Georgia Institute of Technology

What you'll study

The undergraduate curriculum provides a rigorous grounding in mathematics, physics and core engineering topics before advancing into specialised aerospace subjects. Early years emphasise calculus, differential equations, linear algebra, classical mechanics and thermodynamics. Core aerospace courses typically include fluid dynamics/aerodynamics, gas dynamics and propulsion, flight mechanics and dynamics, structural analysis and aeroelasticity, systems and controls, and orbital mechanics.

• Laboratory and practical work: wind tunnel testing, materials and structures labs, propulsion test stands and flight-test or simulation exercises.
• Computational methods: numerical methods for fluid dynamics (CFD), simulation, modelling and software development for engineering analysis.
• Design and integration: multidisciplinary design projects and a capstone senior design sequence that emphasises teamwork, systems integration and industry-style reporting.
• Elective pathways: options to focus on aeronautics (aircraft, rotorcraft, UAVs), astronautics (spacecraft design, orbital mechanics), propulsion, materials and structures, controls or systems engineering.
• Research and extracurriculars: opportunities to work with faculty on research projects, participate in student design teams, and join clubs such as the American Institute of Aeronautics and Astronautics (AIAA) student chapter and space-related societies.

Entry requirements

Admission to Georgia Tech is competitive and based on academic achievement, preparation and broader application materials. Successful applicants typically present strong performance in secondary-school mathematics (including calculus where available) and physics, and demonstrate problem-solving ability and commitment to STEM.

• Academic preparation: high grades in mathematics (calculus and precalculus), physics and chemistry; coursework in advanced maths and computing is advantageous.
• Standardised testing and transcripts: Georgia Tech considers applicants in the context of their educational system; prospective students should check the institute's guidance on standardised tests and international credential requirements.
• Supporting materials: a well-rounded application often includes teacher references, a personal statement showing interest in engineering or aerospace, and evidence of extracurricular engagement such as clubs, competitions, research or relevant work experience.
• Transfer and international applicants: transfer applicants should demonstrate strong college-level performance in calculus and engineering or physical science courses; international applicants must provide credential evaluations and meet English language proficiency requirements.

Career prospects

Graduates from Georgia Tech's aerospace programme enter a wide range of roles across industry, government and research. The degree prepares students for engineering work that spans concept design through to testing, certification and operations.

• Typical career paths: aircraft and spacecraft design engineer, propulsion engineer, flight test engineer, systems engineer, structural engineer, control systems specialist, and reliability or safety engineer.
• Sectors: commercial aerospace, space agencies and private space companies, defence and national laboratories, rotorcraft and unmanned aerial vehicle (UAV) manufacturers, and firms specialising in simulation, software and systems integration.
• Further study and research: graduates often pursue postgraduate degrees (master's or PhD) in aerospace-related disciplines, or specialised fields such as robotics, materials science, or applied mathematics.

Why study at Georgia Institute of Technology

Georgia Tech's Daniel Guggenheim School of Aerospace Engineering is recognised for its long-standing focus on both aeronautics and astronautics, with faculty active in fundamental research and applied development. The institute offers extensive facilities, industry engagement and an entrepreneurial ecosystem that support student learning and career development.

• Research centres and facilities: access to wind tunnels, propulsion test facilities, structural test labs, and computational resources, as well as research groups working on topics from hypersonics to space systems.
• Industry connections: strong ties with aerospace companies, defence contractors and space organisations provide internship and recruitment opportunities, collaborative projects and guest lectures.
• Hands-on learning: structured design courses, senior capstone projects and student teams give practical experience in design, build and test cycles.
• Community and location: a large engineering student body, active technical societies and the institute's placement in a major metropolitan area offering access to regional industry and research partners.