10/15/1998
CONTACT: Lia Unrau
PHONE: (713)
831-4793
E-MAIL: unrau@rice.edu
RICE, NASA TEAM UP TO ADVANCE NANOTECH
FRONTIER
Development of new materials and
applications using nanotubes--carbon fiber tubular structures, potentially 30 to
100 times stronger than steel but one-sixth its weight--is the focus of a new
collaboration between Rice University and NASA.
This recent Rice-NASA effort is aimed at enhancing
collaborations that will advance the nation's space program in this new
frontier--development of advanced nanotechnology materials and
applications.
NASA Administrator Daniel Goldin and Rice University President
Malcolm Gillis signed a statement of collaboration outlining the proposed
agreement in a ceremony at Rice today. The ceremony also included Richard
Smalley, director of Rice's Center for Nanoscale Science and Technology, and
George W. S. Abbey, director of the Johnson Space Center (JSC).
"The relationship between Rice and NASA goes back a long way,"
Gillis says. "President Kennedy chose Rice University as the venue for his
announcement of plans to put a man on the moon. Rice donated the land on which
the Johnson Space Center is built; in return, NASA helped construct Rice's space
science building, home of the first space science department at any university
in America. Because of NASA, Rice was one of the very first universities to
establish a department of space physics. Rice's Fondren Library is the official
repository of a sizable share of JSC's archives. In the past five years, NASA
has supported research in several fields at Rice, including gravitational
biology, work on the Hubble telescope, telerobotics, software for high
performance computing, and research in nanoscale science and engineering focused
on fullerene materials and fabrication of ceramic composites. This new joint
venture centering on nanotubes capitalizes on this fruitful history, and will
further strengthen our interactions with NASA."
According to the statement of collaboration, the research will
focus on "exploring and exploiting opportunities for new materials and products
enabled by carbon-fiber tubular structures"--fullerene fibers only about a
nanometer (one-billionth of a meter) in diameter.
The collaboration is to include:
development of fullerene fibers, or nanotubes, which
are extremely strong, lightweight and electrically conductive; and
development and demonstration of the basic steps toward
applying the materials and their properties for use in NASA missions.
Nanotubes have a number of desirable qualities, including a
potential tensile strength higher than any known fiber and electrical
conductivity similar to metals.
There are considerable possibilities for nanotube applications
that could help NASA in its aviation and aerospace goals, including applications
which enhance life on Earth. Possible applications include composite materials
with extraordinary strength, smaller semi-conductors, mechanical systems with
atomic-scale dimensions, chemical sensors, and power and hydrogen storage
devices.
Smalley, who received the Nobel Prize in 1996 with Rice chemist
Robert Curl and Harold Kroto of the University of Sussex for their discovery of
fullerenes, will lead Rice participation. Smalley is the Gene and Norman
Hackerman Professor of Chemistry and professor of physics. The collaboration
will combine the expertise of NASA and a pioneering research group at Rice to
establish a world-class research team in nanotechnology.
"The new Advanced Nanotechnology Materials and Applications
project will be a great boost to the research efforts on fullerene fibers here
at Rice," Smalley says, "and, on a longer term, to the overall development of
nanotechnology in the Houston area. My associates and I are thrilled to be able
to contribute what we can to the nation's space program. Many of us were
inspired to become scientists in the first place because of the great
achievements of NASA we watched on TV in our youth. Now we have our chance to
complete the circle."
Rice University is a leading American research university,
small, private, and highly selective, distinguished by its superior teaching,
commitment to undergraduate education, outstanding graduate and professional
programs, residential college system, collaborative and interdisciplinary
culture, and global perspective.
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