Professors: Carlos Aiken
(Geosciences), Brian J. L. Berry (Economic, Political and Policy Sciences),
Ronald Briggs (Economic, Political and Policy Sciences), Daniel Griffith
(Economic, Political and Policy Sciences), Paul Jargowsky
(Economic, Political and Policy Sciences), James Murdoch (Economic, Political
and Policy Sciences), Robert Stern (Geosciences)
Associate Professors: Tom Brikowski�
(Geosciences), John Ferguson (Geosciences), Fang Qiu
(Economic, Political and Policy Sciences),�
Michael Tiefelsdorf� (Economic, Political and Policy Sciences)
Assistant Professors: Karen Hayslett-McCall
(Economic, Political and Policy Sciences)
The Master of Science
in Geospatial Information Sciences is a professional program that is offered
jointly by the School of Economic, Political and Policy Sciences and the School
of Natural Sciences and Mathematics. The program focuses on the use of
Geographic Information Systems (GIS) and associated technologies such as remote
sensing and global positioning systems for acquiring, managing and analyzing
spatially-referenced information. Students are provided with the concepts underlying
GIS, the skills for implementing GIS projects in public or private sector
organizations, and the ability to use GIS in pure or applied research in
substantive areas.
Graduates of
the program can apply their skills in a variety of areas such as public
administration and policy analysis; public safety, criminology, and emergency
preparedness management; environmental management; urban, regional, social
service and transportation planning and analysis; private sector business,
especially marketing, site selection, logistics and real estate; and resource
exploration, including petroleum.
The mission
of the Master of Science in Geographic Information Sciences program is to
provide students a rigorous understanding of the technologies, quantitative
techniques, models and theories used to acquire and manage spatially referenced
information and to analyze spatial processes. U.T.Dallas
graduates will have strong analytical and numerical skills, knowledge of
empirical and quantitative research methodologies, and employ novel geographic
information sciences technologies. They will use these capabilities to .support
public and private sector organizations, to address significant societal
issues, and to enhance understanding of the human and natural environments.
They will successfully compete at the highest level for jobs requiring
geospatial skills and for entry into quality doctoral programs in relevant
areas.� More specifically, graduates of
the program will:
�
demonstrate their knowledge of the
technologies, quantitative techniques, models and theories used to acquire and
manage spatially referenced information and to analyze spatial processes.
�
have strong analytical and numerical
skills, knowledge of empirical and quantitative research methodologies, and be
able to employ them in novel geographic information sciences applications.
�
be able to identify and apply appropriate
geospatial methodologies to support public and private sector organizations, to
address significant societal issues, and to enhance understanding of the human
and natural environments.
Classes are
offered through state-of-the-art GIS computing facilities housed at the
The
University�s general admission requirements are discussed here.
For admission
to the program, a baccalaureate degree from an accredited university or college
is required and Graduate Record Examination (GRE) or Graduate Management
Aptitude Test (GMAT) scores must be presented. A 3.0 undergraduate grade point
average (on a 4.0 scale), and a combined verbal and quantitative score of at
least 1000 on the GRE, or equivalent score on the GMAT, are desirable. Students
must also submit transcripts from all higher education institutions attended,
three letters of recommendation, and a personal statement, approximately one
page in length, outlining their background, education and professional
objectives.
Beginning
students must have the equivalent of GISC 6381 Geographic Information Systems
Fundamentals and GISC 6382 Applied Geographic Information Systems or they must
take these courses at U.T.Dallas in addition to the
30 credit hours required for the Masters. Additionally, beginning students are
expected to have at least one course at the graduate or undergraduate level
covering descriptive and inferential statistics (or take POEC 5313 Descriptive
and Inferential Statistics but this will not count toward the 30 hours needed
for the degree), to have completed college mathematics through calculus, and to
have at least one programming or computer applications course or possess
equivalent knowledge.
The
University�s general degree requirements are discussed here.
To earn the
Master of Science� in
Geospatial Information Sciences, students must complete a minimum of 30
semester credit hours of work in the program. The program consists of a base
requirement of 9 hours (three courses), a core requirement of 9 hours, a
research project requirement of 3 hours, and prescribed electives for 9 hours.
Students must achieve at least a 3.0 grade point average in the core
requirement and an overall grade point average of 3.0 to graduate.
Statistics� (1 or 2 courses):
GISC 5313 Geospatial
Data Analysis Fundamentals or
GEOS 5306 Data Analysis for Geoscientists or
GISC 6311/ECON 6311 Statistics for Geospatial Science
GISC 5316 Regression with Spatial Applications or
POEC� 5316 Advanced
Regression
Programming� (1 or 2 courses):
GEOS 5303 Computing
for Geoscientists
GISC 5317 Computer Programming for GIS
GISC 6388 GIS� Application Software
Development
GISC 7363 Internet Mapping and Information Processing
MIS 6326 Database Management Systems
Core Requirement (9 credit hours):
GISC 6325 (GEOS 5325)
Introduction to Remote Sensing
GISC 6384 Spatial Analysis and Modeling
GISC 6387 Geographic Information Systems Workshop or
GEOS 7327/GISC 7367 Remote Sensing Workshop
GISC 6389 GIS
Master�s Project , or GISC 7389 GI Sciences Ph.D.
Research Project Qualifier, or GEOS 8000-level research course with prior
approval
GISC 5316 Regression
Analysis with Spatial Applications
GISC 6380 Spatial Concepts and Organization
GISC 6383 GIS Management and Implementation
GISC 6385 GIS Theories, Models, and Issues
GISC 6386 Urban and Environmental Applications for Geographic Information
Systems (GIS)/Remote Sensing
GISC 6388 GIS Application Development
GISC 7360 GIS Pattern Analysis
GISC 7361 Spatial Statistics
GISC 7362 GIS Network Modeling
GISC 7363 Internet Mapping and Information Processing
GISC 7364 Demographic Analysis and
Modeling
GISC 7365 Remote Sensing Digital Image Processing
GISC 7366 Applied Remote Sensing
GISC 7368 Spatial Epidemiology
GISC 7387 GIS Research Design
GISC 7384 Advanced Raster Modeling
GISC 8320� Seminar in Spatial Analysis
GEOS 5322 Global Positioning System (GPS) Satellite Surveying Techniques
GEOS 5324 3-D Data Capture and Ground Lidar
GEOS 5325/GISC 6325� Introduction to
Remote Sensing
GEOS 5326/GISC 7365 Remote Sensing Digital Image Processing
GEOS 5329/GISC 7366 Applied Remote Sensing
CS 6359 Object Oriented Analysis and Design
CS 6360 Database Design
CS 6366 Computer Graphics
CS 6384 Computer Vision
MIS 6308 Systems Analysis and Project Management
MIS 6324 Decision Support Systems
MIS 6326 Database Management Systems
MIS 6328 Information Strategy Planning
PA 5318 Information Systems in Policy Environments
POEC 5316 Advanced Regression Analysis
Thesis Option
Students may elect to follow a thesis option by working under the supervision of a selected GISC faculty
member and two committee members (one of whom is assigned by the GISC program
head) to extend their Geospatial Information Sciences Master�s Project (GISC
6389) into a written Master�s research thesis. If this option is followed, GISC
8V98 Master�s Thesis may substitute for 3 hours of� elective credit. Permission to pursue
this option must be obtained from the GIS Program Head prior to enrolling in
GISC 6389 or GISC 8V98.��