Original Message:
Sent: 01-09-2025 03:51 PM
From: Dilip Barua
Subject: Integration of Disciplines in Engineering Education
Thanks again Joerg-Martin for reacting to the two terms I used: 'foundational' and 'retrofitting'. The former is also used by others as 'foundation' and 'foundations' (I am still trying to figure out where I have seen it, and will let know later). And as I see it, this term conveys a deeper meaning than 'basic'.
As for the latter, I have used it in the context of 'Gap in Engineering'. But, I agree, perhaps 'upskilling' is a better word – its relevance becomes clear once the 'foundational' base is firmly in place.
There is an interesting article by Atsushi Akera: Setting the Standards for Engineering Education: A History, Proceedings of the IEEE | Vol. 105, No. 9, September 2017. Labeled as SCANNING OUR PAST, it can be downloaded from this NSF Website.
In this paper, the author thoroughly chronicled the developments of Standards for Engineering Education – starting from the 1862 Morrill Act to the time of his paper.
The paper highlights something very interesting, and I have highlighted the first para from this paper:
Who controls engineering education? And how has this control evolved over time? While some folks may presume that ABET has undisputed control over engineering degree programs in the United States, those familiar with ABET Engineering Criterion 2000's origins know otherwise [1]. Moreover, history
shows that the development of new standards in engineering education has always been a shared responsibility, with this responsibility being distributed in ways that reflect the broader fragmentation of the engineering profession. Still, the flurry of concern generated by ABET's proposed new accreditation standard suggests that issues of control, or governance, will remain a common feature
within U.S. engineering education [2], [3]. As we converge around ABET's latest standard, we should use the broader lessons of history to understand how our recent conversations fit within a broader historical pattern, and use this to guide our future actions. . .
[1] J. W. Prados, G. D. Peterson, and L. R. Lattuca, "Quality assurance of
engineering education through accreditation," J. Eng. Edu., vol. 94, no. 1, pp. 165–184, Jan. 2005.
[2] C. Flaherty, Watered-Down Gen Ed for Engineers?. Inside Higher Ed, Jun. 2015.
[Online]. Available: https://www.insidehighered.com
[3] R. Pool, Forum on Proposed Revisions to ABET Engineering Accreditation Commission General
Criteria. Washington, DC, USA: National Academies Press, 2016.
ABET – Accreditation Board for Engineering and Technology.
Dilip
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Dr. Dilip K Barua, Ph.D
Website Links and Profile
Original Message:
Sent: 01-08-2025 12:40 PM
From: Joerg-Martin Hohberg
Subject: Integration of Disciplines in Engineering Education
Dear Dilip, your distinction between "foundational" and "retrofitting" level is a little unfamiliar to my. In European usage the terminology would be rather basic education and reskilling/upskilling in life-long learning (LLL). Because undergraduate engineering courses are usually full of mathematics and mechanics, without getting to know what engineering is about, a very useful approach is teaching engineering history with all pitfalls -- in order to become equally proud, humble and aware of engineering responsibility. Also examples of forensic engineering, including both technical and non-technical origines of failures, are very helpful.
At ETH Zurich I had the priviledge to attend lunch-hour lectures on science history given by Paul Feyerabend. I strongly recommed to have a look at his work: Paul Feyerabend - Wikipedia
Wikipedia | remove preview |
| Paul Feyerabend - Wikipedia | Paul Karl Feyerabend (German: [ˈfaɪɐˌʔaːbm̩t]; January 13, 1924 - February 11, 1994) was an Austrian philosopher best known for his work in the philosophy of science. He started his academic career as lecturer in the philosophy of science at the University of Bristol (1955-1958); afterwards, he moved to the University of California, Berkeley, where he taught for three decades (1958-1989). | View this on Wikipedia > |
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In professional practise, reflection can be trained as an active member in professional societies and by post mortem project reviews as stipulated by the PMI SIG Troubled projects, focussing on stakeholder management, risk management, and validation of project goals. Of course, working in direct customer contact, or as site supervisor, is a great chance to become exposed to richer feedback. I trained my own softskills in quality managment auditing and a course on solution-oriented coaching. I found that attending lectures in work psychology and sociology is also very enlighteni
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Joerg-Martin Hohberg D.I.C., MSc, Ph.D., Aff.M.ASCE
Senior Consultant
Bremgarten / Berne, Switzerland
Original Message:
Sent: 01-07-2025 01:22 AM
From: Dilip Barua
Subject: Integration of Disciplines in Engineering Education
Thanks Joerg-Martin for giving life to this thread again. You have brought in, let's say, EURO-perspectives on this important issue. And it's very valuable.
I like the term "dilute" you have used – diluting the core engineering courses with rather unconventional humanities/liberal arts materials. I gather from your statement – a minimum of non-technical lectures for acquiring so-called transferable skills – that EU institutions, following the suggestions of competence models, have already recognized its importance.
Perhaps – it is convenient to discuss it further under the captions of 'foundational level' and 'retrofitting level'.
The former refers to imparting non-technical transferable skills to students during the college years. There have been suggestions that educating as such may be done in the banner of 'facultative courses'.
The question is how much dilution of technical courses (by non-technical courses) is desirable? Obviously, not too much – because it can neither be justified, nor employers and students would support any overwhelming pressure on them by non-technical courses. Engineering is a serious business of balancing things – therefore, a balanced approach that strengthens one's technical prowess with transferable skills is desirable.
The retrofitting level learning – on the other hand, is supposed to happen during the professional life of an engineer. We all do it as we gather experience – as our responsibility widens – as we mature, we all learn non-technical skills. It is part of professionalism. And there are no shortage of materials to tap on – in this era of Internet age. But, perhaps we come across some 'ifs' at a certain time. If I knew this before – if I would have been exposed to some basic courses on this, etc. etc. And there comes the rationality of imparting some foundational level non-technical courses in college years – to close or narrow – as reasonably close as practicable – the educational gap and the gap in providing sound engineering services.
* * *
To further reinforce the discussion, I like to share (it has also been shared before in Collaborate) a paragraph from Civil Engineering on our Seashore. It is about engineering 'habits of mind'.
In NAP #12635 Publication the following texts elucidate the understanding of engineering practices in a very detailed and useful manner (I have rearranged the lines somewhat for clarity).
Engineering "habits of mind" (refer to the values, attitudes, and thinking skills associated with engineering; AAAS 1990) align with what many believe are essential skills for citizens in the 21st century. These include:
(1) Systems Thinking: systems thinking equips students to recognize essential interconnections in the technological world and to appreciate that systems may have unexpected effects that cannot be predicted from the behavior of individual subsystems;
(2) Creativity: creativity is inherent in the engineering design process;
(3) Optimism: optimism reflects a world view in which possibilities and opportunities can be found in every challenge and an understanding that every technology can be improved. Engineering is a "team sport";
(4) Collaboration: collaboration leverages the perspectives, knowledge, and capabilities of team members to address a design challenge;
(5) Communication: communication is essential to effective collaboration, to understanding the particular wants and needs of a "customer," and to explaining and justifying the final design solution; and
(6) Attention to Ethical Considerations: ethical considerations draw attention to the impacts of engineering on people and the environment; ethical considerations include possible unintended consequences.
Indeed, it has to be the habits of mind – sort of the second nature of a professional. Does it not?
Dilip
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Dr. Dilip K Barua, Ph.D
Website Links and Profile
Original Message:
Sent: 01-06-2025 06:46 AM
From: Joerg-Martin Hohberg
Subject: Integration of Disciplines in Engineering Education
Dear Dilip Barua, I agree that general education and soft skills ("being indeed the hard ones") would be desirable in engineering education. This is why many competence models -- e.g. Engineers Europe and the Intern. Engg. Alliance -- demand a minimum of non-technical lectures for acquiring so-called transferable skills (incl spoken languages, programming, ethics, etc.).
However, there is an unfortunate tendency to "dilute" engineering syllabus with the aim to produce "ready-made" employees with knowledge project management, risk management, cost management & controlling, etc. These are subjects for CPD, witch you should be able to learn either on the job, during advanced studies (CAS or micro-credential courses); but you will hardly be able to learn the analysis of structures after your university graduation. This is why we at Engineers Europe adhere to the classical engineering competences of knowledge, analytical and design skills, investigation and innovation -- no matter how user-friendly computer tools and other digital means are available.
That is not to say that the ideal, broadly educated and socially competent engineer is unrealistic to achieve, but it is a matter of lunch-hour lectures, self-study and life-long learning rather than modifying engineering curricula. If you take the challenge of including sustainability issues, for instance, this is matter of integration sustainability and life-cyle thinking into all engineering subjects, rather than introducing sustainability course on the expense of less mechanics or basic natural science lectures.
Of course,
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Joerg-Martin Hohberg D.I.C., MSc, Ph.D., Aff.M.ASCE
Senior Consultant
Bremgarten B. Bern
Original Message:
Sent: 05-15-2018 02:36 PM
From: Dilip Barua
Subject: Integration of Disciplines in Engineering Education
There was a topic 'Gap in Engineering Education . . .' we discussed in the Horizontal/Subsurface Infrastructure & Transportation forum. Among others, many professional engineers have felt that engineering education offered by many institutions lacks exposure to certain liberal arts courses – making them ill-equipped to the practicing world.
Glad to see a 2018 NAP publication (https://doi.org/10.17226/24988)
'The Integration of the Humanities and Arts with Sciences, Engineering, and Medicine in Higher Education: Branches from the Same Tree.' In several articles, experts/authors discussed the needs for an integrated education: '. . . This view holds that a broad and interwoven education is essential to the preparation of citizens for life, work, and civic participation. An educated and open mind empowers the individual to separate truth from falsehood, superstition and bias from fact, and logic from illogic.'
This publication is a great addition to the new thinking – and I invite all to take the opportunity of looking at it and react.
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Dr. Dilip Barua, Ph.D, P.Eng, M. ASCE
Vancouver, BC, Canada
Website: https://widecanvas.weebly.com
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