The course aims to provide students with the knowledge necessary for conscious use of optimizations in aerospace design. The content is structured by combining theory and practical applications. The theoretical component focuses on developing the ability to identify and formulate optimization problems tailored to specific design objectives, considering the multidisciplinary nature of the aerospace field. The practical component is aimed at employing optimizations as a design tool and will focus mainly on structural design using finite element modeling, with the possibility of extending the methodologies to other areas of interest.
The course introduces the student to knowledge of the foundational elements of aerospace engineering for the purpose of understanding the physical principles, methodological approaches, and technological solutions that underlie the design, implementation, and deployment of an aerospace vehicle in relation to mission requirements and regulatory constraints. In particular, basic aeromechanics content is addressed, for the calculation of aerodynamic characteristics of load-bearing surfaces and the performance of an aircraft under given flight conditions, and the main systems and subsystems of an aerospace vehicle (airborne systems, propulsion system, structural components and materials) are presented and discussed in relation to their role and purpose.