March 03, 2005 —
The USC Viterbi School of Engineering has formed the
Microsatellite Systems Center to focus on research and advanced
technology development for a smaller and less expensive class of
satellite systems. The initiative complements related activities
establishing astronautics & space technology degree programs and a
capability to build & fly microsatellites in space.
“The aerospace industry currently has a critical shortage of
young engineers trained in astronautics and space,” said Viterbi School
Dean C.L. Max Nikias. “We believe this center will nurture new
engineering talent and allow Southern California to seize the
opportunity to become a world center for microsatellites.”
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Microsatellite launched by French Ariane 5 rocket.
Image: NASA/JPL. |
Typically, even "small" satellites today tip the scales at 400 kilograms (880
pounds). These complex satellites are usually built by governments and relatively
inflexible in regard to uses.
“It’s just too expensive to design one for a single use, and even creating a
module to go into a large satellite can complicate the mission unless the orbital
needs closely correspond with the other modules on board,” said Peter Will, an
award winning robotics researcher and Fellow at the USC Viterbi School’s Information
Sciences Institute (ISI) in Marina del Rey who will direct the microsatellite
center in partnership with the school’s Astronautics and Space Technology Division
at USC University Park Campus.
“We think that space research and exploration needs the equivalent of the personal
computer – small, relatively cheap, highly flexible vehicles,” said Will. “This
will greatly expand the use of space in the service of mankind.”
The new center will concentrate on microsatellites around the100 kg
(220 pounds) or less class. Research will evaluate microsatellite
capabilities in a variety of tasks, from earth imaging, communications,
asset and personnel tracking, through applications in space science.
Will said that the challenges involved in the creation of such vehicles
requires a team with a broad range of expertise including astronautics,
propulsion, instrumentation, computation and control, spacecraft
construction, radiation hardening, communications and networking. MSC
is the research element of a three-pronged USC effort under pursuit to
develop capabilities within space.
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MSC Director Peter Will and robot models resting on air hockey table used
to simulate weightlessness.
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Will said that the scientific challenges involved in the creation of such vehicles
require teams with a broad range of expertise, including astronautics, propulsion,
space instruments, on-board computation, control, computer aided design, spacecraft
construction, radiation hardening, communications and networking.
“We already have large pieces of this pattern in place at USC,” he said. “In
Los Angeles we have rich resources, both academic and industrial, in the relevant
categories.”
Professor Mike Gruntman, chair of the Viterbi School’s Astronautics and
Space Technology Division, notes that the division already has degree
programs focused on spacecraft engineering, anchoring USC in an
academic focus in this field. Gruntman says the microsatellite
initiative “will open new, unique opportunities for students to be
involved in real-world advanced space projects”.
Working with Will and Gruntman in the USC Microsatellite Systems Center will
be ISI Division Director John Damoulakis, ISI Associate Director for Development
Joe Sullivan, and Dan Erwin, associate professor from the Astronautics and Space
Technology Division.
Will holds research professor positions in the Viterbi School’s Epstein Department
of Industrial and Systems Engineering and the Department of Materials Science
as well as in the Astronautics and Space Technology Division. He is a past winner
of the Engelberger prize in robotics. .
A goal of the MSC is to incorporate new
and advanced technologies developed by USC and other
partners/companies/agencies and to supplement the effort by using
hands-on undergraduate and graduate student participation to integrate
and deliver next generation satellites.
The MSC is taking direct advantage of the recent grants won by ISI from
NASA, totaling $58 million, and from Gruntman’s work as a
co-investigator in NASA space missions, including recently selected
Interstellar Boundary Explorer.
These initiatives in combination form a cornerstone for the next
generation of USC researchers and engineers to experiment, build and
fly exciting missions in space.