John Hopkins University

What you'll study

The Civil Engineering curriculum is a four‑year programme combining mathematics, basic sciences, core engineering courses and design‑centred modules. Early years focus on calculus, differential equations, physics, chemistry and computer programming to build analytical foundations. Core civil engineering subjects introduce mechanics of materials, structural analysis, fluid mechanics, hydraulics, soil mechanics and surveying.

• Structural engineering — strength of materials, reinforced concrete and steel design, structural dynamics and earthquake engineering principles.
• Geotechnical engineering — soil mechanics, foundation design and slope stability.
• Environmental and water resources engineering — hydrology, hydraulic systems, water quality and treatment processes.
• Transportation engineering — traffic engineering, transportation planning and pavement design.
• Construction and project management — construction methods, cost estimating, scheduling and contract administration.
• Computational and laboratory skills — finite element methods, modelling, CAD, structural and materials testing in dedicated labs.

The programme emphasises hands‑on learning through laboratory courses, fieldwork, and a year‑long senior design capstone project in which multidisciplinary teams address real engineering problems. Students may also take electives in related areas such as systems engineering, environmental health, or architecture, and are encouraged to pursue undergraduate research with faculty in the Whiting School of Engineering.

Entry requirements

Admissions are competitive and seek students with strong performance in secondary school mathematics and sciences. Typical preparation includes advanced coursework in mathematics (calculus) and physics; chemistry and computer science are beneficial. Applicants should demonstrate evidence of quantitative problem‑solving ability, analytical thinking and effective written communication.

• Academic transcript showing a strong record in relevant courses (calculus, physics and related subjects).
• Standardised tests may be submitted where required or recommended by the university; check the university's admissions pages for current testing policies.
• Personal statement or essays that describe interest in engineering and relevant experiences, such as projects, clubs (e.g. robotics, engineering societies), internships or research.
• Letters of recommendation from teachers or mentors who can speak to academic readiness and motivation.

International applicants should demonstrate equivalent academic preparation and English language proficiency according to the university's admissions requirements. Specific prerequisites and application components can vary; applicants should consult the Johns Hopkins admissions office or programme page for the most current guidance.

Career prospects

Graduates with a BS in Civil Engineering enter a broad range of careers in the public and private sectors. Common roles include structural engineer, geotechnical engineer, water resources/environmental engineer, transportation engineer, construction project engineer and site engineer. Graduates also work in consulting firms, government agencies, infrastructure developers, and construction companies.

The degree provides a strong foundation for professional licensure (PE) after required work experience, and many graduates continue to postgraduate study in civil or environmental engineering, structural engineering, urban planning or business. Opportunities also exist in research, policy, sustainability, and interdisciplinary areas involving data analytics and systems engineering.

Why study at Johns Hopkins University

Johns Hopkins' civil engineering programme is housed within the Whiting School of Engineering and combines rigorous classroom instruction with substantial research and lab opportunities. The university is known for its strong emphasis on research and interdisciplinary collaboration, allowing civil engineering students to engage with faculty projects in areas such as sustainable infrastructure, resilience, and advanced materials.

Undergraduates benefit from access to specialised facilities and labs, opportunities for paid research and internships with industry and government partners, and a curriculum that integrates technical depth with practical design experience. Small class sizes in upper‑level engineering courses and close faculty mentorship support personalised academic and professional development.