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European Congress of Chemical Engineering - 6
Copenhagen 16-21 September 2007

Abstract 4164 - Frontiers in Chemical Engineering Education

Frontiers in Chemical Engineering Education

Special Symposium - Education

The Future of European Chemical Engineering Education in a Globalized World

Prof Robert C Armstrong
Massachusetts Institute of Technology
Department of Chemical Engineering
Cambridge, MA 02139
United States of America

Keywords: chemical engineering, undergraduate education, curriculum

A dramatic shift in chemical engineering undergraduate education is envisioned, based on discipline-wide workshop discussions that have taken place over the last several years in the US. Faculty from more than 53 universities and industry representatives from 15 companies participated. Through this process broad consensus has been developed regarding basic principles for chemical engineering undergraduate education in the future; these principles address fundamental knowledge, skills and attributes, and methods of engagement with the students. From these principles a new set of organizing principles emerged for the discipline: molecular transformations, broadly interpreted to include chemical and biological systems and physical as well as chemical structural changes; multiscale analysis, from sub-molecular through super-macroscopic scales for physical, chemical, and biological systems; and a systems approach, addressed to all scales and supplying tools to deal with dynamics, complexity, uncertainty, and external factors. The curriculum integrates all organizing principles and basic supportive sciences throughout the educational sequence and moves from simple to complex. The curriculum is consistently infused with relevant and demonstrative laboratory experiences, and opportunities for teaming experiences and use of communication skills (written and oral) are included throughout. The curriculum is also designed so as to address different learning styles and to include a first-year chemical engineering experience. Finally an important theme is the widespread use of relevant and demonstrative examples, which provide open-ended problems and case studies and supply frequent integrative opportunities for students.

This radically different curriculum would produce more versatile chemical engineers, which are needed to meet the challenges and opportunities of creating products and processes, manipulating complex systems, and managing technical operations in industries increasingly reliant on molecular understanding and manipulation. Another benefit of the new curriculum is that it reconnects undergraduate education with ongoing research in chemical engineering in a way that has not been present for the past 40 years. This reconnection will serve us well as an engineering discipline in attracting the best and brightest students and in reopening the path to continual renewal of the curriculum.

Presented Tuesday 18, 10:10 to 10:35, in session The Future of European Chemical Engineering Education in a Globalized World - I.

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