University of Cincinnati

What you'll study

This programme combines core engineering fundamentals with specialised aerospace topics. Early years emphasise mathematics, physics and basic engineering science (statics, dynamics, materials and fluids). Middle and later years cover aerodynamics, propulsion, flight mechanics, aircraft and spacecraft structures, controls and stability, and systems engineering.

• Core modules typically include calculus and differential equations, engineering mechanics, thermodynamics, fluid dynamics, and materials and manufacturing.
• Aerospace‑specific modules typically include compressible flow and aerodynamics, aircraft/spacecraft structures, propulsion and jet/rocket engines, flight dynamics and control, and spacecraft systems.
• Computational and laboratory work is integrated through modules in computational methods, numerical simulation, wind‑tunnel testing, structural testing and instrumentation.
• Design and professional practice are emphasised through team design projects and a senior capstone in which students take a concept from requirements through preliminary design, analysis and testing.

Students follow a structured curriculum over four years, with strong laboratory and project components. A distinctive feature is the University of Cincinnati’s cooperative education (co‑op) option: students alternate academic terms with paid, supervised industry placements, which build practical experience and professional networks.

Entry requirements

Typical applicants are expected to have a high‑school diploma or equivalent with strong achievement in mathematics and science. Recommended subjects include calculus (or pre‑calculus), physics and chemistry. Successful candidates demonstrate problem‑solving ability, strong numerical skills and commitment to engineering study.

• Domestic applicants: a competitive academic record in relevant secondary‑level subjects is required; specific grade thresholds and test requirements are set by the university admissions office.
• International applicants: qualifications equivalent to a U.S. high‑school diploma with strong performance in mathematics and sciences; proof of English language proficiency where applicable.
• Transfer students: admissions consider completed college‑level calculus and physics courses and transferable credits; a competitive GPA in prior tertiary coursework is expected.

Career prospects

Graduates are prepared for roles in aircraft and spacecraft design, propulsion, aerodynamics, controls, systems integration and test. Common job titles include aerospace engineer, design engineer, systems engineer, propulsion engineer, flight test engineer and structures analyst.

• Employment sectors include commercial and military aircraft manufacturers, space companies, defence contractors, aircraft engine makers, airlines, research laboratories and government agencies.
• Skills developed—analytical modelling, computational simulation, experimental testing, systems thinking and teamwork—also transfer to adjacent industries such as automotive, unmanned systems, robotics and advanced manufacturing.
• Many graduates progress to specialist technical roles, leadership positions or further study (master’s and PhD) in aerodynamic design, propulsion research, control systems and space systems engineering.

Why study at University of Cincinnati

The University of Cincinnati offers a practical, industry‑connected approach to aerospace engineering with a long‑established cooperative education programme that helps students gain real‑world experience while studying. The university provides access to hands‑on facilities—such as academic wind tunnels, structures and materials laboratories, and instrumentation suites—and opportunities to collaborate with faculty on applied research projects.

• The co‑op programme links students with regional and national aerospace employers, allowing extended work placements that strengthen employability and professional skills.
• Interdisciplinary opportunities exist with mechanical, electrical and computer engineering, facilitating study and projects in control systems, avionics and autonomous systems.
• Student organisations and design teams, including aerospace and rocketry clubs, offer practical project experience and competition exposure that complement formal coursework.