Dartmouth College

What you'll study

The programme emphasises a strong foundation in engineering fundamentals alongside opportunities for specialised study and hands‑on project work. Core topics commonly covered include advanced mathematics for engineering, computational methods, systems engineering, design and prototyping, and experimental methods. Students typically choose elective modules from areas such as biomedical engineering, materials and solid mechanics, controls and robotics, thermofluids, energy systems, and data‑driven modelling.

Study is organised around coursework, laboratory and studio experiences, and an independent culminating experience. Depending on the chosen pathway, the final element takes the form of a research thesis, an industry‑facing capstone project, or an extended design practicum. Small seminar classes and project studios promote close interaction with faculty and integration of engineering practice with subjects such as medicine, business or the physical sciences.

Entry requirements

Applicants should hold a bachelor’s degree in engineering, the physical sciences, mathematics or another quantitatively rigorous discipline. Admissions committees look for evidence of strong quantitative preparation and academic achievement. Typical application materials include academic transcripts, a statement of purpose outlining research or professional goals, a current CV, and two to three letters of recommendation from academic or professional referees.

International applicants must demonstrate proficiency in English in line with Dartmouth's general admissions policies. Where relevant, prior coursework or experience in laboratory work, programming and mathematical methods will strengthen an application. Specific prerequisite courses may be required for certain elective pathways; applicants without a formal engineering background may be advised to complete bridge coursework.

Career prospects

Graduates move into a range of technical and leadership roles in industry, government and academia. Common career paths include product development and design engineering, research and development, systems engineering, data and computational roles, and technical consulting. Many students use the master's as preparation for doctoral study in engineering or related fields, while others leverage the programme’s interdisciplinary connections to pursue positions in biomedical technology, energy and sustainability, robotics and automation, or to launch technology startups.

The programme’s emphasis on project work and industry collaboration also supports transitions into roles that require applied problem solving, prototyping and cross‑functional teamwork.

Why study at Dartmouth College

Dartmouth’s engineering programmes are delivered through the Thayer School of Engineering, characterised by small cohorts, close faculty mentorship and a hands‑on, design‑oriented curriculum. Students benefit from interdisciplinary opportunities across the College, including collaboration with business, medicine and the liberal arts, and access to research centres and laboratory facilities suited to both experimental and computational work.

The learning environment in Hanover combines personalised instruction with practical experience: project studios, team‑based capstones and industry partnerships are integrated into the curriculum to prepare graduates for applied engineering roles or further research. The College’s network and emphasis on entrepreneurship also support students who wish to commercialise technology or pursue leadership roles in technology organisations.