Review of melt inclusions in lunar rocks: constraints on melt and mantle composition and magmatic processes

Youxue Zhang
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Abstract

Abstract. Mineral-hosted melt inclusions provide a window into magmatic processes and pre-eruptive liquid compositions. Because melt inclusions are small (typically < 100 µm), the study of lunar melt inclusions is enabled by advancements of microbeam instrumental techniques. In the 1970s immediately following the Apollo and Luna missions, major and minor oxide concentrations of lunar melt inclusions were measured using electron microprobes. The data were used to understand magma evolution, and they revealed the immiscibility of two silicate liquids in the late stage of lunar magma evolution. More recently, the development of secondary ion mass spectrometry as well as laser ablation–inductively coupled plasma–mass spectrometry has enabled the measurement of key volatile elements and other trace elements in lunar melt inclusions, down to about the 0.1 ppm level. The applications of these instruments have ushered in a new wave of lunar melt inclusion studies. Recent advances have gone hand in hand with improved understanding of post-entrapment loss of volatiles. These studies have provided deep insights into pre-eruptive volatiles in lunar basalts, the abundance of volatiles in the lunar mantle, the isotopic ratios of some volatile elements, and the partition of trace elements between host olivine and melt inclusions. The recent studies of lunar melt inclusions have played a critical role in establishing a new paradigm of a fairly wet Moon with about 100 ppm H2O in the bulk silicate Moon (rather than a “bone-dry” Moon) and have been instrumental in developing an improved understanding of the origin and evolution of the Moon.
审查月球岩石中的熔融包裹体:对熔体和地幔成分及岩浆过程的约束
摘要。矿物包裹体为了解岩浆过程和爆发前的液体成分提供了一个窗口。由于熔融包裹体很小(通常小于 100 微米),微束仪器技术的进步使得对月球熔融包裹体的研究成为可能。20 世纪 70 年代,紧随阿波罗和月球任务之后,利用电子微探针测量了月球熔融包裹体的主要和次要氧化物浓度。这些数据被用来了解岩浆的演化,它们揭示了在月球岩浆演化的后期阶段两种硅酸盐液体的不可溶性。最近,二次离子质谱仪以及激光烧蚀-电感耦合等离子体质谱仪的发展,使得对月球熔融包裹体中的关键挥发性元素和其他微量元素的测量能够达到约百万分之 0.1 的水平。这些仪器的应用掀起了月球熔融包裹体研究的新浪潮。在取得最新进展的同时,人们对挥发物在进入月球后的损失也有了更深入的了解。这些研究深入了解了月球玄武岩爆发前的挥发物、月球地幔中挥发物的丰度、某些挥发元素的同位素比值以及微量元素在主橄榄石和熔融包裹体之间的分配情况。最近对月球熔融包裹体的研究在建立一种新的范式方面发挥了关键作用,这种范式认为月球是一个相当湿润的月球,在大块硅酸盐月球(而不是一个 "干得要命 "的月球)中含有大约百万分之 100 的 H2O。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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