His arms up in the
air, Benjamin Linder shakes his hips with the
rhythm of a hula dancer. He's trying to show me how a
robotic gizmo, built by his students, nimbly climbs
glass walls. Linder, who is trim and bespectacled, with
dark hair and a perpetual five o'clock shadow, launches
into a spiel on gecko anatomy. But then he interrupts
himself: "Another team couldn't decide if they wanted to
do a leopard or a raccoon, and so they settled on a
leopraccoon," he says with a grin, adding. "This machine
literally gallops up the wall. Cool, huh?"
Just past 4 p.m. on this crisp fall day, first-year
students begin arriving for Linder's Design Nature
class. A bunch of them congregates around a tray of
brownies that the professor baked. A few others sprawl
on a gray couch in the middle of the room. A couple of
students execute some swing dance moves nearby.
The place looks like a hybrid of dot-com office and
arts classroom. Bright collages with diagrams and
equations fill the white walls, and piles of paper,
markers, Lego blocks, tools, laptops, and iPods clutter
six big wooden tables. After a student with a thick
shock of dark curly hair arrives clad in a
blue-and-black striped bathrobe—he is the course's
teaching assistant—Linder calls out to the crowd that
the class is going to begin.
It's just another day at the Franklin W. Olin College
of Engineering, in Needham, Mass. Founded with more than
US $460 million from the F.W. Olin Foundation, the
school, which will graduate its first class at the end
of this month, was conceived as perhaps the most
ambitious experiment in engineering education in the
past several decades. Olin's aim is to flip over the
traditional "theory first, practice later" model and
make students plunge into hands-on engineering projects
starting on day one. Instead of theory-heavy lectures,
segregated disciplines, and individual efforts, Olin
champions design exercises, interdisciplinary studies,
and teamwork.
And if the curriculum is innovative, the school
itself is hardly a traditional place: it doesn't have
separate academic departments, professors don't get
tenured, and students don't pay tuition—every one of
them gets a $130 000 scholarship for the four years of study.
Olin's radically new way of training engineers
incorporates changes that many in industry and academia
say are long overdue. "The urgency of reform of
engineering education has been heightened in the last
two or three years as we've slowly begun to recognize
that we really are competing on a global playing field,"
says William A. Wulf, president of the National Academy
of Engineering, in Washington, D.C., and a member of a
council that advises Olin's president.
Experts like Wulf say that if the United States wants
to stay at the forefront of technological innovation, it
needs to increase the quality and quantity of its
engineering workforce. The problem is that enrollment is
stagnant, dropout rates are huge, and women and
minorities are still disappointingly underrepresented.
"Engineering is fun, engineering is creative," he says,
"but we have this kind of boot-camp model of engineering
education: if you manage to get through the first two
years, then we'll let you do some engineering."
Wulf isn't ready to proclaim Olin a success. "It's an
experiment; we'll see what will happen," is all he'll
say for the record. But he adds that Olin's faculty is
"asking all the right questions, and they have the
advantage of starting with a clean slate."
At this month's commencement, the 75 students who
entered the school's first class in the fall of 2002
will receive bachelor's degrees in electrical and
computer engineering, mechanical engineering, and
general engineering—the three degree types Olin offers.
As the seniors toss their mortarboards in the air and
take their next steps in the corporate world, graduate
programs, and other organizations, many observers on and
off campus will be following their progress. How will
Olin's engineers compare with traditional ones? Will
other schools follow the Olin way?
"Lots of stuff in engineering are done without a
whole bunch of science. These students are quite capable
of a lot of stuff now, and we don't need to deny that"
To see the Olin
experiment firsthand, I made three trips to
the school during a nine-month period in 2005 and early
2006, spending time with dozens of professors,
administrators, and students, and sitting in on classes
and lab sessions. As a frame of reference, I used what
I've seen at some of the foremost centers of higher
education, such as MIT, UC Berkeley, Princeton, Purdue,
and Columbia, to name a few. It hardly prepared me for
what I found at Olin. Whatever the outcome of the
experiment, one thing is certain: this is an engineering
school like no other.