New Century9, Re-engineering Engineering Education in Europe10, Rethinking EngineeringEducation: The CDIO Approach11, The 21st Century Engineer: A Proposal for EngineeringEducation Reform12, Educating Engineers: Designing for the Future of the Field13, and HolisticEngineering: Beyond Technology14. In the United Arab Emirates, the aim of on-going educationsector reform is “…to ensure that graduates have the skills and qualifications to drive economicgrowth.” 15, p. 96 As the K-12 education sector, industry and engineering practice continue to Page 21.32.3evolve, engineering education should, it can be argued, also be transforming. However
effectiveness of the program, the agenda for the upcoming 2013experience has been adjusted to focus less time in the formal classroom environment, and moretime in the field. However, rather than exclusively focusing the field time on construction, theconcepts presented at the beginning of the class (1) history and economics of development andunderdevelopment in Latin America, 2) social capital, 3) the ethical foundation of internationalassistance, and 4) the role of technology in development will be revisited through groupdiscussion and reflection activities.Works Cited[1] A. Strage, College Student Journal 38 (2004) 257-261.[2] R. G. Bringle, J. A. Hatcher, The Journal of Higher Education 67 (1996) 221-239.[3] K. A. Smith, S. D. Sheppard, D. W
Hydrometallurgy, Materials Processing, and Environmental Systems, Academic Press/Elsevier, an undergraduate-level textbook, in preparation – draft chapters used at Dept. of Chemical Eng., University of Toronto, Dept. of Materials Sci. and Eng., MIT (http://www.allbookstores.com/author/Kwadwo Osseo-Asare.html); K. Osseo-Asare, Chemical Principles in Aqueous Processing of Materials. Hydrometallurgy, Materials Processing, and Environmental Systems, a graduate-level textbook, in preparation - draft chapters used at UC Berke- ley. From 1998- 2010 he served as Editor-in-Chief, Hydrometallurgy, International Journal of Aqueous Processing. He has served as a member, Visiting Committee, Division of Materials Science and En
pursuing a PhD in Integrative STEM Education through Virginia Tech. She served on the Texas Education Agency (TEA) T-STEM Academy Blueprint design committee. She brings a depth and breadth of STEM education knowledge to the community. As an influential member of the T-STEM Net- work, she leads STEM professional development design teams, campus instructional coaching programs, and provides STEM technical assistance to district leadership. As a STEM specialist, Joules facilitates K-12 mathematics and science educators’ understanding of Design/Engineering/Technology as context for teaching of STEM concepts, including the content required by the Texas Essential Knowledge and Skills (TEKS) standards. Specifically, the design
concern is evident 7.Engineering programs have recognized that they must produce globally competent graduateswho, by working cross culturally, and beyond national boundaries can effectively identifyopportunities, understand market forces, and successfully commercialize new technologies. Thiscall has come from professional organizations including the National Academy of Engineering(NAE) and its widely quoted The Engineer of 2020, the American Society of EngineeringEducation and the American Society for Mechanical Engineers 8, 9. As a result, a small, butgrowing number of engineering programs now imbed international experiences in their curricula.There is a second concern: Can these graduates become world citizens? Engineers mustunderstand that in