
In the above article, Hamilton Holt,
president of a small college in 1931, is quoted describing
the customary academic lecture as “that
mysterious process by means of which the contents of the
professor’s notebooks are transferred by means of the fountain
pen to the pages of the student’s notebook without passing
through the mind of either.” Click
here to read the whole article.
E. M. Landesman, in
Syllabus, May 1999:
“In large lecture-style mathematics courses, only about 20
percent of the students truly gain much benefit. And those
who do are often the very best students. The other 80 percent
often behave as stenographers, furiously
taking notes in an almost rote fashion.”
E. K. Wilson, in “Thinking Instead of Cookbooking”,
Chem. Eng. News, May 26, 1997:
“When computers take over the dirty work in college chemistry
labs, students can focus on the bigger picture.”
P. M. Zurer, in “An Educational Experience”,
Chem. Eng. News, August 26, 2002, quotes John D. Simon,
chairman of the Chemistry Department at Duke University, about
honors freshman chemistry students at the University of
California in San Diego, where he was a professor before moving
to Duke:
“When
asked what chemists do for a living, the students answered:
‘Chemists measure pKas. They do titrations.’ Why
should we expect they’d think anything else, given the cookbook
labs they’d taken?” Click
here to read the whole article.
K. Hafner, in “Study Finds That Teachers Fail to
Grasp the Web’s Potential”, The New York Times, August
15, 2002, quotes a 17-year old high school senior:
“Physics teachers use physicsclassroom.com and say,
‘Go there and
look up such and such lesson and I'll quiz you tomorrow’. I don't consider
that creative, or even educational.” In contrast, he said he admired the inventiveness of a science teacher
who led an online study group that convened before quizzes to review
material. “Teachers don't use those methods more because they have a lack
of faith in the Internet,” he said. Click
here to read the whole article.
The above five quotes illustrate
my motivation for putting together this Web site about the
possible uses of technology for improving undergraduate
instruction in the classroom and in the laboratory. Today is
probably a transition period for educational methods, but the
two examples below should make us hesitant to make predictions.
This Web site will attempt
to keep track of some technological developments that may or may
not contribute to more effective teaching and learning at the
undergraduate level. Although the emphasis is on undergraduate
chemistry courses, most of the information presented here is
pertinent to undergraduate education in general and also to K-12
and graduate education. Predictions will be kept to a minimum.
I've tried to combine general
information with specifics for those who would like to try
implementation. When a chapter acquires more than a few
sections, as the chapter on digital video already has, I may include an “In a Hurry?” section that gives brief
versions of the detailed sections. The first “In a Hurry?”
reading is actually What & Why?
Read Me First, which describes what I cover in each
chapter and why. Also, the “Step-By-Step
Instructions” chapter will present even more detailed
information. This is a large Web site. There may be better ways
to arrange the material. Suggestions are very welcome:
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My email address is
a graphic, to thwart illegal (under the CAN-SPAM
Act) harvesting of email addresses by all those
despicable spammers! |
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A personal opinion:
Some high schools are ahead of many universities. In the Fall of 1999, students
at Buchanon High School in Clovis, CA do research on
notebook PCs equipped with wireless LAN connections: