Syracuse University

What you'll study

The undergraduate curriculum combines core engineering fundamentals with aerospace-specific theory and laboratory practice. Early years focus on mathematics, physics, chemistry and introductory engineering courses such as statics, dynamics and materials. Core aerospace topics typically include fluid mechanics and aerodynamics, thermodynamics and propulsion, flight mechanics and stability, aerospace structures and materials, control systems and avionics.

Students engage in laboratory classes and project work that may include wind-tunnel testing, structural testing, propulsion demonstrations, instrumentation and data acquisition, and computational methods (CFD and FEM). The programme culminates in a capstone design sequence where student teams develop, build and test an aerospace system or subsystems. Elective options and interdisciplinary courses allow study in areas such as unmanned aerial systems, space systems engineering, orbital mechanics, systems engineering, robotics, and advanced manufacturing.

Opportunities for undergraduate research, summer internships with industry or federal labs, participation in student teams and design competitions, and coursework in entrepreneurship or management are integrated to help students apply engineering knowledge in real-world contexts.

Entry requirements

• Secondary-school completion with a strong emphasis on mathematics and physics; applicants are expected to have higher-level preparation in calculus and algebra.
• Typical preparation includes courses in calculus (or equivalent), physics with mechanics, and ideally introductory engineering or computer science. Performance in these subjects is a key consideration.
• International applicants must meet Syracuse University’s English language proficiency requirements and provide certified academic records translated into English as needed.
• Admission considers academic record, teacher recommendations, personal statement, and any relevant extracurricular activities such as robotics, flight clubs or engineering projects. Transfer applicants are evaluated on college-level STEM coursework completed and available capacity in the programme.
• Prospective students should check with the College of Engineering and Computer Science for programme-specific prerequisite guidance and advising before entry.

Career prospects

Graduates are prepared for roles across the aerospace and defence sectors, including aircraft and spacecraft design, propulsion, structures and materials, flight testing, systems engineering, and avionics. Typical job titles include aerospace engineer, propulsion engineer, flight test engineer, systems engineer, and design engineer. Employers range from commercial aircraft manufacturers and space companies to defence contractors, government agencies, research laboratories and specialised engineering consultancies.

Many alumni also move into adjacent industries such as automotive, energy, and robotics where expertise in fluid dynamics, structures and control is highly valued. Graduates frequently pursue further study at the graduate level (MEng, MS, PhD) or combine technical training with business qualifications (MBA) for roles in management, product development and entrepreneurship.

Why study at Syracuse University

• Established engineering school: The College of Engineering and Computer Science provides accredited undergraduate engineering degrees with faculty active in teaching and research across aerospace-relevant areas.
• Hands-on facilities: Students benefit from laboratory facilities, prototyping shops and project spaces that support aerodynamic testing, structural experiments and control systems development.
• Experiential learning: A strong emphasis on team-based capstone projects, undergraduate research opportunities and industry internships helps students build practical skills employers seek.
• Industry connections and career support: The university maintains links with regional and national aerospace employers and offers career services, co‑op and internship support to help students secure placements and launch their careers.
• Interdisciplinary environment: Collaboration across departments—mechanical engineering, computer science, physics and management—allows students to tailor their degree toward areas such as autonomy, space systems, or advanced manufacturing.