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Research awards for the department exceeded $650,000/faculty/year
in the last 3 years, with total awards for the Hawaii Corrosion
Lab exceeding more than $3,500,000 in the same period. Other large
research grants were awarded to the Composite Materials Lab and
to the Underwater Vehicle and Flame Design initiatives. During the
few past year, the ME department has increased its long-term foundation
assets to $300,000 a result of a charitable remainder trust plan
with the UH Foundation. The department is responsible for more than
2/3 of the research expenditures and overhead returns to the College
of Engineering. Areas of active research include, but are not limited
to Robotics, Underwater Vehicle Design and Technology, Dynamical
Systems, Corrosion, Intelligent and Composite Materials, Advanced
Manufacturing, Combustion, Multiphase Flows, Heat and Mass Transfer,
Perturbation Methods, Applied Mathematics, and Computational Fluid
Dynamics. The MME research has been published in the best journals
and most prestigious conferences of the respective fields. Journals
where the most recent publications of the ME department appeared
include the Journal of Fluid Mechanics, International Journal of
Adaptive Control, International Journal of Heat and Mass Transfer,
Advances in Robotics, AIAA Journal, Combustion and Flame, Combustion
Science and Technology, Journal of Composite Materials, Composite
Science and Technology, Bioengineering and Biotechnology, etc.
Recent projects in our department have been sponsored by NASA,
NSF, ONR, AOR, DARPA, American Chemical Society, Petroleum Research
Fund, U.S. Department of Commerce, Intel, SamSung, EG&G, MetroLaser
Inc., Silicon Graphics, StereoGraphics, Tektronix, Wavefront Technologies,
Sense8, RSI Research, Allied-Signal Inc., University of Hawaii Research
Council, etc.
The MME Faculty members conduct research categorized under the
department's three primary areas:
Fluid and Thermal Sciences
Applied math and perturbation methods in heat and mass transfer,
solidification, thermodynamics, combustion, fluid dynamics, multiphase
flows, and Computational Fluid Dynamics (CFD)..
Mechanics and Design
Robotics, mechatronics, acoustics, dynamics, control, machine vision,
microelectromechanical systems, rehabilitation engineering, biomedical
engineering, and mechanical design.
Materials and Manufacturing
Mechanical behavior, manufacturing, and processing of advanced materials;
composite, marine, intelligent, and superconducting materials; solid-state
ionics, electrochemistry, and corrosion.
Research projects are conducted using state-of-the-art facilities
within the department's research laboratories: Autonomous Systems,
Advanced Materials Manufacturing, Corrosion, Electrochemistry, Electron
Microscopy, Intelligent and Composite Materials, Multiphase Flow,
Robotics, etc.
The following provides a brief summary of the faculty's research
activities:
B. H. Chao, PhD
Theoretical investigation on chemically reactive flows: various
combustion phenomena such as flame propagation, ignition, extinction,
stability and flammability under the effects of flow non-uniformity,
conductive and radiative heat loss, preferential diffusion, product
dissociation, and natural convection are studied using appropriate
mathematical and numerical methods.
Combustion in porous media: combustion and heat transfer in inert
porous bed and the smoldering combustion in chemically reactive
porous materials are investigated under various flow conditions.
Combustion synthesis of refractory materials: various combustion
phenomena observed in the development of self-propagating, high-temperature
synthesis (SHS) technique, such as the pulsating and spinning propagation
of combustion wave and extinction of the combustion front, are theoretically
studied to gain a better understanding on the combustion characteristics
of such a technique.
M. N. Ghasemi Nejhad, PhD
Analytical/computational and experimental techniques in design,
manufacturing, and characterization of advanced materials such as
composite materials, intelligent materials, thin films, microelectromechanical
systems, with applications in mechanics, thermomechanics, structural
dynamics, and crashworthiness.
L. H. Hihara, PhD
Corrosion behavior of metal-matrix composites (MMCs) such as SiC/Mg,
Sic/Ti, and Si/Al are studied in aqueous and atmospheric environments.
Ceramic fibers or particles that are used to reinforce MMCs may
have significant effects on corrosion behavior. Thin ceramic films
such as silicon nitride and silicon-carbon are being developed and
studied for corrosion barriers on metal substrates. Other interests
are thermogalvanic corrosion of copper, and the scanning-vibrating
electrode technique for localized corrosion and modeling.
K. M. Htun, PhD
Mechanical properties of materials, especially corrosion, wear,
fatigue, and fracture of materials used in structural applications.
Failure models and mechanisms related to those properties, as well
as manufacturing techniques used to make the desired sizes and shapes.
Manufacturing technologies to help joint venture activities in developing
countries
R. H. Knapp, PhD
solid mechanics and design
ocean structures, shells, undersea cables, ropes, and flexible pipe
development of cable modeling software
rehabilitation engineering
B. E. Liebert, PhD
Applications of solid-state ionic materials for use in energy conversion,
batteries and fuel cells, sensors, hydrides, and electrochromics.
Environmental degradation and failure analysis of engineering materials.
Computer applications in the laboratory.
J. Yuh, PhD
Underwater robotics, control of elastic and rigid multibody systems,
virtual reality, and adaptive and neural-net control systems.
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