Masters Degree in Computational Chemistry
A. OVERVIEW

The Masters Degree in Computational
Chemistry offered by the Michigan State University department of chemistry is
designed to graduate individuals who are qualified to implement, manage, and
support all aspects of computer usage in the modern academic and industrial
scientific setting and who will serve as resources for modeling, visualization
and data base activities. Students in this program will complete a series of
core courses in advanced chemistry, computer science and statistics. An
essential component of this program is a one semester paid internship with a
computationally intensive industry. Students may elect to take a Certificate
Program in Business Management and Communications, which presents an
introduction to skills critical to managerial success. The program is open to
students with the equivalent of a bachelor's degree in chemistry and requires
five semesters to complete (including the industrial internship). The
students course work is determined in collaboration with the admissions
committee and is designed to ensure that they will develop professional
skills in modeling, writing, scientific visualization and computational
science.
B. Admission Requirements
Candidates for the
M.S. program in Computational Chemistry are expected to have completed the
equivalent of a Bachelor's degree in Chemistry. Deficiencies in specific
areas at the undergraduate level must be removed by passing undergraduate
courses in those areas.
C. Qualification Exams
Upon entrance to
the graduate program, all
students who have not completed the GRE Advanced Test in Chemistry with a
grade in the 75th or higher percentile (or with a raw score of at least
700) are required to take Qualification Examinations. These cover basic
facts and concepts at an undergraduate level in the following four areas
of Chemistry: Analytical, Inorganic, Organic, and Physical. The grading
of these examinations is on a Qualify (Q)/No Qualify (N) basis. The
examination results are used to assess academic preparation in Chemistry,
and to assist in developing a useful curriculum for each student. To be
certified for the Masters degree a student must earn a Q grade on the
qualification exams in any two areas or earn one Q grade on the
qualification exams and earn a 3.0 or higher in a designated course.
D. Representative Course Sequence
Student entering with excellent background in Computer science:
- STT 351 (3) - Probability and Statistics for Engineers
- CEM 481 (5) - Seminar in Computational Chemistry
- BCH 461 (3) - Biochemistry I
- CEM 811 (3) - Advanced Inorganic Chemistry I
- CEM 838 (3) - Computer-Based Scientific Instrumentation
- CEM 881 (3) - Atomic and Molecular Structure
- CEM 923 (3) - Selected Topics in Analytical Chemistry/Computing and Networking
- CEM 883 (3) - Computational Quantum Chemistry
- CEM 988 (3) - A Primer in Computational Chemistry
- CEM 987 (1) - Seminar
- CEM 890 (3) - Chemical Problems and Reports
TOTAL - 33 Credits
In addition to the above courses the student may complete a
Certificate Program in Business Management and Communication:
Successful completion of the Certificate Program in Business Management
and Communication offered by the MSU Broad Graduate School of Management.
This consists of ten two-day modules (Friday evening and all day Saturday).
The modules are scheduled over the academic year and include: Marketing
Management, Financial Management, Managerial Accounting, Legal Environment
of Business, Micro and Macro Economics, Project Management, Writing for
Clarity, Group Communications, Presentation Skills and Negotiation and
Consensus Building.
Students entering with a weak background in computer science will
take as many of the following computer science courses as is deemed
necessary by the admissions committee:
- CSE 231 (4) - Introduction to Programming I
- CSE 232 (4) - Introduction to Programming II
- CSE 260 (4) - Discrete Structures in Computer Science
- CSE 320 (4) - Computer Organization and Assembly Language Programming
E. Minimum Grade Point Average
Candidates
for the M.S. degree
are expected to maintain a minimum grade point average of 3.0 for all
course work. If a M.S. candidate accumulates grades below 3.0 in more
than three courses, (s)he is removed from candidacy for the degree by
the College of Natural Science. A final GPA of at least 3.0 is required
for the M.S. degree.
F. Seminar

Candidates for the M.S. degree
are required to give a seminar in a seminar series in the department.
G. Oral Examination
The Oral Examination
Committee for the M.S. degree will include the student's advisor, as
Chairperson, and at least two additional faculty. The composition of the
committee requires the approval of the Associate Chair for the Graduate
Program. Students will be examined only on course work.
H. Limit for Financial Support
M.S. candidates in Computational Chemistry are eligible for financial support
from the department for up to 2 years plus one semester (7 semesters
total, including summer semesters).
Any exceptions to the above rules require the
approval of the Chemistry Department Faculty.
I. Faculty with professional interests in Computational Chemistry
- Professor R. I. Cukier - Statistical Mechanics and proton transfer reactions, electron transport in liquids.
- Professor J. F. Harrison - Molecular Quantum Mechanics, Electronic Structure of Atoms, Molecules and Solids.
- Professor K.L. C. Hunt - Molecular Quantum Mechanics, collision-induced spectroscopy, nonlinear processes, nonequilibrium statistical mechanics, multiple steady-state systems, stochastic simulations, functional path integral methods.
- Professor P.M. Hunt - Classical, semiclassical, and quantum-mechanical chemical dynamics; scattering theory and energy disposal; nonequilibrium thermodynamics; mathematical methods.
- Professor J. Jackson - Organic reactive intermediates and materials chemistry.
- Professor P. Piecuch - New quantum-chemical methods. Applications of ab-initio quantum mechanics to molecular electronic structure, properties, spectroscopy and reaction dynamics. Theory of weak interactions between atoms and molecules.
- Professor R. Hollingsworth - Chemistry of life processes.
- Professor L. Kuhn - Computational analysis and design of proteins and their inhibitors.
J. Computational Facilities
The chemistry
department's computational facilities are maintained by the Chemistry
Computing and Information Technology (CCIT) Staff consisting of:
- Dr. T. V. Atkinson - Senior specialist Scientific Computing
- Mr. P. Reed - System Analyst Scientific Computing
- Dr. D. Ward - Specialist (Manager of X-Ray Facility and Scientific Visualization Consultant)
- Dr. T. Carter - Specialist (Director LASER lab and Applications Consultant)
- Mr. J. Mirely - Coordinator Office Technology
High Performance Computer Facility
This facility consist of a 32 processor SGI 2400 with 24 gigabytes of
high density memory and 450 GB of disk storage. This computer is used
exclusively for chemical research and will be available to students in
this program to develop skills and experience in parallel processing.
Visualization Facility
12 Silicon Graphics Computers are available to graduate students in the program.
PC/Mac Laboratory
Students in the program will have access to the PC lab( 29 Pentium's
(350 Mhz) and 33 Pentium III (500 Mhz)) and the companion Macintosh Lab
( 22 PowerMac's)
K. Industrial Advisory Board
- Dr. Aileen Alvarado-Swaisgood, Account Manager, Government Accounts, Molecular Simulations, Inc.
- Dr. Thomas Pierce, Research Fellow, RohmHass
- Dr. Gerry Maggiora, Research Fellow, Pharmacia-Upjohn
- Dr. Paul Morgan, Manager, Research Computing Support, Glaxo Wellcome
- Dr. Christine Humblet, Senior Director of Biomolecular Structure and Drug Design, Parke-Davis Research
- Dr. Mary Bradley, Senior Research Scientist, Rhone-Poulenc Ag
- Dr. Craig C. Meverden, Research Scientist, Catalyst Development, Equistar
- Dr. Yvonne Martin, Abbott Laboratories
- Dr. Jozef Bicerano, DOW Chemical