University of Colorado Boulder

What you'll study

The PhD programme emphasises independent, original research combined with advanced coursework tailored to the student’s area of specialisation. Students typically take graduate-level courses to strengthen fundamentals and to support their research topic, and they pursue a supervised research project leading to a doctoral dissertation.

• Research areas: faculty and students work on topics such as fluid mechanics and aerodynamics, solid mechanics and materials, dynamics and controls, thermal sciences and energy systems, biomechanics and bio-inspired design, micro- and nano-systems, robotics and automation, and computational methods.
• Coursework: advanced courses commonly cover continuum mechanics, advanced dynamics, finite element methods, computational fluid dynamics, heat transfer, experimental methods, control theory, and specialised electives aligning with research interests.
• Research training: students engage in lab-based and theoretical work, learn to design experiments or simulations, work with modern instrumentation and high-performance computing, and develop scientific communication skills through seminars and conferences.
• Milestones: typical programme milestones include completion of required and elective coursework, a qualifying or candidacy examination, a research proposal or dissertation prospectus, regular committee meetings, and the final dissertation defence.
• Teaching and professional development: doctoral students often gain experience as teaching or research assistants, and have access to workshops on grant writing, ethics, pedagogy and career preparation.

Entry requirements

Admission is competitive and based on the applicant's academic preparation, research potential, and fit with departmental research strengths. Practical expectations typically include:

• Academic background: a bachelor’s or master’s degree in mechanical engineering or a closely related field. Applicants with a strong bachelor's record and substantial research or industry experience may be considered for direct admission to the PhD track.
• Research experience: demonstrated research aptitude through undergraduate or graduate research projects, publications, internships, or strong letters of recommendation from academic or professional referees.
• Application materials: a CV, statement of purpose outlining research interests and potential faculty matches, academic transcripts, and letters of recommendation.
• English language proficiency: for applicants whose first language is not English, proof of English proficiency is required as per university policy.
• Funding considerations: many successful applicants are supported by departmental fellowships, research assistantships or teaching assistantships; demonstrating potential for securing funding and a good match with faculty research increases competitiveness.

Career prospects

Graduates of the PhD in Mechanical Engineering pursue a wide range of careers that leverage deep technical expertise and research experience. Common paths include:

• Academia: tenure-track faculty positions, postdoctoral research roles, and academic research leadership.
• Industry research and development: senior technical roles in aerospace, automotive, energy and utilities, robotics, medical devices, materials and manufacturing, and technology companies.
• National laboratories and government research: leadership and specialist roles at national or regional research laboratories and government agencies focused on energy, environment, defence and advanced manufacturing.
• Consulting and technical management: roles in engineering consulting, technical strategy, product development leadership, and entrepreneurship, including founding technology startups.

Why study at University of Colorado Boulder

The University of Colorado Boulder offers a vibrant, interdisciplinary research environment with faculty expertise spanning both foundational and emerging areas of mechanical engineering. Students benefit from modern laboratories, access to high-performance computing resources, and cross-campus collaborations with neighbouring departments and research centres.

• Research community: close interaction with active research groups and opportunities to collaborate with institutes and centres on campus, as well as with regional industry and national research facilities.
• Facilities and infrastructure: well-equipped experimental labs, prototyping and fabrication facilities, and computing resources that support experimental, computational and theoretical research.
• Professional development: structured opportunities for teaching experience, grant-writing support, and career preparation events that connect students with employers and alumni in industry and academia.
• Location and ecosystem: Boulder’s high-technology ecosystem and proximity to industry and national labs provide networking and collaboration opportunities that complement doctoral research.