BS Civil Engineering

4 Years On Campus Bachelors Program

Stanford University

Program Overview

Stanford University’s BS in Civil Engineering prepares students to plan, design, construct, and sustain the built environment while addressing air, energy, water resources, environmental protection, and natural and climate-related hazards. The program suits students who want a technically rigorous but people-oriented engineering education, combining mathematics and science with hands-on and computational experimentation, engineering design, communication, and the flexibility to build depth and breadth across seven civil engineering focus areas.

Curriculum Structure

Year 1: Students establish the mathematical and scientific foundation needed for engineering through subjects such as MATH 19, MATH 20, and MATH 21 for single-variable calculus, alongside physics and chemistry requirements. Students can also begin exploring Civil Engineering through introductory options such as CEE 41Q: Clean Water Now! Urban Water Conflicts, CEE 63: Weather and Storms, or CEE 83: Seismic Design Workshop.

Year 2: Students move further into engineering fundamentals and begin the Civil Engineering core, including ENGR 14: Introduction to Solid Mechanics and CEE 100: Managing Sustainable Building Projects. The curriculum also develops computational preparation through a required programming-methodology course and builds the mathematics, statistics, physics, and science background needed for advanced civil engineering study.

Year 3: Students develop greater specialization through the program’s seven focus areas, selecting a Depth area of at least 12 units and gaining Breadth across three additional areas. Depending on interests, coursework can include areas such as Structural Engineering & Mechanics, Environmental Fluid Mechanics & Hydrology, Construction Engineering, Engineering & Climate, Environmental Quality Engineering, Sensing, Analytics, and Control, or Urban Systems.

Year 4: Students consolidate their specialization through advanced focus-area and engineering electives and complete CEE 183: Senior Capstone Design, which provides the program’s culminating design experience. Students interested in research can also pursue the CEE Honors pathway, which involves an in-depth research study, faculty supervision, and a thesis.

Focus areas: Construction Engineering; Engineering & Climate; Environmental Fluid Mechanics & Hydrology; Environmental Quality Engineering; Sensing, Analytics, and Control; Structural Engineering & Mechanics; Urban Systems.

Learning outcomes: Graduates are prepared to formulate and solve complex engineering problems using mathematics, science and engineering principles; design solutions with consideration for public health, safety and welfare; conduct experiments and interpret data; work effectively independently and in teams; communicate effectively; and recognize ethical, environmental, economic and societal responsibilities associated with engineering decisions.

Professional alignment (accreditation): The Stanford Civil Engineering BS is ABET-accredited. Stanford states that ABET accreditation is a first step toward professional engineering licensure, and the curriculum includes specific preparation for the Fundamentals of Engineering (FE) examination and professional engineering pathways.

Reputation (employability rankings): Stanford University’s School of Engineering provides the academic and research environment for the program, while the Civil Engineering major combines ABET accreditation with opportunities for undergraduate research and advanced study. Stanford’s official program information does not publish a Civil Engineering-specific QS or Guardian employability ranking on the program page, so a program-specific ranking is not stated by the university.

Experiential Learning (Research, Projects, Internships etc.)

The BS Civil Engineering at Stanford gives students practical experience through hands-on and computational experiments, design work, laboratory projects, and collaborative engineering projects. The curriculum includes opportunities to work on real civil-engineering problems involving structures, infrastructure, water, transportation, sustainability, and natural hazards, while Stanford’s research environment provides access to specialized laboratories, field instrumentation, computational methods, and interdisciplinary research groups.

Students can also participate in research with CEE faculty, including summer research opportunities, field projects, internships, and sustainability-focused research. The senior curriculum culminates in CEE183: Integrated Civil Engineering Design Project, a studio-format capstone in which students undertake schematic design while addressing sustainable engineering considerations.

Practical learning opportunities and facilities include:

Integrated design projects: CEE183 provides a required senior-level capstone experience where Civil Engineering students work through an integrated schematic design project incorporating sustainable engineering issues.
Laboratory projects: CEE101C Geotechnical Engineering includes laboratory projects covering soil mechanics, foundation design, slope stability, and related geotechnical engineering applications.
Global project teamwork: CEE122A allows undergraduates to serve as apprentices on AEC global project teams, participating in cross-disciplinary project activities involving the concept development of a comprehensive building project.
Computer-based project work: CEE122B develops experience in modeling, simulation, life-cycle cost analysis, and cost-benefit analysis during the project-development phase of AEC projects.
Real infrastructure projects: CEE141B uses case studies of three real infrastructure megaprojects and has student teams prepare competing design/build/finance/operate/maintain (DBFOM) proposals. The course also includes guest lecturers from industry.
Project-Based Learning Laboratory: Stanford’s Project-Based Learning Laboratory (PBL Lab) focuses on problem-based, project-centered learning in which students work toward producing a product for a client, providing a direct connection between academic learning and professional practice.
Environmental Fluid Mechanics Laboratory: The Bob and Norma Street Environmental Fluid Mechanics Laboratory contains two large wave-current flumes and a stratified-flow tank, along with PIV, PLIF, laser-Doppler anemometry, acoustic-Doppler velocimetry, ADCPs, ADVs, CTD sensors, sediment instruments, and an autonomous underwater vehicle for research and field studies.
Environmental Engineering and Science Laboratory: The EESL provides specialized research equipment including GC-MS, GC-Triple Stage Quadrupole Mass Spectrometry, LC/MS/MS, HPLC systems, chromatographs, environmental chambers, microscopes, computerized chemostats, and other analytical equipment.
Earthquake engineering: The John A. Blume Earthquake Engineering Center supports research and education focused on earthquakes and their effects on structures and infrastructure, giving students opportunities to engage with Stanford’s earthquake-engineering research environment.
Building and construction technology: The Center for Integrated Facility Engineering (CIFE) develops technologies for the architecture, engineering, and construction industry and operates as a center for Virtual Design and Construction of AEC projects, with industry affiliate participation.
Undergraduate research: Stanford CEE offers formal and informal research opportunities, including summer opportunities where undergraduates work closely with faculty. The Donald Van Norman Roberts Fund can support CEE undergraduate majors undertaking hands-on sustainability experiences through research, field projects, or internships, including work in underserved U.S. communities or international locations.
Entrepreneurial projects: CEE246 is a project-based course in which teams of four develop ventures related to construction, sustainable buildings, transportation, energy, infrastructure financing, and other areas. Students work on product-market fit, business models, product development, financial modeling, and fundraising, with industry experts, mentors, and coaches involved.
Research and industry environment: Stanford CEE maintains industry affiliate programs covering areas such as water infrastructure, facilities engineering, seismic engineering, urban infrastructure, energy management, and sustainable development, creating opportunities for interaction among students, faculty, industry, and government.

Progression & Future Opportunities

The BS Civil Engineering at Stanford prepares graduates for professional practice across structural engineering, construction management, environmental engineering, consulting, industry, government, and related fields. The program is ABET-accredited and develops capabilities in engineering design, experimentation, problem-solving, teamwork, and professional communication, while also preparing students for graduate study in engineering and other fields.

Typical career roles: Structural Engineer, Construction Manager, Environmental Engineer, Civil Engineering Consultant.

Career and employment support: Stanford Career Education provides Engineering & Doerr School of Sustainability career coaching, one-to-one support for resumes, cover letters and interviews, Handshake access to jobs and internships, career fairs, employer events, and networking opportunities; recent graduates can also continue accessing career development through Stanford PlusFive for five years after graduation.
Employment statistics: Stanford’s official Civil Engineering pages describe career destinations and sectors but do not publish a current BS Civil Engineering-specific employment rate or salary figure; therefore, a program-specific employment percentage or salary should be recorded as not stated by Stanford rather than inferred from other engineering programs.
Industry partnerships: Stanford CEE operates long-standing Industrial Affiliate Programs connecting companies with faculty and students through research, technology transfer, annual meetings, symposia, and recruiting opportunities. Specific initiatives include the Center for Integrated Facilities Engineering (CIFE), Stanford Urban Resilience Initiative (SURI), John A. Blume Earthquake Engineering Center, and the Stanford Construction Institute; the Construction Institute facilitates interaction with construction-industry firms and opportunities for recruiting undergraduate and graduate students as employees or interns.
Industry exposure: CEE's industry ecosystem includes companies and practitioners working across infrastructure, construction, resilience, sustainable development, and engineering; Stanford also brings practicing professionals into teaching and research, including construction professionals with experience at organizations such as Bechtel and Jacobs.
Accreditation value: The Civil Engineering BS is ABET-accredited, which Stanford identifies as a first step toward professional engineering licensure. Stanford states that an ABET-accredited BS counts for four years of the six years of supervised experience required before the California professional engineering licensing examination, making the accreditation particularly relevant for students pursuing professional engineering practice in California.
Graduation outcomes: Stanford states that graduates can enter engineering practice and pursue careers in structural engineering, construction management, environmental engineering, and related areas, while the program also prepares them for graduate study. The department specifically identifies civil engineering, business, law, and policy among possible areas for further study.

Further Academic Progression: After the BS, students can pursue a Stanford coterminal MS in Civil & Environmental Engineering, allowing qualified Stanford undergraduates to work toward a master's degree while completing their bachelor's studies. Students can also pursue graduate study in civil engineering and related fields, while Stanford's Civil Engineering curriculum provides recommended elective sequences for students targeting CEE coterm areas such as Atmosphere/Energy, Environmental Engineering, Structural Engineering & Mechanics, and Sustainable Design & Construction.