John Mustard

John Mustard


Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 July 2008 in Nature
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Journal Article
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JMJohn Mustard
John Mustard
SMS. L. Murchie
S. L. Murchie
SPS. M. Pelkey
S. M. Pelkey
BEB. L. Ehlmann
B. L. Ehlmann
RMR. E. Milliken
R. E. Milliken
MWM. Wolff
M. Wolff

1 July 2001 in Nature
Verified
Journal Article
Closed access
JMJohn Mustard
John Mustard
CCChristopher D. Cooper
Christopher D. Cooper
MRMoses K. Rifkin
Moses K. Rifkin

11 March 2005 in Science
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Journal Article
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JMJohn Mustard
John Mustard
FPF. Poulet
F. Poulet
AGA. Gendrin
A. Gendrin
JBJ.-P. Bibring
J.-P. Bibring
YLY. Langevin
Y. Langevin
FAF. Altieri
F. Altieri
Datafromthe Observatoire pour la Minéralogie, l'Eau, les Glaces, et l'Activité (OMEGA) on the Mars Express spacecraft identify the distinct mafic, rock-forming minerals olivine, low-calcium pyroxene (LCP), and high-calcium pyroxene (HCP) on the surface of Mars. Olivine- and HCP-rich regions are found in deposits that span the age range of geologic units. However, LCP-rich regions are found only in the ancient Noachian-aged units, which suggests that melts for these deposits were derived from a mantle depleted in aluminum and calcium. Extended dark regions in the northern plains exhibit no evidence of strong mafic absorptions or absorptions due to hydrated materials.

1 February 2009 in Journal of Geophysical Research: Planets
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Journal Article
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JMJohn Mustard
John Mustard
BEB. L. Ehlmann
B. L. Ehlmann
SMS. L. Murchie
S. L. Murchie
FPF. Poulet
F. Poulet
NMN. Mangold
N. Mangold
LRL. H. Roach
L. H. Roach

4 August 2007 in Journal of Geophysical Research
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Journal Article
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JMJohn Mustard
John Mustard
FPF. Poulet
F. Poulet
JHJ. W. Head
J. W. Head
NMN. Mangold
N. Mangold
JBJ.‐P. Bibring
J.‐P. Bibring
GNG. Neukum
G. Neukum

10 May 2011 in Journal of Geophysical Research
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Journal Article
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JMJohn Mustard
John Mustard
CPCarle M. Pieters
Carle M. Pieters
PIPeter J. Isaacson
Peter J. Isaacson
JHJames W. Head
James W. Head
SBSebastien Besse
Sebastien Besse
STStefanie Tompkins
Stefanie Tompkins
[1] The Moon Mineralogy Mapper (M3) acquired high spatial and spectral resolution data of the Aristarchus Plateau with 140 m/pixel in 85 spectral bands from 0.43 to 3.0 μm. The data were collected as radiance and converted to reflectance using the observational constraints and a solar spectrum scaled to the Moon‐Sun distance. Summary spectral parameters for the area of mafic silicate 1 and 2 μm bands were calculated from the M3 data and used to map the distribution of key units that were then analyzed in detail with the spectral data. This analysis focuses on five key compositional units in the region. (1) The central peaks are shown to be strongly enriched in feldspar and are likely from the upper plagioclase‐rich crust of the Moon. (2) The impact melt is compositionally diverse with clear signatures of feldspathic crust, olivine, and glass. (3) The crater walls and ejecta show a high degree of spatial heterogeneity and evidence for massive breccia blocks. (4) Olivine, strongly concentrated on the rim, wall, and exterior of the southeastern quadrant of the crater, is commonly associated the impact melt. (5) There are at least two types of glass deposits observed: pyroclastic glass and impact glass.