University of Colorado Boulder

What you'll study

The MSc in Mechanical Engineering offers a mix of core and elective courses alongside options for a research thesis, a professional project, or a coursework-only route. Students typically build a programme of study around a specialism while maintaining breadth across fundamental topics.

• Core and foundational topics: advanced dynamics, continuum mechanics, solid mechanics, heat transfer and thermodynamics, fluid mechanics, and applied mathematics for engineers.
• Advanced and elective modules: finite element methods and computational mechanics, advanced fluid dynamics and turbulence, convection and multiphase flows, heat exchanger design, control systems and robotics, machine design, additive manufacturing, micro/nano systems and MEMS, materials science for engineers, and biomechanics.
• Research and project work: research-led thesis options supervised by faculty in areas such as energy systems, aerodynamics and propulsion, robotics and automation, materials and structures, computational design, and experimental mechanics. A professional project or directed study option is available for students seeking industry-oriented experience.
• Laboratory and hands-on experience: experimental methods, instrumentation and measurement, machine shop and prototype fabrication, and high-performance computing for simulation and modelling.
• Structure and duration: programmes are typically planned over roughly one-and-a-half to two academic years depending on course load and choice of thesis or project; credit requirements combine graduate coursework and research credits as appropriate for the chosen path.

Entry requirements

Applicants should hold a recognised bachelor’s degree in mechanical engineering or a closely related discipline (such as aerospace, civil, materials, or physics) with solid preparation in mathematics, mechanics, thermodynamics and fluids. Typical application materials include:

• Official academic transcripts demonstrating a competitive undergraduate record.
• A statement of purpose outlining academic interests, intended research or professional goals, and reasons for choosing the programme.
• Letters of recommendation from academic or professional referees who can speak to technical ability and preparedness for graduate study.
• A current CV or résumé summarising relevant coursework, research, internships and technical skills.
• For international applicants, evidence of English language proficiency (such as TOEFL or IELTS) when required by the university.

Admissions committees look for strong quantitative preparation and evidence of the ability to undertake graduate-level work. Some applicants may be asked to demonstrate prior coursework in multivariable calculus, differential equations, mechanics, thermodynamics, fluid mechanics and laboratory experience. GRE requirements can vary by intake and applicant background, so applicants should consult the department for current guidance.

Career prospects

Graduates of the programme move into technical and leadership roles across a wide range of industries. Typical career directions include:

• Engineering design and analysis roles in aerospace, automotive and defence firms, focusing on structures, propulsion, aerodynamics and systems integration.
• Energy and sustainability sectors, including work on wind, solar and thermal energy systems, energy storage, and building systems.
• Robotics, automation and controls in manufacturing, logistics, medical devices and consumer products.
• Materials and manufacturing careers, covering additive manufacturing, composites, microfabrication and quality engineering.
• Research and development positions in national laboratories, corporate R&D centres and university research groups, and progression to doctoral study for careers in academia or advanced research.
• Technical consulting, product management and entrepreneurship, particularly within Boulder’s technology and startup ecosystem.

Why study at University of Colorado Boulder

The University of Colorado Boulder offers a mechanical engineering programme with strong interdisciplinary research, modern laboratories and close links to regional and national research organisations. Faculty research areas span energy conversion, fluid dynamics, advanced materials, robotics, computational mechanics and bioengineering, enabling students to join active research groups or pursue industry-aligned projects.

• Research and facilities: access to experimental labs, machine and fabrication shops, high-performance computing resources and collaborative centres that support experimental and computational work.
• Collaborations and industry links: partnerships with national laboratories and industry provide opportunities for internships, joint projects and applied research experience.
• Location and ecosystem: Boulder’s technology and entrepreneurial ecosystem, combined with the university’s emphasis on experiential learning, supports students who want to translate technical skills into commercial or start-up ventures.
• Flexible paths: multiple study routes (thesis, project or coursework) let students tailor their degree to academic research or professional development goals.