月球矿物学成像仪(M3)观测到的水和羟基在月球上的全球分布情况

IF 3.8 Q2 ASTRONOMY & ASTROPHYSICS The Planetary Science Journal Pub Date : 2024-09-15 DOI:10.3847/psj/ad5837
Roger N. Clark, Neil C. Pearson, Thomas B. McCord, Deborah L. Domingue, Keith Eric Livo, Joseph W. Boardman, Daniel P. Moriarty, Amanda R. Hendrix, Georgiana Kramer and Maria E. Banks
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引用次数: 0

摘要

Chandrayaan-1 号航天器上的月球矿物学成像仪(M3)提供了 85 个光谱波段 140 米像素-1 的近乎全球 0.5-3 微米成像光谱数据。目标位置的成像分辨率为 70 m 像素-1,光谱分辨率更高。通过这些数据可以详细了解月球表面暴露的矿物学、羟基和水特征。我们发现了多种过程的证据,包括可能的太阳风植入、在陨石坑事件中挖掘贫羟基和贫水物质、从深处挖掘羟基和富水物质,以及随岩石类型和纬度变化的全球趋势。一些富水区域与贫水岩石的边界很明显,但在富水岩石周围有一个羟基弥漫的光环,这表明可能是由于碎屑园化过程造成的水的风化破坏过程。特定矿物学绘图显示了 2.2 μm 附近的吸收证据,这可能与软泥有关,而 1.9 μm 附近的吸收则与水有关。月球漩涡被证实是贫羟基的,但我们也根据微弱的 1.9 μm 水带发现了漩涡是贫水的证据。一些漩涡显示出增强的辉石吸收。在稳定矿物中发现了 "昼夜 "特征。研究表明,辉石的波段深度随昼夜周期而发生强烈变化,这与太阳入射角直接相关,也与成分和/或晶粒大小随深度变化而变化相一致。对 M3 数据中铁氧化物(如赤铁矿和鹅铁矿)的存在进行测绘发现,由于仪器中的散射光,M3 数据中存在错误特征。
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The Global Distribution of Water and Hydroxyl on the Moon as Seen by the Moon Mineralogy Mapper (M3)
The Moon Mineralogy Mapper (M3) on the Chandrayaan-1 spacecraft provided nearly global 0.5–3 μm imaging-spectroscopy data at 140 m pixel–1 in 85 spectral bands. Targeted locations were imaged at 70 m pixel–1 and higher spectral resolution. These data enable a detailed look at the mineralogy, hydroxyl, and water signatures exposed on the lunar surface. We find evidence for multiple processes, including probable solar wind implantation, excavation of hydroxyl-poor and water-poor material in cratering events, excavation of hydroxyl and water-rich materials from depth and global trends with rock type and latitude. Some water-rich areas display sharp boundaries with water-poor rocks but have a diffuse halo of hydroxyl surrounding the water-rich rocks indicating a weathering process of destruction of water, probably due to a regolith gardening process. Mapping for specific mineralogy shows evidence for absorptions near 2.2 μm, probably associated with smectites, and near 1.9 μm due to water. Lunar swirls are confirmed to be OH-poor, but we also find evidence that swirls are water-poor based on a weak 1.9 μm water band. Some swirls show enhanced pyroxene absorption. “Diurnal” signatures are found with stable minerals. Pyroxene is shown to exhibit strong band depth changes with the diurnal cycle, which directly tracks the solar incidence angle and is consistent with changing composition and/or grain size with depth. Mapping of M3 data for the presence of iron oxides (e.g., hematite and goethite) is found to be a false signature in the M3 data due to scattered light in the instrument.
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来源期刊
The Planetary Science Journal
The Planetary Science Journal Earth and Planetary Sciences-Geophysics
CiteScore
5.20
自引率
0.00%
发文量
249
审稿时长
15 weeks
期刊最新文献
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