
This class flies by, and I
look forward to going into open studio time.
-- Student, Galby Celestin, electronics
engineering major

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Laboratory Introduction to Embedded Control Class Website
(http://litec.rpi.edu)
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"We're
breaking down the artificial walls found in traditional
classrooms, walls that separate theory and practice, software
and hardware, teacher and student. This is a living-lab atmosphere
that reflects the way industry works."
-- Paul Schoch, associate professor in the
School of Engineering
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Overview
Learning Embedded Controls by Designing "Smart Cars" and Flying "Smart Blimps"
In an oval-shaped room designed to bring people closer together,
students design miniature cars that zigzag along lines of tape on
the lab floor. Teams brainstorm and create both the hardware and
software to run the smart cars, and in the process,
learn the ins and outs of embedded control. Then, they apply it to 11 ft blimps. Enabling the blimps to fly autonomously, without the use of remote-controls.
Good-bye lecture halls, hello living-lab.
Weve done away with lecture halls where students could
hide in the back and snooze, said Paul Schoch, Associate Professor.
Were breaking down the artificial walls in traditional
classrooms by creating a living-lab atmosphere that reflects the
way industry works. Were also avoiding the sardine can
method of stuffing concepts into a 90-minute time slot, where you
fill it up and close the can.
This mode of teaching brings students into the studio, eschewing
lecture halls altogether. Reflecting the high-tech, new-wave style
of teaching, the class opens with a 10 to 30 minute discussion on
a given topic, with visual aids displayed on flat panel screens
in front of each team. Lecture notes, class exercises, and homework
assignments are on the Web to catalogue the weeks curriculum.
After the initial topic discussion, student's roll up their sleeves
and get to work test-driving their theories.
This class is an awakening.
Most of my classes are two hours long, but they feel like
a lot longer, said Galby Celestin, an electronics engineering
sophomore. This class flies by, and I look forward to going
into open studio time. The lectures are short and it
keeps your attention, agreed Elizabeth Nast, a mechanical
engineering senior.
Teams develop their own embedded intelligence, using micro controllers
to run their mechanically-identical smart cars and smart blimps. In the real world,
the micro controllers have seemingly limitless applications, and
are used in everything from anti-lock brakes to household appliances
to prosthetic joints. There are micro controllers planted beneath
the surface of the New York State Thruway to track temperature changes
and signal crews to start salting roads. In an average home, more
than 100 microchips keep things humming. Since embedded control
is found in all disciplines of engineering, the multidisciplinary
course is taken by most of the engineering students at Rensselaer.
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