Seattle University

What you'll study

The mechanical engineering curriculum builds a solid foundation in mathematics, physics and core engineering principles before moving into specialised areas and project-based work. Early coursework typically covers calculus, differential equations, linear algebra, mechanics (statics and dynamics), materials and thermodynamics. Core engineering modules include fluid mechanics, heat transfer, mechanical design, machine elements, control systems and engineering analysis.

Hands-on laboratory courses accompany theory throughout the programme to develop experimental skills, instrumentation familiarity and data analysis techniques. Students take computer-aided design (CAD) and engineering computing classes, and learn programming and numerical methods used in modelling and simulation.

The programme culminates in a senior capstone design sequence where teams complete an open-ended engineering project, applying product design, prototyping, testing and project management. Elective options and technical electives allow study in subjects such as robotics and mechatronics, renewable energy systems, biomechanics and medical device design, manufacturing processes, advanced materials and computational fluid dynamics.

• Mathematics for Engineers (calculus, differential equations)
• Statics and Dynamics
• Materials Science
• Thermodynamics and Heat Transfer
• Fluid Mechanics
• Mechanical Design and Machine Elements
• Control Systems and Mechatronics
• Engineering Laboratory and Experimental Methods
• CAD, CAM and Engineering Simulation
• Senior Capstone Design Project

Entry requirements

Applicants should hold a secondary school diploma or equivalent and demonstrate strong achievement in mathematics and physical sciences. Typical preparation includes high school calculus (or equivalent), physics and chemistry. Admissions normally consider overall academic record, the strength of STEM coursework, and a personal statement; some applicants also submit standardised test scores where offered.

For international students, proof of English language proficiency is required, usually through accepted tests or prior instruction in English. Transfer students must present college-level coursework in calculus, physics and introductory engineering or closely related subjects for credit evaluation.

Because the programme is rigorous and sequential, incoming students are expected to be comfortable with quantitative problem solving. Prospective students who lack some prerequisites are often advised to take preparatory coursework before or during the first year.

Career prospects

Graduates are prepared for engineering roles across a wide range of industries. Common employer sectors include aerospace and aviation, energy and utilities, robotics and automation, manufacturing and product design, automotive, and medical device companies. Technical roles include mechanical design engineer, systems engineer, test and validation engineer, manufacturing engineer, HVAC and thermal systems engineer, and controls or mechatronics engineer.

Many graduates pursue professional development through the Fundamentals of Engineering (FE) exam as the first step toward Professional Engineer (PE) licensure. Others continue into specialised graduate study in mechanical engineering, materials, robotics, or related disciplines, or move into technical project management and consulting roles. Proximity to Seattle's technology and aerospace hubs also offers internship and co‑op opportunities that help students transition into industry.

Why study at Seattle University

Seattle University offers a student-focused education with small class sizes and direct access to faculty, emphasising ethical leadership and community engagement alongside technical training. The mechanical engineering programme is industry-aware and project-oriented, with facilities for prototyping, labs for thermal and fluid studies, and opportunities for undergraduate research and team design projects.

Seattle's regional industry—ranging from aerospace suppliers to advanced manufacturing and technology firms—provides strong internship and employment connections. Student organisations and professional chapters, such as ASME and engineering societies, support networking, competitions and professional development. The Jesuit mission also encourages a broader perspective on engineering practice, emphasising social responsibility and sustainable design.

Overall, the programme is well suited for students seeking a rigorous engineering education with practical experience and local industry links in the Pacific Northwest.