The high-resolution imaging science experiment (HiRISE) in the MRO extended science phases (2009–2023)
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Author
McEwen, A.S.Byrne, S.
Hansen, C.
Daubar, I.J.
Sutton, S.
Dundas, C.M.
Bardabelias, N.
Baugh, N.
Bergstrom, J.
Beyer, R.
Block, K.M.
Bray, V.J.
Bridges, J.C.
Chojnacki, M.
Conway, S.J.
Delamere, W.A.
Ebben, T.
Espinosa, A.
Fennema, A.
Grant, J.
Gulick, V.C.
Herkenhoff, K.E.
Heyd, R.
Leis, R.
Ojha, L.
Papendick, S.
Schaller, C.
Thomas, N.
Tornabene, L.L.
Weitz, C.
Wilson, S.A.
Affiliation
Lunar and Planetary Lab, University of ArizonaIssue Date
2023-09-16
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Elsevier BVCitation
Mcewen, A. S., Byrne, S., Hansen, C., Daubar, I. J., Sutton, S., Dundas, C. M., ... & Wilson, S. A. (2023). The high-resolution imaging science experiment (HiRISE) in the MRO extended science phases (2009–2023). Icarus, 115795.Journal
IcarusRights
© 2023 The US Geological Survey and The Authors. Published by Elsevier Inc. This is an open access article under the CC BY license.Collection Information
This item from the UA Faculty Publications collection is made available by the University of Arizona with support from the University of Arizona Libraries. If you have questions, please contact us at repository@u.library.arizona.edu.Abstract
The Mars Reconnaissance Orbiter has been orbiting Mars since 2006 and has acquired >80,000 HiRISE images with sub-meter resolution, contributing to over 2000 peer-reviewed publications, and has provided the data needed to enable safe surface landings in key locations by several rovers or landers. This paper describes the changes to science planning, data processing, and analysis tools since the initial Primary Science Phase in 2006–2008. These changes affect the data used or requested by the community and how they should interpret the data. There have been a variety of complications to the dataset over the years, such as gaps in monitoring due to spacecraft and instrument issues and special events like the arrival of new landers or rovers on Mars or global dust storms. The HiRISE optics have performed well except for a period when temperature uniformity was perturbed, reducing the resolution of some images. The focal plane system now has 12 rather than 14 operational detectors. The first failure (2011) was a unit at the edge of the swath width, reducing image width by 10% rather than creating a gap. The recent (2023) failure was in the middle of the swath. An unusual problem with the analog-to-digital conversion of the signal (resulting in erroneous data) has worsened over time; mitigation steps so far have preserved full-resolution imaging over all functional detectors. Soon, full-resolution imaging will be narrowed to a subset of the detectors and there will be more 2 × 2 binned data. We describe lessons received for future very high-resolution orbital imaging. We continue to invite all interested people to suggest HiRISE targets on Mars via HiWish, and to explore the easy-to-use publicly available images.Note
Open access articleISSN
0019-1035Version
Final published versionSponsors
Jet Propulsion Laboratoryae974a485f413a2113503eed53cd6c53
10.1016/j.icarus.2023.115795
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Except where otherwise noted, this item's license is described as © 2023 The US Geological Survey and The Authors. Published by Elsevier Inc. This is an open access article under the CC BY license.

