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A Global Fireball Observatory

Authors :
Jonathan Horner
Eleanor K. Sansom
Robert M. Howie
Tracy Rushmer
P. J. A. Hill
D. C. Busan
Jim Albers
Peter Brown
Martin Cupak
Marc Fries
P. Jenniskens
Gretchen Benedix
A.D. Mardon
H. Darhmaoui
Trent Jansen-Sturgeon
Jonathan Tate
C. Shaw
M. Guennoun
Trevor Ireland
Geoffrey P. Bonning
Luke Daly
Gordon R. Osinski
H. Chennaoui Aoudjehane
Diego Janches
Martin C. Towner
Christopher D. K. Herd
Craig O'Neill
Gareth S. Collins
Z. Krzeminski
José Luis Hormaechea
Hadrien A. R. Devillepoix
Andrew Langendam
Carl Hergenrother
R. Sayers
S. McMullan
John Young
T. Y. Alrefay
A. Jabiri
A. Barka
Seamus Anderson
Mike Alexander
Patrick Shober
Philip A. Bland
L. Baeza
M. D. Suttle
Zouhair Benkhaldoun
Andrew G. Tomkins
Timothy D. Swindle
Benjamin A. D. Hartig
Young, John [0000-0001-6583-7643]
Apollo - University of Cambridge Repository
Science and Technology Facilities Council (STFC)
Publication Year :
2020
Publisher :
Elsevier BV, 2020.

Abstract

The world's meteorite collections contain a very rich picture of what the early Solar System would have been made of, however the lack of spatial context with respect to their parent population for these samples is an issue. The asteroid population is equally as rich in surface mineralogies, and mapping these two populations (meteorites and asteroids) together is a major challenge for planetary science. Directly probing asteroids achieves this at a high cost. Observing meteorite falls and calculating their pre-atmospheric orbit on the other hand, is a cheaper way to approach the problem. The Global Fireball Observatory (GFO) collaboration was established in 2017 and brings together multiple institutions (from Australia, USA, Canada, Morocco, Saudi Arabia, the UK, and Argentina) to maximise the area for fireball observation time and therefore meteorite recoveries. The members have a choice to operate independently, but they can also choose to work in a fully collaborative manner with other GFO partners. This efficient approach leverages the experience gained from the Desert Fireball Network (DFN) pathfinder project in Australia. The state-of-the art technology (DFN camera systems and data reduction) and experience of the support teams is shared between all partners, freeing up time for science investigations and meteorite searching. With all networks combined together, the GFO collaboration already covers 0.6% of the Earth's surface for meteorite recovery as of mid-2019, and aims to reach 2% in the early 2020s. We estimate that after 5 years of operation, the GFO will have observed a fireball from virtually every meteorite type. This combined effort will bring new, fresh, extra-terrestrial material to the labs, yielding new insights about the formation of the Solar System.<br />Accepted in PSS. 19 pages, 9 figures

Details

ISSN :
00320633
Database :
OpenAIRE
Accession number :
edsair.doi.dedup.....84acb7b22fd44822f3cab46c02e8337f