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Program Description

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PROGRAM DESCRIPTION

INDEX

Mission and Priorities
Objectives, Specializations, and Options
Graduate Catalog Entry
Areas of Concentration
Faculty
Admission and Retention
Candidacy and Dissertation
Curriculum:
   Prerequisites
   Credit Hour Requirements
   Core Curriculum
    Curriculum for Concentrations:
      Earth and Environmental Processes
      
Energy and Mineral Resources
      
Environmental Policy and Administration
      
Forestry, Agricultural and Rural Land Resources
      
Geographic Information Systems, Remote Sensing and Environmental Modeling
      
Water Resources

 


Mission and Priorities

Illinois is a state rich in natural resources -- minerals, water, forests, and soils and climate that provide an outstanding resource base for agriculture. Past utilization of these resources has greatly fueled the economic development of the nation's sixth most populous state. However, growing national and global demand for natural resources places the future of this resource base at risk at the same time that resource development often works to the detriment of legitimate and growing societal demands for environmental quality. Students who will form the 21st Century Illinois workforce need to be educated in the complex inter-dependencies among (a) the biological and physical processes that create natural resources and natural hazards, (b) the environmental impacts of utilizing natural resources, (c) the socio-economic forces driving natural resource use, (d) the societal problems and opportunities that resource use creates, and (e) how people and society decide to respond through individual actions and public policy. Yet this is a daunting challenge that can only be met by challenging the traditional categorization of knowledge into academic disciplines, and the separation of science from decision-making. It requires a creative inter-disciplinary approach oriented toward applied problem-solving based on broad principles, such as sustainability and the dynamics of complex systems. These issues are not confined to Illinois or to the United States. Environmental challenges such as the transformation by human activities of one-half of the land surface of the planet, the 30% increase in atmospheric carbon dioxide since the industrial revolution, the human use of more than half the available freshwater resources, and the accelerated extinction of plant and animal species, has prompted the National Science Foundation’s Task Force on the Environment to call for $1 billion in new federal funding for environmental research over the next five years, with an emphasis on interdisciplinary research.

This proposal creates a new Ph.D. program in Environmental Resources and Policy (ER&P) at Southern Illinois University, Carbondale. The program will be led by the Geography and Geology Departments, which currently have Ph.D. programs in place, and also including as an equal partner the College of Agriculture (Departments of Agribusiness Economics; Forestry; and Plant, Soil, and General Agriculture), with support from the School of Law, the College of Engineering, other key faculty at SIUC, and State of Illinois environmental agencies. The University's purpose in establishing a Ph.D. degree program in Environmental Resources and Policy (ER&P) is to educate highly-qualified, versatile professionals to fill positions in private industry, government agencies, and academic institutions.

The central focus of the ER&P Ph.D. is advanced inter-disciplinary training and research on physical, biological, and social processes responsible for natural resource and environmental problems facing contemporary society. Additionally, the ER&P Ph.D. will focus on assessing public policy alternatives to address those problems and create new opportunities. The curriculum is designed to be information-rich, utilizing such computer-based technologies as the Internet and Geographic Information Systems (GIS), and focused on inter-disciplinary ideas, such as those articulated by the United Nations Environment Program, the World Resources Institute and Resources for the Future. Through the six problem-oriented and industry-oriented concentrations, the ER&P Ph.D. is a course of study that is particularly well suited to training and re-training environmental and natural resource professionals in public agencies and private-sector firms, but should also serve to educate a new generation of inter-disciplinary academics as well. The central problem addressed by the ER&P Ph.D. is sustainability -- meeting the economic needs of the present while maintaining the natural capital required to meet the economic and environmental needs of the future.
 


Objectives, Specializations, and Options

The objectives of the Ph.D. in Environmental Resources and Policy are to:

1. Provide students with an advanced interdisciplinary education in the physical, biological, and social processes that generate natural resources, natural hazards, and environmental quality problems with a perspective on public policy and social institutions that shape societal and individual reactions to environmental issues. The education will prepare students to work with multifaceted environmental issues and enable them to carry out interdisciplinary scientific research and be qualified for higher level administrative positions in government (e.g. U.S. Geological Survey, U.S. EPA, U.S. Forest Service, Illinois Dept. of Natural Resources, U.S. Department of Agriculture), the private sector (e.g. environmental consulting firms, electric and water utilities, mining and solid waste management firms), and an evolving niche within academia for inter-disciplinary environmental analysts. This will allow SIUC to address the most compelling and daunting challenge in natural resource and environmental issues--identifying and solving problems and opportunities that cross disciplinary boundaries. Examples:

Primarily Social Sciences

a. natural resources law and public policy reform;
b. environmental conflict resolution;
c. human behavior toward natural resources and formation of environmental priorities;

Primarily Physical Sciences

d. analysis of groundwater, soil, and sediment contamination problems;
e. energy, mineral, atmospheric, and water resource science;
f. geologic and meteorologic processes creating natural hazards;

Integrating Social, Physical, and Biological Sciences

g. management of land use and cumulative impacts at the watershed level;
h. analysis of changing agricultural and forest practices on the environment;
i. management of the impacts of farm animal waste on the environment;
j. analysis of resource and environmental issues in developing nations;
k. evaluation of society's preparedness for natural hazards;
l. analysis and modeling of complex and chaotic ecological-economic systems;
m. modeling and analysis of causes and effects of global and regional environmental change.

2. Place SIUC among the top universities nationally and at the forefront of Illinois universities in graduate education in the environmental/natural resources arena by having the primary interdisciplinary environmental/natural resources Ph.D. program in the state.

3. Improve the efficiency of graduate education at SIUC, and build a critical mass of faculty in the environmental/natural resources area by focusing the strengths of faculty in Geography, Geology, and the College of Agriculture (Departments of Agribusiness Economics, Forestry, Plant, Soil, and General Agriculture), as well as those in the College of Engineering (Departments of Civil, Mining, and Mechanical Engineering), and the Law School.

4. Provide a vehicle for research faculty in masters-only departments and professional schools to fully participate and exercise their talents in a doctoral program and research.

5. Build upon the interdisciplinary research being done by the Coal Research Center, the Cache River research group, and the Illinois Groundwater Consortium in order to improve opportunities for external funding of research as well as to maximize the utility of such facilities as the International Water Resources Association (IWRA), the Universities Council on Water Resources (UCOWR), the Universities Water Information Network (UWIN), the Spatial and Environmental Analysis Laboratory (SEAL), the Coal Characterization Laboratory, the Organic Geochemistry Laboratory, and the Geomorphology and Environmental Geology Laboratory.

6. Establish and reinforce partnerships with State of Illinois environmental agencies, such as the Illinois State Water Survey, and the Illinois Departments of Natural Resources and Agriculture.

 



GRADUATE CATALOG ENTRY

The Graduate School offers the Doctor of Philosophy degree in Environmental Resources and Policy. This degree provides students with an interdisciplinary education in natural resource and environmental processes with a perspective on public policy and social institutions that shape societal and individual reactions to environmental issues. The education will prepare students to work with multifaceted environmental problems and enable them to carry out interdisciplinary scientific research and be qualified for high-level administration positions in academia, government (e.g. U.S. Geological Survey, U.S. EPA, U.S. Forest Service, Illinois Dept. of Natural Resources, U.S. Department of Agriculture), and the private sector (e.g. environmental consulting firms, electric and water utilities, mining and solid waste firms). This will enable graduates to address the most compelling and daunting challenge in natural resource and environmental issues--identifying and solving problems that cross disciplinary boundaries.

The Environmental Resources and Policy Ph.D. is organized by the Departments of Geography and Geology, and the College of Agriculture ( Departments of Agribusiness Economics, Forestry and Plant, Soil and General Agriculture). The School of Law and the College of Engineering also cooperate in the program.
 


AREAS OF CONCENTRATION

Earth and Environmental Processes

Students who select this specialization combine elements of the modern, process-oriented geology curriculum (sedimentology, geomorphology, petrology, basin analysis, seismology, potential-field geophysics, organic and water geochemistry, tectonics, and paleo-environmental analysis) with allied disciplines to prepare for research into a broad range of environmental studies. This concentration emphasizes the geological process approach to analysis of such problems as flooding, earthquake hazards, land-use practices, aquifer degradation, and mine site remediation.
 
 

Energy and Mineral Resources

Energy and mineral resources include hydrocarbons (oil, natural gas, coal, and their naturally-occurring and manufactured derivatives), and both metallic and non-metallic (industrial) mineral and rock deposits. This specialization comprises studies of the origins and physical occurrences of these resources, together with technologies and policies concerning their extraction and use.
 
 

Environmental Policy and Administration

Making and administering environmental policy has become an exceedingly complex arena where science interacts strongly with law and the political process. Students enrolled in this concentration will examine these interactions and complexities with a focus on the socioeconomic driving forces that generate resource use and attendant environmental problems, and the political and legal frameworks through which societies make and implement public policy in the environmental field.
 
 

Forestry, Agricultural, and Rural Land Resources

Many environmental problems, challenges and policies take place on rural landscapes where forestry and agricultural land uses are intermingled with non-farm rural residents and others. Many rural land uses contribute to environmental problems and the development of environmentally benign and sustainable methods of production are goals of environmental policy. Consequently, through this concentration, students will examine the interaction among environmental quality, production, and the process and institutions of public policy.
 
 

Geographic Information Systems and Environmental Modeling

Modern environmental sciences, management and planning rely on acquisition, analysis and integration of large data bases using remote sensing, digital image processing, geographic information systems and environmental modeling. The purpose of this concentration is to enable students to develop high skills in these areas and to apply them to one or more natural resource domains (e.g., hydrogeology, forest inventory, spatial decision support systems, environmental modeling).
 
 

Water Resources

As a critical flow resource, water is of central importance to society and, through hydrologic processes, is involved in many environmental issues from water shortages in populous arid regions to ground water quality concerns associated with agri-chemical use. Through this concentration, students will examine the interaction among hydrologic processes, environmental quality, water resource use, and the processes and institutions of the private sector and public policy that govern water resources.
 


FACULTY

Participating faculty are listed by concentration, department and research specialization. Some faculty contribute to more than one concentration.  (Note: This list is subject to change.)  See the departmental web pages for more information on individual faculty members:

Agribusiness Economics
Engineering
Forestry
Geography
Geology
Law
Plant, Soil and General Agriculture


Earth and Environmental Processes

James Blackburn, Mechanical Engineering, Bioremediation
Lizette Chevalier, Civil Engineering, Physical Remediation
She-Kong Chong, PSGA, Soil Physics, Hydrology
John Coates, Microbiology, Geomicrobiology
John Crelling, Geology, Coal Geology
Steven Esling, Geology, Hydrogeology
Brent Frakes, Geography, Climatology, Climate change
Scott Ishman , Geology, Marine Micropaleontology
Michael Kruge, Geology, Environmental Geochemistry, Biogeochemistry
John Marzolf, Geology, Sedimentology
John Nicklow, Civil Engineering, Hydrology
Nicholas Pinter, Geology, Environmental Geology, Fluvial Geomorphology
Dhananjay Ravat, Geology, Potential-field Geophysics
John Sexton, Geology, Seismology
James Staub, Geology, Sedimentology, Basin Analysis



Energy and Mineral Resources
 

Robert Beck, Law, Oil and Gas Law, Mining Law
Paul Chugh, Mining Engineering, Mine Design, Minerals and Residues Processing
John Crelling, Geology, Coal Geology
Richard Fifarek, Geology, Economic Geology
Edwin Hippo, Mechanical Engineering, Coal Resources
Michael Kruge, Geology, Molecular Organic Geochemistry
John Marzolf, Geology, Sedimentology
Bradley Paul, Mining Engineering, Air Quality Remediation
Dhananjay Ravat, Geology, Potential-field Geophysics
John Sexton, Geology, Seismology
James Staub, Geology, Coal Geology



Environmental Policy and Administration

Robert Beck, Law, Oil and Gas Law, Mining Law
John Burde, Forestry, Recreation and Public Lands Policy
John C. Crelling, Geology, Fossil Fuel Issues
Uday Desai, Political Science, Energy and Environmental Policy
Leslie Duram, Geography, Agricultural Conservation Policy, Public Lands Policy
Richard Fifarek, Geology, Mining Issues
John Hetherington, Psychology, Environmental Perception
Steven Kraft, Agribusiness Economics, Agricultural Policy
Michael Kruge, Geology, Pollution Issues
Christopher Lant, Geography, U.S. Water Resources and Wetlands Policy
Matthew Rendleman, Agribusiness Economics
Don Rice, Anthropology, Human Ecology
Trudy Volk, Curriculum and Instruction, Environmental Education



Forestry, Agricultural and Rural Land Resources

Cem Basman, Forestry, Forest Recreation
Jeffrey Beaulieu, ABE, Quantitative Methods, Rural Land Use
Roger Beck, Agribusiness Economics, Regional Economics
John Burde, Forestry, Recreational Land Use Planning
Andrew Carver, Forestry, Land use planning
She-Kong Chong, PSGA, Soil and Water Conservation
Kenneth Diesburg, PSGA, Turf and Forage Management
Leslie Duram, Geography, Organic Agriculture
John W. Groninger, Forestry, Silviculture
Brian Klubek, PSGA, Soil Microbiology
Steven Kraft, Agribusiness Economics, Soil and Water Conservation
David Lightfoot, PSGA, Biotechnology Applications
Jean Mangun, Forestry, Human Dimensions in Natural Resources Management
Karen Midden, PSGA, Landscape Planning
John Phelps, Forestry, Forest Products Marketing, Wood Science
Nicholas Pinter, Geology, Geomorphology
John Preece, PSGA, Plant Biomass Technology
Matthew Rendleman, Agribusiness Economics, Agricultural Policy
Paul Roth, Forestry, Forest Protection and Management
Charles Ruffner, Forestry, Forest ecology
Michael Schmidt, PSGA, Precision Agriculture
Donald Stucky, PSGA, Crop Ecology, Crop Production and Environmental Aspects
Bradley H. Taylor, PSGA, Fruit Production
Edward C. Varsa, PSGA, Soil Chemistry, Fertility and Management
James Zaczek, Forestry, Ecology



GIS and Environmental Modeling

Rolando Bravo, Civil Engineering, Hydrological Modeling
Andrew Carver, Forestry, GIS
Steven Esling, Geology, Environmental Modeling
James LeBeau, Geography and Administration of Justice, GIS, spatial statisitcs
John Nicklow, Civil Engineering, Hydrological Modeling
Nicholas Pinter, Geology, Environmental Modeling, GIS
Dhananjay Ravat, Geology, Geophysical Modeling
Raja Sengupta, Geography, GIS
Karl Williard, Forestry, Hydrological Modeling



Water Resources

Robert Beck, Law, Water Law
Rolando Bravo, Civil Engineering, Hydrological Modeling
She-Kong Chong, PSGA, Groundwater Contamination
Bruce Devantier, Civil Engineering, Hydrology
Benedkyt Dziegielewski, Geography, Water Resources Planning, Hydrology
Steven Esling, Geology, Hydrogeology
Christopher Lant, Geography, Non-point Source Pollution, Wetlands
Charles Muchmore, Civil Engineering, Water Quality
John Nicklow, Civil Engineering, Hydrological Modeling
Nicholas Pinter, Geology, Fluvial Geomorphology
William Ray, Civil Engineering, Water Quality
James Staub, Geology, Wetlands
Karl Williard, Forestry, Watershed Management


ADMISSION AND RETENTION

Students will be admitted to the program on the basis of academic merit, statement of interest, and the availability of a willing Ph.D. advisor. Ph.D. students will be selected on a national and international competitive basis. Admissions will not be rationed by concentration.

Students must have a Masters Degree or a J. D. Students with a Bachelors Degree may be admitted conditional upon completion of a masters degree from one of the participating departments.

Admission and financial aid are competitive on the basis of Masters-level GPA, professional work experience, and GRE scores, as well as letters of recommendation. Applicants must meet two of the following three criteria:

1)  a Masters-level GPA of at least 3.25

2)  a combined verbal and quantitative GRE score of 1100

3) three years of successful professional experience in the environmental/natural resources field.

Highly qualified applicants will be nominated for Doctoral Fellowships and Morris Fellowships.

Students must remain in good standing with a GPA of 3.0 or higher and be making good progress toward identification and completion of a dissertation project. Students in good standing will be offered funding for at least 3 9-month academic years.


CANDIDACY AND DISSERTATION

By the end of their second semester in residence, students must have chosen a concentration and formed a graduate committee to oversee their dissertation research. The graduate committee may have a maximum of three of the five members from one department. Completion of research tools will be determined by committee. Written and oral preliminary examinations consist of two parts, one based on the program core material, and one on the student's chosen concentration. When the student has passed prelims and a dissertation proposal is accepted by the committee, students are admitted to candidacy. If prelims are not passed, they must wait a minimum of three months for the second and final attempt to pass the exam.

Candidates will be required to present an acceptable dissertation describing original research. Dissertation approval is based on a successful oral defense of the dissertation research and approval of the dissertation by the graduate committee. The dissertation research must also be presented in ERP 598.


CURRICULUM

Prerequisites

Students must have at least three of the seven courses listed below to be admitted and must have five upon completion of the program. It is anticipated that most students will fulfill many of the prerequisites through their previous work at the undergraduate and Master's level and will have working facility with micro-computers. For those students without adequate background, identified courses are required to provide students with the background necessary to successfully participate in the program.

Prerequisites for all concentrations:SIUC Course if Unfulfilled:

One course in statistics
One course in calculus
One course in chemistry
One course in earth science
One course in ecology
One course in resource economics
One course in the U.S. env. law or policy
EPSY 506 or more advanced
MATH 150 or more advanced
CHEM 200 or more advanced
GEOG 303I OR GEOL 478 or more advanced
BIOL 307 or more advanced
ABE 440, FOR 411, GEOG 422, or more adv
FOR 410, GEOG 426, LAW 548, or more adv.


 

Credit Hour Requirements

Core: 12 credits

Concentration: 24 credits minimum

Dissertation: 24 credits (ERP 600)

TOTAL: 60 credits

 

Core Curriculum for all Concentrations

Required Courses:

ERP 500 -- Physical and Biological Environmental Systems (3) (Team Taught--Fall of 1st Year)

Application of principles of systems analysis, including chaos and complex adaptive systems, to Earth biogeochemical cycles (e.g. energy, carbon, water, nutrients), inter-relations among them and disruptions to them. Topical focus will vary among: the analysis of how contaminants travel, especially through ground water, and become dispersed in the environment; the origin of soils and the movement of nutrients among plants, water and soils; the origin and distribution of natural resources such as metals and fossil fuels and of natural hazards such as flooding, earthquakes, landslides, and volcanism; the global carbon cycle, especially its role in global climate change.

ERP 501 -- Economic Systems and Environmental Change (3) (Team Taught--Spring of 1st Year)

Investigation of the social forces driving natural resource use and environmental change, including population growth, the globalization and migration of economic activity, changing land use patterns, and economic and technological trends in the major resource use sectors: energy, agriculture, water, and forestry. Principles of environmental impact assessment, ecological footprint analysis and industrial ecology are introduced. The challenge of sustainable development sets the stage for an analysis of the future adequacy of the natural resources base on which societies and economies depend.

ERP 502 -- Environmental Decision-Making (3) (Team Taught--Fall of 2nd Year)

Analytical concepts relevant for environmental professionals will be taught and demonstrated through case studies. Topics to be covered include risk assessment and risk management, formulation of environmental impact statements, cost effectiveness and cost benefit analysis, and methods of conflict resolution. The role of economic incentives in encouraging resource conservation, the role of multiple institutional players in environmental decision-making at various geographic scales (local, state, national, international, global), and the use of the Internet as a source of environmental information will be emphasized

ERP 598 -- Applied Environmental Resources and Policy (1 credit each year in residence.) Invited speakers from federal, state, or local agencies; nongovernmental organizations; academic institutions; and ERP faculty will present case studies on the conduct of environmental research, the development of environmental laws and regulation, and the implementation of environmental policies. Additionally, students will present dissertation proposals and defend their dissertations.

Curriculum for Concentrations

Earth and Environmental Processes

Required Courses:

Mastery of one or more research tools.
ERP 591 -- Seminar in Earth and Environmental Processes (3)

Elective Areas:

Specific courses and research tools will be determined by the student and the research supervisor in consultation with the student's faculty advisory committee. Owing to the highly individual nature of each student's interests and career goals, elective courses and research tools will comprise a multi-disciplinary spectrum, for example: geology, biological science, physical science areas other than geology, geography (GIS and cartography), environmental law, remote sensing, soil science, mining and civil engineering, computer science, and statistics.

Total: 24 semester hours minimum.
 
 

Energy and Mineral Resources

Required Courses:

Mastery of one or more research tools.
ERP 592 -- Seminar in Energy and Mineral Resources (3)

Elective Areas:

Specific courses and research tools will be determined by the student and the research supervisor in consultation with the student's faculty advisory committee. Owing to the highly individual nature of each student's interests and career goals, elective courses and research tools will comprise a multi-disciplinary spectrum, for example: geology, biological science, physical science areas other than geology, geography (GIS and cartography), environmental law, remote sensing, soil science, mining and civil engineering, computer science, and statistics.

Total: 24 semester hours minimum.
 
 

Environmental Policy and Administration

Required Courses: 15-17 credits

EPSY 507 -- Multiple Regression (4) or ECON 463 -- Introduction to Applied Econometrics (3) or equivalent course in multivariate statistical analysis
ABE 440 -- Land Resource Economics (3) or GEOG 422 -- Economics in Geography and Planning (4)
LAW 548 -- Environmental Policies and Laws (3)
ERP 593 -- Seminar in Environmental Policy and Administration (3)
One 400- or 500-level course in Environmental Science (3-4)

Elective Areas:

Specific courses and research tools will be determined by the student and the research supervisor in consultation with the student's faculty advisory committee. Owing to the highly individual nature of each student's interests and career goals, elective courses and research tools will comprise a multidisciplinary spectrum, for example: environmental law, political science, geography, forestry, agribusiness economics, economics, anthropology, zoology, and statistics. Emphasis will be on the processes of public policy formulation and implementation.

Total: 24 Credits Minimum
 
 

Forestry, Agricultural, and Rural Land Resources

Required Courses:

ERP 594 - Seminar in Forestry, Agricultural, and Rural Land Resources (3)

One Course in Law or Environmental Policy (3)

Mastery of one or more research tools (3)

Specific courses and research tools will be determined by the student and the research supervisor in consultation with the student's faculty advisory committee. Owing to the highly individual nature of each student's interests and career goals, elective courses and research tools will comprise a multidisciplinary spectrum, for example: agribusiness economics; plant, soil, and general agriculture, animal science, geography, forestry, remote sensing and GIS, human dimensions of natural resource management, plant biology, zoology, and statistics. Emphasis will be on the processes of changing land uses of rural landscapes and the implications for the environment and adjacent land uses.

Total: 24 Credits Minimum
 
 

Geographic Information Systems, Remote Sensing and Environmental Modeling

Required Courses: 6-7 Credits

FOR 408 - Introduction to Remote Sensing and GIS (4) or GEOG 418A,B - Introduction to Geographic Information Systems (3)
ERP 595 - Seminar in GIS and Environmental Modeling (3)

The following represent recommended, but not required, sequences of advanced courses for students with focused interest in Geoprocessing or Environmental Modeling.

Advanced Courses: Geoprocessing

CS 430 - Database Systems (3)
CS 470 - Environmental Simulation Techniques (3)
GEOG 408 - Advanced Remote Sensing (3)
GEOG 416 - Analytical Cartography (3)
GEOG 420 - Advanced Geographic Information Systems (3)
GEOG 528 - Seminar in Geo-Processing Technology (3)

Environmental Modeling Specialization

Students will work with their advisory committee to develop advanced skills in one or more specializations that support this concentration, e.g., geological modeling, biometrics, or environmental modeling. Suggested courses include:

Biometrics

FOR 414 - Information Management (3)
FOR 452 - Natural Resources Inventory (2)
FOR 453 - Environmental Impact Assessment in Forestry (2)
FOR 516 - Advanced Forest Management (2)

Environmental Modeling

CE 471 - Modeling Ground Water Flow and Pollution (3)
GEOG 430 - Environmental Systems Analysis (3)
PLB 444 - Quantitative Plant Ecology (3)
ZOOL 534 - Wildlife Habitat Analysis (3)

Geological Modeling

GEOL 413 - Quantitative Methods of Geology (3)
GEOL 460 - Geological Data Processing (3)
GEOL 470 - Hydrogeology (3)
GEOL 570 - Advanced Hydrogeology (3)

24 Credits Minimum

Water Resources

Required Courses: 21 credits

ERP 596 -- Seminar in Water Resources (3)
Research Tool (Multivariate Statistics, Modeling, GIS, remote sensing, or other as advised) (3)
Minimum of 6 credits from Water Policy and Planning Group
Minimum of 9 credits from Hydrologic Sciences Group

Water Policy and Planning Group (6 credits minimum)

GEOG 424 -- Natural Resources Planning (4)
GEOG 425 -- Water Resources Planning (3)
GEOG 471 -- Environmental Impact Analysis (3)
LAW 548 -- Environmental Policies and Laws (3)
LAW 568 -- Water Law (3)

Hydrological Sciences Group (9 credits minimum)

CE 415/7 -- Wastewater Treatment and Lab (3)
CE 419 -- Water Supply and Treatment (3)
CE 473 -- Hydrologic Analysis and Design (3)
CE 516 -- Water Resources Management (3)
FOR 402 -- Wildland Hydrology (3)
FOR 430 -- Watershed Management (3)
GEOG 430 -- Environmental Systems Analysis (3)
GEOG 434 -- Water Resources Hydrology (4)
GEOL 470 -- Hydrogeology (3)
GEOL 478 -- Environmental Geology (3)
GEOL 570 -- Advanced Hydrogeology (3)
GEOL 578 -- Fluvial Geomorphology (3)
PLB 445 -- Wetland Plant Ecology (4)
PLSS 442 -- Soil Physics (3)
PLSS 445 -- Irrigation (3)
PLSS 446 -- Soil and Water Conservation (3)
ZOOL 415 -- Limnology (3)
ZOOL 458 -- Issues in Aquatic Ecology (3)
ZOOL 521 -- Stream Ecology (3)
ERP 590 or other courses as advised by Committee

Total 24 Credits Minimum

Last updated 2002.07.26