2024-2025 Academic Catalog
Environmental Science Major
|
|
Return to: Programs of Study
|
Environmental Science Overview
Undergraduate Program
The interdisciplinary environmental science major introduces students to physical, biological, geographical and policy aspects of the natural environment. Following a set of common core courses, majors choose one of four tracks: Earth System Science, Environmental and Conservation Biology, Environmental Science and Policy, or Environmental Engineering. The major provides training for those who want to continue on to graduate school or establish management, fieldwork, or laboratory careers in areas as diverse as ecology, conservation biology, teaching, environmental planning, protection, or regulation, water or air monitoring, and policy development.
Advanced students are encouraged to undertake directed research or internships and may do a senior project for honors. Environmental science faculty come from a wide range of Clark’s departments. Most are from Biology, Geography, and Sustainability and Social Justice, but faculty with environmental interests are also to be found in departments as diverse as Chemistry, Economics, Political Science, Management, Philosophy, and Physics. Many of the research faculty of Clark’s George Perkins Marsh Institute are also contributors to the ES major.
For more information, please visit the Environmental Science website.
Major Requirements
Clark environmental science majors may elect to focus in one of three areas: Earth System Science, Environmental and Conservation Biology, or Environmental Science and Policy.
Students who have clearly developed interests in environmental science when they arrive at Clark may be interested in satisfying some of their perspectives with environmentally-relevant perspective courses.
Environmental and Conservation Biology Track
Environmental biologists explore the ways in which organisms evolve and interact with one another and their environments. Levels of exploration can range from molecular evolution and genomics to ecosystem level function. Conservation biology makes up one component of this field, focusing on the biological knowledge necessary to preserve biodiversity. Because the loss of biodiversity has reached crisis proportions, we offer a focused curriculum that enables students to bring appropriate biological tools and knowledge to efforts to develop conservation strategies and policies.
This track is allows students to design a curriculum that will prepare them for research and teaching in environmental and conservation biology. Students who follow this track are eligible to apply to the accelerated B.A./M.S. programs in Biology or Environmental Science & Policy. Students interested in environmental and conservation biology research are encouraged to consider the accelerated B.A./M.S. in biology. We recommend that students interested in obtaining both a strong background in environmental and conservation biology and policy consider completing this track and then the accelerated B.A./M.S. degree in environmental science and policy.
Environmental Science Core Courses (3)
These courses are intended to provide all students in the environmental science major with a common, general background and vocabulary in environmental science: Mathematics (2)
These pairs of courses offer students requisite mathematical and statistical skills for the discipline. The second statistics course must be taken at the 200-level.
- Two Calculus courses (e.g. and )
- OR Two Statistics courses with at least one at the 200-level (e.g. BIOL 106 and BIOL 206 , OR GEOG 110 and GEOG 247 )
- OR One Calculus course (e.g. ) AND one Statistics course (e.g. BIOL 106 )
Biology Core Courses (4)
These courses provide students with the knowledge needed for more advanced study in the field. Research Course in Biology (1)
These are courses that provide students with intensive research experiences that will enable them to develop the background needed to design and carry out their own research. With prior approval, courses in field programs may also satisfy this requirement. Seminar Course in Biology (1)
Seminar courses provide students with the opportunity to develop the ability to read and evaluate original literature and to develop verbal presentation and discussion skills at the same time they are exploring a new field of biology. Natural Science Electives (3)
Selection of one or more courses from this list will enable students to broaden their backgrounds in environmental and conservation biology. At least one course must be at 200 level.
NOTE: This is not a complete list. The ES director can approve other courses. Courses listed under research or seminar course options can also fulfill this elective.
Courses in Environment and Society (2)
Selection of courses from this list will provide students with initial insights into the mutual impacts of the biological systems and human activities, as well as the processes entailed in decision making and policy development relative to environmental issues. Capstone Requirement (1)
Refer to section Capstone Requirement in Environmental Science for information regarding the capstone.
Other recommendations:
Students interested in Environmental and Conservation Biology, whose interests overlap with those of a biology faculty member, and who meet B.A./M.S. academic requirements, should seriously consider participating in the Accelerated B.A./M.S. Degree Program. This program enables students with career goals that include research to develop a much deeper understanding of the field, and of the skills involved in hypothesis development, data acquisition and analysis, and written and verbal presentation skills. Earth System Science Track
Earth System Science uses an interdisciplinary approach to study the complex, interacting physical and biological components of the Earth’s land surface, atmosphere, cryosphere and oceans, placing an emphasis on observing, understanding and predicting global environmental changes.
The ESS track of the Environmental Science major program incorporates intensive field study, satellite remote sensing analysis, geographic information science (GISci), and computer simulation as tools for understanding, monitoring, and predicting Earth system behavior. The ESS program trains students for a wide range of professional endeavors as well as more advanced studies involving physical geography, forest ecology, landscape ecology, land-atmosphere interactions, hydrology, biogeochemistry, remote sensing, and GISci.
Environmental Science Core Courses (3)
These courses are intended to provide all students in the environmental science major with a common, general background and vocabulary: Basic Skills (2; at least 1 at the 200 level)
These courses develop skills in statistics, modeling and database management. Introductory Earth System Science Courses (4)
These courses include offerings in physical geography, hydrology, weather and climate, global warming, environmental chemistry and biodiversity.
Skills GIScience (1)
These offerings allow students to develop the knowledge to use Global and Environmental imaging and information systems.
Note: some of these courses may be listed as ID courses in the catalog as well as GEOG courses (e.g. GEOG 296 may also be coded as ID 296); either code can satisfy this requirement as long at it is the same course.
Advanced Earth System Science Courses (4; at least 2 from Geography)
These are more narrowly focused, upper division courses in Earth Systems Science.
Human-Environment Courses (2)
Human interaction with the global environment is addressed here, from economic, political, management, ethical, cultural and legal perspectives. Capstone Requirement (1)
Refer to section Capstone Requirement in Environmental Science for information regarding the capstone.
Environmental Science and Policy Track
The Environmental Science and Policy track prepares students for exciting careers at the intersection of environment, development, society, and technology. ES&P began as a pioneer in the 1970s, one of the first environmental programs anywhere to explore this vital intersection. The social and ecological challenges of the 21st Century are inherently complex and dynamic. ES&P teaches students to: apply knowledge and methods from both the natural and social sciences; to integrate quantitative, spatial, qualitative and narrative data; to understand and respond to complex challenges like climate change, pollution, and social injustice. The ES&P student becomes equipped with knowledge, skills and perspectives to work collaboratively with a wide array of stakeholders - communities, governmental agencies, NGOs, businesses, researchers, and donors - in ways that are sensitive to cultural, institutional, socio-political, and economic contexts. Our approach to teaching, scholarship and practice is constructively critical, engaged with diverse people and places, and strongly integrative. ES&P students participate in research/practice collaborations that tackle a wide range of pressing issues, including health risks associated with toxic chemicals, climate change impacts and resilience, natural resource governance, and capacity building for sustainable development in both domestic and international settings. ES&P students are educated to recognize, characterize, frame, understand and collaboratively respond to the challenging issues of the 21st Century.
The environmental science and policy track carries the following requirements:
Environmental Science Core Courses (3)
These courses are intended to provide all students in the environmental science major with a common, general background and vocabulary in environmental science: Mathematics (1 semester of statistics)
Introductory Science Courses (3)
These courses provide background in the sciences, including biology, chemistry, geosciences, and physics. Chosen from the following, the courses must draw on at least two different disciplines:
ES&P Required Courses (1)
Science Electives (3; at least one at the 200 level)
These courses may be chosen from a wide range of advanced science electives in biology, chemistry, geography, and physics. At least one must be at 200-level:
Social Science Electives (2)
ES&P Electives (4, with at least two at the 200 level)
Capstone Requirement (1)
Refer to section Capstone Requirement in Environmental Science for information regarding the capstone.
Environmental Engineering Track
The Environmental Engineering track is designed for students intending to pursue the 3-2 Program in Engineering. Environmental engineering aims to design solutions for a more sustainable, healthy and equitable development and use of natural resources and our environment. With pressures from population growth, urbanization, industrialization, and associated demands for materials and goods, environmental engineers find ways to anticipate and monitor natural resource shocks and natural disasters, track pollutants and reduce and manage wastes to improve environmental quality and provide clean air and water, develop safe and sustainable built environments and industries, and more. The ES-ENG track provides a solid foundation in mathematics and sciences with an orientation toward the environment, preparing students to continue with more advanced and focused studies within Columbia University’s engineering school.
Basic Math Foundations (2)
Chemistry Foundations (1)
Elective ES Classes (3)
At least 2 at the 200-level
(drawn from courses listed either as “Science Electives” in the ES&P major track, or “ESS Introductory or Advanced Electives” in the ESS major)
ES-oriented Social Science Classes (2)
Drawn from the ES&P major track as follows:
Either both taken from the “ES&P Electives” (at least 1 taken at the 200-level)
OR
1 “ES&P Elective” AND 1 “Social Science Elective” (at least 1 taken at the 200-level)
1 Capstone Class
Refer to the section Capstone Requirement in Environmental Science for information regarding the capstone.
Additional 3-2 Requirements
In addition to the requirements of the Clark Core and their major at Clark, students must meet the entrance requirements of Columbia University. Further details can be found here, 3/2 Engineering Program .
Additional requirements to complete the ES-ENG track of the major at Clark University in the event that the student does not pursue the Columbia University 3-2 program (4)
If the student does not end up pursuing the 2 years at Columbia University, the environmental engineering track major must be completed at Clark by fulfilling the following four additional requirements:
Additional Elective ES Classes (3, at least 2 at the 200-level)
Drawn from courses listed either as “Science Electives” in the ES&P major track, or “ESS Introductory or Advanced Electives” in the ESS major.
Additional 200-level ES-oriented Social Science Class (1)
Drawn from the ES&P major track either “ES&P Elective” or “Social Science Elective”
Capstone Requirement in Environmental Science
Completion of a capstone is required for the major. The capstone shall be performed during the third or fourth year of study.
To fulfill the capstone requirement, students must earn a 200- or 300-level credit that relates to their specialization. There are several options including:
- A 200-level, a 200/300-level, or a 300-level course that the instructor deems appropriate as delivering on the intent of a capstone. The course should involve a substantive amount of independent work by the student, even through homework and lab assignments and exams, that involves synthesis and integration of concepts, and typically involving applications of what they are learning to some kind of problem solving or practice in the field. The experience does not necessarily need to involve an in-depth, independent project. Any course that fulfills the capstone in Biology, the ESS area of Geography, or the ES&P area of SSJ (i.e. an EN course) could be taken as a capstone course in the ES major, regardless of the student’s track.
- Directed Study with a faculty member (DEPT* 299)
- Directed Research with a faculty member (DEPT* 299)
- Honors Thesis (DEPT* 297)
- Internship (DEPT* 298)
*DEPT can be EN, GEOG, BIOL, or IDND/HERO as appropriate
Other research or practical experiences may qualify, at the advisor’s discretion, even if they are not recognized with a formal academic credit. Satisfying the capstone in this way requires submission of (a) a report to the advisor explaining the work performed, (b) a substantive demonstration of the outcome of the capstone experience, and (c) confirmation from the mentor/supervisor of the student’s satisfactory completion of the experience. Examples include:
- Directed Research during Study Away (e.g. School for Field Studies Directed Research)
- Summer Research with faculty
- Internship or Research Experience that does not confer credit (e.g. a NOAA Fellows or NASA DEVELOP internship, an NSF REU)
The student’s faculty advisor is the judge for determining whether any particular credit or experience satisfies the capstone criteria in the area of the student’s specialization. The advisor will make the judgment based on the intent of the capstone and its elements described above. Questions about whether a capstone experience meets the intent may be brought to the ES program Director after first consulting with the major advisor.
Before beginning the qualified activity, the student must obtain on the Capstone Form their advisor’s signed approval of the intended capstone experience, and then deliver the form to the major advisor. It is also the student’s responsibility to coordinate any requirements necessary outside of the department (i.e. internship registration, any other Clark forms that may be needed, etc.).
Upon completion of the capstone, the student must obtain on the Capstone Form the signed approval by the professor/supervisor who oversaw the Capstone credit, and then submit the form to the major advisor. Students shall provide evidence of the capstone outcome if requested by the major advisor to support the advisor’s deliberation and evaluation of satisfactory completion. The advisor will make the judgment based on the intent of the capstone and its elements as described above, and the awarding of a passing grade (if credit-bearing).
Applying to the Honors Program:
Students must apply in writing before the beginning of their senior year to the Director of the Environmental Science program for admission into the honors program. Normally a GPA of at least 3.0 will be required for admission into the honors program. The application should include a brief cover letter describing the proposed honors research and the name of the faculty member who will be the primary research advisor. An unofficial transcript should be included in the application. Upon admission to the honors program the student (with the approval of the primary advisor) must find one other member of the ES program faculty who will serve on the student’s honors thesis committee. With the approval of the Steering Committee, one member of a student’s committee (even the primary research advisor) may be a qualified person who is not a member of the faculty at Clark.
Admission to the Honors Program:
The ES Executive Steering Committee will decide who is admitted into the honors program based on a student’s GPA, course of study, plan for an honors project, and the recommendation of the faculty member who will act as research advisor. Admission to the honors program does not guarantee the award of honors.
Honors Requirements
Once a student is admitted into the honors program, the student will register for at least two semesters of Honors Research in Environmental Science, EN 297. The student will carry out a directed research project under the mentorship of a faculty member or other approved person for at least two semesters and will write an honors thesis, to be submitted to the student’s two-member thesis committee by April 10th of the senior year,. The thesis will also be made available to interested members of the ES faculty. The student will also give an oral presentation of their research at a designated time towards the end of the senior year. All faculty members of the ES program committee will be invited to attend these presentations, and the presentations will be open to the Clark community. After all the student honors presentations have been given and all the honors theses have been read by the respective two-member committees and other interested ES faculty, the Steering Committee will decide on the level of honors to be awarded based on the recommendation of the student’s committee and Steering Committee members.
Criteria for Honors:
The category of honors (no honors, honors, high honors, highest honors) awarded in ES will be based on the following criteria (listed in order of importance):
(a) the honors research and the honors thesis,
(b) the oral presentation and response to audience questions,
(c) the recommendation of the student’s advisory committee,
(d) a student’s overall grade point average and grades in individual ES-related courses.
Environmental Science Faculty
Program
Nathan Ahlgren, Ph.D.
Charles Agosta, Ph.D.
Dana Bauer, Ph.D.
Philip Bergmann, Ph.D.
Elizabeth Bone, Ph.D.
Rinku Roy Chowdhury, Ph.D.
Patrick Derr, Ph.D.
Timothy Downs, D.Env.
Lyndon Estes, Ph.D.
Abby Frazier, Ph.D.
Karen Frey, Ph.D.
Jacqueline Geoghegan, Ph.D.
David Hibbett, Ph.D.
Chandra Jack, Ph.D.
Robert Johnston, Ph.D.
Dominik Kulakowski, Ph.D.
Eman Lasheen, Ph.D.
Kaitlyn Mathis, Ph.D.
Erin McCullough, Ph.D.
Yelena Ogneva-Himmelberger, Ph.D.
Robert Gilmore Pontius Jr, Ph.D.
Deborah Robertson, Ph.D.
John Rogan, Ph.D.
Morgan Ruelle, Ph.D.
Florencia Sangermano, Ph.D.
Javier Tabima, Ph.D.
Christopher A. Williams, Ph.D. - Director of ES program
Environmental Science Courses
Courses
- BCMB 271 - Biochemistry I
- BIOL 101 - Introduction to Biology I
- BIOL 102 - Introduction to Biology II
- BIOL 105 - Evolution
- BIOL 106 - Introductory Biostatistics
- BIOL 109 - Microbiology
- BIOL 110 - Introduction To Botanical Diversity
- BIOL 114 - Marine Biology
- BIOL 118 - Genetics
- BIOL 119 - Herpetology
- BIOL 180 - Introductory Mycology
- BIOL 206 - Advanced Biostatistics
- BIOL 207 - Conservation Biology
- BIOL 209 - The Genome Project
- BIOL 212 - Microbiomes
- BIOL 216 - Ecology
- BIOL 223 - Topics in Marine Biology
- BIOL 233 - Animal Locomotion
- BIOL 235 - Mathematical Modeling of Biological Systems
- BIOL 237 - Epigenetics
- BIOL 242 - Animal Behavior
- BIOL 243 - Seminar in Evolution
- BIOL 256 - Biology of Symbiosis
- BIOL 265 - Population Genetics
- BIOL 266 - Chemical Ecology
- BIOL 268 - Plant-Microbe Interactions
- BIOL 274 - Biological Dynamics
- BIOL 276 - Biology of Social Insects
- BIOL 284 - Data Visualization and Exploration for the Biosciences in the Tidyverse
- BIOL 288 - Ecological Restoration
- BIOL 290 - Science Careers & Effective Practice
- BIOL 307 - Conservation Biology
- BIOL 342 - Animal Behavior
- CHEM 101 - Introductory Chemistry I
- CHEM 102 - Introductory Chemistry II
- CHEM 103 - Accelerated Introductory Chemistry
- CHEM 131 - Organic Chemistry Principles
- ECON 152 - Economics of Climate Change
- ECON 160 - Introduction to Statistical Analysis
- ECON 254 - Environmental Economics
- ECON 256 - Modeling Ecological-Economic Systems
- ECON 258 - The Economics and Policy of Food
- EN 101 - Environmental Science and Policy: Introductory Case Studies
- EN 105 - Understanding the Water-Energy-Food Nexus
- EN 120 - Discovering Environmental Science
- EN 207 - Climate Change, Energy and Development
- EN 217 - Place-Based Ecological Knowledge
- EN 228 - Food Security and Climate Change
- EN 242 - Sustainable Development Assessment and Planning
- EN 245 - Natural Resource Management
- EN 297 - Honors
- EN 299 - Directed Study
- GEOG 017 - Environment and Society
- GEOG 102 - Weather and Climate
- GEOG 104 - Earth System Science
- GEOG 110 - Introduction to Quantitative Methods
- GEOG 116 - Forest Ecology
- GEOG 118 - Environment and Development in the Global South
- GEOG 119 - The Arctic in the Anthropocene
- GEOG 155 - Geopolitics, Climate Change, and Current Affairs
- GEOG 156 - Getting to Zero: Clean Energy for a Climate-Safe Future
- GEOG 180 - Life in the Anthropocene: Environment and Society in an Era of Rapid Global Change
- GEOG 190 - Introduction to Geographic Information Science
- GEOG 205 - Introduction to Hydrology
- GEOG 213 - Advanced Geospatial Analytics with Python
- GEOG 216 - Field Methods for Environmental Science
- GEOG 225 - Environmental Politics
- GEOG 228 - Hydroclimatology
- GEOG 232 - Landscape Ecology
- GEOG 245 - Problems & Practices in Environmental Stewardship
- GEOG 246 - Geospatial Analysis with R
- GEOG 247 - Intermediate Quantitative Methods in Geography
- GEOG 248 - Social Justice and the City
- GEOG 255 - Critical Geopolitics and the Environment
- GEOG 260 - GIS & Land Change Models
- GEOG 263 - The Climate System and Global Environmental Change
- GEOG 274 - Africa’s Development in Global Context
- GEOG 282 - Advanced Remote Sensing
- GEOG 283 - Terrestrial Ecosystems and Global Change
- GEOG 287 - New Methods in Earth Observation
- GEOG 293 - Introduction to Remote Sensing
- GEOG 296 - Advanced Raster GIS
- GEOG 305 - Introduction to Hydrology
- GEOG 309 - Trends in Forest Ecology
- GEOG 315 - Applying Deep Learning to Earth Observation
- GEOG 316 - Field Methods for Environmental Science
- GEOG 328 - Hydroclimatology
- GEOG 333 - Terrestrial Ecosystems and Global Change
- GEOG 336 - Wildlife Conservation GIS Research Seminar
- GEOG 345 - Problems & Practices in Environmental Stewardship
- GEOG 363 - The Climate System and Global Environmental Change
- ID 121 - Culture, Health, and Development: What Makes Us Sick?
- ID 125 - International Development and its Alternatives: Theory, Practice, Action
- ID 207 - Beyond the Population Bomb: Rethinking population and the environment in an era of climate change
- ID 229 - Property and Community
- ID 294 - Culture, Environment, and Development
- ID 296 - Advanced Vector GIS
- IDND 066 - Global Society
- MATH 120 - Calculus I
- MATH 121 - Calculus II
- PHIL 131 - Environmental Ethics
- PHYS 110 - Introductory Physics - Part I
- PHYS 111 - Introductory Physics - Part II
- PHYS 120 - Introductory Physics - Part I, with Calculus
- PHYS 121 - Introductory Physics - Part II, with Calculus
- PHYS 243 - Technology of Renewable Energy
- PSCI 050 - Introduction to American Government
- PSCI 146 - The United Nations and International Politics
- PSCI 154 - Introduction to Public Policy in the United States
- PSCI 157 - U.S. Environmental Politics
- PSCI 213 - Policy Analysis
- PSCI 216 - Comparative Environmental Politics
- PSYC 105 - Statistics
- SOC 205 - Sociology of the Environment
- SSJ 328 - Food Security and Climate Change
- SSJ 30117 - Place-Based Ecological Knowledge
- SSJ 30245 - Natural Resource Management
|
Return to: Programs of Study
|
|
|