Skip to main content

Why Good Engineering Education and Research Are Inseparable? Part II - Research and Technology

Has anyone heard of foreigners clamoring to emulate the U.S. K-12 school system?  I certainly haven't.  I do receive, however, foreign delegations that want to learn how we organize academic research and graduate programs at UT Austin.  This happens at least once a month.  People around the world correctly perceive that most Tier 1 academic institutions in the U.S. are second to none and worthy of emulation.

And how about premier U.S. corporations?  Do they come to UT Austin or to the local community colleges to hire their top engineers and scientists?  Do they set up research campuses and incubators around UT or the Austin Community College?  (Please do not get me wrong, ACC is a very fine and vastly underfunded institution, which treats the most difficult cases of acute high-schoolitis and online-learnatis.  My youngest daughter, a BS graduate in premed from UC Santa Cruz, is a nursing student at ACC, and I am pleased with the quality of her program.)

Thus, it astounds me that some of the UT Regents want to convert the Texas' flagship university to an equivalent of a community college or a K-12 institution, and use economic and efficiency arguments to justify their tragic confusion.  Other than destroying Texas' top-tier education, I cannot imagine a faster path for converting our Lone Star State into a third world country.  If this "cost-saving" demolition of UT Austin happened, the U.S companies that still look for high-level skills and training would move to MIT, Georgia Tech, Stanford, UC Berkeley, Eastern Europe, India, China and so on.  Their research projects would move there too.  And top UT scientists would soon join the exodus.  In fact, my use of conditional verbs is incorrect; research has been moving to foreign countries for several years now.
So why a world-class university has to have active researchers who work on basic research and develop technology, while also teaching?  The intimate relationship between teaching and science is the answer.

Research and technology are like these two tango dancers; they dance fluently together and support each other.

The main subject of this story is the interdependence of science and research on the one hand, and technology and teaching on the other. Science is the most difficult cognitive activity of humans, not counting poetry of course. Science progresses not through a slow orderly accumulation of results, like an accountant's ledger, but through the messy, disruptive and unexpected discoveries that demolish the status quo. I repeat, a new theory or technology usually collapses the old ones and there is little peaceful coexistence.  Think of the ancient stationary phone competing with the iPhone.

Even the first-rate scientific findings (think of Nobel prizes) are not immortal - the later replace the earlier. I cannot stress enough that major scientific findings are not only made, but also abandoned. Science is in a permanent state of flux, and scientists are eternal voyagers, always going somewhere, and never arriving at a safe port. In science, there is no "there." There are only endless trips into the unknown.
So how can a non-scientist handle all this complexity, fluidity and uncertainty of science, and teach them to the next generations? Because he/she is a "Sherpa"?
I hope that you are beginning to see the clear and present danger of charging the mere teachers with education of a highly skilled technical and scientific labor force.

But it gets worse, as the inventor of the quantum theory, Max Planck, once observed:
To be sure, with every advance in science the difficulty of the task is increased; ever larger demands are made on the achievements of researchers, and the need for a suitable division of labor becomes more pressing. (Vorträge und Erinnerungen (Lectures and Recollections), 5th Ed. Stuttgart, 1949.)
Max Planck also wrote this about his two very famous teachers: "Helmholtz was never quite prepared, spoke slowly, miscalculated endlessly, and bored his listeners, while Kirchhoff spoke in carefully prepared lectures which were dry and monotonous." Not all famous scientists are the most sensational teachers, but they do educate a few Max Plancks here and there. And the young Maxes then lay the foundations for nuclear weapons and nuclear power, cancer therapies, NMR, computers, networks, iPhones, digital cameras, HDTVs, solar cells, and so on.

What about the relationship between technology and science? It is quite simple: Without new types of data of ever higher resolution, acquired with devices of ever increasing power, modern science cannot function. Thus technology provides the data gathering capability for science. Science in return provides new theory and methods to design and construct the new sensors and machines. Therefore science and technology are intertwined in an eternal tango, only more so today than yesterday. In fact, at any given moment, progress of science can occur only within the barriers set by the available technology.
What if Galileo had a Mount Palomar telescope at his disposal?

In summary, the self-anointed reformers of academia with mere business degrees are possibly the last humans capable of dealing with the exponentially growing complexity of science. They also should not be telling everyone how to run higher education. MBAs simply do not have the cognitive capacity to imagine these difficult and delicate tasks.

Through the poisonous advice to industrial managers with MBA degrees and nothing else, McKinsey Co. did more damage to industrial research in the U.S. than everyone else combined. The U.S. research labs have never quite recovered from that damage and their research has been moving to Asia and Europe.

Americans are pretty bad at understanding historic processes. For us, if it does not happen in five minutes, it does not matter. Well, the industrial research train left for other countries about 30 years ago, and it is slowly gathering speed. Excellent academic research in the U.S. is most of what is left. So let's not try too hard to destroy academia using the very same managerial approach that proved so efficient at blowing up industrial research.

Can we improve academia? Of course. I think that the U.S. scientists and teachers should work much harder on streamlining their endeavors, dividing labor, and making sure that the next generation of scientists and researchers is actually taught science, not merely accredited in huge classes with first-rate teachers, who are no scientists. We also need to teach much more math and physics to our undergraduates, so that they do not quit on us as graduate students.

Comments

  1. "Science is the most difficult cognitive activity of humans." Why piss off the poets? Philosophers? Economists? Policymakers? Anything done well is cognitively demanding.

    We might well be better off by finding people who are really good at teaching the large and medium--sized classes our university budget forces on us, and who give the maximum chance to all the budding Maxes. The Maxes in turn can be turned over to people who may be less skillful in the formal classroom setting and better at personal interactions. Some of the best researchers are among the strongest classroom teachers as well, but some do better service in small-classroom and mentoring settings.

    As things are now, we sometimes give large classes to strong researchers who prepare lecture notes quickly, have the exams graded by computer, and put little time into teaching while looking good by McKiezie metrics. This is bad too.

    ReplyDelete
  2. I like your perspective about science and technology, professor.

    ReplyDelete
  3. I think it is fair to say that science is the most difficult cognitive activity of humans in the sense that it demands complete objectivity. It demands that we remain skeptical of our tendency to see and seek out causal connections where there is no statistical proof-something we are really completely incapable of doing. If we were to try to turn off all of the biases we have accumulated by experience, of which we are mostly unaware, life would be unbearable. Of course, good philosophers and poets are self-skeptical as well, just not quite as systematically.

    ReplyDelete

Post a Comment

Popular posts from this blog

A Requiem for the Beautiful Earth

First, let me remind you that a pessimist is an optimist who shed his delusions and denial, and educated himself. Please keep this in mind, if you continue reading. If you don't, that's fine too. You will remain in your blissful bubble of denial and ignorance, which are the dominant genetic traits of most denizens of the fossil superorganism. Please understand that many democratically elected governments know very well about your truth aversion and are making best use of it.

Imagine now that your favorite airline offers a vacation package to a world-class city like the one shown below. That city is Beijing. China is the rising economic superpower that will collapse rather immediately, because there is not enough of the environment left to protect her 1.4 billion people from disease and death. But before China collapses, she will suck dry most of the world that remains. The brutal global competition for resources may precipitate a war between China and US.

By the way, a famous …

Green New Deal - Part II

In Part I of this blog, I explained difficulties with comprehending the astronomical scale of change that is awaiting us, the rich people in the developed countries, in our journey to a more sustainable, greener future of humankind.  I have also pointed out a few of the many ways people escape responsibility for the crimes against the Earth we  - you and I - have committed.  And, please, let's not blame the poor people in Honduras or Gabon for our sins, plastic in the oceans and greenhouse gas emissions.


Exponential growth.  Remember a lonely lily pad floating on an empty pond?  She multiplied daily, so after day one, there were two lilies; after two days, four lilies; then eight; and so on.  After 20 days, there were 1,048,576 lilies. After 21 days, there were  2,097,152 lilies that covered the pond, exhausted nutrients and died. Question: After which day was the pond half-filled?  You already know the answer, it was day 20.  On that fateful day, 95% of the time allotted to our li…

The New Improved 1984

Many people ask me how can I be happy writing and thinking about so many sad and desperate things? Well, let me explain. Happiness is the fleeting rush of dopamine I feel seeing my little grandson, my wife or children.  As good as it might feel, it comes and goes. Think, please, about the happiness you purchase by sharing with your "friends" on Facebook a picture of a new pair of pink sneakers. Or think of the happiness you bring to your partner by giving her/him a bouquet of roses on the Valentine day.

You probably never pay attention to over a billion roses which are imported that day for your bouquet.  They are flown refrigerated on transport flights from Columbia, Ecuador and Mexico.  Once these cold roses land in Miami, they are rushed to other refrigerated planes and trucks, so that you can get them from a store refrigerator anywhere in the US.  The energy cost of your bouquet is absolutely ginormous, but it is worth another minute or two of dopamine rush. Or is it?

Yo…