Environmental Science and Technology Major
Program Director: Lance Yonkos, Ph.D.
The Environmental Science and Technology major prepares students for graduate study and careers focusing on understanding the natural and built environments and resolving environmental problems and concerns for the benefit of humans and ecosystems. Specifically, the program encompasses impacts of human society on the natural environment, the effects of environmental conditions on humans and ecosystems, science-based management of ecosystems, watershed and soil-related processes related to environmental quality, and designing solutions to sustainably improve environmental quality of air, water, soil, and biological communities. The ENST major is a science- and math-based curriculum leading to a B.S. degree in Environmental Science and Technology with concentrations in Ecological Technology Design, Ecosystem Health, Soil and Watershed Science, or Natural Resources Management. These concentrations share a foundation in science and mathematics, offer specialization through required concentration core courses, and provide flexibility in course selection in concentration depth and technical elective categories. The concentrations are designed to provide students with a fundamental understanding of environmental systems and issues and the multidisciplinary quantitative design and analytical tools necessary to solve complex environmental problems.
For future updates and exciting changes, please visit our website at http://enst.umd.edu.
Concentrations:
Ecological Technological Design
The ENST concentration in Ecological Technology Design prepares students for integrating natural systems with the built environment to solve environmental problems while achieving economic, ecological and social sustainability. The science and applications of using natural systems, processes and organisms to address environmental issues has evolved during the last few decades to a mature level whereby there are strong employment opportunities for graduates that are cross-educated in ecology and technology. Examples of ecological technology design applications include restoration of urban and rural streams, creation of wastewater treatment wetlands, design of rain gardens and bioretention systems for low-impact stormwater management, design of eco-industrial parks, life cycle assessment of products for improved environmental performance, bioremediation and phytoremediation of contaminated groundwater, ecological systems for by-product recovery, and filtration of contaminated air with bioreactors. The curriculum consists of a broad set of background courses in environmental science, electives in applications of Ecological Technology Design, and upper-level courses that synthesize the major. Hands-on design experience is included in required internship and practicum courses.
Ecosystem Health
The ecosystem health concentration is a broad and increasingly important field with wide ranging applications in the environmental science and public health fields. The field encompasses environmental factors and ecosystem functions that affect human health and the effects of human activities on the ecosystem products and services we depend on. Example topics within the field include ecological risk analysis, environmental toxicology, environmental impact assessment, chemical fate and transport, human health risk assessment, industrial hygiene, air quality, environmental microbiology, food safety and security, biodiversity and human health, and children's environmental health. The Ecosystem Health concentration within the Department of Environmental Science and Technology offers a science-based curriculum that includes advanced studies in ecosystem health and environmental protection and the impacts of environmental degradation on human health.
Applied Ecology and Natural Resources
The ENST concentration in Applied Ecology and Natural Resources is designed to enable students to understand and manage the environment by applying sound ecological principles to practical problems to make informed decisions about conservation, restoration, and resource use. Ecosystems and human societies are linked in complex cycles and relationships between soil, vegetation, wildlife, forests, cities, conservation, and development. By learning to participate effectively within these cycles, our students will help balance human needs with the long-term health of ecosystems and the environment.
The Applied Ecology and Natural Resources curriculum prepares graduates for work in a variety of careers addressing natural resource and environmental issues. It provides a rigorous science background for those planning to pursue post-graduate degrees in environmental sciences, natural resources, or wildlife science. In addition to pursuing advanced degrees, graduates may work in both the private and public sectors performing such services as wetland delineation, land conservation and planning, and consulting in environmental, construction, and urban landscape areas.
Soil and Watershed Science
The Soil and Watershed Science concentration enables students to understand the complex ways in which aquatic and terrestrial ecosystems are influenced by soil properties and processes and land management decisions. The soil performs such critical ecological functions as supplying and purifying water, recycling wastes, nurturing plants, modifying the atmosphere by emitting or sequestering gases and particulates, providing habitat for the most diverse biological communities on Earth, and serving as a medium for human engineering projects.
The concentration in Soil and Watershed Science in ENST provides students with one of the top soil science programs in the nation. The curriculum prepares graduates for work in variety of careers addressing natural resource and environmental issues and provides a rigorous science background for those planning to pursue post-graduate degrees in environmental sciences, soil science, watershed processes, and related fields. Students graduating from this program will make valuable contributions to society as they pursue challenging careers critical to the protection of the environment. In addition to pursuing advanced degrees, graduates may work in both the private and public sectors performing such services as soil mapping, wetland delineation, land conservation planning, forestry, waste management, farm advising, international development, and consulting in environmental, construction, and landscape architecture areas. Graduates from the Soil and Watershed Science concentration will be qualified to take the national exam to become a Certified Professional Soil Scientist (CPSS).
Program Learning Outcomes
- Science and Technology Application. Students will demonstrate the ability to apply natural science principles and technology methods (particularly in ENST), and be able to express scientific questions and findings in the context of relevant socio-environmental dimensions.
- Quantitative Reasoning. Students will demonstrate the ability to apply basic mathematical and quantitative reasoning in the context of relevant socio-environmental dimensions.
- Written and Oral Communication. Students will be able to communicate clearly, concisely, and effectively in writing and speech to scientific, management, policy, or general audiences.
- Information Literacy. Students will demonstrate information literacy skills that they can successfully apply in and outside their disciplines.
- Technology Fluency. Students will be able to apply technologies to their research and academic efforts in the context of their specific disciplines.
- Diversity, Equity, Inclusion and Respect (DEIR). Students will be able to apply their scientific and technological research and academic efforts in the context of diversity, equity, inclusion, and respect.
This program requires a total of 120 credits for a Bachelor of Science, including the general education program course credits, required major credits; Technology and Ecosystem elective credits, and free elective credits. All courses counted toward the major must be completed with a C- or better. An overall GPA of 2.0 in major courses is required for graduation.
| Course | Title | Credits |
|---|---|---|
| ENST Core for all Areas of Concentration | ||
| BSCI160 | Principles of Ecology and Evolution | 3 |
| BSCI170 | Principles of Molecular & Cellular Biology | 3 |
| BSCI180 | Principles Biology Laboratory | 1 |
| or BSCI171 | Principles of Molecular & Cellular Biology Laboratory | |
| MATH120 | Elementary Calculus I | 3 |
| CHEM131 & CHEM132 | Chemistry I - Fundamentals of General Chemistry and General Chemistry I Laboratory | 4 |
| ENST200 | Fundamentals of Soil Science | 4 |
| ENST233 | Introduction to Environmental Health | 4 |
| CHEM231 & CHEM232 | Organic Chemistry I and Organic Chemistry Laboratory I | 4 |
| PHYS121 | Fundamentals of Physics I | 4 |
| ENST321 | Statistics for Environmental Scientists | 3 |
| or GEOG306 | Introduction to Quantitative Methods for the Geographical Environmental Sciences | |
| or BIOM301 | Introduction to Biometrics | |
| ENST360 | Ecosystem Ecology | 4 |
| ENST389 | Internship | 3 |
| Concentration (See list below) | 35-36 | |
| Senior Integrative Experience - Choose one course from list below | 3 | |
| Honors Thesis Research | ||
| Ideas into Impact | ||
| Senior Professional Experience | ||
| Capstone | ||
| Total Credits | 78-79 | |
Concentrations:
Ecological Technology Design
| Course | Title | Credits |
|---|---|---|
| Concentration Core | ||
| ENST281 | Computer Aided Design in Ecology | 2 |
| ENST481 | Ecological Design | 4 |
| MATH121 | Elementary Calculus II | 3 |
| Concentration Depth - Ecology (2 Courses) | 6 | |
| Ecosystem Services: An Integrated Analysis | ||
| Soil Microbial Ecology | ||
| Wetland Ecology | ||
| Watershed Science: Water Balance, Open Channel Flow, and Near Surface Hydrology | ||
| Ecosystem Restoration | ||
| Concentration Depth - Design (3 Courses) | 9 | |
| Ecological Innovation and Entrepreneurship | ||
or ENST283 | Artificial Intelligence for Environmental Good | |
| Energy and Environment | ||
| Renewable Energy | ||
| Spatial Analysis and Ecological Sampling | ||
or GEOG272 | Introduction to Earth Observation Science | |
or GEOG373 | Geographic Information Systems | |
or INAG237 | GPS & Drone Applications in Surveying | |
| Water Management in Urban Environment | ||
| Ecological Technology Design Technical Electives 1 | 12 | |
Urban Ecosystems and Human Dimensions: | ||
| Urban Wildlife Management | ||
| Introduction to Human Dimensions of Global Change | ||
| Urban Environmental Science | ||
or PLSC480 | Urban Ecology | |
Sustainable Technology: | ||
| Environmental Microbiology | ||
| Sustainable Agriculture | ||
| Ecosystem Restoration | ||
| Fundamentals of Agricultural Mechanics | ||
| Green Roofs and Urban Sustainability | ||
Wetlands: | ||
| Wetland Soils | ||
| Wetland Ecology | ||
| Wetland Restoration | ||
| Watershed and Wetland Hydrology | ||
Ecology and Ecosystem Management: | ||
| Freshwater Biology | ||
| Natural History of the Chesapeake Bay | ||
| Principles of Wildlife Management | ||
| Forest Ecology | ||
| Total Credits | 36 | |
Ecosystem Health
| Course | Title | Credits |
|---|---|---|
| Concentration Core | ||
| BSCI207 | Principles of Biology III - Organismal Biology | 3 |
| ENST333 | Ecosystem Health and Protection | 3 |
| ENST334 | Environmental Toxicology | 3 |
| ENST436 | Emerging Environmental Threats | 3 |
| Concentration Depth (3 Courses) | 9 | |
| Principles of Genetics | ||
| Invasive Species Ecology | ||
| Soil-Water Pollution | ||
| Environmental Microbiology | ||
or BSCI223 | General Microbiology | |
| Ecosystem Health Technical Electives 1 | 15 | |
Environmental Health: | ||
| Invasive Species Ecology | ||
| Soil-Water Pollution | ||
| Toxic Contaminants: Sources, Fate, and Effects | ||
Environmental Science and Management: | ||
| Energy and Environment | ||
| Land Use, Climate Change, and Sustainability | ||
| Watershed and Wetland Hydrology | ||
Ecological Processes: | ||
| Soil Microbial Ecology | ||
| Wetland Ecology | ||
| Principles of Wildlife Management | ||
| Plant Physiology | ||
| Freshwater Biology | ||
Human Health: | ||
| Pathogenic Microbiology | ||
| Advanced Cell Biology Lab Practices | ||
| General Virology | ||
| Mammalian Systems Physiology | ||
Chemistry Depth: | ||
| Organic Chemistry II | ||
| Organic Chemistry Laboratory II | ||
Cultural or Social Dimensions: | ||
| Urban Environmental Science | ||
| Ecosystem Services: An Integrated Analysis | ||
| Introduction to Human Dimensions of Global Change | ||
| Culture and Natural Resource Management | ||
| Sustainability | ||
| Total Credits | 36 | |
Applied Ecology and Natural Resources
| Course | Title | Credits |
|---|---|---|
| Concentration Core | ||
| BSCI222 | Principles of Genetics | 4 |
| ENST214 | Introduction to Natural Resources Management | 3 |
| ENST456 | Spatial Analysis and Ecological Sampling | 3 |
| or GEOG373 | Geographic Information Systems | |
| or INAG237 | GPS & Drone Applications in Surveying | |
| ENST487 | Environmental Conflicts and Decision Making | 2 |
| Concentration Depth (3 Courses) | 9 | |
| Wildlife and Habitats | ||
| Principles of Wildlife Management | ||
or BSCI361 | Principles of Ecology | |
or PLSC253 | Woody Plants for Mid-Atlantic Landscapes I | |
or BSCI334 | Mammalogy | |
| Wetlands and Waterways | ||
| Wetland Ecology 2 | ||
or ENST453 | Watershed Science: Water Balance, Open Channel Flow, and Near Surface Hydrology | |
or ENST430 | Wetland Soils | |
| Urban Sustainability | ||
| Ecosystem Services: An Integrated Analysis | ||
or AREC240 | Introduction to Economics and the Environment | |
or AREC241 | Environment, Economics and Policy | |
| Technical Electives 1 | 15 | |
Wildlife and Habitats: | ||
| Principles of Wildlife Management | ||
| Urban Wildlife Management | ||
| Field Techniques in Wildlife Management | ||
| Field and Laboratory Techniques in Environmental Science | ||
| Environmental Physiology of Animals | ||
| Introduction to Environmental Politics | ||
| Woody Plants for Mid-Atlantic Landscape II | ||
| Plant Physiology | ||
Wetlands and Waterways: | ||
| Wetland Soils 2 | ||
| Wetland Ecology 2 | ||
| Wetland Restoration 2 | ||
| Watershed Science: Water Balance, Open Channel Flow, and Near Surface Hydrology | ||
| Watershed and Wetland Hydrology | ||
Urban Sustainability: | ||
| Introduction to Environmental Law | ||
or GVPT273 | Introduction to Environmental Politics | |
| Ecosystem Services: An Integrated Analysis | ||
| Introduction to Economics and the Environment | ||
| Essentials of Intercultural Communication | ||
| Introduction to Human Dimensions of Global Change 3 | ||
or GEOG333 | The Social Geography of Metropolitan Areas in Global Perspective | |
| Conceptualizing and Modeling Human-Environmental Interactions | ||
| Total Credits | 36 | |
Soil and Watershed Science
| Course | Title | Credits |
|---|---|---|
| Concentration Core | ||
| GEOL100 & GEOL110 | Physical Geology and Physical Geology Laboratory | 4 |
| ENST456 | Spatial Analysis and Ecological Sampling | 3 |
| or GEOG272 | Introduction to Earth Observation Science | |
| or GEOG373 | Geographic Information Systems | |
| or INAG237 | GPS & Drone Applications in Surveying | |
| Concentration Depth - Soil Sciences (4 classes; at least 13 credits) | 13 | |
| Principles of Soil Fertility | ||
| Soil Morphology, Genesis and Classification 3 | ||
| Soil Hydrology and Physics 3 | ||
| Soil Chemistry 3 | ||
| Soil Microbial Ecology 3 | ||
| Concentration Depth - Field Experiences | 3 | |
| Field Soil Morphology I | ||
| Field Soil Morphology II | ||
| Field Soil Morphology III | ||
| Advanced Field Soil Morphology | ||
| Wetland Soils | ||
| Sustainable Agriculture | ||
| Wetland Ecology | ||
| Soil and Watershed Science Technical Electives 1 | 12 | |
Agriculture and Sustainable Land Use: | ||
| World Hunger, Population, and Food Supplies | ||
| Global Food Systems | ||
| Plant Physiology | ||
Soil Ecology: | ||
| General Microbiology | ||
| Biology of Insects | ||
| Freshwater Biology | ||
| Environmental Microbiology | ||
| Plant and Fungal Metabolism | ||
Geosciences: | ||
| Geomorphology | ||
| Structural Geology | ||
| Environmental Toxicology | ||
| Soil-Water Pollution | ||
| Watershed Science: Water Balance, Open Channel Flow, and Near Surface Hydrology | ||
| Groundwater | ||
| Watershed and Wetland Hydrology | ||
| Ecosystem Restoration | ||
| Total Credits | 35 | |
- 1
Any combination of electives can be taken. Courses appear in blocks of related topics to assist students in tailoring their program to particular interests within the concentration. Under some circumstances, other 300 or 400 level electives can be substituted with advisor’s approval.
- 2
Required for Professional Certification as a Wetland Professional in Training (WPIT) by The Society of Wetland Scientists Professional Certification Program (SWSPCP).
- 3
Required for Soil Certification Exam.
Click here for roadmaps for graduation plans in the College of Agricultural and Natural Resources.
Additional information on developing a graduation plan can be found on the following pages:
- http://4yearplans.umd.edu
- the Student Academic Success-Degree Completion Policy section of this catalog