University of Tennessee

What you'll study

The programme combines advanced coursework with options for research or project work. Students choose between a thesis (research-focused) and a non-thesis (coursework and project) pathway, allowing flexibility for those aiming for industry roles or doctoral study.

• Core and elective modules: advanced dynamics and controls, continuum mechanics, fracture and fatigue, computational fluid dynamics, convective heat transfer, turbomachinery, design of mechanical systems, and advanced materials.
• Specialist topics and laboratories: robotics and mechatronics, additive and advanced manufacturing, energy systems and thermal management, vehicle dynamics and propulsion, and biomechanics and biomaterials.
• Computational and experimental methods: finite element analysis, multi-physics simulation, experimental stress analysis, instrumentation and data acquisition, and high-performance computing applications in engineering.
• Thesis option: independent research under faculty supervision, culminating in a written thesis and oral defence. Research areas commonly include structural dynamics, thermal-fluid sciences, materials processing, controls and autonomous systems, and energy conversion.
• Non-thesis option: additional coursework and a capstone design or project, emphasising applied problem solving and industry-relevant outcomes.

Entry requirements

Applicants are normally expected to hold a recognised bachelor’s degree in mechanical engineering or a closely related engineering or physical science discipline. Admissions take into account prior academic performance, relevance of undergraduate coursework, and evidence of readiness for graduate-level study.

• Academic background: bachelor’s degree in engineering or a related field with a record of sound performance in core mechanical engineering topics (e.g. mechanics, thermodynamics, dynamics, and mathematics).
• Application materials: official transcripts, a statement of purpose outlining academic and professional goals, a current résumé or CV, and letters of recommendation from academic or professional referees.
• Standardised tests and English language: requirements such as GRE or proof of English language proficiency may apply for some applicants; international applicants are typically required to provide recognised English test scores unless exempt.
• Experience considerations: relevant industrial experience or research experience can strengthen an application, particularly for project- or industry-oriented pathways.

Career prospects

Graduates move into a wide range of technical and managerial roles across industry, government and academia. The degree is designed to develop skills that are directly applicable to advanced engineering practice, research and development, and leadership.

• Design, analysis and validation engineer roles in sectors such as automotive, aerospace, energy, manufacturing and defence.
• R&D engineer or research scientist positions in corporate labs and national laboratories, including partnerships and collaborative projects with regional research centres.
• Systems and controls engineering, robotics and automation roles focused on integrating hardware and software for complex systems.
• Careers in additive manufacturing, materials development and process engineering for advanced production methods.
• Progression into PhD study or academic careers for those pursuing deeper research specialisation.

Why study at University of Tennessee

The University of Tennessee offers a mechanical engineering programme with strong faculty expertise across core and emerging areas, plus access to extensive laboratory facilities and computing resources. The department maintains collaborative links with regional industry and national research organisations, providing opportunities for applied research, internships and technology transfer.

• Research strengths: faculty research spans dynamics and controls, thermal-fluid sciences, materials and manufacturing, and energy systems, enabling interdisciplinary projects.
• Facilities and partnerships: students benefit from well-equipped experimental labs, fabrication and prototyping resources, and collaborative projects with nearby national research establishments.
• Career support: active industry engagement, career services and an engineering network help students secure internships, co-op placements and employment after graduation.