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Engineering: issues, challenges and opportunities for development ...

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ENGINEERING CAPACITY: EDUCATION, TRAINING AND MOBILITY7.3 Trans<strong>for</strong>mation of engineering education7.3.1Problem-based LearningAnette Kolmos, Mona Dahms <strong>and</strong>Xiangyun DuIs there a need <strong>for</strong> change?Is there a need <strong>for</strong> change of engineering education towardsmore student centred learning methods? Yes, would be themost common answer. However, if we start counting thenumber of institutions that have really changed to a new institutionalmodel, these will only present a very low percentageof the total number of engineering education institutions.<strong>Engineering</strong> education is a foundation <strong>for</strong> the <strong>development</strong> ofsociety. Without technological innovations, there will be noproduction of new goods, no economic growth <strong>and</strong> no hum<strong>and</strong>evelopment. Innovations are part of market mechanisms toestablish new markets. Markets, as drivers, call <strong>for</strong> rapid <strong>development</strong>of innovations <strong>and</strong> thus <strong>for</strong> technological <strong>and</strong> scientificknowledge.in volving <strong>issues</strong> such as environment <strong>and</strong> social responsibility.There is a need <strong>for</strong> change if engineering education is notaddressing these elements.New skillsThese new <strong>challenges</strong> are integrated into the American ABET(Accreditation Board <strong>for</strong> <strong>Engineering</strong> <strong>and</strong> Technology) criteria<strong>and</strong> the European EUR-ACE (European Accreditation Board<strong>for</strong> <strong>Engineering</strong> Education) criteria <strong>for</strong> accreditation of engineeringeducation. Both accreditation institutions have <strong>for</strong>mulatedrequirements <strong>for</strong> skills that go far beyond technicalknowledge. Some of the ABET criteria are:■■■An ability to function on multi-disciplinary teams.An ability to identify <strong>and</strong> solve applied science problems.An underst<strong>and</strong>ing of professional <strong>and</strong> ethical responsibility.This creates a lot of <strong>challenges</strong> <strong>for</strong> engineering education:■An ability to communicate effectively.■Knowledge might be outdated within a few years, whichcreate <strong>challenges</strong> <strong>for</strong> engineering education all over theworld. Knowledge about yesterday’s mobile phone mightbe outdated by tomorrow’s communication technology –<strong>and</strong> so there is a great deal more to teach both students<strong>and</strong> educators.■ We know from research that innovation is no longer basedon individual knowledge but on collaborative knowledge(Sawyer, 2007). 24 This is one of the conclusions arising fromanalysing innovation processes.■ Another conclusion from the literature on innovation is thatthe collaborative knowledge construction is getting more<strong>and</strong> more complex. Partly because globalization calls <strong>for</strong>new ways of sharing the work between east <strong>and</strong> west <strong>and</strong>between south <strong>and</strong> north <strong>and</strong> thus involves interculturalunderst<strong>and</strong>ing of international collaboration (Friedman,2005). 25 Partly because complexity involves interdisciplinaryknowledge constructions.■Furthermore there is a huge challenge in making thisfast technological <strong>development</strong> much more sustainable■ The broad education necessary to underst<strong>and</strong> the impact ofsolutions in a global <strong>and</strong> societal context.■■■A recognition of the need <strong>for</strong>, <strong>and</strong> an ability to engage inlife-long learning.A knowledge of contemporary <strong>issues</strong>.An ability to use the techniques, skills, <strong>and</strong> modern scientific<strong>and</strong> technical tools necessary <strong>for</strong> professional practice.EUR-ACE defines a variation of transferable skills that covermore or less the same aspects as the professional skills,although there is more emphasis on the intercultural part(Kolmos, 2006). 26 Embedded in these criteria might also be therequirement <strong>for</strong> complex knowledge constructions cross cultures<strong>and</strong> disciplines <strong>and</strong> involving sustainable <strong>issues</strong>. However,these are not <strong>for</strong>mulated in a transparent way. The awarenessof complex knowledge <strong>and</strong> what this involves in a globalizedworld is slowly merging. <strong>Engineering</strong> knowledge has alwaysbeen system-based knowledge where engineers are workingwith the phenomena of black boxes in their design. The newchallenge is not to work with the black boxes, but to do workwithin a collaborative intercultural <strong>and</strong> interdisciplinary team.24 Sawyer, K. 2007. Group Genius – The Creative Power of Collaboration, Basic Books, NewYork.25 Friedman, T. L. 2005. The World is Flat – A Brief History of the Globalized World in theTwenty-First Century, London: Allen Lane.26 Kolmos, Anette. 2006. Future <strong>Engineering</strong> Skills, Knowledge, <strong>and</strong> Identity. <strong>Engineering</strong>Science, Skills, <strong>and</strong> Bildung, Aalborg: Aalborg University Press, pp.165–185.337

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