Kent State University

What you'll study

This programme builds a strong foundation in mathematics, physics and general engineering before moving into aerospace‑specific topics. Early years emphasise calculus, differential equations, mechanics, materials and thermodynamics. Later and advanced modules typically cover aerodynamics, flight mechanics, aircraft and spacecraft structures, propulsion systems, control and guidance, avionics, systems integration and aerospace materials.

Practical learning is an important component: students take laboratory courses in fluid mechanics and propulsion, work with computer‑aided design and computational fluid dynamics tools, and participate in structural testing and avionics laboratories. The curriculum usually culminates in a capstone design project or senior design sequence where teams design, fabricate and test an aerospace system or subsystem.

• Core engineering fundamentals: calculus, linear algebra, statics and dynamics, circuits, materials science
• Aerodynamics and fluid mechanics
• Flight dynamics and control systems
• Aircraft/spacecraft structures and structural analysis
• Propulsion and thermodynamics
• Avionics, instrumentation and systems integration
• Computer modelling, CAD and simulation tools
• Laboratory work and a team capstone design project

Entry requirements

Applicants should hold a recognised secondary school qualification with strong preparation in mathematics and physics. Typical preparation includes courses in calculus (or pre‑calculus), algebra, physics and chemistry. Admissions decisions consider the overall academic record and relevant coursework; preparation in computer science or engineering drawing is advantageous.

International applicants must meet Kent State's English language proficiency requirements. Some applicants may be asked to provide standardised test scores or take placement testing in mathematics depending on prior study. Transfer applicants are evaluated on college coursework; credit may be granted for equivalent engineering and math courses completed elsewhere.

Career prospects

Graduates enter a wide range of roles across the aerospace and defence sectors, as well as in related industries. Common career paths include:

• Aerospace or aeronautical engineer working on aircraft or spacecraft design and analysis
• Propulsion and systems engineer focusing on engines, powerplants or thermal systems
• Structural engineer performing stress analysis, materials selection and testing
• Avionics or control systems engineer developing guidance, navigation and control software and hardware
• Flight test engineer, systems integrator, or certification specialist
• Positions in manufacturing, quality assurance, project management or technical sales
• Further study at graduate level for research or specialised technical careers

Why study at Kent State University

Kent State offers an engineering education with an emphasis on hands‑on learning, access to laboratories and project facilities, and opportunities to work on team design projects. Students benefit from faculty with industry and research experience, small class sizes in upper‑level courses, and connections to regional aerospace and manufacturing employers.

The university supports experiential learning through internships, cooperative education experiences and student organisations that reflect the aerospace field. Being in the greater Cleveland region provides proximity to aerospace suppliers, testing facilities and engineering employers, which can aid in internships and graduate employment. The programme prepares graduates with both the theoretical background and practical skills sought by employers in aerospace and related sectors.