RESEARCH
Thesis 2
Powering the Future of Space Exploration
Laser Wireless Energy Transmission
The return of humans to the Moon requires groundbreaking engineering solutions to ensure mission sustainability. One of the most critical challenges is energy transmission in extreme environments where traditional power sources are ineffective – such as shadowed lunar regions like polar craters or during the long lunar nights. Laser Wireless Power Transmission (LWPT) is emerging as a transformative solution, enabling reliable energy supply for rovers, habitats, and equipment. Beyond space applications, LWPT also holds great potential for terrestrial use, serving as an emergency power source in the aftermath of natural disasters, where conventional infrastructure may be compromised.
Our research in the field:
- Designing and prototyping space-ready laser systems in collaboration with top-tier aerospace companies and research institutions.
Key technologies & expertise areas:
- Photonics: design and development of new fiber laser sources and of devices for combining beams at different wavelengths.
- Mechanics and Thermodynamics: minimize weight and volume, while ensuring resistance to mechanical and thermal stress.
- Electronics: space-qualified microprocessor-based control system.
- Artificial Intelligence: development of predictive maintenance system.
Possible activities and roles within:
Space-compliant high-power laser sources
- Innovation & Design: study space-compatible coherent and incoherent multiplexing techniques for power scalability.
- Laser Engineering: develop prototypes to study the impact of ionizing radiations on the active fibers.
- Thermal & Mechanical Management: design effective cooling solutions and develop vibration-resistant mechanical housing.
Work on a high-impact, interdisciplinary research initiative shaping the future of space technology, gaining expertise in photonics, laser systems, and space applications.
