University of Cincinnati

What you'll study

This master's programme builds on undergraduate engineering foundations to explore advanced topics in aerodynamics, propulsion, structures, flight dynamics and systems engineering. Students typically choose between thesis and non‑thesis (coursework or project) routes, combining core subjects, electives and a substantial capstone research project or design sequence.

• Core subjects: advanced fluid mechanics and aerodynamics, compressible flow, propulsion and jet/rocket engines, aeroelasticity and structural dynamics, flight dynamics and control, and aerospace systems engineering.
• Electives and specialisms: computational fluid dynamics (CFD), hypersonics, spacecraft design and orbital mechanics, guidance, navigation and control (GNC), materials and composites for aerospace, nondestructive evaluation, and avionics and embedded systems.
• Laboratory and practical work: wind tunnel testing, propulsion test rigs, structural testing and modal analysis, flight simulation and hardware‑in‑the‑loop experiments are integrated into courses and student projects.
• Research and capstone: thesis students work with faculty on supervised research in areas such as propulsion, aerodynamics, structures and controls. Non‑thesis students complete a design project or practicum drawing on multidisciplinary teams to solve real engineering problems.
• Programme structure: the degree comprises advanced coursework plus research or project credits; elective choices allow tailoring toward aeronautical or astronautical focus and towards industry or academic careers.

Entry requirements

Applicants should hold a recognised bachelor's degree in aerospace, mechanical, electrical or another relevant engineering or physical science. Successful candidates normally demonstrate strong undergraduate performance and readiness for graduate‑level technical study.

• Academic record: a good honours degree or equivalent in engineering or a closely related field; admissions committees look for solid coursework in mathematics, mechanics and thermodynamics/fluids.
• Documentation: official transcripts, a CV, a statement of purpose describing academic and professional goals, and academic references (typically two). Work experience can strengthen an application, especially for professional master's routes.
• Tests and language: standardised test requirements vary by applicant background; some applicants may be asked to provide GRE scores. International applicants must demonstrate English proficiency through recognised tests (e.g. IELTS, TOEFL) unless exempt.
• Prerequisites: applicants missing certain undergraduate prerequisites may be admitted conditionally and asked to complete specified undergraduate courses before or during the programme.

Career prospects

Graduates leave prepared for technical and leadership roles across the aerospace sector and related industries. Career paths include:

• Aerospace engineer specialising in aerodynamics, propulsion, structures or systems integration
• Flight and systems test engineer, including wind tunnel and propulsion test work
• Space systems engineer, satellite and payload designer or mission analyst
• Control and avionics engineer for UAVs, commercial aircraft or spacecraft
• Structural analyst or materials specialist focusing on composites and fatigue
• Engineering design consultant, project manager or product development lead in defence, aviation and space firms
• Research and development roles in industry labs or continued academic research leading to a PhD

Why study at University of Cincinnati

The University of Cincinnati combines a strong engineering tradition with applied, experiential learning. The College of Engineering collaborates with local and national aerospace firms and government organisations, offering internships, co‑operative education experiences and project partnerships that give students direct industry exposure.

Students benefit from dedicated faculty working in propulsion, aerodynamics, structures and controls, and from hands‑on facilities such as wind tunnels, propulsion test cells, structural test labs and flight simulation resources. The programme's emphasis on multidisciplinary design, laboratory work and industry engagement prepares graduates for immediate contribution in aerospace and space sectors or for further research study.