Massachusetts Institute of Technology

What you'll study

The curriculum emphasises core engineering science and practical design. Early study focuses on calculus, differential equations, classical mechanics and electromagnetism alongside foundational chemistry and physics. Departmental core topics include statics and dynamics, mechanics of materials, fluid mechanics, thermodynamics and heat transfer, systems and controls, manufacturing processes, and materials science.

Laboratory and project work are central: students undertake experimental and computational laboratory subjects, hands-on design studios, and team-based capstone projects where they take concepts from specification to prototype. Computational coursework covers numerical methods, simulation, and programming for engineering applications. A range of electives allows specialisation in areas such as robotics and controls, aerospace systems, automotive engineering, biomechanics, energy and sustainability, micro- and nano-systems, and advanced manufacturing.

Undergraduates are encouraged to participate in the Undergraduate Research Opportunities Program (UROP) and make use of campus fabrication and microscopy facilities, enabling early experience with research, instrumentation and product development. Communication, ethics, and entrepreneurship modules round out the degree to prepare students for leadership roles.

Typical structure

• Year 1–2: General Institute Requirements plus introductory engineering science and laboratory subjects.
• Year 2–3: Departmental core classes, intermediate labs and computational methods.
• Year 3–4: Advanced electives, design projects, capstone experiences and optional long-term research (UROP) or internships.

Entry requirements

Admission to MIT is highly competitive. Successful applicants typically present an outstanding secondary school record with advanced preparation in mathematics (calculus if available) and physics. Strong performance in chemistry and further mathematics is advantageous. Admissions decisions consider academic achievement alongside demonstrated intellectual curiosity, problem-solving ability, extracurricular involvement (for example in engineering or robotics clubs, research, or relevant work experience) and personal qualities.

Standardised tests are considered as part of a holistic review where relevant; applicants from different educational systems should check MIT's admissions pages for current guidance. International applicants should demonstrate proficiency in English. Applicants to engineering programmes should highlight any practical experience, programming skills, and examples of independent projects or research.

Career prospects

Graduates of the Mechanical Engineering programme pursue a wide range of careers in industry, research and entrepreneurship. Common pathways include roles in:

• Design and product development (consumer products, industrial machinery, instrumentation)
• Aerospace and automotive engineering (aircraft, spacecraft, vehicle systems and components)
• Energy and sustainability (power generation, renewable energy systems, HVAC and building systems)
• Robotics, automation and control systems
• Advanced manufacturing and materials engineering
• Biomedical and biomechanical engineering (medical devices, prosthetics)
• Technology consulting, systems engineering and technical management
• Research and development or graduate study in engineering, materials science, applied physics or related fields
• Start-ups and entrepreneurship, including companies spun out from academic research

The degree provides strong preparation for further study (Master’s and PhD) as well as professional engineering practice. MIT’s industry connections and career services help students access internships and full-time positions worldwide.

Why study at Massachusetts Institute of Technology

MIT offers an environment geared toward innovation: a dense ecosystem of research labs, maker spaces and interdisciplinary centres where mechanical engineering students can collaborate with peers in computer science, materials, biology and business. The institute emphasises learning by doing through UROP placements, design competitions, and capstone projects, giving students practical experience alongside theoretical depth.

Students benefit from faculty who are leaders in their fields, extensive laboratory facilities and networks with industry and entrepreneurship programmes that support translating ideas into products and companies. The community encourages cross-disciplinary study and provides career support and connections that help graduates move into industry, research or start their own ventures.