University of Massachusetts Amherst

What you'll study

The PhD programme combines advanced coursework with an extended period of original research leading to a dissertation. Students take graduate-level classes to build depth in a chosen specialism and then move into a mentored research programme under a faculty advisor.

• Core and elective coursework: advanced subjects commonly offered include continuum mechanics and solid mechanics, computational methods and finite element analysis, fluid mechanics and turbulence, heat transfer and thermal systems, transport phenomena, dynamics and control, mechatronics and robotics, materials science and design for manufacturing, and experimental methods.
• Research areas: typical faculty-led research themes at UMass Amherst include thermal-fluid science and energy systems, robotics and controls, solid mechanics and materials (including composites and bio-inspired materials), advanced manufacturing and micro/nanoscale engineering, biomechanics and bioengineering, and computational engineering and data-driven modelling.
• Programme structure: students usually complete a package of graduate credits, pass qualifying and preliminary examinations to demonstrate readiness for independent research, form a dissertation committee, and carry out original research culminating in a written dissertation and oral defence. Many programmes include a teaching requirement or opportunities to gain instructional experience.
• Facilities and methods: doctoral research commonly uses the department’s experimental laboratories, high-performance computing resources, and interdisciplinary centres for work in areas such as advanced materials, energy conversion, robotics, and manufacturing processes.
• Professional development: students are encouraged to present at conferences, publish in peer-reviewed journals, and participate in seminars and collaborative projects with other departments and industry partners.

Entry requirements

Admission is competitive and based on academic preparation and research potential. Typical requirements include:

• Degree background: a bachelor’s degree in mechanical engineering, engineering physics, applied mechanics or a closely related field is usually required; applicants with a relevant master's degree are also common and may be preferred for some research areas.
• Academic record: strong undergraduate and, if applicable, graduate transcripts showing advanced coursework in mathematics, mechanics, fluids, thermodynamics, controls, or materials.
• Research experience: evidence of research potential such as a thesis, publications, laboratory experience, or strong letters describing research aptitude is highly valued.
• Application materials: a statement of purpose that identifies research interests and potential faculty mentors, curriculum vitae, and at least three academic or professional references.
• English language proficiency: for applicants whose first language is not English, a recognised test of English proficiency or equivalent evidence may be required.
• Standardised tests: policies on tests such as the GRE vary; applicants should consult the department for current guidance on whether submission is required or optional.

Career prospects

Graduates of the PhD in Mechanical Engineering typically pursue careers that leverage deep technical and research skills. Common pathways include:

• Academic careers: tenure-track faculty positions, postdoctoral research appointments, and teaching roles in universities and technical colleges.
• Industry R&D: research scientist and engineering roles in sectors such as aerospace, automotive, energy and power systems, robotics and automation, advanced manufacturing, and medical devices.
• National and government labs: research and development positions at national laboratories and government research organisations focused on energy, defence, materials, and advanced computation.
• Technical leadership: roles in product development, systems engineering, technical consulting, and start-up leadership where deep domain expertise and problem-solving are required.
• Entrepreneurship and technology transfer: opportunities to commercialise research outcomes or join spin-outs arising from university research collaborations.

Why study at University of Massachusetts Amherst

UMass Amherst offers a research-intensive environment within a broad public research university, with access to interdisciplinary centres and strong collaborations across engineering, science and industry. The Mechanical Engineering faculty include researchers with expertise across foundational and applied topics, providing a range of potential advisors and project areas.

• Interdisciplinary collaboration: proximity to institutes and centres that facilitate work at the interface of energy, materials, computation and life sciences enhances research opportunities.
• Research infrastructure: students benefit from dedicated laboratories, fabrication and testing facilities, and high-performance computing resources to support experimental and computational work.
• Funding and training: doctoral students typically have access to research assistantships, teaching assistantships and competitive fellowships, which provide professional training in research and instruction.
• Location and network: the campus provides a supportive academic community and connections to regional industry, national labs and other universities for collaborative projects and career placement.