Youwei Chen, Jianfeng Gao, Xianwu Bi, Shaohua Dong, Quanliang Lei and Ruizhong Hu
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引用次数: 0
摘要
磷灰石通常被用作地球和行星科学中的示踪剂,利用其氧同位素和挥发性成分来阐明岩浆和地质流体的衍生和演变。虽然二次离子质谱法已被证明可有效确定磷灰石中的这些成分,但其挑战在于其相对较大的光斑尺寸(>20μm),以及从不同晶粒或域中获取氧同位素和挥发性数据。此外,挥发物的连续分析既耗时又受限于有限的数据,导致后续元素分析的不确定性增加。这阻碍了对地质事件的可靠解释以及对较小粒度磷灰石的测定。在本研究中,我们提出了一种横向高分辨率(约 7μm)方法,用于同时分析磷灰石的 O 同位素比值和挥发性(OH、F、Cl 和 S)成分。使用该方法对八种磷灰石标准物质进行分析,得出的结果与文献值一致,证明了该方法的可靠性和稳健性。这种创新方法不仅横向分辨率高,而且数据稳健性更强,为进一步的科学研究和分析奠定了坚实的基础。
Simultaneous determination of the oxygen isotope ratio and volatile composition of apatite with high lateral resolution via nano-secondary-ion mass spectrometry†
Apatite is commonly used as a tracer in Earth and planetary sciences by leveraging its oxygen isotopes and volatile compositions to elucidate the derivation and evolution of magma and geological fluids. While secondary-ion mass spectrometry has proven effective in determining these compositions in apatite, the challenge lies in its relatively large spot size (>20 μm), and obtaining O isotope and volatile data from different grains or domains by the current method. In addition, the sequential analysis of volatiles is both time-consuming and constrained by limited data, leading to increased uncertainties in subsequent elemental analysis. This hinders robust interpretations of geological events and the determination of smaller-grained apatite. In this study, we propose a high lateral resolution (∼7 μm) method for the simultaneous analysis of the O isotope ratio and volatile (OH, F, Cl, and S) composition of apatite. The analysis of the eight apatite standards using this method yields results that are consistent with literature values, demonstrating its reliability and robustness. This innovative approach stands out not only for its high lateral resolution and time efficiency but also for its enhanced data robustness, laying a solid foundation for further scientific investigation and analysis.