Rochester Institute of Technology

What you'll study

The PhD programme combines advanced coursework with a sustained, original research project leading to a dissertation. Early in the programme students take graduate-level courses to develop depth in a chosen specialty and breadth across core mechanical engineering topics. Common subject areas include dynamics and controls, solid mechanics and materials, thermal-fluid sciences, manufacturing and additive processes, robotics and mechatronics, and biomechanics.

Typical coursework covers advanced dynamics and vibration, control theory, continuum mechanics, computational methods (finite element and CFD), heat transfer and thermodynamics, materials science for engineers, and experimental methods. Students often take supplementary courses in applied mathematics, statistics for researchers, and engineering design and optimisation.

The research component is conducted under the supervision of a faculty advisor within the Kate Gleason College of Engineering or in collaboration with affiliated centres. Students progress through a qualifying or candidacy examination, proposal and dissertation milestones, and regularly present work in group meetings and seminars. Facilities available to support research include advanced labs for robotics and automation, thermal-fluid testing, micro/nano-fabrication, composites and materials characterisation, and additive manufacturing.

Structure

• Initial coursework to build advanced technical background and research skills.
• Qualifying/candidacy exam to demonstrate readiness for independent research.
• Independent research under faculty supervision, culminating in a written dissertation and public defence.
• Teaching or research assistantship responsibilities are typical for funded students, providing professional development in instruction and project management.

Entry requirements

Applicants are generally expected to hold a relevant master’s degree in mechanical engineering or a closely related field; exceptionally strong applicants with a bachelor’s degree and significant research experience may also be considered. Typical application materials include official transcripts, a curriculum vitae, a statement of research interests or purpose describing proposed research directions, and three letters of recommendation from academic or professional referees familiar with the applicant’s research potential.

RIT requires demonstration of English proficiency for applicants whose first language is not English, usually by recognised tests or equivalent institutional pathways. Applicants should highlight prior research experience, publications or technical reports, and any relevant industry experience. Funding is commonly offered through graduate assistantships tied to teaching or research; prospective students should contact potential faculty advisors to discuss fit and available support.

Career prospects

Graduates with a PhD in Mechanical Engineering from RIT go on to careers in academia as professors and postdoctoral researchers, and in industry as research scientists, senior design engineers, technical leads and R&D managers. Typical sectors include aerospace and defence, automotive, energy and sustainability, biomedical and medical devices, robotics and automation, advanced manufacturing and materials, and national laboratories.

Doctoral alumni also pursue roles in technology transfer, product development, systems engineering, and entrepreneurship. The programme’s combination of deep technical training and applied research experience prepares graduates for leadership positions in organisations that require advanced problem-solving, experimental and computational skills, and the ability to drive innovation.

Why study at Rochester Institute of Technology

RIT’s Kate Gleason College of Engineering emphasises applied, interdisciplinary research and close faculty mentorship. The university’s strengths include modern laboratory facilities, a culture of hands-on, project-based work, and established collaborations with industry and government partners that help translate research to real-world impact.

PhD students benefit from small research groups, opportunities to collaborate across engineering, computing and design disciplines, and access to institutional resources for entrepreneurship and technology commercialisation. The campus environment supports both academic rigor and professional development through teaching experience, grant writing, and participation in seminars and conferences.

Prospective research students are encouraged to review faculty research profiles in their area of interest and to contact potential advisors to discuss research fit and funding opportunities before applying.