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JAMES M. HASSETT, Undergraduate Program Director
402 Baker Laboratory
315-470-6633
FAX 315-470-6958
The faculty members who deliver the program in environmental science perform teaching, research and public service activities to promote environmental practices to improve the lives of people within New York state and around the world.
The objectives of the program in environmental science are to prepare students who:
Program outcomes for the undergraduate (B.S.) program in environmental science are to produce graduates who:
Additionally, the undergraduate program in environmental science aims to produce graduates who exhibit the following attributes:
The undergraduate curriculum in environmental science consists of two broad categories of courses. The general education component provides students with knowledge and skills that are useful and important for all educated persons. The professional courses provide students with direct preparation for a career.
Students may be admitted directly as first-year freshmen at ESF, or through a variety of transfer options. Regardless of which way students enter ESF, they must complete both the general and professional education requirements.
| Courses | Credits | |||||
|
APM APM |
105 106 |
Survey of Calculus and Its Applications I Survey of Calculus and Its Applications II |
4 4 |
|||
APM |
153 |
Computing Methods |
3 |
|||
CLL |
190 |
Writing and the Environment |
G |
3 |
||
CLL |
290 |
Writing, Humanities and the Environment |
G |
3 |
||
EFB |
120 |
The Global Environment & the Evolution of Human Society |
3 |
|||
EFB |
101/102 |
General Biology I and Laboratory |
G | 4 | ||
EFB |
103/104 |
General Biology II and Laboratory |
4 | |||
ESC ESF |
132 332 |
Orientation Seminar: Environmental Science |
1 0 |
|||
EST |
200 |
Cultural Ecology |
G |
3 |
||
FCH |
150/ |
General Chemistry I and Laboratory |
4 | |||
FCH |
152/ |
General Chemistry II and Laboratory |
4 | |||
FOR |
207 |
Introduction to Economics |
G |
3 |
||
PHY |
211/ |
General Physics I and Laboratory |
4 | |||
PHY |
212 |
General Physics II and Laboratory |
4 | |||
Electives |
6 |
|
General Education: American History |
G |
3 |
General Education: Western Civilization |
G |
3 |
General Education: The Arts |
G |
3 |
APM |
391 |
Introduction to Probability and Statistics |
3 |
|
EFB |
320 |
General Ecology |
4 |
|
ESF |
200 |
Information Literacy |
1 |
|
Senior Seminar |
5 |
Students must complete one course from each of the following environmental science core areas. Note: Courses used to complete the advanced chemistry, biology, or mathematics requirements; environmental science core requirements; or option requirements may NOT be used to satisfy more than one of these requirements.
The Physical Environment |
3-4 |
|
The Living Environment |
3-4 |
|
The Geographical Environment |
3 |
|
The Social Environment |
3 |
ERE |
223 |
Statics and Dynamics |
4 |
|||
ERE |
310 |
Environmental Measurements and Spatial Information |
3 |
|||
ERE |
351 |
Basic Engineering Thermodynamics |
2 |
|||
FCH |
210 |
Elements of Organic Chemistry |
4 |
|||
FCH |
221 |
Organic Chemistry I |
3 |
|||
FCH |
222 |
Organic Chemistry I Laboratory |
1 |
|||
FCH |
360 |
Physical Chemistry |
3 |
|||
FOR |
338 |
Meteorology |
3 |
|||
FOR |
340 |
Watershed Hydrology |
3 |
|||
FOR |
345 |
Introduction to Soils |
3 |
|||
GOL |
106 |
Environmental Geology |
3 |
|||
EFB |
303 |
Introductory Environmental Microbiology |
4 |
|
EFB |
326 |
Diversity of Plants |
3 |
|
EFB |
336 |
Dendrology |
3 |
|
EFB |
352 |
Elements of Entomology |
3 |
|
EFB |
355 |
Invertebrate Zoology |
4 |
|
EFB |
385 |
Comparative Vertebrate Anatomy |
4 |
|
EFB |
440 |
Mycology |
3 |
|
EFB |
462 |
Animal Physiology: Environmental and Ecological |
3 |
|
EFB |
483 |
Mammal Diversity |
3 |
|
EFB |
485 |
Herpetology |
3 |
|
EFB |
486 |
Ichthyology |
3 |
ERE |
371 |
Surveying for Engineers |
4 |
|
ERE |
450 |
Introduction to Geographic Information Systems |
3 |
|
FEG |
352 |
Introduction to Remote Sensing |
3 |
|
LSA |
311 |
Natural Processes in Design and Planning |
3 |
|
GEO |
302 |
Worlds of Food and Famine |
3 |
|
GEO |
305 |
Population Change |
3 |
|
GEO |
315 |
Global Environmental Change |
3 |
|
GEO |
388 |
Geographic Information and Society |
3 |
CLL |
390 |
Introduction to Literature of Nature |
3 |
|
EFB/EST |
220 |
Urban Ecology |
3 |
|
EST |
361 |
History of the American Environmental Movement |
3 |
|
EST |
390 |
Social Processes and the Environment |
3 |
|
FOR |
312 |
Sociology of Natural Resources |
3 |
|
FOR |
465 |
Natural Resources Policy |
3 |
An advanced course is one that has at least one prerequisite, or is numbered 300 or above. Note: Courses used to complete the advanced courses in chemistry, biology or mathematics requirement may NOT be used to complete the environmental science core or option requirements.
Advanced Course in Chemistry, Biology or Mathematics (with laboratory) |
4 |
|
Advanced Course in Chemistry, Biology or Mathematics (with laboratory) |
4 |
Students must complete at least one of the following options. Courses used to complete the advanced chemistry, biology, or mathematics requirements; environmental science core requirements; or option requirements may NOT be used to satisfy more than one of these requirements.
Environmental Information and Mapping |
15-16 |
|
Watershed Science |
16 |
|
Health and the Environment |
15-16 |
|
Earth and Atmospheric Systems Science |
15 |
|
Environmental Analysis |
16 |
|
Environmental Engineering Science |
15 |
|
Renewable Energy |
16 |
ERE |
371 |
Surveying for Engineers |
4 |
|
ERE |
450 |
Introduction to Geographic Information Systems |
3 |
|
FEG FEG |
352 363 |
Introduction to Remote Sensing |
3 3 |
|
FOR FOR GEO |
556 557 381 |
Introduction to Raster GIS Analysis OR |
3 3 4 |
|
ERE |
496 |
Special Topics |
3 |
EFB |
415 |
Ecological Biogeochemistry |
3 |
|
FEG |
340 |
Engineering Hydrology and Hydraulics |
4 |
|
FOR |
340 |
Watershed Hydrology |
3 |
|
FOR |
345 |
Introduction to Soils |
3 |
|
FOR |
443 |
Forest Hydrology |
3 |
EFB |
303 |
Introductory Environmental Microbiology |
4 |
|
EFB |
307 |
Principles of Genetics |
3 |
|
EFB |
308 |
Principles of Genetics Laboratory |
1 |
|
EFB |
325 |
Cell Physiology |
3 |
|
EFB |
385 |
Comparative Vertebrate Anatomy |
4 |
|
EFB |
462 |
Animal Physiology: Environmental and Ecological |
3 |
CIE FCH |
471 510 |
Environmental Chemistry and Analysis |
3 3 |
|
EFB |
415 |
Ecological Biogeochemistry |
3 |
|
EFB FCH |
524 496 |
Limnology |
3 3 |
|
FOR |
338 |
Meteorology |
3 |
|
FOR |
340 |
Watershed Hydrology |
3 |
EFB |
303 |
Introductory Environmental Microbiology |
4 |
|
FCH |
380 |
Analytical Chemistry I: Gravimetric, Titrimetric and Potentiometric Analysis |
3 |
|
FCH |
381 |
Analytical Chemistry II: Spectroscopic, Chromatographic and Electroanalysis Techniques |
3 |
|
FOR FOR FOR |
338 340 345 |
Meteorology |
3 3 3 |
|
GEO ERE FEG |
388 450 352 |
Geographic Information and Society |
3 3 3 |
ERE |
440 |
Water Pollution Engineering |
3 |
||
ERE |
441 |
Air Pollution Engineering |
3 |
||
ERE |
506 |
Hazardous Waste Management |
3 |
||
PSE |
370 |
Principles of Mass and Energy Balance |
3 |
||
PSE |
473 |
Mass Transfer |
3 |
||
BPE |
441 |
Biomass Energy |
3 |
|
ESC |
325 |
Energy Systems |
3 |
|
ESC |
335 |
Renewable Energy Systems |
3 |
|
ESC |
422 |
Energy Markets and Regulations |
3 |
|
ESC |
450 |
Capstone Planning |
1 |
|
A minimum of 3 credits from the following: |
||||
EFB |
516 |
Ecosystems |
3 |
|
EFB |
518 |
Systems Ecology |
4 |
|
ERE |
351 |
Basic Engineering Thermodynamics |
2 |
|
ERE |
519 |
Green Entrepreneurship |
3 |
|
FCH |
360 |
Physical Chemistry I |
3 |
|
FOR |
415 |
Forest Consulting and Wood Procurement |
3 |
|
PSE |
361 |
Engineering Thermodynamics |
3 |
|
PSE |
370 |
Principles of Mass and Energy Balance |
3 |
Courses are chosen from the list of option courses or from the list of minors on page 10. Note: Courses used to complete the advanced courses in chemistry, biology or mathematics requirement may NOT be used to complete the environmental science core or option requirements.
Total minimum credits for the degree 125 credits
Students who meet the admission requirements may enroll in any of the undergraduate minors offered at ESF.
DAVID JOHNSON, Graduate Program Director
419 Jahn Lab, 315-470-6829/6528; FAX 315-470-6915
www.esf.edu/environmentalscience/graduate
The graduate program in environmental science (GPES) offers M.S., M.P.S. and Ph.D. degrees. GPES was created in the early 1970s as a unique response to the emerging institutional and analytical challenges of developing environmental problems. The program, which draws upon faculty from throughout the College, emphasizes a multi-disciplinary social and natural science approach to environmental understanding and stewardship. It maintains a strong academic orientation, facilitating student and faculty engagement of fundamental environmental challenges such as resource utilization, the uses and limits of scientific prediction, risk and sustainability.
The mission of GPES is to provide interdisciplinary education, research and public service to prepare students to comprehensively address environmental concerns and problems, investigate practical solutions to them and to foster effective environmental stewardship. The program provides for the following:
The program’s internal structure incorporates a common core that provides a broad policy-oriented foundation for the focused areas of study. Students applying to GPES must select which area of study they intend to pursue.
The academic requirements of the graduate program in environ-mental science are designed to provide graduates with a sound prepara-tion to meet the rapidly evolving challenges of the field as leading scholars and professionals. Programmatic requirements constitute a framework which includes a comprehensive core foundation emphasizing theory, issues and methods; extended knowledge within an area of study; and a synthesis experience.
Entering students should be adequately prepared to engage graduate level work in the program. The following undergraduate courses are pre- or co-requisites for all master's students: statistics, ecology and micro-economics or environmental economics. Courses in political science are strongly recommended.
In addition, students should have an academic background and/or work experience related to the selected area of study. Wherever possible, deficiencies should be made up prior to matriculation.
The master of science degree is designed as a two-year experience.
Core Requirements
A core of nine credit hours in applied social sciences is required. In addition, a total of six credit hours is required in research methods. Course options which satisfy these requirements are designated by the area of study faculty.
Area of Study Requirements
A minimum of 15 credit hours (excluding ENS 899) is required in the area of study, as determined by the major professor and area of study faculty. Area of study subcommittees maintain advising lists of courses pre-approved to satisfy the 15-credit area of study require-ment. The student’s major professor or steering committee may designate additional courses. Five study areas are available to M.S. students: environmental policy and democratic processes, environmental and community land planning, environmental systems and risk management, water and wetland resource studies, and environmental communication and participatory processes.
Thesis Requirements
A minimum of six credit hours of research is required resulting in a document that clearly demonstrates graduate-level accomplishments of the student, followed by a defense examination. Students must have an approved thesis proposal.
The master of professional studies degree is a 39-credit-hour experi-ence aimed at professional applications of environmental knowledge.
Core Requirements
A total of 21 credit hours is required. These must include nine credit hours of applied social sciences in environmental policy and regulation, and democratic processes. In addition, a total of six credit hours is required in environmental science and six credit hours is required in methods courses emphasizing applications of technical knowledge.
Area of Study Requirements
A minimum of 12 credit hours of coursework is required in the chosen area of study, as determined by the major professor and study area faculty. Students select a study area at the time of application for admission to the program. Five study areas are available to M.P.S. students: environmental policy and democratic processes, environmental and community land planning, environmental systems and risk management, water and wetland resource studies, and environmental communication and participatory processes.
Synthesis Requirements
Students select either an internship for three to six credit hours or prepare a synthesis paper for three credit hours. All students must present a capstone seminar in their final semester. No terminal comprehensive examination is required.
Applicants with a minimum of three years of post-baccalaureate, full-time professional experience directly related to the intended area of study may apply for six credit hours of advanced standing in the program, reducing their degree requirements to 33 credit hours. Partial credit for experience cannot be awarded. When awarded for prior work experience, the six credit hours are applied toward the synthesis requirement.
The Ph.D. program provides a unique opportunity to develop environ-mental policy-related research within a strong college community of environmental analysts and to draw upon the expertise of scholars at Syracuse University. Entering students are required to complete the equivalent of the GPES master's core either from prior graduate study or coursework taken within the first year of residency. Environmental and natural resources policy applicants are expected to have completed a masters research thesis.
Participating Faculty: DeBAISE, KUEHN, LAWLER, MEISNER, SENECAH, WHITMORE
This study area addresses the communicative dynamics of the formation of attitudes. It includes decision making, public policy, public participation, campaign development, organizational effectiveness, and conflict prevention and resolution, which all hinge on the ability of participants to communicate and use information effectively, strategically and ethically. GPES students with this option will be prepared to enter diverse arenas of industry, non-government organ-izations and government structures well equipped to facilitate and participate in effective interactions among individual citizens, non-government organizations, publics, agencies, bureaucracies, scientists and others. They will have the skills and knowledge that will allow them to choose the more appropriate and effective process structures and strategies to reach objectives.
Participating Faculty: BRYANT, CARTER, DOBLE, M. HALL, HAWKS, MOUNTRAKIS, MORAN, SCHUSTER, SHANNON
Environmental and community land planning is concerned with orderly, efficient, equitable and aesthetic development of land with special concern for the state of the natural environment, the physical character of communities, and decision making at state, county and local levels of government. Planning balances competing demands on land and environment brought about by expanding urban and rural development, and enhancing viable natural and cultural resources is an important planning perspective. Another perspective involves the guiding of private and public development processes within a pluralistic political environment in order to promote sustainable communities while at the same time respecting fiscal, environmental and legal constraints.
The program is designed for students with social science, natural science, engineering or design backgrounds who are interested in an interdisciplinary and integrative program. Some students have majors in interdisciplinary programs in urban studies or environmental studies. Students develop an understanding and knowledge of development processes, natural systems and governmental planning and regulation. They develop a capacity to analyze environmental and community land planning problems and to form imaginative solutions. Skills obtained include preparation of land and environmental databases, plans, policies and implementation programs.
Participating Faculty: BEIER, ENDRENY, C. HALL, M. HALL,
JOHNSON, KROLL, LUZADIS, MOUNTRAKIS, MORAN, NAKATSUGAWA, NORDENSTAM, VOLK
The environmental systems and risk management study area focuses on problems in environmental and natural resource policy in which scientific and technical issues are of central importance. The program is designed for graduate students with a science or engineering background. Current research includes urban ecology, spatial model construction, use of renewable materials in structures and processes, biomas energy production, ecosystems modeling, environmental risk assessment, use of technical information by regulatory agencies, land use forecasting for public policy decisionmaking and sustainable resource and allocation. The environmental systems and risk management area of study provides a unique opportunity to study interdisciplinary problems. Specific coursework in environmental systems and risk management is supplemented by traditional disciplinary coursework in engineering or the natural sciences and policy analysis.
Participating Faculty: LUZADIS, MANNO, MEISNER, MORAN, NORDENSTAM, SENECAH, SMARDON, SONNENFELD
The environmental policy and democratic processes study area addresses problems of environmental decision making at a time of rapid institutional and social change. How our society can best meet the growing challenges of environmental stewardship through mandated and voluntary public participation in decision making is the central question. This concern is increasingly important to many segments of modern society, and we intend that students acquiring knowledge in this study area will be prepared to contribute positively to these processes in career pursuits.
The focus of this study area is on developing new understanding of public participation in environmental decision making, against the backdrop of environmental policymaking and program implementation. Particular attention is given to (a) the variety of organizationsinvolved in participation, which generally are the institutions and agencies of government, citizen-based non-governmental organizations and the business or industrial sector; (b) the availability and utility of environ-mental information for these groups; and (c) the participation and integration of all informed stakeholders into environmental decision making. This tripartite scheme of organizations, information and participation frames student programs of study, and suggests important directions for student and faculty research efforts.
The study area advances understanding of these questions of participatory democracy for environmental decision making through research and instruction, and is particularly suited to inquisitive students with degrees in environmental studies, political science, geography, engineering and other fields that provide inter-disciplinary backgrounds in natural and social science.
Participating Faculty: BOYER, ENDRENY, J. M. HASSETT, KROLL, LIMBURG, MANNO, MITCHELL, MORAN, SMARDON, STELLA
The water and wetland resources area of study develops an under-standing of technical, social and institutional aspects of water resources management, mitigation and restoration. Individual students may emphasize scientific or social subject areas but all study in both areas. Scientific aspects include the basic physical, chemical and biological interactions occurring in water resources systems. The social aspects are concerned with planning, regulation, law and institutions and management of water and wetland resources.
Recommended coursework includes:
Participating Faculty: GERMAIN, LUZADIS, MALMSHEIMER, MANNO, MORAN, NORDENSTAM, SENECAH, SMARDON, SONNENFELD, WAGNER
The environmental and natural resources policy Ph.D. program is a collaborative program offered by both the Graduate Program in Environmental Science and the Department of Forest and Natural Resources Management. This study area investigates how societies formulate and implement decisions regarding environmental and natural resources. Doctoral students integrate the biophysical sciences and policy-related social sciences to solve important problems in environ-mental and natural resources policy with applications throughout the world. The program offers an opportunity to work with outstanding faculty members on applied and theoretical studies.
Faculty members conduct studies at international, national, state and local levels on sustainability, implementation and administration of environmental, natural resources, and forest management programs and economic and institutional influences and impacts of government and non-government policies. The applications include environmental, natural resources and forest policy and administration; and environmental, natural resources, forest and ecological economics.
The environmental and natural resources policy (ENRP) doctoral program is a highly individualized program with coursework and research determined in consultation with the student, major professor and steering committee. Some coursework requirements may be met by transferring graduate credits as approved by the steering committee. Students may also fulfill coursework require-ments by completing courses offered by the Maxwell School of Citizenship and Public Affairs at Syracuse University. Specific degree requirements are described in the Handbook for Environmental and Natural Resources Policy Ph.D., available in 320 Bray Hall, 107 Marshall Hall, and on the ENRP Web site.
Students are expected to complete requirements resulting in a coherent body of theory, a depth of understanding in a specified area of biophysical science, appropriate research methods, and advanced policy analysis and understanding.
The following four core competencies must be satisfied prior to the doctoral candidacy examination. A minimum of 12 credits is required in each area.
Natural science: graduate courses (500 level or higher) in a definable area of biophysical science
Policy-related social science: 600-level or higher courses including at least one government course and one economics course
Research methods: 600-level or higher courses including a general research methods course (required), qualitative methods, quantitative statistical methods, GIS, or spatial statistics
Advanced environmental and natural resources policy: 600-level or higher courses including policy analysis and program evaluation (required).
Graduates have careers as university professors and advanced policy or program analysts. They often become leaders in government, legislatures, corporations, not-for-profit organizations, advocacy groups and academic institutions, consulting firms and village associations throughout the world.