University of Kansas

What you'll study

The mechanical engineering curriculum combines core engineering science with practical design and laboratory work. Early years emphasise calculus, physics and fundamental engineering principles; later years move into specialised mechanical topics and team-based design projects.

• Core mathematics and science: calculus sequence, linear algebra, differential equations, and physics for engineers.
• Fundamental engineering courses: statics and dynamics, mechanics of materials, thermodynamics, fluid mechanics, heat transfer, and materials engineering.
• Systems and modelling: engineering analysis, numerical methods, control systems, and computer-aided engineering (CAD and finite element analysis).
• Manufacturing and design: manufacturing processes, machine design, mechatronics, sensors and actuators, and product development.
• Laboratory and hands-on components: experimental methods, instrumentation, lab courses that reinforce theory, and extensive workshop/machine shop practice.
• Capstone design project: year-long team design project that integrates design, analysis, prototyping and testing, often undertaken with industry sponsors or research groups.
• Electives and special topics: students can choose from courses in advanced thermofluids, renewable energy systems, robotics, biomechanics, aerospace structures, or computational mechanics to tailor their degree.
• Experiential learning: opportunities for internships, co-op placements, undergraduate research, and industry collaborations to build practical experience.

Entry requirements

Admission to the mechanical engineering programme typically requires a strong background in mathematics and science from secondary school. Applicants are considered on the basis of their overall academic record and preparedness for a rigorous STEM curriculum.

• Secondary school qualifications: competitive grades in mathematics (including pre-calculus or calculus) and physics or chemistry; standard qualifications such as A-levels, the International Baccalaureate, or equivalent are accepted.
• Standardised testing: the university may consider SAT or ACT scores where applicable; check the university’s admissions guidance for current testing policies.
• Prerequisite coursework: strong foundation in algebra, geometry, trigonometry and introductory calculus is expected.
• Transfer applicants: students transferring from community colleges or other universities should present technical coursework in calculus, physics and introductory engineering subjects with competitive grades.
• Non-academic factors: personal statements, recommendation letters and evidence of extracurricular engagement in STEM activities, projects or work experience can strengthen an application.

Career prospects

Graduates with a mechanical engineering degree from the University of Kansas are prepared for a wide range of technical and leadership roles. The degree develops analytical, design and practical skills sought by employers across many sectors.

• Typical employers and sectors: manufacturing and industrial firms, automotive and aerospace companies, energy and utilities, robotics and automation firms, consulting and design services, and government or defence agencies.
• Common roles: mechanical design engineer, project engineer, manufacturing engineer, systems analyst, test engineer, product development engineer, and controls/robotics engineer.
• Further study: many graduates continue to master’s or doctoral study in specialised engineering fields, or pursue professional engineering licensure where applicable.
• Skills valued by employers: CAD/CAE proficiency, hands-on prototyping, data analysis, teamwork and project management, and the ability to move from concept to tested prototype.

Why study at University of Kansas

The University of Kansas offers a mechanical engineering programme grounded in both theoretical foundations and practical, applied learning. The School of Engineering provides access to laboratories, machine shops, fabrication facilities and computing resources that support student projects and research.

• Hands-on learning: well-equipped labs and makerspaces allow students to prototype and test designs as part of coursework and capstone projects.
• Research and industry links: opportunities to work with faculty on funded research and to partner with regional and national employers for internships and sponsored projects.
• Student support and community: academic advising, tutoring for core STEM courses, student engineering societies, and multidisciplinary design teams that build professional networks.
• Preparation for practice: an accredited curriculum that covers the breadth of mechanical engineering and prepares students for technical careers or further professional qualifications.