在月球背面发现柯斯岩

IF 4 1区 地球科学 Q1 GEOCHEMISTRY & GEOPHYSICS
Zhan Zhou, Sen Hu, Huicun He, Yubing Gao, Linxi Li, Liang Gao, Mengfan Qiu, Disheng Zhou, Huanxin Liu, Zhihu Ye, Xu Tang, Lixin Gu, Xiaoguang Li, Wei Yang, Yangting Lin, Xian-Hua Li, Fu-Yuan Wu
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引用次数: 0

摘要

月球受到了高度的冲击,其表面有许多撞击坑。高压矿物有望在这些冲击事件中形成,并可用于揭示冲击事件的压力和温度条件。然而,在月球返回的样本中很少有高压矿物的报道,这与预测存在差异。“嫦娥六号”从南极-艾特肯盆地带回的月球土壤为研究月球样品的冲击变质作用和月球上的冲击事件提供了新的机会。在这里,我们报道了在CE6海玄武岩的冲击诱导熔袋中发现了钴矿,该玄武岩可能经历了峰值压力为~ 24 GPa的冲击事件。该硅矿有两种类型的赋存,一种是位于中心的多晶聚集体,另一种是沿硅屑边缘的环状物。该硅矿可能是由固态转变形成的,然后在减压过程中部分转化为硅玻璃。与大多数高压矿物相比,该矿具有较高的生存温度和较慢的反转化速率,有利于其在撞击诱发的月球土壤高温条件下保存。这些发现为自然冲击事件中岩石的保存提供了新的见解,并表明在月球样本中可能形成并保存了比以前认为的更多的耐热高压矿物,为研究月球冲击事件提供了新的目标。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Discovery of Coesite on the Lunar Farside

Discovery of Coesite on the Lunar Farside

Discovery of Coesite on the Lunar Farside

Discovery of Coesite on the Lunar Farside

The Moon has been highly shocked as evidenced by numerous impact craters on its surface. High-pressure minerals are expected to form during these shock events and can be used to unravel the pressure and temperature conditions for the shock events. However, high-pressure minerals are rarely reported in the lunar returned samples, yielding a discrepancy with the prediction. The lunar soils returned by the Chang'e-6 (CE6) mission from the South Pole-Aitken (SPA) basin provide new opportunities to investigate the shock metamorphism of the lunar samples and the shock events on the Moon. Here, we reported the discovery of coesite in a shock-induced melt pocket from a CE6 mare basalt, which could have experienced a shock event with a peak pressure of ∼24 GPa. The coesite exhibits two types of occurrences, a polycrystalline aggregate in the center and a ring along the margin of a silica clast. The coesite could have been formed by solid-state transformation followed by partial conversion to silica glass during decompression. The coesite has a higher survival temperature and a slower back-transformation rate than most other high-pressure minerals, which are favorable for its preservation under high-temperature conditions of lunar soils induced by impacts. These findings provide new insights for the preservation of coesite in natural shock events and indicate that more thermal-resistant high-pressure minerals could have been formed and preserved in lunar samples than previously thought, providing new targets for studying the shock events on the Moon.

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来源期刊
Journal of Geophysical Research: Planets
Journal of Geophysical Research: Planets Earth and Planetary Sciences-Earth and Planetary Sciences (miscellaneous)
CiteScore
8.00
自引率
27.10%
发文量
254
期刊介绍: The Journal of Geophysical Research Planets is dedicated to the publication of new and original research in the broad field of planetary science. Manuscripts concerning planetary geology, geophysics, geochemistry, atmospheres, and dynamics are appropriate for the journal when they increase knowledge about the processes that affect Solar System objects. Manuscripts concerning other planetary systems, exoplanets or Earth are welcome when presented in a comparative planetology perspective. Studies in the field of astrobiology will be considered when they have immediate consequences for the interpretation of planetary data. JGR: Planets does not publish manuscripts that deal with future missions and instrumentation, nor those that are primarily of an engineering interest. Instrument, calibration or data processing papers may be appropriate for the journal, but only when accompanied by scientific analysis and interpretation that increases understanding of the studied object. A manuscript that describes a new method or technique would be acceptable for JGR: Planets if it contained new and relevant scientific results obtained using the method. Review articles are generally not appropriate for JGR: Planets, but they may be considered if they form an integral part of a special issue.
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