This curriculum focuses on the theoretical, observational, and experimental exploration of gravity. From the fundamentals of General Relativity to the detection of gravitational waves, the program investigates the force that shapes the formation and evolution of the Universe.
Research & Training Focus
1. Fundamental Physics & Relativity
- Testing General Relativity: Conducting fundamental tests of relativity in dynamic strong-field regimes and under microgravity conditions.
- Gravitational Wave (Astro)physics: Studying the nature of gravitational wave signals and their electromagnetic counterparts to better understand cosmic sources.
2. Space-Based Detection & Technology
- LISA & Ground-Space Synergy: Developing advanced technologies for space-based observatories in coordination with ground-based facilities (LIGO-Virgo-KAGRA and the future Einstein Telescope).
- High-Precision Instrumentation: Design and testing of gravitational sensors, inter-satellite interferometry techniques, and scientific payloads.
- Precision Metrology: Mastery of orbital dynamics, control of gravitational perturbations, and geodetic reference systems.
3. Data Science & Numerical Modeling
- Signal Identification: Acquiring advanced skills in the characterization of complex gravitational signals.
- Numerical Simulations: Using high-performance computing to model the evolution of the universe and its sources.
A Global Research Environment
PhD candidates are directly integrated into international research projects and space missions. The course balances laboratory activities with the development of cutting-edge instrumentation, training experts ready to lead the next generation of experiments in gravitational physics.
Leadership
- Coordinator: Monica Colpi
- Deputy Coordinator: Prof. William Joseph Weber