Fred E. C. Cluick
Richard L. and Dorothy M. Hayman Professor
of Mechanical Engineering and Professor of Jet Propulsion
S.B., S.M., Massachusetts Institute of Technology, 1957;
Ph.D., Massachusetts Institute of Technology, 1961
1200 East California Boulevard
Pasadena, CA 91125
MC 128-95
(626) 395-4783
(626) 395-8469 (fax)
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Research
The research in Professor Culick's group is concerned primarily
with problems associated with combustion and flow in propulsion
systems. Currently the bulk of the work is devoted to various aspects
of unsteady motions in combustion chambers, including combustion
instabilities, with applications to solid and liquid rockets, ramjets,
afterburners, and primary combustors for gas turbines.
Professor Culick has been traditionally concerned with theory
and experiment related to combustion dynamics and nonlinear acoustics,
but recently the emphasis has been expanded to include influences
of noise, problems relating to generation of nitrogen oxides, and
active control of combustion dynamics. There is also interest in
advanced space propulsion and general problems relating to spacecraft
and space mission design, in collaboration with groups at the Jet
Propulsion Laboratory.
Professor Fred Culick is Principal Investigator of a Multidisciplinary
University Research Initiative (MURI) involving researchers from
eight other universities, seven Russian groups, several government
laboratories, and representatives of the U.S. solid rocket industry.
The theme of this program is investigation of the fundamental chemical
and combustion properties of advanced energetic propellants and
the dynamics of solid rocket combustors. The work at Caltech is
devoted mainly to modeling the combustion dynamics of solid propellants
and investigating the nonlinear behavior of unsteady motions in
a combustor.
For all types of chemical combustion systems, but especially for
gas turbine combustors intended for use in stationary power generation,
active feedback control of combustor dynamics is an active area
of research worldwide. Problems with instabilities arise with operation
of combustors close to the natural lean blow-out limit, an operating
condition dictated by the mandated low levels of polluting emissions,
notably nitrogen oxides. Our broad program in this area comprises
theory and analysis, numerical simulation, and experimental work.

Selected Publications
Pulsed Instabilities in Solid-Propellant Rockets (with V. Burnley
and G. Swenson), AIAA Journal of Propulsion and Power 11 (4), pp.
657-665, 1995
A Further Note on Active Control of Combustion Instabilities Based
on Hysteresis (with G. Isella, C. Seywert and E. E. Zukoski), Combustion
Science and Technology, 1996
A Note on Ordering Perturbations and the Insignificance of Linear
Coupling in Combustion Instabilities, Combustion Science and Technology,
1997
Some Influences of Nonlinear Energy Transfer Between the Mean Flow
and Fluctuations (with G. Isella), Second International Seminar on
Intra-Chamber Processes, Combustion and Gas Dynamics of Dispersed
Systems, Saint Petersburg, Russia, June 1997
Transient Combustion Responses of Homogeneous Propellants to Acoustic
Oscillations in Axisymmetric Rocket Motors, 33rd AIAA/ASME/SME/ASEE
Joint Propulsion Conference and Exhibit, Seattle, WA, 1997
Nonlinear Unsteady Motions and NOx Production in Gas Turbine Combustors
(with G. Swenson and W. Pun), 11th Symposium on Combustion and Explosion,
Russian Academy of Sciences, Chernogolovka, Russia, November 1996
Advanced Propulsion for Space Travel and Exploration (with F. Iinoya
and H. Schoeyer), Third International Symposium on Space Propulsion,
Beijing, People?s Republic of China, August 1997
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