Southern Methodist University

What you'll study

The curriculum builds a strong foundation in mathematics, physics and basic engineering principles during the first years, then progresses to discipline-specific subjects and project-based learning. Early courses typically include calculus, differential equations, physics for engineers, chemistry, and introductory engineering design.

• Core mechanical subjects: statics and dynamics, mechanics of materials, thermodynamics, fluid mechanics and heat transfer.
• Systems and computation: control systems, numerical methods, computer-aided design (CAD), finite element methods and engineering programming.
• Design and manufacturing: machine design, manufacturing processes, materials science, and courses emphasising product development and design for manufacturability.
• Laboratories and hands-on work: multiple lab courses reinforcing experimental methods, instrumentation, measurement, and data analysis; fabrication shops and maker spaces support prototyping.
• Capstone project: a team-based senior design sequence in which students conceive, analyse, build and deliver a functioning engineering solution to an open-ended problem.
• Electives and special topics: students choose from advanced electives in areas such as dynamics and vibration, computational fluid dynamics, robotics and automation, renewable energy systems, and biomedical engineering interfaces.
• Professional development: ethics, engineering economics, communication, and opportunities for internships, co‑op placements or industry-sponsored projects.

Entry requirements

Admission is to Southern Methodist University overall; applicants should demonstrate strong academic preparation in mathematics and science. Typical preparation includes high-school calculus (or equivalent) and physics, with coursework in chemistry and advanced mathematics recommended.

• Academic background: competitive high-school academic record with substantive work in mathematics (calculus if available) and science.
• Standardised tests and alternatives: SMU publishes its testing policies; applicants should consult the university for current test requirements or test-optional provisions.
• International applicants: require certified academic transcripts and proof of English proficiency through accepted exams unless exempt.
• Transfers and mature applicants: transfer credit is evaluated on a case-by-case basis; successful applicants typically have completed foundational STEM coursework at an accredited institution.
• Supporting materials: strong personal statement, résumé of extracurricular or project experience, and letters of recommendation strengthen an application—particularly evidence of technical or design experience, internships or participation in engineering competitions and clubs.

Career prospects

Graduates with a mechanical engineering degree from SMU are prepared for work across a broad range of industries. Common career paths include roles in product design and development, mechanical systems engineering, thermal and fluid systems, robotics and automation, manufacturing engineering, and energy systems.

• Industry positions in aerospace, automotive, industrial machinery, energy and utilities, building systems and HVAC, and medical devices.
• Roles in research and development, testing and validation, systems integration, quality engineering, and process improvement.
• Opportunities in consulting, technical sales, project management and supply-chain engineering.
• Many graduates also pursue postgraduate study (MEng, MS, PhD) or professional engineering licensure to advance in specialised technical or leadership tracks.

Why study at Southern Methodist University

SMU's Lyle School of Engineering provides a focused environment with small class sizes, accessible faculty and multiple opportunities for hands-on learning and industry engagement. The university's location in the Dallas–Fort Worth metro area offers strong connections to a diverse industrial base and internship opportunities.

• Applied learning: emphasis on laboratories, makerspaces and team-based senior design projects that develop practical engineering skills.
• Professional networks: proximity to a large regional industry hub enables internships, co-ops and partnerships that help students gain workplace experience.
• Student organisations: active engineering societies and design teams (for example ASME student groups and vehicle/robotics teams) provide extracurricular project experience and leadership development.
• Preparation for career progression: the programme combines technical depth with communication, ethics and business-aware coursework to prepare graduates for multidisciplinary teams and leadership roles.