Toni Emerson 

EDUC: MIT Summer Sessions

14 Mar 1994 16:13:11 GMT None given 

Newsgroups: 
   sci.virtual-worlds 

[Below is course information that I received from MIT regarding it's
Summer Sessions.  I am posting two of the classes offered (this is the
first of two files).  Application information will follow each file:

-T.E.]

---------------------------------------------------------
2.18s  Human Centered Automation & Supervisory Control

June 13-17, 1994                                Tuition:  $1,700

This course is about human-centered and human supervisory control of 
semi-automated systems, with application to a broad range of such 
systems.  These include aircraft and air traffic control, intelligent 
vehicle-highway systems and high-speed rail systems.  Also included are 
robotic systems for space, undersea, toxic environment cleanup, 
manufacturing, mining, surveillance, and medical applications, as well 
as process control, both for electric power generation and chemical 
manufacturing.  The emphasis will be on the generality of human 
supervisory control, and the similarity of problems of human-computer 
cooperation across all the applications.

Topics covered
Human Factors Background
        Design of displays
        Panel layout and design of controls
        Task analysis
        Graphical user interfaces (GUI)
        Functional requirements analysis

Theory and Models of Supervisory Control (SC)
        Definitions
        Supervisory functions
        Loops and levels in SC
        Extensions of manual control to encompass SC
        Attention allocation
        Fuzzy logic
        Relation of SC to artificial intelligence
        Cognitive modeling
        Optimization methods
        Planning approaches and search algorithms
        Factors which limit ability to model SC

SC in Aircraft, Automotive, Process, Other Applications
        Aviation automation, including
                Flight management systems
                Mode control and state commands
                Mode confusion
                Guidance
        Intelligent vehicle-highway systems (IVHS)
        Nuclear power and other process plants
        Manufacturing
        Goal setting and satisfying
        Supervisory monitoring displays
        Failure detection/diagnosis/location
        Mental workload
        Human intervention in automatic operation
        Human error
Telerobotics for Space, Undersea, Other Applications
        History and current activities
        Teleoperator configurations and coordinates
        SC command languages
        Use of television and teleproprioception
        Force and touch sensing, display and use
        Telepresence and virtual reality
        Coping with time delay
        State estimation, decision-aiding, planning
        Measuring performance

Social Implications
        Trends toward super, tele and meta
        Intended positive effects of telerobotics/automation
        Negative implications for individuals and for society
        Trust in technology and how far to go with automation
        Public appreciation and design dilemmas

Who should attend
The course is for systems engineers who want to understand how to 
include the human operator in the new role of supervisory decision-
maker/controller.  It is also for human factors professionals who want 
to be brought up to date on modeling and designing for human-computer 
interaction in aircraft, highway and rail systems, robotics, and process 
control applications.  Finally, it is for research and design managers 
who want to gain an appreciation of the new challenges and problems of 
integrating the human operator into automated systems.

Staff
The principal lecturers are Prof. Thomas B. Sheridan, Director of the 
Human-Machine Systems Laboratory in the Department of Mechanical 
Engineering, MIT, and Professor R. John Hansman, Director of the 
Aeronautical Systems Laboratory in the Department of Aeronautics and 
Astronautics, MIT.

Text and Notes
The book Telerobotics, Automation and Human Supervisory Control by T. B. 
Sheridan, MIT Press, 1992, will be a primary reference, and will be 
provided to all course attendees.  This will be augmented by notes on 
aviation applications by R. J. Hansman.


10.35s  Modeling, Simulation and Optimization

August 1-10, 1994 (8 days)                               Tuition:  
$2,100

Tools for computer-aided process engineering are widely used in industry 
for scale-up and design of new plants and to improve the operation of 
existing plants.  The rapid growth of this field is being driven by the 
availability of powerful, easy-to-use software systems that run on PCs 
and engineering workstations and use a familiar graphical user 
interface. 
        Many leading companies have identified computer modeling of 
chemical manufacturing processes as a strategic technology.  The use of 
computer models enables them to reduce manufacturing costs, increase 
efficiency, reduce pollution, improve the safety of their plants, bring 
new products to market faster, and improve the quality of the products 
they manufacture.

        There have also been dramatic developments in process modeling 
technology.  In addition to traditional steady-state flowsheet 
simulation, it is now possible to simulate the dynamic behavior of 
process plants and to optimize their performance.  The range of 
processes that can be modeled accurately has been extended to those 
involving solids and complex chemistry such as polymers.                       
                                                                               
        The program is intended for engineers, scientists, and managers 
interested in state-of-the-art applications of computer-based techniques 
for modeling chemical processes.  The prerequisites include a working 
knowledge of chemical engineering and/or experience in the process 
industry and a familiarity with the use of the computer to solve 
engineering problems.

        The program presents new developments in the field along with
the background and basic principles necessary to understand and use
recent developments.  Participants will gain perspective and insight
into the potential applications of simulation and optimization
techniques, as well as experience in the use of specific tools which
are currently available.

        The emphasis is on practical techniques that participants can
use in solving on-the-job problems.

        Morning and afternoon sessions will be held.  There will be
formal lectures and workshop sessions each day.  Part of the
participants' time will be devoted to working in small groups on the
solution of case study problems using MIT computing facilities.  Notes
covering and supplementing the lectures will be distributed to the
participants.

Outline of the Program
Topics to be covered in the program include:

1.      Steady-state process simulation:  formulation of the problem, 
modeling of chemical process units, simulation of integrated flowsheets 
with recycle, handling design constraints and specifications.

        Numerical methods for solving the large systems of nonlinear 
algebraic equations that arise in steady-state simulation:  direct 
iteration, Newton and quasi-Newton methods, convergence and 
acceleration, homotopy continuation.

Comparison of sequential modular, simultaneous modular, and equation 
oriented computation architectures for steady-state simulation.
     Participants will get hands-on experience using ASPEN PLUS  with 
Model Manager to solve case study problems.

2.    Dynamic process simulation:  dynamic process models, correct 
problem formulation, numerical methods for solving nonlinear ordinary 
differential and differential-algebraic equations, software 
architectures for dynamic simulation, simulation of complex operating 
procedures and batch processes.

     Participants will use SpeedUp to solve case studies involving 
continuous processes, and ABACUSS to model batch processes.

3.  Supercomputers and parallel processing:  overview of this rapidly 
advancing technology that will facilitate the solution of larger and 
more detailed process models.

4.   Process optimization:  formulation of the problem, economic design 
and operating criteria, definition of the objective function, 
identification of constraints, numerical techniques for solving 
constrained optimization problems, incorporation of optimization 
routines into general-purpose simulation programs, on-line process 
optimization.

      Participants will use GINO  to set up and solve simple 
optimization problems.

5.   Process synthesis:  recent advances in computer-aided process 
synthesis, design heuristics and algorithms, energy efficiency analysis 
using thermodynamic availability, including the use of pinch technology, 
reaction path synthesis, strategies for designing energy recovery 
networks, design of ideal and non-ideal separation sequences, computer 
oriented methods for rapid screening of process flowsheets in initial 
design studies.

     Participants will use ADVENT to solve process synthesis problems.

Staff
Instructors in-charge:  Paul I. Barton, Assistant Professor of Chemical 
Engineering, M.I.T.;  Lawrence B. Evans, Adjunct Professor of Chemical 
Engineering, M.I.T.  Lecturers:  Su Ahmad, Aspen Technology, Inc.; 
Lorenz T. Biegler, Professor of Chemical Engineering, Carnegie-Mellon 
University; Vladimir Mahalec, Aspen Technology Inc.; Gregory J. McRae, 
Professor of Chemical Engineering, M.I.T.; J. D. Seader, Professor of 
Chemical Engineering, University of Utah; Oliver M. Wahnschafft, Aspen 
Technology, Inc.

------application below---------
Massachusetts Institute of Technology
Office of the Summer Session

APPLICATION FOR ADMISSION TO THE SUMMER PROFESSIONAL PROGRAM

First read the policy and general information file concerning admission, 
living accommodations and method of payment. Then, please complete this 
application and return it to: Prof. F. J. McGarry, Director; Office of 
the 
Summer Session; Rm E19-356, MIT, Cambridge MA 02139; Tel 617-253-2101;
Fax: 617-253-8042; e-mail: summer-professional-programs@mit.edu

1) Program Number, Name and Dates:

2) Your Full Name:

3) Birthdate:

4) Home Address:

5) Business Address:

6) Which address shall we use to reply?  Home   Business

7) Phone:

8) Fax:

9) E-mail Address:

10) Professional position:

11) Academic training: (College, Dates of attendance, Major field,
Degree, if any):

12) Professional experience (past five years): (Position, Company,
Location, Dates)

13) Professional society membership:

14) Reasons for wishing to enroll in this Summer Professional Program:

15) Do you desire MIT dormitory accommodations?  Single Double
Children  Date of arrival at dormitory?   Date of departure?

(Please note: No dormitory accommodations are available for 
children under six years of age.)

16) Signature

17) How did you learn of this program?


ADMISSION
        In order to maintain highest standards, the enrollment in each 
Summer Professional Program is limited according to the facilities and 
staff which are available.  Applications will be accepted until the 
program limit has been reached.  The Institute reserves the right to 
select those applicants whose qualifications and experience suggest that 
they will receive the most benefit from a given seminar.  Admission is 
transferable only by specific authorization of the Office of the Summer 
Session.  An application for the proposed substitute must be submitted.

        Programs are occasionally canceled because key faculty members
are unavailable or because enrollment is too low.  Every effort is
made to announce cancellations at least 3 to 4 weeks before the
scheduled start of the program.  All fees will be refunded upon
program cancellation, however, the Summer Session is in no way liable
for non-refundable travel reservations.

FEES
        Payments by Check, Draft or Money Order: Payment to be
submitted no later than two weeks before the scheduled program,
accompanied by our invoice and mailed in our self-addressed envelope.
Payment must be in US dollars and sent directly to the Office of the
Summer Session, Room E19-356, MIT, Cambridge, Massachusetts 02139.
Bank transfers are not recommended due to extremely lengthy delays in
crediting to our account.  If payment is not received by the specified
date, the Institute reserves the right to cancel admission.  We do not
accept credit cards.

        Contract/Purchase Orders: Registrants whose tuition and/or
housing is to be covered by a government contract or company purchase
order should return the invoice with the necessary papers no later
than two weeks before the scheduled program to Office of the Summer
Session, Room E19-356, MIT, Cambridge, Massachusetts 02139.  If a
contract or purchase order is not received by the specific date, the
registrant may submit a letter of authorization for payment.
Enrollment cannot be guaranteed without receipt of a Purchase Order or
a Letter of Authorization.  Each purchase order or letter of
authorization should include the name of the applicant as well as the
name and program number for which the tuition is intended.  Government
purchase orders should have prepayment authorization.  Please note: A
government contract or a company purchase order alone does not reserve
a place in a program; it must be preceded or accompanied by a
completed application for admission.  Since government contracts do
not cover housing, payments must be received under the same guidelines
as the tuition.  Receipts: Receipts will be mailed when payment is
received.

CANCELLATIONS
A 20% cancellation fee will be charged any registrant who cancels less 
than two weeks (14 calendar days, weekends included) before the start 
date of the program.   If the registrant does not appear for the 
program, full tuition will be charged.  NO refund of tuition will be 
made to those who arrive late or leave before completing a program in 
which they have been registered.

CEUs
     Registrants who successfully complete this Summer Professional 
Program can earn Continuing Education Units (CEUs) through the MIT 
Office of the Summer Session, which keeps the records.  Please notify 
the staff person at registration if you would like to receive a letter 
at the completion of the program.

HOUSING
        Hotel Accommodations:  Most participants stay at nearby hotels.  
The Hyatt Regency Cambridge, the Eliot Hotel, and the Marriott Cambridge 
are all within a mile of the MIT campus.  The Summer Session Office does 
not make reservations, but will provide a complete list of local hotels 
and rate information.

        Dormitory Accommodations: MIT dormitories are also available
for those desiring less expensive, but fairly spartan accommodations.
Bed linen and towels are supplied.  Rooms do not have televisions,
private baths, or kitchen facilities, but are air-conditioned; room
phones require use of a calling card.  The dorm is co-ed.  The
building is locked, but staff are on duty 24 hours per day, 7 days a
week.  Dorm stays begin the day prior to a program.  Checkout is
11:00AM on the final day of the program.  A stay beyond the last day
of the program requires approval (upon arrival) from the dormitory
manager.  Reservations are confirmed in the Notification of Admission
and should be presented at the dormitory upon arrival.  If you wish to
make, cancel or alter dormitory reservations, notify the Office of the
Summer Session promptly.  Housing fees are payable to the Office of
the Summer Session, Room E19-356, MIT, Cambridge, Massachusetts 02139.
No money will be collected at the dormitory.  Dormitory fees are not
refunded for Fridays, Saturdays, or holidays during two-week programs.

        The dormitory is:  New House, West Campus (entrance on Amherst 
Street).  From Memorial Drive, take a right onto Fowler Street, then a 
left onto Amherst Street, 471 Memorial Drive, Cambridge, Massachusetts  
02139, (617)253-6561 (after 4:30PM)  RATES:  Single: $50 per night; 
Double:  $60 per night  Children (6-14 yrs) $5 per night (accommodated 
in the same room as parents).  Please note:  Children under 6 years of 
age and pets are not allowed in the dormitory.  Children 15 years of age 
and older are charged the adult daily rate of $50 and receive a separate 
single room.  No dormitory employee is authorized to modify these 
regulations.

        The Massachusetts Institute of Technology admits students of
any race, color, sex, religious beliefs, national or ethnic origin to
all rights, privileges, programs, and activities generally accorded or
made available to students at the Institute.  It does not discriminate
against individuals on the basis of race, color, sex, sexual
orientation, religion, handicap, age or national or ethnic origin in
the administration of its educational policies, admissions policies,
scholarship and loan programs, and athletic and other Institute-
administered programs and activities, but may favor US citizens or
residents in admissions and financial aid.  The Institute has adopted
an affirmative action plan expressing its continuing commitment to the
principle of equal opportunity in education.  The Director of the
Summer Session reserves the right of discretionary allocation of
available scholarship funds.
    
ON-SITE PROGRAMS
MIT Summer Professional Programs may be presented for groups
of twenty (20) or more of your employees at your location.  
Contact  Prof. F. J. McGarry at 617-253-2101 for further 
information.

