Photo by Linda Peterson |
In engineering education for the last 50 years, until very recently, we have focused on “engineering science,” fundamental scientific and mathematical tools that can be applied to the analysis of engineered systems. More recently there has been increased focus on design and open-ended problem solving. It’s not enough.
To prepare our students for a lifetime of contribution to solving the uncertain problems of the world, our graduates need to possess:
- Sophisticated learning skills, because what students learn in college will be woefully inadequate to their subsequent 50 years of active contribution to society.
- Communication skills, to allow them as engineers to communicate with each other, with clients, and with the broader society they serve.
- Global and cultural understanding to analyze the human needs and human contexts, and ethical implications, of engineered solutions.
- Creativity and an entrepreneurial mindset to identify opportunities, create ideas, design solutions, and persist through setbacks.
- Leadership and project management skills, including ethical tools, to support working in and leading diverse teams for the benefit of diverse clients.
- Sustainability principles to evaluate the environmental consequences of engineering choices.
- Fundamental knowledge of a discipline, to give focus to their education and early career work, and a foundation on which to build later disciplinary knowledge.
Traditional engineering education focuses mostly on the last, and most specific of these competencies. But the broader competencies of the first six are the more generalizable ones, that will support a graduate over many decades of productive life. These broad skills can be inculcated in a college education, but to master many of these skills requires not lectures, but instead reflection on experiences.
Provost Hanlon believes that we need to provide more active learning experiences for our students. Experiences like study abroad, service learning, student project work: these activities provide the environment in which teachable moments can arise that allow discovery of the generalizable principles of learning, or effective communication, or of cultural understanding. The challenge for us as teachers will be to ensure that these teachable moments actually lead to learning.
Acknowledgement: the ideas in this post are built from contributions from many colleagues, most notably Stacie Edington and Phil Hanlon.
We see this paradigm shift daily in the world of commercial product development. The mathematical and theoretical skills we learned in college become less an less useful when it comes to finally solving a practical problem or tracing sources of error in an analysis. Intuitive understanding of the underlying physics or a good sense of overall global system
ReplyDeleteunderstanding tends to be significantly more useful at least in the industrial world. Being able to market the solution we provide as engineers is becoming more and more
important. -- I'm glad to see academia making a shift to follow the