Seattle University

What you'll study

The programme combines advanced coursework, laboratory work and an applied culminating experience to build competence across core mechanical engineering topics and contemporary specialisms. Students study advanced theory and practical methods in areas such as solid mechanics, dynamics, thermofluids, materials and manufacturing while also choosing electives to tailor their pathway.

• Core topics: advanced dynamics, continuum mechanics and strength of materials, heat transfer and convection, computational methods (finite element analysis and numerical methods), and control systems.
• Design and practice: computer-aided design (CAD) and product development, manufacturing processes, rapid prototyping, experimental methods and instrumentation, and systems integration.
• Specialist electives: robotics and mechatronics, precision manufacturing, composites and advanced materials, energy systems and thermal engineering, micro- and nano-systems, and biomechanics/biomedical device engineering.
• Capstone/thesis options: students typically choose between a research thesis, an industry-focused project or a design practicum. Capstone projects emphasise teamwork, project management and application of analytical and experimental techniques to real engineering problems.
• Laboratory and hands-on learning: significant lab work and maker-space access are part of the curriculum, including machine shop and fabrication, control and robotics labs, materials testing and thermofluid experimentation.

Entry requirements

Applicants should hold a recognised undergraduate degree in mechanical engineering or a closely related engineering, physics or applied science discipline. The admissions process reviews academic record, relevant coursework, professional experience and letters of recommendation.

• A bachelor’s degree in engineering or a closely related field from an accredited institution.
• A solid foundation in mathematics (calculus, differential equations, linear algebra), mechanics, thermodynamics and basic fluid mechanics; applicants missing prerequisite courses may be admitted conditionally and required to complete specified preparatory coursework.
• Evidence of academic performance and preparation for graduate study, typically demonstrated through transcripts and references; where provided, a statement of purpose should describe technical interests and career goals.
• International applicants must demonstrate English proficiency through an accepted test or equivalent documentation unless exempt.
• Relevant professional experience is beneficial for applicants pursuing the practice-oriented project option, and some applicants may be invited to interview.

Career prospects

Graduates are prepared for technical and leadership roles across a wide range of sectors. The programme’s location in the Seattle region offers proximity to aerospace, robotics, clean energy, medical device and advanced manufacturing employers.

• Typical job titles include mechanical engineer, design engineer, systems engineer, R&D engineer, manufacturing engineer, controls/automation engineer, and test or validation engineer.
• Industry sectors: aerospace and defence, robotics and automation, semiconductor and electronics, renewable energy and utilities, biomedical devices, and advanced manufacturing.
• Graduates also move into product management, technical consulting, and entrepreneurship or continue to doctoral study in engineering and related disciplines.

Why study at Seattle University

Seattle University offers a professionally focused mechanical engineering master’s with close ties to the regional technology and manufacturing ecosystem. The programme emphasises applied learning, small class sizes and mentorship from faculty who engage in both teaching and applied research.

• Industry connections: proximity to global and regional employers provides internship and collaboration opportunities as well as project sponsorships for capstone work.
• Applied facilities: access to machine shops, prototyping spaces, materials and controls laboratories supports hands-on learning and experimental research.
• Interdisciplinary collaboration: opportunities to work with neighbouring departments such as computer science, electrical engineering and business on multidisciplinary projects.
• Values-driven education: as a university with a mission-oriented culture, the programme integrates professional ethics and societal considerations into engineering decision-making.