| Faculty |
Department |
Area of Research |
|
Divykant Agrawal |
Computer Science |
Distributed systems, databases, digital libraries, scalable and
fault-tolerant access to multimedia data and digital libraries. |
| S. James Allen |
Physics |
Terahertz dynamics in semiconductor quantum structures far from
equilibrium, Bloch oscillators, novel terahertz detectors and terahertz
circular dichroism and dynamics of bio-polymers. |
| Kevin Almeroth |
Computer Science |
Computer networks and protocols, large-scale multimedia systems,
performance evaluation, and distributed systems. |
| David Awschalom |
Physics |
Optical and magnetic interactions in semiconductor quantum structures,
spin dynamics and coherence in condensed matter, nanometer-scale
magnetism, and quantum information processing in the solid state. |
|
Leon Balents |
Physics |
"Exotic" Order and Criticality, Quasi-One-Dimensional Frustrated Quantum Magnets, Nanowires, Spintronics and Magnetic Semiconductors, Statics and Dynamics of Glasses, Mott Transitions and Competing Orders. |
| Kaustav Banerjee |
Electrical & Computer Engineering |
Nanometer-scale circuit effects in high-performance and low-power digital VLSI. |
| Guillermo Bazan |
Chemistry & Biochemistry |
Design of well-defined initiators for polymerization reactions,
the study of photophysical processes in advanced organic photonic
materials and the design of interconnects for bringing together
molecular wires. |
| Glenn Beltz |
Mechanical & Environmental Engineering |
Solid mechanics, mechanics of materials, fracture, composite materials, crystal defects, quantum dots. |
| Daniel Blumenthal |
Electrical & Computer Engineering |
Electronics and Photonics: fiber-optic networks, wavelength and
subcarrier division multiplexing, photonic packet switching, signal processing in semiconductor
optical devices, wavelength conversion, microwave photonics. |
| Dirk Bouwmeester |
Physics |
Quantum information processing with entangled photon states. |
| John Bowers |
Electrical & Computer Engineering |
Solid State: fiber optic networks, photonic integrated circuits,
high speed photonic and electronic devices, femtosecond lasers and physics. |
| Forrest Brewer |
Electrical & Computer Engineering |
VLSI and computer system design automation. |
| Frank Brown |
Chemistry & Biochemistry |
Cellular functioning: membrane dynamics, cytoskeletal assembly and the kinetics of enzymatic turnover. |
| Steven Buratto |
Chemistry & Biochemistry |
Conjugated Oligomers, Porous Silicon, Polyelectrolyte Films, Surface Enhanced Raman Spectroscopy, Ag/Au Clusters on TiO2. |
| Alison Butler |
Chemistry & Biochemistry |
Bioinorganic chemistry and metallobiochemistry with an emphasis
on the roles of metal ions in the catalytic activity of metalloenzymes. |
|
Bradley Chmelka |
Chemical Engineering |
Molecular Sieves (Zeolites), Polymer Structure and Dynamics, Inorganic-Organic
Hybrid Materials, and NMR Spectroscopy. |
| David Clarke |
Materials |
Electrical properties of ceramics; Development of PiezoSpectroscopy and its applications to materials. |
| Andrew Cleland |
Physics |
Nanoscale electronic and mechanical devices, exploring their uses
as novel and ultrasensitive sensors and imaging devices. |
| Larry Coldren |
Electrical & Computer Engineering |
Integration of various optoelectronic devices, including optical
amplifiers and switches, tunable lasers, receivers, and surface-emitting
lasers. |
|
Patrick Daugherty |
Chemical Engineering |
Molecular Bioengineering |
| Steven DenBaars |
Materials |
Develop an understanding of novel materials and extend them into
applications. |
| Frank Doyle |
Chemical Engineering |
Nonlinear model-based control of complex nonlinear and distributed processes. |
|
Glenn Fredrickson |
Chemical Engineering |
Polymers and Complex Fluids, Fluids and Transport Phenomena. |
| Deborah Fygenson |
Physics |
Biological Physics, mechanics and dynamics in macromolecular assemblies. |
|
Arthur Gossard |
Materials |
Quantum Structure Growth, Science and Technology; High Performance
Graded Quantum Structures; Quantum Wire and Quantum Dot Growth and
Devices; MBE Technology for Ultrafast, Ultra-high-density Optoelectronic
Devices; Smart Optoelectronic Pixel Technology; Cryogenic Lasers for
Low-Temperature Electronics; Advanced Infrared Detectors Based on
Strained Layer Superlattices. |
| Elisabeth Gwinn |
Physics |
Quantum Hall effect in semiconductor multilayers, Josephson
effects in quantum-well-coupled superconductors, and ferromagnetism in semiconductors. |
|
Alan Heeger |
Physics |
Physics of conductive and light-emitting polymers, biosensors. |
| Bud Homsy |
Mechanical & Environmental Engineering |
Fluid mechanics and transport, and in particular in interfacial flows,
polymer and viscoelastic fluid mechanics, porous media flows, and microgravity fluid mechanics. |
| Evelyn Hu |
Electrical & Computer Engineering |
Low-damage, high spatial resolution fabrication techniques for novel
device structures. Approaches for achieving heterogeneous materials
integration in devices. |
|
Jacob Israelachvili |
Chemical Engineering |
Intermolecular and Surface Forces in Complex Colloidal Systems and Macromolecular Materials, adhesion, friction, lubrication, biological interactions.
integration in devices. |
|
Luc Jaeger |
Chemistry & Biochemistry |
Biochemistry / Materials |
|
Edward Kramer |
Materials |
Mesoscale polymer physics involving interfacial structure and properties
utilizing quantitative transmission electron microscopy, Rutherford
backscattering and forward recoil spectrometry, secondary ion mass
spectrometry and neutron reflectometry. |
| Herbert Kroemer |
Electrical & Computer Engineering |
Bloch oscillators, superconducting-semiconducting interfaces, negative refractive index materials. |
| JoAnn Kuchera-Morin |
Music |
Multimedia Composition, 3D Immersive Physical Sound Environments,
3D Immersive Virtual Sound Environments, Auralization, Distributed
Multimedia Computing Environments. |
|
Everett Lipman |
Physics |
Single molecule optical methods; protein folding; resonance energy transfer; applications of microfluidic devices. |
|
Noel MacDonald |
Mechanical & Environmental Engineering |
MEMS, Applied Physics, Materials, Mechanics, Nano Fabrication. |
| John Martinis |
Physics |
Superconductivity, ultra low-temperature electronic devices, and quantum computation. |
| Eric McFarland |
Chemical Engineering |
Catalysis, Surface Science, and Reaction Engineering, Electronic
and Photonic Semiconductor Materials. |
| Robert McMeeking |
Mechanical & Environmental Engineering |
Solid Mechanics, Materials, and Structures: mechanics of materials,
fracture, plasticity, composite materials, materials processing. |
| Carl Meinhart |
Mechanical & Environmental Engineering |
Thermal/Fluid Sciences: development and analysis of MEMS-based micro-fluidic
devices, optical instrumentation for micro-scale fluid mechanics,
and wall turbulence. |
| Horia Metiu |
Chemistry & Biochemistry |
Catalysis in zeolites and on metal nanoparticles supported on oxides;
single-molecule quantum mechanics; electronic structure and transport
in thermoelectric materials; theoretical chemical physics. |
| Igor Mezic |
Mechanical Engineering |
Applied mechanics, non-linear dynamics, fluid mechanics, applied
mathematics, active (chaotic advection) methods in micromixing,
nonlinear dynamics and control of dielectrophoretic separation of
bioparticles, bioparticle control for biosensing, control of spin
systems. |
| Umesh Mishra |
Electrical & Computer Engineering |
Develop an understanding of novel materials and extend them into applications. |
| Samir Mitragotri |
Chemical Engineering |
Development of novel methods of drug delivery and diagnostics. |
| Daniel E. Morse |
Molecular Cellular & Developmental Biology |
Proteins, genes and molecular mechanisms controlling biological
nanofabrication of high-performance mineral-organic composites,
and innovative strategies to harness these mechanisms for new routes
to nanofabrication of electronic, magnetic and optical materials. |
| Martin Moskovits |
Chemistry & Biochemistry |
Spectroscopy, surface chemistry, and the chemistry and fabrication of nanowires. |
|
Shuji Nakamura |
Materials |
Crystal growth, Light-emitting diodes and laser diodes. |
|
Pierre Petroff |
Materials |
Crystal growth and epitaxy with emphasis on understanding the fundamental
processes involved in the epitaxy of semiconductors for producing
novel self assembling nanostructure. |
| Linda Petzold |
Mechanical & Environmental Engineering |
Numerical ordinary differential equations, differential-algebraic
equations, and partial differential equations, dynamic optimization,
nonlinear model reduction, mathematical software and scientific
computing. |
| Kevin Plaxco |
Chemistry & Biochemistry |
Protein folding, folding-based sensors and adaptive materials. |
|
Norbert Reich |
Chemistry & Biochemistry |
|
|
Joan Emma Shea |
Chemistry & Biochemistry |
Application of statisical and computational physics to biological systems like protein folding. |
| Mark Sherwin |
Physics |
Quantum information processing, Terahertz Dynamics in Semiconductor Nanostructures. |
| Hyongsok "Tom" Soh |
Mechanical & Environmental Engineering |
Scanning probe devices and techniques, use of MEMS technology for molecular scale detection and manipulation, and parallel operation of micromachined devices.
|
| James Speck |
Materials |
Relationship between thin film electronic materials growth, microstructure,
and the relation between microstructure and physical properties. |
| Galen Stucky |
Chemistry & Biochemistry |
Derive a general methodology for the creation by molecular assembly
of integrated systems. |
|
Matthew Tirrell |
Chemical Engineering |
Polymer surface properties including adsorption, adhesion, surface
treatment, friction, lubrication and biocompatibility. |
| Matthew Turk |
Computer Science |
Computer vision and imaging, perceptual interfaces, multimodal interaction, human-computer interaction, gesture recognition, artificial intelligence. |
| Kimberly Turner |
Mechanical & Environmental Engineering |
Dynamic Systems, Control, and Robotics and Solid Mechanics, Materials,
and Structures: MEMS, Solid Mechanics, Dynamics, Microsystems Motion. |
|
Chris Van de Walle |
Materials Department |
First-principles calculations, optoelectronic materials, semiconductors and
oxides, hydrogen generation and storage. |
|
Fred Wudl |
Chemistry & Biochemistry |
Currently interested in optical and electro-optical properties of conjugated polymers, organic chemistry of fullerenes, and design and preparation of self-mending polymers. |
|
Robert York |
Electrical & Computer Engineering |
Application of emerging electronic materials for high frequency
RF/microwave devices, circuits and systems. |
|
Joseph Zasadzinski |
Chemical Engineering |
Polymers and Complex Fluids, Biomaterials and Bioengineering |