Aaron Ames
Bren Professor of Mechanical and Civil Engineering and Control and Dynamical Systems
Professor Ames’ research interests center on robotics, nonlinear control, hybrid systems and cyber-physical systems, with special emphasis on foundational theory and experimental realization on robotic systems; his lab designs, builds and tests novel bipedal robots and prosthesis with the goal of achieving human-like bipedal robotic walking and translating these capabilities to robotic assistive devices.
José E. Andrade
George W. Housner Professor of Civil and Mechanical Engineering
Professor Andrade's research focuses on developing a fundamental understanding of the multiscale and multiphysical behaviors of porous materials—everything from soils, rocks, and concrete to bone. He also studies the behavior of granular materials like sand, snow, and even grain stored in silos. His research has particular applications to geologic and engineering infrastructure materials, as well as to the petroleum industry.
Domniki Asimaki
Professor of Mechanical and Civil Engineering
Professor Asimaki's research combines geotechnical engineering, computational mechanics and structural dynamics to study natural ground surface features and man-made geotechnical systems --such as ridges, valleys, dams, tunnels, building foundations and offshore structures. She is particularly interested in assimilating high fidelity numerical simulations, field and experimental data, to develop engineering design models of infrastructure, resilient to hazards on urban scales and regional scales.
Jean-Philippe Avouac
Earle C. Anthony Professor of Geology and Mechanical and Civil Engineering; Associate Director, Center for Autonomous Systems and Technologies
My research aims mainly at understanding better earthquakes, crustal deformation, and geomorphic processes.
We use field observations, seismological and geodetic measurements, remote sensing to develop kinematic and dynamic models and inform theory. Currently active projects concern: seismicity and mountain building processes in the Himalaya; the imaging and dynamic analysis of seismic (‘regular earthquakes’) and aseismic (‘slow earthquakes’) fault slip; probabilistic forecasting of ground deformation and seismicity, in particular in the context of subsurface engineering operations (for CO2 storage or geothermal energy production for example; the effect of hydrology on crustal deformation and seismicity; ); dune dynamics on Mars and Earth
Kaushik Bhattacharya
Howell N. Tyson, Sr., Professor of Mechanics and Materials Science; Vice Provost
Professor Bhattacharya studies the mechanical behavior of solids, and specifically uses theory to guide the development of new materials. Current research concerns three broad areas: (i) Active materials such as shape-memory alloys, ferroelectrics and liquid crystal elastomers, (ii) Heterogeneous materials and designing unprecedented properties by exploiting heterogeneities, (iii) Coarse-grained density functional theory to understand defects in solids.
Guillaume Blanquart
Professor of Mechanical Engineering
Guillaume Blanquart focuses on modeling the interactions between combustion processes and turbulent flows. At the center of the work are fundamental problems such as the formation of pollutants, the effects of turbulence on the dynamics of nano-particles, and various hydrodynamic and flame instabilities.
John F. Brady
Chevron Professor of Chemical Engineering and Mechanical Engineering
John Brady focuses on fluid mechanics and transport processes, and complex and multiphase fluids.
Joel W. Burdick
Richard L. and Dorothy M. Hayman Professor of Mechanical Engineering and Bioengineering; Jet Propulsion Laboratory Research Scientist
Professor Burdick focuses on robotics, kinematics, mechanical systems and control. Active research areas include: robotic locomotion, sensor-based motion planning algorithms, multi-fingered robotic manipulation, applied nonlinear control theory, neural prosthetics, and medical applications of robotics.
Tim Colonius
Frank and Ora Lee Marble Professor of Mechanical Engineering and Medical Engineering; Cecil and Sally Drinkward Leadership Chair, Department of Mechanical and Civil Engineering; Executive Officer for Mechanical and Civil Engineering
Professor Colonius studies complex, multiscale flow phenomena and their control using theory, numerical experiments, and simulations. Simulations from his lab have provided key insights into such subject areas as turbulence, instabilities, sources of sound, and shock and bubble dynamics. His research has broad applications—from ultrasound imaging and therapy to mitigating jet noise to generating energy from flow systems.
John O. Dabiri
Centennial Professor of Aeronautics and Mechanical Engineering
John Dabiri’s research focuses on unsteady fluid mechanics and flow physics, with particular emphasis on topics relevant to biology, energy, and the environment. Current interests include biological fluid dynamics in the ocean, next-generation wind energy, and development of new experimental methods.
Chiara Daraio
G. Bradford Jones Professor of Mechanical Engineering and Applied Physics; Investigator, Heritage Medical Research Institute
Professor Daraio focuses on materials science, condensed matter physics, and solid mechanics. Her lab is primarily interested in:
1. Developing a physical understanding of how stress propagates in nonlinear, ordered and disordered solid media at length scales ranging from nanometers to meters.
2. Studing the fundamental connections between structure and function in different physical domains (temperature sensitivity, electrical conductivity, etc.).
3. Exploiting this understanding for the creation of new materials and devices for engineering applications ranging from optomechanics to shock absorption.
To achieve these goals, her research takes advantage of nonlinearities in local material interactions (e.g., Hertzian contact interactions between particles or nonlinear interactions between nanostructures) to create novel systems and new materials with unprecedented global properties. These materials are composite systems in which typically basis elements that interact are arranged in well-defined geometries, such that the aggregate system as a whole exhibits properties that are not usually found in natural systems and can be exploited in engineering applications. Our work is primarily experimental, but it is informed by numerical and analytical studies, which serve as a guide in metamaterial construction and validation of their properties.
Xiaojing (Ruby) Fu
Assistant Professor of Mechanical and Civil Engineering
Ruby Fu studies subsurface fluid mechanics and how they shape our natural and engineered environments. Her work is applied to a wide range of geoscience problems in energy, resources and geohazards. Her current interests include clathrate and ice formation in porous media, hydrology, geologic carbon sequestration, and volcanic/geothermal systems.
Julia R. Greer
Ruben F. and Donna Mettler Professor of Materials Science, Mechanics and Medical Engineering; Fletcher Jones Foundation Director of the Kavli Nanoscience Institute
Professor Greer focuses on nano-scale phenomena: mechanical properties, in-situ deformation, and nano-fabrication.
Melany L. Hunt
Dotty and Dick Hayman Professor of Mechanical Engineering
Professor Hunt focuses on the transport and mechanics of multiphase systems including granular and particulate flows, fluidized beds, porous media, and related energy systems.
Nadia Lapusta
Lawrence A. Hanson, Jr., Professor of Mechanical Engineering and Geophysics
Professor Lapusta studies friction and fracture phenomena on both fundamental and practical levels. Her work focuses on analytical and numerical modeling that incorporates and explains experimental findings. She has a special interest in failure of geomaterials in the presence of fluids, physics of earthquakes, and induced seismicity, where frictional faulting and cracking are key ingredients.
Michael Mello
Teaching Professor of Mechanical and Civil Engineering
Dr. Mello (Ph.D., Caltech, 2012) is a Teaching Professor with prior industry experience as a Senior Electronic Packaging Engineer and Mechanical Laboratory Manager at Intel Corporation (1997 - 2006). He teaches a broad range of undergraduate courses in Mechanical and Civil Engineering on subject areas which include Rigid Body Statics, Hydrostatics, Mechanics of Materials, Dynamics, CFD / FEA Modeling, Experimental Solid & Fluid Mechanics, and Engineering Design and Fabrication. His research focuses on pressure-shear plate impact (PSPI) experiments and the development of interferometric measurement techniques with Prof. G. Ravichandran’s research group; and Laboratory Earthquake investigations with Prof. Ares J. Rosakis. He is also an Associate Technical Editor for Experimental Mechanics, an international journal integrating experimental methods with the mechanical behavior of materials and structures.
Austin Minnich
Professor of Mechanical Engineering and Applied Physics
Professor Minnich's research focuses on advancing microwave and millimeter-wave technology used in radio astronomy, quantum information science, and other applications. Current topics include investigation of electronic noise and nanofabrication processes for ultralow noise transistor amplifiers and quantum simulation using superconducting qubit quantum computers.
Richard M. Murray
Thomas E. and Doris Everhart Professor of Control and Dynamical Systems and Bioengineering; William K. Bowes Jr. Leadership Chair, Division of Biology and Biological Engineering
Research in Richard Murray's group is in the application of feedback and control to networked systems, with applications in biology and autonomy. Current projects include novel control system architectures, biomolecular feedback systems and networked control systems.
Sergio Pellegrino
Joyce and Kent Kresa Professor of Aerospace and Civil Engineering; Jet Propulsion Laboratory Senior Research Scientist; Co-Director, Space-Based Solar Power Project
Professor Pellegrino's research focuses on lightweight structures and particularly on problems involving packaging, deployment, shape control and stability.
Guruswami (Ravi) Ravichandran
John E. Goode, Jr., Professor of Aerospace and Mechanical Engineering
Professor Ravichandran's research focuses on deformation and failure of materials, dynamic behavior, wave propagation, micro/nano mechanics, composites, active materials, biomaterials and cell mechanics, and experimental mechanics.
Ares J. Rosakis
Theodore von Karman Professor of Aeronautics and Mechanical Engineering
Solid mechanics, dynamic mechanical properties, ballistic impact, hypervelocity impact of micrometeorites on spacecraft, dynamic fracture and fragmentation, adiabatic shear banding, mechanics of metallic glasses, mechanics of thin films, mechanics of geological materials, restoration of ancient stone monuments, earthquake fault mechanics, induced seismicity.
Joseph E. Shepherd
C. L. "Kelly" Johnson Professor of Aeronautics and Mechanical Engineering
Joe Shepherd teaches and conducts research on fluid mechanics, solid mechanics, chemistry, thermodynamics, and structural mechanics with applications to explosion dynamics, industrial safety including aviation and nuclear power, high-speed flight and propulsion, fluid-structure interaction, energy conversion technologies, and medical devices.
Sandra M. Troian
Professor of Applied Physics, Aeronautics, and Mechanical Engineering
The Laboratory of Interfacial and Small Scale Transport {LIS2T} in the Department of Applied Physics and Materials Science at the California Institute of Technology specializes in both fundamental analysis and engineering design of micro/nanoscale fluidic systems. Of particular interest are small scale systems dominated by large surface forces due to patterned capillary, van der Waals, Maxwell, thermocapillary and Marangoni fields. Theoretical analysis, numerical simulations (both continuum and molecular scale) and experimentation are all used to develop fundamental physical insight as well as robust design principles for application driven projects. Group focus is on formation, propagation, stability, coupling and control of nonlinear wave phenomena at the micro/nanoscale which induces rapid transport of mass, momentum and heat at moving interfaces. Systems of current theoretical interest include cusp formation in thermally and electrically driven thin films for super anti-reflecting coatings and space micropropulsion devices; nanofluidic phenomena involving Kapitza thermal jumps, layering transitions and thermal rectification in nanoscale devices; spatio-temporal parametric resonance and array formations in thin polymeric films exposed to large thermocapillary and Maxwell patterned fields; Lyapunov, modal and transient growth stability analyses of non-normal systems at zero Reynolds number; capillary and field enhanced propellant management systems for space micropropulsion applications; and solution of inverse problems for 3D lithographic patterning of nanofilms. Systems of current experimental interest include non-contact lithography of 3D micro-optical structures by patterned external fields; Marangoni wave phenomena and fractal wavefronts in biophysical systems; influence of layering transitions on slip behavior in nanoscale films; and optical wave propagation in structured polymeric waveguides.