong> learning<br />
will allow students to appreciate the qualities <strong>of</strong><br />
a contemporary pr<strong>of</strong>essional engineer and,<br />
ultimately, provide the calibre <strong>of</strong> graduate in<br />
demand by <strong>industry</strong> both nationally and<br />
internationally.<br />
To achieve this aim <strong>of</strong> incorporating active<br />
learning experiences into the courses, factfinding<br />
missions were carried out to observe<br />
and appreciate effective practice from other<br />
countries. In particular, there has been an alignment with the CDIO philosophy. The CDIO standards and syllabus<br />
provide a context in which engineering education is delivered. It does not prescribe syllabus content or teaching<br />
approach, rather it recommends elements <strong>of</strong> engineering programmes, such as a minimum <strong>of</strong> two design-build-test<br />
exercises <strong>for</strong> every student.<br />
The Department believes that staff development is an essential component <strong>of</strong> the adoption <strong>of</strong> a CDIO approach. Staff<br />
attend regular away days with learning and teaching themes, many <strong>of</strong> which have contributors from outside the<br />
Department, and more than a dozen staff have contributed to, and attended, international CDIO conferences and<br />
meetings.<br />
First year active learning experiences<br />
The initial course on entry to the first year is effectively ‘what is engineering?’ and every afternoon <strong>of</strong> the first week is the<br />
‘icebreaker’ project. The cohort is split into assigned tutor groups <strong>of</strong> five or six students who can start to get to know their<br />
tutees. The cohort is around 280 students, so there are about 50 teams. The groups compete against each other to produce<br />
the strongest small cardboard bridge structure from a specific design, whilst simultaneously learning much about the<br />
Department itself. The icebreaker project is not assessed but it does seem to increase the confidence <strong>of</strong> the students.<br />
Spanning the weeks prior to and immediately following the Christmas break are the ‘two week creation’ full-time, total<br />
immersion group projects. These are aligned to disciplines and are designed to assess how much the students have<br />
learned over the first three months <strong>of</strong> their course. The students are given a design brief and provided with equipment<br />
and materials. Aerospace students have to develop and test a remote-controlled model aircraft; Civil <strong>Engineering</strong> teams<br />
have to design, build and test a model truss bridge; and Mechanical <strong>Engineering</strong> students carry out two one-week<br />
projects, firstly to produce a water-powered rocket and secondly to design and make a wind turbine-powered model car.<br />
Second year active learning experiences<br />
The year two Civil <strong>Engineering</strong> students spend seven days on a ‘Constructionarium’ project. One day is spent on campus<br />
and six days at the National Construction College completing a large scale building project. The Constructionarium<br />
project is run in conjunction with external pr<strong>of</strong>essional contracting and consultant engineering firms who provide<br />
significant resource input. The students obtain first-hand experience in a number <strong>of</strong> areas, most notably project<br />
management, time management, teamwork, communication skills and construction methods. They also gain an<br />
appreciation <strong>of</strong> site safety, good practice and personal risk. Students pay £250 each towards accommodation costs.<br />
28 The <strong>Royal</strong> <strong>Academy</strong> <strong>of</strong> <strong>Engineering</strong>