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Professional
Meteorology
The Professional Meteorology Program
(PMP) track prepares students for graduate school and/or a career
as a forecaster in the private sector. Outside of the meteorology
core curriculum PMP students are encouraged/expected to take courses
in advanced mathematics (calculus), statistics, computer programming,
Remote Sensing, GIS, agronomy, marketing, biology, etc
depending
upon an individual student's interests.
Hands-on experience is what separates
our program from others. The majority of our meteorology courses
are accompanied by laboratory exercises. In addition, students are
given the opportunity to work with our Baron NEXTRAC © radar
system, the Comet © workstation, our own MM5 model, and many
other atmospheric-related software packages. Beyond the computer
equipment, our Climate Lab houses the North
Mississippi Severe Storms Intercept Team (NOMISSIT),
which provides our students additional hands-on opportunities while
supplying the community, local civil defense offices, and the National
Weather Service with invaluable information.
Recent graduates from the PMP have
attended meteorology and climatology graduate programs at the University
of Georgia, University of South Carolina, Florida State
University, St. Louis University, Arizona State University, and
others.
The USDA and the Weather Channel also employ our PMP graduates as
forecasters.
Professional
Meteorology (Operational Emphasis) List of Required Courses
Professional Meteorology
(Operational Emphasis) 4-year IDEALIZED Course Schedule
PMP
Faculty:
The department of Geosciences has
10 professors
and instructors directly related to the
professional meteorology program.
Mike
Brown, Ph.D., Associate Professor
Satellite & Radar Meteorology, Mesoscale Meteorology
Grady
Dixon, Ph.D., Assistant Professor
Synoptic Meteorology, Weather Analysis I, Weather Analysis
II
Jamie
Dyer, Ph.D., Assistant Professor
Dynamic Meteorology I, Dynamic Meteorology II,
Physical Meteorology, Statistical Climatology
Doug
Gillham, M.S., Instructor
Weather Forecasting I, Weather Forecasting II
Christa
Haney, M.S., Instructor
Introduction to Physical Geography
Justyn Jackson,
M.S., Instructor
Introduction to Meteorology
John Rodgers, Ph.D., Associate Professor
Natural Hazards
Kathy
Sherman-Morris,
Ph.D., Assistant
Professor
DL Statistical Climatology
Tim Wallace,
M.S., Instructor
Introduction to Physical Geography,
Introduction to Meteorology
Dr.
Charles L. Wax, Ph.D.,
Professor
Introduction to Meteorology, Applied
Climatology
Graduate Student
Support
Full time-time ($1200+/month) and half-time
($600/month) teaching assistantships are often available for graduate
students. Full-time TA's teach two or three lab sections per week;
half-time TA's usually teach one lab section and assist in one other.
Departmental TA's usually last for two years and include a tuition
waiver. Research assistantships are also often available to graduate
students. RA's are usually required to teach labs in addition to
working on a research project. The amount of the monthly RA stipend
is dependent on a particular project and grant but can be as much
as $1500/month plus tuition waiver. For more information on the
graduate program in the Department of Geosciences please contact
Dr. Chris Dewey, Graduate Coordinator.
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PMP Courses
GR 1603: Introduction to Meteorology
- This course serves as the basic course in our broadcast and operational
meteorology curricula, and also as a general interest course for
any student who wants to learn about weather. The course is descriptive
rather than rigorous, and focuses on atmospheric processes and conditions
and the resulting events and phenomena. Each class meeting begins
with a weather show which includes the current observations, forecast
discussion and analysis, and the official NWS forecast. Students
are expected to keep up with current weather situations throughout
the semester and learn what to anticipate as processes and events
occur.
GR 4402/6402: Weather Analysis
I - This course is designed to instruct students in the
fundamentals of understanding current weather conditions, their
impact and how they may change in the future. Originally conceived
as a platform for discussion, the class has evolved into a more
practical approach to analysis. The student will learn about not
only the information available and how to interpret it, they will
gain knowledge of the instrumentation behind the data. Additionally,
time is spent on new technologies and their impact on meteorological
analysis.
GR 4412/6412: Weather Analysis
II - A continuation of Weather Analysis I, this course will
build on the concepts introduced in the first section. The student
will learn certain advanced analysis techniques. Additionally, the
student will be introduced to the computer models which are the
backbone of current forecasting methods. The student will apply
this information through daily discussions of current and expected
weather conditions.
GR 4422/6422: Weather
Forecasting I - This course is an introduction to the
process of creating and disseminating weather forecasts. Use
of current weather data in creating daily forecasts for the local
area.
GR 4431/6431: Weather
Forecasting II - Continuation of Weather Forecasting I,
emphasis is placed on disseminating both oral and written forecasts
for the local area.
GR 4613/6613: Applied Climatology
- This course has the objective of teaching students the use of
climatological data and perspective to solve problems and answer
questions of an operational nature. Topics explain the relationship
of climate to landscape and human activity. Applications are developed
in such areas as agriculture, industry, technology, aviation, medicine,
construction, architecture, and urban development.
GR 4623/6623: Physical
Meteorology - An investigation of cloud
physics/precipitation processes and solar/terrestrial radiation,
including atmospheric dynamics, atmospheric electricity, optics, and
instrumentation.
GR 4633/6633: Statistical Climatology
- A survey of the types of statistical weather data available.
Manipulation of the data on various temporal and spatial scales.
GR 4753/6753: Satellite and
Radar Meteorology - This is a three-credit class with no
lab. This course is designed to provide students with specific knowledge
of the physical principles that remote sensing of the environment
is based upon. An understanding of the general principles of remote
sensing interpretation will be acquired. The course will provide
knowledge of the specific characteristics of meteorological satellites,
radar, and Doppler radar. Considerable time is spent examining the
role that these tools of remote sensing play in atmospheric and
surface analysis, and weather forecast development. While there
is no formal lab with this course, students will be required to
complete "in" and "out" of class lab-type exercises.
GR 4713/6713: Synoptic
Meteorology - This is a three-credit class with no lab.
This course is designed to give an overview of atmospheric processes
and phenomena found at the synoptic scale. Course topics include:
physical processes of atmospheric motion, vertical motion, vorticity,
advections, and cyclogenesis.
GR 4823/6823: Dynamic
Meteorology I - This is a three-credit class with
no lab. The course provides an in-depth examination of the
theoretical methods for determining atmospheric stability and the
tools necessary to interrogate the vertical profile of the
atmosphere.
GR 4933/6933: Dynamic
Meteorology II - This is a three-credit class with
no lab. The course provides quantitative analysis and consideration
of atmospheric circulation including jet streams, mid-latitude
cyclones, vorticity, and atmospheric kinetics.
GR 4963/6963: Mesoscale
Meteorology
- This is a three-credit class with no lab. This
course give students descriptive and physical understanding of
mesoscale processes and their relevance to the synoptic environment.
A strong focus is placed upon severe local storms.
GR 8542: Geographic Literature
- As it is currently structured, this course is designed to assure
the faculty that graduate students are fluent in the use of computers
for writing, graphics, and data analysis. Students are required
to pursue a research project resulting in a written paper that demonstrates
mastery of the computer skills mentioned above.
GG 8561: Geoscience Seminar
- This course has the purpose of teaching graduate students how
to prepare and deliver a professional presentation. Students are
required to use Powerpoint or a similar computer program to construct
an oral presentation equivalent to those commonly delivered at professional
meetings and conferences. Student presentations are delivered before
the entire faculty and graduate students each spring semester.
GR 8990: Research Methods
- This course was designed for graduate students following our non-thesis
track. Since those students do not write a thesis, the faculty use
this course to ensure that research skills are learned. Students
learn the framework of a research project--use of scientific inquiry
to pose a question, observe and collect information, analyze data,
and draw conclusions. Written results and oral presentations are
required.
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