Episode 29 — Intuition

intuitionWe discuss how engineers use and develop their intuitive senses.

  • “The intuitive mind is a sacred gift and the rational mind is a faithful servant. We have created a society that honors the servant and has forgotten the gift.”
 — Albert Einstein
  • We are looking for individuals willing to appear as guests on this podcast, sharing insights and stories from their engineering journeys. If you are so inclined, you can contact us by emailing a message to admin –at– theengineeringcommomons dot com.
  • The manner in which people perceive and interact with the world is often assessed using the Myers-Briggs Type Indicator (MBTI).
  • Citation: M. H. McCaulley, E. S. Godleski, C. F. Yokomoto, L. Harrisberger and E. D. Sloan, Applications of psychological type in engineering education, Engineering Education, 73, 5, (1983) pp.394–400.
  • According to McCaulley (1983, not 1990), the majority of engineering students are introverted (I, 56%) rather than extroverted (E, 44%), sensing (S, 53%) rather than intuitive (N, 47%), thinking (T, 74%) rather than feeling (F, 36%), and judging (J, 61%) rather than perceptive (P, 39%).
  • Showing his advanced age and terminal lack of hipness, Jeff makes a reference to former Tonight Show host Johnny Carson, who left TV in 1992 and passed away nearly a decade ago.
  • Citation: T. P. O’Brien, L. E. Bernold and D. Akroyd, Myers-Briggs Type Indicator and Academic Achievement in Engineering Education, Int. J. Engng Ed., Vol. 14, No. 5, pp. 311–315, 1998.
  • According to O’Brien et al. (1998), the only preference from the Myers-Briggs assessment that has a statistical influence on academic grades is that of being an intuitor (N) rather than a sensor (S).
  • A majority of engineering professors are intuitors (N), while most engineering students are sensors (S). See R. M. Felder and L. K. Silverman, Learning and Teaching Styles in Engineering Education, Engr. Education, 78(7), 674–681 (1988).
  • Percentage of intuitors by discipline: Physics (63%), Geological (62%), Aerospace (60%), Metallurgical (54%), Mining (40%), Mechanical (39%), Industrial (39%), and Civil (31%). See prior citation: O’Brien et al., 1998.
  • Jeff references an article titled, How many lightbulbs does it take to change an engineer? It suggests that, when introducing change into an engineering organization, one should give engineers time to assimilate the reasons (for the I), give them a model for change (for the N), provide concrete evidence (for the S), offer a reason for change (for the T), and present a clear process for change (for the J).
  • The group seems to agree that the best way to learn a subject is to teach it to someone else.
  • Carmen cites an article titled, Are Young Engineers Unprepared?
  • A discussion ensues concerning the need for computer models to match experimental data.

Thanks to Leo Grübler for the photo titled “bauchgefühl.” Podcast theme music provided by Paul Stevenson

Episode 28 — Sanity

tiltawhirlWe discuss how to stay sane while dealing with the day-to-day stresses of being an engineer.

Thanks to Will Morlow for the photo titled “Take me to Mars, please.” Podcast theme music provided by Paul Stevenson

Episode 27 — Skills

CalculusDogIn this episode, Adam, Carmen and Jeff talk about engineering skills, and where they are obtained.

  • Adam has used “soft” skills more than “hard” skills thus far in his engineering career.
  • On the other hand, Carmen makes heavy use, at least on occasion, of the “hard” skills he learned in his engineering education.
  • Adam notes that the ABET criteria for civil engineering requires a focus on the areas of management, business, policy, and leadership not required by other engineering fields.
  • Jeff highlights a presentation by Richard Miller, the president of Olin College, that discusses the challenge of balancing hard and soft skills in the engineering curriculum.
  • A thesis by Kristen Wolfe discuses the skills that mechanical engineers from MIT use five years after graduation, which tended to be more collaborative than technical.
  • Conflict with co-workers seems to be a common reason for dismissal, so hiring firms are spending more time checking the collaborative skills of potential employees.
  • In accessing soft skills at career fairs, Carmen finds that many engineering graduates have trouble presenting themselves in a professional manner.
  • Carmen got better at interviewing by going on multiple interviews; a case of practice makes perfect? He aspires to be like Jim Williams and Bob Pease.
  • Adam and Carmen offer suggestions for improving one’s social skills, mainly by getting into situations where you have to deal with others on a regular basis.
  • Schools should focus on the hard skills, Carmen claims, because engineering students can pick up the soft skills elsewhere.
  • Jeff asks whether an engineering education should be “just in case” or “just in time.”
  • Some research indicates that a minority of engineering graduates remain in science and engineering five years after graduation.
  • Adam was rewarded in his school work for recognizing when an answer was incorrect.
  • Carmen and Adam both felt like they benefited greatly from participating in co-op programs.
  • Where are engineering graduates supposed to learn “tools,” such as CAD systems, or simulation software? There’s no clear answer, but many employers expect their new hires to have experience with specific software packages.
  • We may be entering an age of hyperspecialization (PDF of article from Harvard Business Review.)
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Thanks to Dean Jackson for the photo titled “NooNoo studying calculus.” Podcast theme music provided by Paul Stevenson

Practical insights for the engineering crowd