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EECS Nonfaculty Master's Thesis Supervisors
This list, maintained by the EECS Graduate Office,
is one of three intended to help department graduate students and undergraduates
find research supervisors. The other two lists are of faculty
research supervisors and of those authorized to supervise doctor's
theses. Office addresses, telephone numbers, Internet addresses, and personal
home-page URLs of those listed below are available from the MIT Directory or
the on-line MIT Directory.
A description of who is authorized to supervise theses or projects at various
levels appears in a page devoted to research supervisors.
Graduate Areas. For purposes of administering the department doctoral
program, faculty are loosely affiliated with one or more of six Graduate
Areas. The Area chairmen or co-chairmen are listed in a discussion of research
supervisors.
Nonfaculty Master's Thesis Supervisors
The following members of the research staff and departmental affiliates
have been approved as Master's thesis supervisors.
A B C
D E F G
H I J K
L M N O
P Q R S
T U V W
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A |
Bowman, H. F. (Area VII)
Development and evaluation of computer-based medical instrumentation (e.g.
temperature, oxygen blood flow and thermal properties). Projects relevant
to clinical applications in cancer, surgery, anesthesia, physiology, neurosurgery,
shock and bioheat and mass transfer.
Burns, S. K. (Areas VII, III)
Medical instrumentation, microprocessor based instrumentation and system
development hardware and software, analog and digital signal processing,
real-time computer networks, electrocardiography, sports medicine, telephony.
Medical instruments in the developing world.
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C |
Cooke, C. M. (Areas IV, III, V, VII)
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.
Cunningham, R. (Areas II and III)
Computer, communications and information system security. Machine learning for and correlation and prioritization of security events and test and evaluation of others' systems. (At Lincoln Laboratory)
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D |
Delgutte, B. (Area VII)
Neural basis of auditory perception. Improvement of hearing aids, cochlear implants, and artificial systems for reproduction, transmission and recognition of sounds.
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E |
Eddington, D. K. (Area VII)
Electrical stimulation of the human auditory system: sound processing
systems that stimulate implanted electrodes, psychophysics, and models
of current spread in the cochlea and of auditory nerve activity. |
F |
Finn, S. (Area I)
Data network design, architectures, routing and congestion control algorithms
and network management. All optical wideband networks and their design
and architecture.
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G |
Garland, S. J. (Area II)
Practical applications of formal methods to software design and development.
Specifying and reasoning about distributed systems and network protocols.
Automated deduction.
Gershwin, S. B.
(Area I)
Manufacturing systems. Markov processes and queuing systems. Large scale
optimization in networks. Optimal control.
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H |
Hanson, C. (Area II)
VLSI Mixed-signal design. Radio communications. Signal processing.
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I |
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J |
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K
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Khazan, R. (Area II)
Robust and
secure algorithms and protocols for
distributed systems and networks -- both theory and systems. Communication
and collaboration in dynamic environments. Information assurance and
computer security. Protection against and understanding of malicious
software. |
L |
Lippman, A. B. (Areas III, I)
Wireless network communications involving scalable radio that works in
realtime independent of any infrastructure. We call these "viral communications"
because they simplify innovation. Elements iclude protocols, radio design,
signal processing, media representations and human interaction.
Lippman, R. (Area I, II)
Neural networks, computer security, pattern classification, computer intrusion
detection. Static code analysis to detect security vulnerabilities.
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M |
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N |
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O |
O'Reilly, U.-M. (Area II)
Genetic and evolutionary algorithms applied to circuit optimization, network coding, systems (e.g. multicore) and conceptual design. Leader of EVO-DesignOpt.
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P |
Perkell, J. S. (Area VII)
Speech motor control. Normal speech production, speech of cochlear implant
patients. Multichannel recording, analysis and modeling of physiological
and acoustical phenomena in speech production.
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Q |
Quatieri, T. F. (Area VII)
Digital signal processing; time-frequency analysis of speech, audio and
underwater signals; signal processing in sound production and auditory
frontends; applications to speaker recognition, speech enhancement and
modification. (At Lincoln Lab)
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R |
Rosowski, J.J. (Area VII)
Acoustics and mechanics of external and middle ears. Diagnostic methods
for the detection and analysis of auditory impairments and therapies.
Acoustic cues used inauditory localization.
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S |
Seneff, S. (Areas VII, III)
Spoken conversational systems, spoken language understanding and generation,
genomics.
Shrobe, H. (Area II)
Artificial intelligence design of mechanisms, programming environments.
Sollins, K. R. (Area II)
Network architecture, distributed systems, naming, security, information
systems.
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T |
Temkin,
R. J. (Area IV)
Vacuum electron devices, coherent radiation generation, free electron
lasers, gyrotron research, quasi-optical antennas, relativistic beam physics,
accelerator physics, plasma physics.
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U |
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V |
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W |
Weinstein, C. (Areas I, II)
Speech processing, recognition, and understanding. Network and information
system survivability and security. (At Lincoln Lab)
Whitney, D.E. (Area
I)
CAD/CAM, product development. Mechanical assemblies; computer data models
of assemblies.
Wong, N. C. (Areas IV, V)
Experimental nonlinear and quantum optics, entangled sources for quantum
information infrastructure, optical frequency division, periodically poled
nonlinear crystals, wireless optical communication. |
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Y |
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Z |
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