Dartmouth University

What you'll study

The programme builds a strong foundation in classical mechanical engineering topics while encouraging cross‑disciplinary work and practical application. Core subjects typically include dynamics and control, solid mechanics, materials and manufacturing, fluid mechanics, and heat and mass transfer. Students also study systems engineering, computational methods (finite element analysis, CFD) and measurement and instrumentation techniques.

Teaching is delivered through a mix of lectures, advanced seminars and laboratory classes. Hands‑on courses emphasise CAD, rapid prototyping, mechatronics and embedded systems. Students choose a programme pathway focused on either a research‑oriented Master of Science (with a thesis) or a practice‑oriented Master of Engineering (with a capstone design project).

• Typical modules: Advanced Dynamics and Control, Continuum Mechanics, Thermal‑Fluid Systems, Materials Science for Engineers, Computational Methods in Engineering, Experimental Methods and Instrumentation.
• Design and laboratory work: multi‑term capstone design, prototyping and testing, electronics and sensors labs, and industry‑linked projects.
• Research options: for M.S. candidates, supervised research leading to a thesis; for M.Eng. candidates, an integrated team design project with real‑world sponsors.
• Opportunities to take elective courses in related areas such as biomedical engineering, computer science, management, or entrepreneurship.

Entry requirements

Applicants are normally expected to hold a relevant undergraduate degree in mechanical engineering, engineering science or a closely related discipline. Strong preparation in mathematics (calculus, linear algebra, differential equations), mechanics and thermodynamics is required. Practical experience with CAD and programming is advantageous.

Typical application materials include an academic transcript, a personal statement outlining research or career goals, two or three letters of recommendation, and a current CV or résumé. The programme may consider applicants from non‑traditional backgrounds who demonstrate exceptional quantitative skills and relevant project experience. International applicants must meet English language proficiency requirements.

Career prospects

Graduates enter a wide range of technical and leadership roles across industry and academia. Common career paths include mechanical design engineer, systems engineer, research engineer, thermal‑fluid engineer, robotics and controls engineer, materials and manufacturing engineer, and product development manager. Alumni also move into consulting, technical project management, and start‑ups, especially in sectors such as aerospace, automotive, energy and renewables, medical devices, and industrial automation.

For those pursuing further study, the programme provides preparation for PhD research in mechanical engineering and related fields. The emphasis on prototyping and industry collaboration helps graduates make an immediate impact in R&D and product teams.

Why study at Dartmouth University

Dartmouth's Thayer School of Engineering is known for its intimate, collaborative environment that blends rigorous engineering education with design‑centric, hands‑on learning. Small class sizes foster close faculty mentorship and frequent interaction with researchers across Dartmouth College, enabling interdisciplinary projects that draw on resources from life sciences, computer science and business.

Students benefit from well‑equipped laboratories, maker spaces and strong industry links that help place capstone projects and internships with technology companies and research groups. The school emphasises leadership and entrepreneurship alongside technical skills, preparing graduates to lead multidisciplinary teams and bring engineered solutions to market.

Whether you aim for a technical research career, product development role or entrepreneurial venture, the programme provides a balance of theory, experimental practice and project experience to support those ambitions.