| name |
phone |
office |
email / research topic(s) |
| Akinwande, A.I. |
8-7974 |
39-553 |
akinwand@mtl.mit.edu |
| Display devices, vacuum microelectronic devices, and wide bandgap semiconductor devices. |
   |
| Antoniadis, D.A. |
3-4693 |
39-427 |
antoniadis@mtl.mit.edu |
| Nanoscale solid-state electronic devices. Application of new materials systems and new structures to transistors for deeply scaled electronics. |
   |
| Baldo, M.A. |
2-5132 |
13-3053 |
baldo@mit.edu |
| Molecular electronics, integration of biological materials and conventional electronics, novel nano-organic transistors; charge transport and injection in organic materials, energy transfer, high density phenomena, and exciton spin selection. |
   |
| Berggren, K.K. |
4-0272 |
36-219 |
berggren@mit.edu |
| Nanofabrication methods. Superconductive nanowire single-photon detectors. Nanostructures for energy applications. Quantum computing. |
   |
| Bers, A. |
3-4195 |
26-351 |
bers@mit.edu |
| Plasma electrodynamics; linear and nonlinear interactions of electromagnetic fields with charged particles in collective dynamics. Wave heating and current generation in magnetically confined plasmas. Laser-plasma interactions. Ion acceleration in space plasmas. |
  |
| Boning, D.S. |
3-0931 |
38-435 |
boning@mit.edu |
| Semiconductor manufacturing. Metrology and modeling of IC and MEMS process, device and circuit variation. Computer tools and systems for statistical design for manufacturability. |
  |
| Bulovic, V. |
3-7012 |
13-3138 |
bulovic@mit.edu |
| Physical properties of organic and hybrid organic/inorganic thin films, structures, and devices as applied to the development of optoelectronic, electronic, and photonic organic devices of nano-scale thickness, including visible LEDs, lasers, solar cells, photodetectors, transistors, and flexible and transparent optoelectronics. |
 
   |
| Chan, V.W.S. |
8-8222 |
36-545 |
chan@mit.edu |
| Sonar, array processing for sonar, radar and seismic systems, acoustic telemetry, oceanography using acoustics. |
   |
| Chandrakasan, A. |
8-7619 |
38-107 |
anantha@mtl.mit.edu |
| Design of digital integrated circuits and systems. Energy efficient implementation of signal processing, communication and medical electronics. Circuit design with emerging technologies. |
  |
| Chuang, I.L. |
3-1692 |
26-251 |
ichuang@mit.edu |
| Quantum information science, quantum physics, computation and physics. |
     |
| Cooke, C.M. |
3-2591 |
N10-201 |
cmcooke@mit.edu |
| Electrostatic phenomena, properties and theories of dielectrics at high stresses. Generation and measurement of high voltages and electron X-ray beams. High resolution computerized tomography and acoustic wave imaging. Electronic instrumentation circuits. Sensors and monitoring systems. |
    |
| Daniel, L. |
3-2631 |
36-849 |
luca@mit.edu |
| Parameterized model order reduction and nonlinear dynamical systems. Mixed-signal, RF and mm-wave circuit modeling and robust optimization. Power electronics, MEMs design and fabrication. Parasitic extraction and accelerated integral equation field solvers. |
  |
| del Alamo, J.A. |
3-4764 |
39-567A |
alamo@mit.edu |
| Field-effect transistors using III-V compound semiconductors for beyond Si CMOS logic applications. Reliability of III-V and GaN field-effect transistors. Suitability of deep-submicron CMOS for RF power applications. Online laboratories for science and technology education. |
    |
| Dresselhaus, M.S. |
3-6864 |
13-3005 |
millie@mgm.mit.edu |
| Electronic materials engineering. Electronic, lattice, structural properties semimetals, semiconductors, metals, carbon nanotubes, graphene, graphene edges, low dimensional thermoelectric materials, bismuth nanowires. |
  |
| Ezekiel, S. |
3-3783 |
26-335 |
sezekiel@mit.edu |
| Experimental studies in interaction and radiation with matter. Ultrahigh resolution spectroscopy. Laser frequency stabilization. Precision optical measurement techniques. Nonlinear optics. Optical gyroscope. |
  |
| Fonstad, C.G. |
3-4634 |
13-3050 |
fonstad@mit.edu |
| Compound semiconductor heterostructures, devices and physics. Optoelectronic devices, monolithic optoelectronic integration technologies and applications, and optoelectronic VLSI. Microscale thermophotovoltaics. Molecular beam epitaxy. |
  
   |
| Fujimoto, J.G. |
3-8528 |
36-345 |
jgfuji@mit.edu |
| Lasers and ultrafast phenomena. Femtosecond laser technology and ultrashort pulse generation. Nonlinear optical materials. Photonic devices and micromachining. Biomedical optics and optical imaging. |
   |
| Gray, M.L. |
8-8974 |
E25-519 |
mgray@mit.edu |
| Electrical, mechanical and chemical mediators of connective tissue growth and development. Ion partitioning and transport in biological tissues. Magnetic resonance spectroscopy and imaging. Development of micromachined tools for biological applications. |
  |
| Grodzinsky, A.J. |
3-4969 |
NE47-377 |
alg@mit.edu |
| Influence of physical stresses on connective tissue metabolism, pathology, and repair. Physical regulation cellular behavior in cartilage. Diagnostics and therapeutics for arthritis. Mechanical, electromechanical, and physiochemical properties of biological tissues and polymeric biomaterials. Fundamental study and modeling of electrical, mechanical and chemical energy conversion in natural and synthetic membranes and tissues. |
   |
| Hagelstein, P.L. |
3-0899 |
36-570 |
plh@mit.edu |
| Applied theoretical and computational modeling of physical systems, anomalies in metal deuterides, thermal to electric conversion in solid state and small gap devices, photon theory and applications. |
   |
| Han, J. |
3-2290 |
36-841 |
jyhan@mit.edu |
| Micro-nanofluidic systems, application of micro-nanofabrication to biological problems. Biological MEMS, biomolecular analysis. Nanofluidics, biosensing, proteomic sample preparation. |
   |
| Hoyt, J.L. |
2-2873 |
39-427A |
jlhoyt@mtl.mit.edu |
| Novel processes, materials and device concepts for electronic and photonic silicon technology. Device physics of silicon-based heterostructures and nanostructures. Epitaxial growth by chemical vapor deposition. |
    |
| Hu, Q. |
3-1573 |
36-465 |
qhu@mit.edu |
| Terahertz quantum cascade lasers and electronics, and their applications. |
  |
| Ippen, E.P. |
3-8504 |
36-319 |
ippen@mit.edu |
| Femtosecond optics, ultrafast phenomena in materials and devices, lasers, microphotonics, devices for fiber-optic networks. |
    |
| Kaertner, F.X. |
2-3616 |
36-393 |
kaertner@mit.edu |
| Ultrashort pulse generation and its applications, frequency metrology, large scale ultraprecise timing and synchronisation, extreme nonlinear optics, attosecond science, noise in microwave and optical circuits, microphotonic devices. |
   |
| Kassakian, J.G. |
3-3448 |
10-172 |
jgk@mit.edu |
| Power electronics, power supplies, dc/dc converters, inverters, controlled rectifiers and motor drives, power semidonductor devices, automotive electronics and electrical systems, high energy storage double-layer capacitors, thermo-photovoltaics. |
     |
| Kirtley, J.L., Jr. |
3-2357 |
10-098 |
kirtley@mit.edu |
| Electromechanics, electric machinery, drive systems, electric power systems. |
   |
| Kolodziejski, L.A. |
3-6868 |
36-287 |
leskolo@mit.edu |
| Compound semiconductor materials, novel heterostructures, devices and device physics,. Heteroepitaxial growth processes and advanced fabrication technologies. Optoelectronic and photonic devices. |
    
|
| Kong, J. |
4-4068 |
13-3065 |
jingkong@mit.edu |
| Chemical syntheses/device integration of low dimensional materials, Raman spectroscopy characterization. |
  
|
| Lang, J.H. |
3-4687 |
10-176 |
lang@mit.edu |
| Analysis, design and control of physical systems. Emphasis on electromechanical systems. Traditional electric machines, microsensors, microactuators and flexible structures. |
   
|
| Lee, H.-S. |
3-5174 |
39-553A |
hslee@mit.edu |
| Research in analog integrated circuits in CMOS and BiCMOS technologies. Implementation of early vision algorithms in CCD and resistive fuse circuits. |
 
|
| Leeb, S.B. |
3-9360 |
10-069 |
sbleeb@mit.edu |
| Design, analysis, construction, control, and monitoring of servomechanical actuators and mechatronic systems. Application of exotic materials including gel polymers to actuator construction. |
   
|
| Orlando, T.P. |
3-5888 |
13-3006 |
orlando@mit.edu |
| Quantum computing with superconducting devices. Superconducting
devices. |
  
|
| Parker, R.R. |
8-6662 |
NW17-288 |
parker@psfc.mit.edu |
| Plasma and fusion research, in particular optimization of toroidal confinement in plasmas by means of current driven by radio-frequency waves. Development of diagnostics for measuring electron and ion distribution functions resulting from RF interactions with plasmas. |
 
|
| Palacios, T.A. |
4-2395 |
39-567B |
tpalacios@mit.edu |
| Design, fabrication and characterization of novel electronic devices in wide
bandgap semiconductors and graphene; polarization and bandgap engineering; transistors for sub-mm wave power and digital applications; new ideas for power conversion and generation; interaction of biological systems with semiconductor materials and devices. |
  
  
|
| Perreault, D.J. |
8-6038 |
10-039 |
djperrea@mit.edu |
| Electronic circuit design, power electronics and energy conversion, control. Applications to industrial, commercial, scientific, transportation, and biomedical systems. |
  
|
| Petrich, G.S. |
3-5020 |
36-293 |
gpetrich@mit.edu |
| Compound semiconductor materials, novel heterostructures, devices and device physics,. Heteroepitaxial growth processes and advanced fabrication technologies. Optoelectronic and photonic devices. |
    
|
| Ram, R.J. |
3-4182 |
36-491 |
rajeev@mit.edu |
| Novel semiconductor lasers for advanced fiber optic communications. Study of fundamental interactions between electronic materials and light. |
   
|
| Reif, L.R. |
3-4500 |
3-208 |
reif@mit.edu |
| Integrated circuit fabrication technology. New process technologies for VLSI. Multilevel interconnect technologies. Three-dimensional integration. Environmentally-benign semiconductor manufacturing. |
 
|
| Schmidt, M.A. |
3-7817 |
3-240 |
schmidt@mtl.mit.edu |
| Microelectromechanical systems (MEMS). Design of micromechanical sensors and actuators. Microfabrication technology. |
 
|
| Shapiro, J.H. |
3-4179 |
36-419 |
jhs@mit.edu |
| Quantum communication and measurement. Optical communication through the atmosphere. |
 
|
| Smith, H.I. |
3-6865 |
36-225 |
hismith@nano.mit.edu |
| Nanofabrication techniques and applications. Nanostructures. Nanolithography. Optoelectronic, and nanoscale devices. Optical communication. Microscopy. Templated self assembly. |
   
|
| Sodini, C.G. |
3-4938 |
39-527B |
sodini@mit.edu |
| Design of technology-intensive microsystems, emphasizing integrated circuit design at the device level, including organic integrated circuits, silicon mm-wave imaging systems and medical electronics systems. |
 
|
| Staelin, D. H. |
3-3711 |
26-341 |
staelin@mit.edu |
| Microwave and infrared remote sensing from satellites, neural signal processing, estimation, wireless communications, and electromagnetics. |

|
| Temkin, R.J. |
3-5528 |
NW16-186 |
temkin@mit.edu
|
| Vacuum electron devices, coherent radiation generation, free electron lasers, gyrotron research, quasi-optical antennas, relativistic beam physics, accelerator physics, plasma physics. |
  
|
| Verghese, G.C. |
3-4612 |
10-140K |
verghese@mit.edu |
| Structure and dynamics of networked systems; estimation, control, signal processing; physically-based model reduction; applications, especially in biomedicine, biology and power systems. |

|
| Voldman, J. |
3-2094 |
36-824 |
voldman@mit.edu |
| Biological applications of microtechnology, especially to cell biology; bioMEMS; electrostatics at the microscale. |
 
|
| Weinstein, D. |
3-8930 |
39-553a |
dana@mtl.mit.edu |
| Micro Electro-Mechanical Systems (MEMS). Hybrid NEMS-CMOS devices for wireless communication, signal generation, processing, and sensors. |
   
|
| Warde, C. |
3-6858 |
13-3102 |
warde@mtl.mit.edu |
| Devices and systems for optical information processing; optoelectronic integrated circuit neuro-processors; optical neural network algorithms and architectures; integrated spectropolarimetric imaging sensors; spatial light modulators; microdisplays. |
  
|
| Watts, M.R. |
3-3073 |
26-349 |
mwatts@mit.edu |
| Electromagnetics and microphotonics. develops microphotonic elements, circuits, and systems for a variety of applications, including communications, sensing, and coupled microwave-photonic circuits, often enabling fundamental advantages over traditional implementations. Microphotonic devices are combined to form large-scale circuits and systems such as low power inter-chip networks, thermal imagers, nanophotonic phased-arrays for high-speed beam-steering, and optical-microwave oscillators for precision timing. |
  
|
| Wong, N.C. |
3-8131 |
36-473 |
ncw@mit.edu |
| Quantum communications and measurements including photonic entanglement
generation and applications. Quantum imaging and sensing. Nonlinear
optics. |
 
|
| Yanik, M.F. |
3-1583 |
36-834 |
yanik@mit.edu |
| Technologies for regenerative neurobiology. Neural regeneration and complex wiring of neuronal networks probed and manipulated using various technologies including microfluidics, femtosecond laser microsurgery, and 3D multi-photon imaging. Development of novel drug and genetic screening and discovery platforms. Animal and cell culture models employed ranging from C. elegans to embryonic-stem-cell derived neurons. |
  
|
| Zahn, M. |
3-4688 |
10-174 |
zahn@mit.edu |
| Electromagnetic, electromechanical, and electro-optic interactions with gaseous, liquid, and solid media, especially under high electric field conditions. Theory, measurements, and applications of high voltage conduction and breakdown phenomena. Capacitive and inductive sensors for measuring dielectric, conduction, and magnetic properties of materials. Design and fabrication of magnetic field based MEMS devices using magnetic particles and liquids. |
  
  
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