University of Arizona

What you'll study

The programme combines core engineering fundamentals with specialised courses in aerodynamics, propulsion, flight mechanics and spacecraft systems. Early years emphasise mathematics, physics and general engineering principles (calculus, differential equations, statics, dynamics, thermodynamics and materials). Later years focus on aerospace-specific topics such as aerodynamics, compressible flow, propulsion systems, aircraft/spacecraft structures, flight dynamics and control, orbital mechanics, guidance and navigation, and avionics.

• Foundational modules: calculus, linear algebra, physics, introductory programming, engineering design and materials science.
• Core aerospace subjects: fluid mechanics, aerodynamics, gas dynamics, propulsion, structural analysis, flight mechanics and control systems.
• Specialist and advanced options: spacecraft design, satellite systems, orbital mechanics, computational fluid dynamics (CFD), experimental aerodynamics and avionics.
• Practical learning: laboratory classes, wind tunnel testing, propulsion test stands, electronics and control labs, and extensive CAD/CAE coursework.
• Capstone experience: a year-long senior design project where student teams design, build and test an aircraft or spacecraft subsystem, often in partnership with industry or research groups.
• Research and internships: opportunities to join faculty-led research groups or complete summer internships with aerospace companies, research centres and NASA-affiliated projects.

Entry requirements

Applicants should demonstrate strong achievement in mathematics and physics from their secondary education. Typical preparation includes advanced mathematics (calculus) and physics; chemistry is also recommended. Universities in the United States generally assess applicants on high school GPA, relevant coursework, personal statements and recommendations. International applicants with A-levels, IB or equivalent should present high-level passes in Mathematics and Physics. Prospective students should be prepared to begin university-level calculus and physics immediately.

Competitive applicants often have completed further preparation such as AP or IB Higher Level STEM subjects, preparatory engineering camps, or relevant extracurricular experience (robotics, rocketry, aerospace clubs). Placement into the engineering programme may require satisfactory performance on introductory maths/physics assessments and completion of prerequisite courses.

Career prospects

Graduates pursue roles across the aerospace, defence, space and related technology sectors. Typical job titles include:

• Aerospace engineer (aircraft or spacecraft design)
• Systems engineer or integration engineer
• Flight test engineer and flight operations specialist
• Propulsion or structural analyst
• Controls and avionics engineer
• Satellite systems and payload engineer
• Unmanned aerial systems (UAS) developer and operator

Graduates also move into related fields such as defence contractors, space startups, research institutions, and government agencies. Many continue to postgraduate study (MSc/PhD) in specialised aerospace topics or transition to interdisciplinary areas such as robotics, systems engineering or business and management roles within technology companies.

Why study at University of Arizona

The University of Arizona offers a programme with strong practical emphasis and links to active space and aerospace research. Students benefit from hands-on laboratory facilities, design studios and wind tunnels, plus opportunities to work with faculty engaged in aerospace and space-mission research. The university’s research centres and collaborations with regional and national aerospace organisations provide routes into internships, cooperative projects and mission-based experience.

Smaller upper-division classes, team-based capstone projects and accessible faculty mentorship support students transitioning from classroom learning to real-world engineering. Proximity to industry partners and a vibrant technical ecosystem in the region further support professional networking and early-career placement in both commercial aerospace and government-funded space programmes.