TY - JOUR
T1 - Recreating the OSIRIS-REx slingshot manoeuvre from a network of ground-based sensors
AU - Jansen-Sturgeon, Trent
AU - Hartig, Benjamin A.D.
AU - Madsen, Gregory J.
AU - Bland, Philip A.
AU - Sansom, Eleanor K.
AU - Devillepoix, Hadrien A.R.
AU - Howie, Robert M.
AU - Cupák, Martin
AU - Towner, Martin C.
AU - Cox, Morgan A.
AU - Nevill, Nicole D.
AU - Hoskins, Zacchary N.P.
AU - Bonning, Geoffrey P.
AU - Calcino, Josh
AU - Clark, Jake T.
AU - Henson, Bryce M.
AU - Langendam, Andrew
AU - Matthews, Samuel J.
AU - McClafferty, Terence P.
AU - Mitchell, Jennifer T.
AU - O'Neill, Craig J.
AU - Smith, Luke T.
AU - Tait, Alastair W.
PY - 2020/11/27
Y1 - 2020/11/27
N2 - Optical tracking systems typically trade off between astrometric precision and field of view. In this work, we showcase a networked approach to optical tracking using very wide field-of-view imagers that have relatively low astrometric precision on the scheduled OSIRIS-REx slingshot manoeuvre around Earth on 22 Sep 2017. As part of a trajectory designed to get OSIRIS-REx to NEO 101955 Bennu, this flyby event was viewed from 13 remote sensors spread across Australia and New Zealand to promote triangulatable observations. Each observatory in this portable network was constructed to be as lightweight and portable as possible, with hardware based off the successful design of the Desert Fireball Network. Over a 4-h collection window, we gathered 15 439 images of the night sky in the predicted direction of the OSIRIS-REx spacecraft. Using a specially developed streak detection and orbit determination data pipeline, we detected 2 090 line-of-sight observations. Our fitted orbit was determined to be within about 10 km of orbital telemetry along the observed 109 262 km length of OSIRIS-REx trajectory, and thus demonstrating the impressive capability of a networked approach to Space Surveillance and Tracking.
AB - Optical tracking systems typically trade off between astrometric precision and field of view. In this work, we showcase a networked approach to optical tracking using very wide field-of-view imagers that have relatively low astrometric precision on the scheduled OSIRIS-REx slingshot manoeuvre around Earth on 22 Sep 2017. As part of a trajectory designed to get OSIRIS-REx to NEO 101955 Bennu, this flyby event was viewed from 13 remote sensors spread across Australia and New Zealand to promote triangulatable observations. Each observatory in this portable network was constructed to be as lightweight and portable as possible, with hardware based off the successful design of the Desert Fireball Network. Over a 4-h collection window, we gathered 15 439 images of the night sky in the predicted direction of the OSIRIS-REx spacecraft. Using a specially developed streak detection and orbit determination data pipeline, we detected 2 090 line-of-sight observations. Our fitted orbit was determined to be within about 10 km of orbital telemetry along the observed 109 262 km length of OSIRIS-REx trajectory, and thus demonstrating the impressive capability of a networked approach to Space Surveillance and Tracking.
KW - Desert Fireball Network
KW - FireOPAL
KW - networked space situational awareness
KW - orbit determination
KW - OSIRIS-REx
KW - streak detection
KW - telemetry comparison
KW - triangulation
UR - http://www.scopus.com/inward/record.url?scp=85097175368&partnerID=8YFLogxK
U2 - 10.1017/pasa.2020.36
DO - 10.1017/pasa.2020.36
M3 - Article
AN - SCOPUS:85097175368
VL - 37
SP - 1
EP - 10
JO - Publications of the Astronomical Society of Australia
JF - Publications of the Astronomical Society of Australia
SN - 1323-3580
M1 - e049
ER -