MASSACHUSETTS INSTITUTE OF TECHNOLOGY

Department of Electrical Engineering and Computer Science

GUIDE TO GRADUATE STUDY IN AREA I:
Systems, Communication, Control and Signal Processing

Fall, 2008

 

1. Introduction

2. Initial Priorities for New Graduate Students

3. Finding a Thesis Supervisor

4. Undergraduate Background

5. Core Area I Graduate Subjects

6. Technical Qualifying Exam (TQE)

7. Beyond the Core Subjects

8. For More Help

9. Area I Faculty Members and Affiliated Faculty/Staff

1. Introduction

Welcome to Area I!

This guide is primarily written for entering graduate students who have come from undergraduate universities other than MIT, and who intend eventually to obtain a Ph.D. at MIT. It is intended as a planning guide for the first two years, which is the normal period for obtaining the masters degree and completing the departmental Technical Qualifying Exam (TQE).

For administrative convenience, the faculty and graduate students in the department are divided up into six primary research “areas” according to their preferences. And although the area definitions are somewhat arbitrary — and the boundaries between them often quite artificial — many of these areas have a long history and well-established culture. Area I is certainly no exception, and as a result its boundaries are deliberately fuzzy and there is considerable overlap and many connections with other areas. Each area is responsible for a portion of the graduate curriculum that reflects its intellectual core. Over the course of their graduate careers, students take courses both within their chosen area and in other areas and departments to fulfill their degree requirements, and end up interacting with a similarly broad collection of faculty, staff, and students.

Area I research concerns itself with a broad spectrum of problems of communication and coding, systems theory and control, optimization, statistical inference and decision theory, and signal processing, as well as the shared methodological underpinnings of — and increasingly the interactions between — these different fields. Research topics range from fundamental principles to application, from analysis to synthesis, and from theory to experiment and simulation. Thesis research can involve different combinations of the above, depending on the student's interests and the nature of the problem. A list of several recent Area I graduate theses is provided at the end of this document as examples.

In general, Area I draws graduate students from a broad range of backgrounds, and with a wide variety of objectives for graduate study. It is the culture of MIT to encourage students to take the initiative to tailor their graduate program accordingly.


2. Initial Priorities for New Graduate Students

Our graduate program involves a combination of research, course work, and, in most cases, teaching. A number of requirements must eventually be satisfied. Experience has shown that the first-year student will do well to focus on the following primary goals:

· Finding a masters thesis supervisor
· Ensuring fluency in the necessary undergraduate background for Area I
· Successfully completing at least two Area I core graduate courses with mastery

Completion of the technical qualifying exam (TQE) will follow from success in the latter two areas. Experience has also shown that the first-year student should not focus too much on the following secondary goals:

· Racking up credits (no one has ever failed to obtain an MIT degree for lack of credits)
· Sampling a tempting smorgasbord of interesting courses
· Beginning your minor requirement
· Satisfying your TA requirement (unless you are supported by a TAship)

3. Finding a Thesis Supervisor

Finding a thesis advisor that is a good match in terms of interests, style, and temperament should be the student's top priority from the moment of arrival, if not earlier. As a result of the popularity of Area I among students, there are many more graduate students in Area I than can be supervised by the Area I Faculty alone. However, there are many faculty and staff whose primary affiliation is an area other than Area I, but who have Area I oriented research projects and supervise Area I graduate students. So, while the opportunities are plentiful, the process of identifying and picking one is less straightforward than in other areas.

Students supported by a research assistantship (RA) have already achieved this goal. Such students should register for 24 units of 6.991 (Research in EECS) or 6.ThG (graduate thesis research), plus at most two 12-unit subjects. (Note that in terms of strategy it is perfectly acceptable to register for more subjects initially, and then to drop all but one or two after sampling the first few weeks of lectures; in general, it is very easy to add and drop subjects at MIT.)

Students supported by a teaching assistantship (TA) or a fellowship (or other support) should start immediately to try to find a thesis advisor. Such students should register for 6.961, a 12-unit subject that introduces the student to graduate research in the department. The first phase of this subject involves finding a research supervisor for the term with an interesting introductory research project. Note that while most 6.961 projects evolve into masters theses, the masters thesis can ultimately go in a different direction and even involve a different research supervisor, depending on opportunities. TA’s also typically register for 24 units of 6.981 (Teaching in EECS), leaving them room for one additional 12-unit subject. Students with fellowship support usually have room for two such subjects.

Finally, some hints:


  • · If there is a particular professor with whom you have a strong desire to work, a good strategy is to take a course they teach and do very well in it.

    · Be open to research opportunities in Area I that may be less familiar. While incoming students see examples of Area I fields and topics as undergraduates, many important and exciting themes within the area are not encountered in the undergraduate curriculum. Learning about those through the papers and web sites of area faculty, groups, and labs, should be a priority for new graduate students.

    · The graduate office has a number of resources for helping students find suitable research supervisors. One of particular note is the EECS brochure Research Interests of Faculty Members Who Supervise Graduate Theses, which every new graduate student should read through.

  • · As in many other dimensions of graduate school life at MIT, our environment favors those with a strong sense of initiative and perseverance, and creativity and resourcefulness play key roles in finding a good opportunity. Area I graduate students frequently find interesting research opportunities in any number of different departments and laboratories on campus, as well as in laboratories off-campus including Lincoln Laboratory, Draper Laboratory, and a variety of medical and biomedical laboratories.

4. Undergraduate Background

Most of the Area I graduate subjects have a strong mathematical bent and require not just an exposure to, but a fluency with, undergraduate background in linear systems, probability, and linear algebra. Students should assure themselves that they have such fluency as a solid foundation for their graduate work.

A common mistake is to enroll in an Area I graduate subject thinking that you can correct your background deficiencies as you go along, and then to find out about the time of the midterm exam that you are falling behind and doing poorly because of your inadequate background. It is much better to correct your background deficiencies first (and you will be much happier).

Some students can achieve mastery of background subjects by self-study, and some can’t. If you attempt this route, you should complete your self-study before the term begins.

There is absolutely no dishonor in taking MIT undergraduate courses to bolster your undergraduate background. This is very common in the Area and highly recommended if your undergraduate institution didn’t emphasize this background enough. Relevant courses at MIT include:


· 6.003 (Signals and Systems)
· 6.431 (Applied Probability)
· 18.06 (Linear Algebra)
· 6.011 (Introduction to Communication, Control and Signal Processing)

5. Core Area I Graduate Subjects
Area I offers a broad range of graduate subjects in its constituent fields, most of which can be taken with few prerequisites other than that the common undergraduate background discussed above.

Certain of these graduate subjects are regarded as “core,” in the sense that they are appropriate for first-year graduate students with adequate undergraduate background, and are prerequisites for further subjects in the same area. These core subjects include:

· 6.241 (Dynamic Systems and Control)
· 6.251 (Introduction to Mathematical Programming) or
· 6.255J (Optimization Methods)

· 6.262 (Discrete Stochastic Processes)
· 6.341 (Discrete-Time Signal Processing)
· 6.437 (Inference and Information)
· 6.450 (Principals of Digital Communications I)
· 6.972 (Algorithms for Estimation and Inference)

Most first-year graduate students should plan to take at least two of these core subjects in their first year.

All of these subjects assume a fairly high degree of mathematical maturity and involve a relatively heavy time commitment. It is always better to take fewer subjects each term and do well in each than to take more subjects and do mediocre work in all of them.

6. The Technical Qualifying Exam (TQE)

The TQE is a departmental exam which involves proving competence in four subjects, as follows:


· Demonstrating mastery of two EECS undergraduate subjects by taking exams, normally at the end of the spring of the first year. Area I students most typically take the exams in 6.003 (Signals and Systems) and 6.041 (Applied Probability), though this is not a requirement. The graduate office maintains the list of choices.

· Passing two eligible graduate EECS subjects with high marks. Note that most (but, perhaps paradoxically, not all) of the core Area I graduate subjects listed in the previous section can be used to satisfy the graduate portion of the TQE. When planning your first choices, check with the graduate office to be sure which are eligible for TQE designation.
TQE Subject List.


The undergraduate exams are graded S (Satisfactory), M (Marginal), and U (Unsatisfactory), which may be regarded
as corresponding A, B, and C , respectively. The TQE is passed immediately and no oral exam component is required if a student gets either 4 A’s, or 3 A’s and a B. If a student does not meet this grade threshold, they proceed to the next portion of the exam, in which follow-up oral exam(s) are taken in the area(s) of identified weakness until adequate competence is demonstrated. It should be emphasized that there is no shame in taking an oral exam; until relatively recently in our department’s history all graduate students took an oral exam. The current TQE format simply removes this component of the exam for the subset of students for whom there is already evidence that their backgrounds are sufficiently sound to proceed.


7. Beyond the Core Subjects

The student may choose as many additional courses as he or she can handle in order to obtain greater depth in the various topical subareas of Area I, greater breadth in other areas, or just to satisfy intellectual curiosity or be exposed to a great teacher. However, keep in mind that:

· Again, it is to do well in fewer courses than not so well in more courses

· There will be plenty of time at MIT to take all the courses your heart desires


The MIT Bulletin, your graduate counselor, your research supervisor, your instructors, and your graduate student peers are all excellent sources of suggestions for subjects that may be a good match to Area I students and interests. While Area I students invariably end up taking at least as many subjects outside Area I’s offerings as they do inside, in the remainder of this section we summarize some of the historically popular Area I follow-on offerings:


  • · 6.231 (Dynamic Programming and Stochastic Control)
    · 6.242 (Advanced Linear Control Systems)
    · 6.243J (Dynamics of Nonlinear Systems)
    · 6.245 (Multivariable Control Systems)
    · 6.252J (Nonlinear Programming)
    · 6.263J (Data-Communication Networks)
    · 6.291 (Seminar in Systems, Communication, and Control Research)
    · 6.343 (Digital Speech Processing)
    · 6.344 (Two-Dimensional Signal and Image Processing)
    · 6.345 (Automatic Speech Recognition)
    · 6.433 (Recursive Estimation)
    · 6.435 (System Identification)
    · 6.441 (Transmission of Information)
    · 6.442 (Optical Networks)
    · 6.451 (Principles of Digital Communication II)

    · 6.452(Principles of Wireless Communication)
  • · 6.454 (Graduate Seminar in Area I)
    · 6.455 (Sonar, Radar and Seismic Signal Processing)
    · 6.456 (Array Processing)

8. For More Help

In addition to discussions with their graduate counsellors, new students are free to consult any other faculty members in Area I for guidance in selecting appropriate subjects for their initial semesters, or for assistance in dealing with any difficult or awkward situations they may find themselves in academically in the course of their program. More senior graduate students are also an invaluable source of assistance. Finally, the most useful resource you are likely to find is the Department’s Graduate Office itself, which has a wealth of information as well as an extremely dedicated staff. In particular, Professor Arthur Smith, Marilyn Pierce and Peggy Carney can be counted on for an attentive hearing, wise counsel, and important practical help.

9. Area I Faculty Members and Affiliated Faculty/Staff

name
phone
e-e-mail ofofficefice
ADALSTEINSSON, ELFAR
3-3597
elfar@mit.edu 26-335
BAGGEROER, ARTHUR
3-4336
abb@arctic.mit.edu 5-206A
BERTSEKAS, DIMITRI
3-7267
dimitrib@mit.edu 32-D660
CHAN, VINCENT
8-8222
chan@mit.edu 32-D608
DAHLEH, MUNTHER
3-3892
dahleh@mit.edu 32-D732
DANIEL, LUCA
3-2631
luca@mit.edu 36-849
FINN, STEVEN
3-6170
finn@ll.mit.edu LL-B345
FORNEY, JR., G. DAVID
3-4181
forneyd@comcast.net 32-D634
GALLAGER, ROBERT
3-2533
gallager@mit.edu 32-D628
GERSHWIN, STANLEY
3-2149
gershwin@mit.edu 35-210  
GLASS, JAMES
3-1640
glass@mit.edu 32-G444  
GOLLAND, POLINA
3-8005
polina@csail.mit.edu 32-D470  
GOYAL, VIVEK K.
4-0367
vgoyal@mit.edu 36-690  
GUTTAG, JOHN
3-6022
guttag@mit.edu 32-G966  
ILIC, MARIJA
3-4682
ilic@mit.edu E40-441
LANG, JEFFREY
3-4687
lang@mit.edu 10-176
LIM, JAE
3-8143
jslim@mit.edu 36-653
LIPPPMAN, ANDREW
3-5113
lip@mit.edu E15-490
LIPPPMAN, RICHARD
1-2711
lippmann@ll.mit.edu LL-C-290
MAGNANTI, TOM
3-6604
magnanti@mit.edu 1-206
MASSAQUOI, STEVEN
3-7093
sgm@mit.edu 32-214
MEDARD, MURIEL
3-3167
medard@mit.edu 32-D626
MEGRETSKI, ALEXANDRE
3-9828
ameg@mit.edu 32-D730
MITTER, SANJOY
3-2160
mitter@mit.edu 32-D562
OPPENHEIM, ALAN
3-4177
avo@mit.edu 36-515
OZDAGLAR, ASUMAN
4-0058
asuman@mit.edu 32-D630
PARRILO, PABLO
4-1542
parrilo@mit.edu 32D-726  
SARPESHKAR, RAHUL
8-6599
rahuls@mit.edu 38-294
SCHINDALL, JOEL
3-3934
joels@mit.edu 10-140H
SHAH, DEVAVRAT
3-4670
devavrat@mit.edu 32-D670
SHAPIRO, JEFFERY
3-4179
jhs@mit.edu 36-419
STAELIN, DAVID
3-3711
staelin@mit.edu 26-341
STOJANOVIC, VALDIMIR
4-4913
vlada@mit.edu 38-260  
TSITSIKLIS, JOHN
3-6175
jnt@mit.edu 32-D662
VERGHESE, GEORGE
3-4612
verghese@mit.edu 10-093
WHITE, JACOB K.
3-2543
white@mit.edu 36-817
WEINSTEIN, CLIFFORD
1-7621
cjw@ll.mit.edu LL-C-290  
WHITNEY, DAVID
dww@mit.edu    
WILLSKY, ALAN S.
3-2356
willsky@mit.edu 32-D582
WORNELL, GREGORY
3-3513
gww@mit.edu 36-695
WYATT, JOHN
3-6718
jlw@mit.edu 36-864
ZHENG, LIZHONG
2-2941
lizhong@mit.edu 32-D624
ZUE, VICTOR
3-8513
zue@csail.mit.edu 32-G470  

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