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Environment, sustainability and energy

Want to be on the front line of design innovations that provide access to clean water? Interested in making a difference in global climate change? Would you like to reduce the world’s consumption of oil, natural gas, and coal? Passionate about creating affordable and accessible options to increase sustainable uses of alternative energy?

academics  applied learning  profile  research

Aeronautics and Astronautics

Historically more constrainedAeronautics and Astronautics

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Chemical Engineering

Chemical Engineering

Civil Engineering

Civil Engineering

Electrical and Computer Engineering

Historically more constrainedElectrical Engineering

Environmental Engineering

Environmental Engineering

Industrial Engineering

Industrial Engineering

Mechanical Engineering

Historically more constrainedMechanical Engineering

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Consider specializing within your major

Concentrations, pathways, focus areas and degree options are all ways for you to specialize academically within your major. The specific policies and structures vary, but typically a specialization will involve a set of classes that all relate to one core theme. They may be either transcripted or untranscripted.

Transcripted: If completed, appear on your official UW transcript. These are generally competitive and require an additional application after you are in the major.

Untranscripted: Do not appear on your official UW transcript. Serve as guidance for students who wish to deepen their knowledge in a specific subject.

You can also explore the specializations offered by each department on our degree options page.

Choose meaningful general education courses

You can fulfill your general education requirements while building the context and creativity you'll need to engineer solutions to meaningful problems. Keep in mind that in your first year, you may want to start out in 100 or 200 level classes and build towards upper-division coursework throughout your time at the UW.

For example:

  • CEP 200: Introduction to Community and Environment (SSc)
  • ENV H 220: Global Environmental Change and Public Health (SSc)
  • GEOG 272: Geographies of Environmental Justice (SSc and DIV)
  • ENGL 265: Introduction to Environmental Humanities (SSc/A&H, and DIV)
  • ENVIR 239: Sustainability: Personal Choices, Broad Impacts (SSc)
  • GEOG 123: Introduction to Globalization (SSc, DIV)
  • ENVIR 243: Environmental Ethics (A&H/SSc)
  • PHYS 217: Energy Future: The Technical and Social Barriers to Large-Scale Sustainable Energy (SSc) (No Credit if Chem E 341 is taken)
  • JSIS B 357: The Geopolitics of Energy (SSc)
  • ATMOS 458: Air Pollution Chemistry (NW)
  • ENV H 475: Environmental Justice And Population Health (SSc) (DIV)
  • ESS 105: Natural Hazards And Disasters (NSc, but seems like it would be a good elective!)

General education requirements

At the UW, you are required to take general education courses. As an engineering student, this can consist of:

  • 10 credits of Arts and Humanities (A&H)
  • 10 credits of Social Sciences (SSc)
  • 4 credits of A&H or SSc
  • 5 credits of Diversity (DIV)

Get involved!

Join student organizations working in your area of interest. You’ll make friends who have similar interests while building skills working on your passions!

Study abroad opportunities

Deepen your understanding of the ways in which engineering can impact people around the world by participating in a study abroad program

Many study abroad programs include engineering classes, participation in research or internships. See UW Engineering's Study Abroad page to learn more and start the planning process.

Capstone design projects in environment, sustainability and energy

In your final year, you will participate in a capstone design experience that serves as a culmination of your engineering study. Past capstone projects in environment, sustainability and energy have included:

  • Industrial and systems engineering and mechanical engineering students worked with construction company, McKinstry, to analyze facility data drawn from the built environment with the goal of being able to make recommendations to building occupants and operators to positively impact resource consumption.
  • Aeronautics and astronautics students worked with the magniX company to deliver a plan to convert their agricultural plane to all-electric, including installation plans for propulsion system and batteries, designs, mounts, brackets, parts lists, and full sets of CADs, drawings, virtual models and simulations.
  • Industrial and systems engineering and mechanical engineering students worked with Seattle City Light to layout and design an all-electric renewable energy powered food truck for use on Seattle streets.

See a full list of previous Industry capstone projects and a list of department-based capstone projects.

Join a research team

Every UW Engineering department offers undergraduate research opportunities. To get started:

What UW engineers are up to

Enabling an engineering first: Light rail on a floating bridge

Light rail will cross a floating bridge for the first time in the world when construction is completed on Sound Transit’s East Link Extension Project in 2023 — thanks to the work of UW CEE researchers.

AMPing up underwater environmental monitoring

UW researchers are developing devices to answer some of the trickiest questions about marine energy’s environmental effects. Working as part of the Northwest National Marine Renewable Energy Center, researchers have developed a detection system that captures important data about interactions between marine life and marine energy converters — but only when marine life is present. This detection system drastically reduces the extreme amount of low-value data that researchers would otherwise need to store and inspect.

Building a better battery

Imagine revolutionizing the renewable energy market with the silica gel packets you find in shoeboxes and snack bags. The research team behind Membrion is working to do just that. Developed by chemical engineering researchers Greg Newbloom (PhD ’14) and Weyerhaeuser Endowed Associate Professor Lilo Pozzo, the Membrion technology seeks to innovate battery storage with a lower cost, improved battery membrane that uses silica gel. And, the team says, they couldn’t be doing it without the support of partners on and off campus committed to advancing alternative energy research, innovation and commercialization.