This curriculum focuses on the advanced engineering required to design and develop complex space systems. From CubeSats to interplanetary rovers, the program adopts a Systems Engineering approach to navigate the diverse requirements, constraints, and multidisciplinary interactions that define modern space missions.
Research & Training Focus
1. Spacecraft Design & Systems Engineering
- Platform Diversity: Designing systems across all scales, from miniaturized CubeSats to large-scale deep-space exploration platforms.
- Integrated Subsystems: In-depth study of propulsion, telecommunications, onboard electrical power (EPS), and computing systems.
- Advanced Modeling: Implementation of Model-Based Systems and Software Engineering (MBSE) and complex multiphysics simulations to analyze thermal, electrical, and structural interactions.
2. Onboard Intelligence & Connectivity
Software Development: Engineering robust onboard software and flight systems.
- Internet of Remote Things (IoRT): Exploring the emerging paradigm for integrating monitoring, data acquisition, and real-time processing in space.
- Electromagnetic Compatibility: Studying the critical electromagnetic interactions within integrated systems.
3. Reliability & Space Qualification
- Testing & Validation: Mastering space qualification techniques for instruments and platforms intended for the harsh space environment.
- Reliability Engineering: Addressing the challenges of mission longevity and system resilience in orbit.
Methodology
The curriculum bridges theory and practice through specific mission case studies and advanced simulation tools. Candidates will learn to balance application-specific needs with strict design constraints, ensuring the successful operation of complex orbital and planetary infrastructures.
Leadership
Coordinator: Alessandro Busacca