Home

Our future in space involves miniaturized satellites for low-cost and rapid access to space, frequent and sustained operations in cislunar space, agile and autonomous spacecraft that can plan paths with little or no dependence on an analyst,听on-orbit servicing for sustainability, in-space assembly of critical infrastructure, formations for multi-point measurements, and spacecraft visiting the farthest reaches of our solar system. Across these architectures, form factors, and destinations is a common thread: spacecraft operating in complex, multi-body systems where trajectory analysis, design, and prediction听can be considered as a critical enabling and/or enhancing technology.听
Inspired by this future, the Bosanac group听focuses听on developing new strategies for spacecraft trajectory analysis, design, and prediction within chaotic multi-body gravitational systems.听
To achieve this goal, we use interdisciplinary techniques such as dynamical systems theory, data mining, machine learning, and path-planning. By developing these strategies, we aim to:
- Enable new missions with new spacecraft form factors, architectures, and objectives via innovative trajectories that mitigate the impact of technology gaps and operational limitations, and听
- Map transport pathways in support of knowledge discovery and space situational awareness
Image credits:
- Left:听Bonasera, S; Bosanac, N, 'Applying Data Mining Techniques to Higher-Dimensional Poincar茅 Maps in the Circular Restricted Three-Body Problem,' November 2021, Vol. 133, No. 51,听Celestial Mechanics and Dynamical Astronomy, DOI:听.
- Center:听Smith, T.R.; Bosanac, N,听鈥楳otion Primitive Approach to Spacecraft Trajectory Design in a Multi-Body System,鈥� September 2023, Vol. 70, No. 34, The Journal of Astronautical Sciences, DOI:听
- Right:听Bonasera, S; Bosanac, N; Sullivan, C; Elliott, I; Ahmed, N; McMahon, J, 'Designing Sun-Earth L2 Halo Orbit Stationkeeping Maneuvers via Reinforcement Learning,' February 2023, Vol. 46, No. 2, Journal of Guidance, Control, and Dynamics, DOI:听