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月球要么很年轻,要么没有全球性岩浆海洋的年代证据。

Chronological evidence that the Moon is either young or did not have a global magma ocean.

机构信息

Chemical Sciences Division, Lawrence Livermore National Laboratory, 7000 East Avenue L-231, Livermore, California 94550, USA.

出版信息

Nature. 2011 Aug 17;477(7362):70-2. doi: 10.1038/nature10328.

DOI:10.1038/nature10328
PMID:21849974
Abstract

Chemical evolution of planetary bodies, ranging from asteroids to the large rocky planets, is thought to begin with differentiation through solidification of magma oceans many hundreds of kilometres in depth. The Earth's Moon is the archetypical example of this type of differentiation. Evidence for a lunar magma ocean is derived largely from the widespread distribution, compositional and mineralogical characteristics, and ancient ages inferred for the ferroan anorthosite (FAN) suite of lunar crustal rocks. The FANs are considered to be primary lunar flotation-cumulate crust that crystallized in the latter stages of magma ocean solidification. According to this theory, FANs represent the oldest lunar crustal rock type. Attempts to date this rock suite have yielded ambiguous results, however, because individual isochron measurements are typically incompatible with the geochemical make-up of the samples, and have not been confirmed by additional isotopic systems. By making improvements to the standard isotopic techniques, we report here the age of crystallization of FAN 60025 using the (207)Pb-(206)Pb, (147)Sm-(143)Nd and (146)Sm-(142)Nd isotopic systems to be 4,360 ± 3 million years. This extraordinarily young age requires that either the Moon solidified significantly later than most previous estimates or the long-held assumption that FANs are flotation cumulates of a primordial magma ocean is incorrect. If the latter is correct, then much of the lunar crust may have been produced by non-magma-ocean processes, such as serial magmatism.

摘要

行星体的化学演化,从小行星到大型岩石行星,被认为始于通过深度达数百公里的岩浆海洋的固化进行分化。月球就是这种分化类型的典型例子。月球岩浆海洋的证据主要来源于广泛分布的、组成和矿物学特征以及推断的古老年龄,这些都指向了富铁斜长岩(FAN)系列的月球地壳岩石。FANs 被认为是在岩浆海洋固化后期结晶的原始月球浮岩-堆积地壳。根据这一理论,FANs 代表了最古老的月球地壳岩石类型。然而,对该岩石套的定年尝试得到了模棱两可的结果,因为单个等时线测量通常与样品的地球化学组成不兼容,并且尚未得到其他同位素系统的证实。通过改进标准同位素技术,我们在这里报告了 FAN 60025 的结晶年龄,使用 (207)Pb-(206)Pb、(147)Sm-(143)Nd 和 (146)Sm-(142)Nd 同位素系统,结果为 4360 ± 3 百万年。这个极其年轻的年龄表明,要么月球的固化时间比之前大多数估计的时间晚得多,要么长期以来关于 FANs 是原始岩浆海洋的浮岩堆积的假设是不正确的。如果后者是正确的,那么月球的大部分地壳可能是由非岩浆海洋过程产生的,例如连续的岩浆作用。

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