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Adaptive optics tracking and pushing system for space debris manoeuvre
Author(s) -
Doris Grosse,
Francis Bennet,
François Rigaut,
Céline d’Orgeville,
Visa Korkiakoski,
C. H. Smith,
Michael Copeland,
Ian Price,
Mark Blundell,
Amy Chan,
Michael Ellis,
Antony Galla,
Luke Gers,
John Hart,
Marcus Lingham,
Yue Gao,
Ellen Houston,
Emily Rose Rees,
Yanjie Wang,
I. Ritchie,
Tony Travouillon,
Annino Vaccarella,
J. R. Webb
Publication year - 2018
Publication title -
adaptive optics systems vi
Language(s) - English
Resource type - Conference proceedings
DOI - 10.1117/12.2313181
Subject(s) - space debris , adaptive optics , context (archaeology) , aerospace engineering , low earth orbit , telescope , computer science , orbit (dynamics) , deformable mirror , remote sensing , tracking (education) , tracking system , debris , optics , engineering , physics , spacecraft , meteorology , satellite , geology , computer vision , pedagogy , filter (signal processing) , psychology , paleontology
As space debris in lower Earth orbits are accumulating, techniques to lower the risk of space debris collisions must be developed. Within the context of the Space Environment Research Centre (SERC), the Australian National University (ANU) is developing an adaptive optics system for tracking and pushing space debris. The strategy is to pre-condition a laser launched from a 1.8 m telescope operated by Electro Optics Systems (EOS) on Mount Stromlo, Canberra and direct it at an object to perturb its orbit. Current progress towards implementing this experiment, which will ensure automated operation between the telescope and the adaptive optics system, will be presented.

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