The SPACE Lab pursues a variaety of research topics topics. In the Lab, we pioneer advancements in space technology, specializing in control, estimation, space domain awareness, and active debris removal. Our innovative work in optimal control and nonlinear estimation enhances spacecraft navigation and mission success. We lead in space domain awareness, developing techniques to monitor and manage orbital activities. Our active debris removal efforts are critical for ensuring the sustainability and safety of space operations, safeguarding future explorations and satellite integrity.
Research
The Koopman Operator in Astrodynamics
Research on the Koopman operator theory in astrodynamics is vital for analyzing and predicting complex spacecraft dynamics. This mathematical framework offers a novel approach to understanding nonlinear systems, enhancing trajectory optimization and control. Its application can lead to more efficient space missions, improved safety, and better management of orbital debris and satellite operations.
Space Domain Awareness
Research in space domain awareness is crucial for monitoring and understanding the activities and objects in Earth’s orbit. It enhances the ability to track satellites, detect potential collisions, and identify space debris. This knowledge is vital for ensuring the safety of space missions, protecting assets, and maintaining the long-term sustainability of space operations.
Active Debris Removal Developments
Research on active debris removal is essential for maintaining space sustainability. By developing technologies to eliminate space junk, we can prevent collisions that endanger satellites and space missions. Effective debris removal ensures the safety and longevity of space operations, supports future exploration, and protects valuable assets in Earth’s orbit.
Optimal Control in Space
Research in optimal control in space is crucial for maximizing the efficiency and effectiveness of spacecraft operations. By determining the best control strategies for propulsion and maneuvering, it ensures fuel savings, precise navigation, and mission success. This research enhances satellite deployment, interplanetary travel, and overall space mission performance, contributing to the advancement of space exploration and technology.
Nonlinear Estimation and Filtering
Research in nonlinear estimation in space is vital for accurately predicting and controlling spacecraft trajectories in complex environments. It improves navigation, collision avoidance, and mission success rates by effectively handling uncertainties and nonlinear dynamics. This research enhances the precision of satellite operations, interplanetary missions, and space exploration, ensuring safer and more efficient space endeavors.
Advances in Astrodynamics
Research in astrodynamics is crucial for understanding celestial motion and enhancing space exploration. It enables accurate spacecraft trajectory prediction and control, ensuring successful missions. By studying gravitational influences and orbital mechanics, astrodynamics research contributes to more efficient and safer space missions. It also supports space debris mitigation and asteroid impact prevention, making it essential for modern aerospace science.