Southern Methodist University

What you'll study

The programme combines advanced coursework, hands‑on laboratory practice and a substantial culminating experience. Students choose between thesis and non‑thesis (project or coursework) options, tailoring study to research or industry goals. Core and elective topics commonly include:

• Advanced dynamics and controls — modelling, state‑space methods, nonlinear and adaptive control, robotics and mechatronics.
• Design and manufacturing — computer‑aided design, finite element methods, design optimisation, manufacturing processes and additive manufacturing.
• Thermal‑fluids engineering — heat transfer, fluid mechanics, computational fluid dynamics and energy systems.
• Solid mechanics and materials — continuum mechanics, fracture and fatigue, composite materials and material characterisation techniques.
• Computational methods — numerical analysis, simulation, multiphysics modelling and coding for engineering applications.
• Laboratory and experimental methods — instrumentation, test methods, data acquisition and validation of models.

Students typically complete advanced electives to develop a specialisation and undertake either a supervised research thesis, an applied capstone project with industry partners, or a sequence of technical coursework. Opportunities exist to collaborate with faculty on funded research, use departmental laboratories and participate in multidisciplinary centres within the Lyle School of Engineering.

Entry requirements

Applicants are expected to hold a bachelor’s degree in mechanical engineering or a closely related engineering/science discipline from a recognised institution. Typical application materials include:

• Official transcripts from all post‑secondary institutions attended.
• A statement of purpose describing academic and professional objectives.
• Letters of recommendation from academic or professional referees familiar with the applicant’s technical ability.
• A current résumé or curriculum vitae documenting relevant experience.
• Evidence of preparedness in undergraduate engineering fundamentals such as mathematics, mechanics, thermodynamics and systems modelling.

International applicants must demonstrate English language proficiency according to university requirements. Some applicants without a mechanical engineering undergraduate degree may be admitted conditional on completing prerequisite courses. Prospective students should consult the programme office for details on prerequisites, required documentation and any standardised testing expectations.

Career prospects

Graduates from the programme move into a wide range of technical and leadership roles across industry and research. Common career destinations include:

• Design and development engineer in aerospace, automotive, defence, consumer products and industrial equipment firms.
• R&D and product innovation roles focusing on mechanisms, materials, sensors and controls.
• Systems and controls engineer positions in robotics, automation and mechatronics.
• Thermal and fluid systems engineering roles in energy, HVAC, power generation and environmental engineering.
• Manufacturing and process engineering, including quality, reliability and production optimisation.
• Consulting, technical project management, and further academic study at the doctoral level.

Graduates benefit from SMU’s proximity to a diverse regional economy, enabling internships and employment with companies in aerospace, energy, medical devices, telecommunications and advanced manufacturing.

Why study at Southern Methodist University

SMU’s Lyle School of Engineering offers an engineering education emphasising both rigorous theory and applied practice in a compact, student‑centred setting. The programme provides access to faculty active in applied research, collaborative labs and cross‑disciplinary projects. Being located in Dallas gives students opportunities for industry engagement, internships and partnerships with regional companies and research organisations. Small class sizes, faculty mentorship and professional development resources help students prepare for technical careers or doctoral study.

Students also benefit from campus resources such as career services, entrepreneurship support and student engineering organisations that facilitate networking, competitions and hands‑on experience beyond the classroom.