本实验室主要进行的分析测试工作参考设备介绍，以下为实验条件说明及主要论著及方法：

电子显微镜实验室：Electron Microscopy Laboratory, Institute of Geology and Geophysics, Chinese Academy of Sciences (IGGCAS)

备注：仪器测试分析条件仅供参考，方法引用可参考列表文章，注意避免雷同。

1. 聚焦离子束显微镜（FIB-SEM）

　　节选自（Lixin Gu , GRL, 2022）供参考：Two ultra-thin foils (～100 nm in thickness) were prepared using the Zeiss Auriga Compact FIB-SEM at IGGCAS. Ion beam conditions for milling and final polishing were 5–30 kV high voltage with various beam currents (20 pA–4 nA).

2. 透射电子显微镜（TEM）

　　The TEM bright-field(BF)/dark-field(DF) imaging, selected area electron diffraction (SAED) and high-resolution transmission electron microscopy (HRTEM) imaging were carried out using a JEOL JEM-2100 TEM operated at 200 kV, electron beam generated from a LaB6 gun at the Institute of Geology and Geophysics, Chinese academy of sciences (IGGCAS).

3. 扫描电镜（SEM）

　　普通SEM拍照可以看图像底部的使用条件。

　　如果做矿物分析可引用（Lixin Gu , American Mineralogist, 2022）供参考：Mineral assemblages and mineral distribution features of samples were conducted using the Thermofisher Apreo field emission scanning electron microscope (FE-SEM) equipped with a Bruker XFlash 60 energy dispersive spectrometer (EDS) detector utilizing the MAPS-Naomin automated mineralogy software at IGGCAS (Gu et al., 2022). The instrument was operated at a accelerating voltage of 25 kV with beam current of 13 nA. X-ray for mineral analyses was collected with a step size of 15 μm and a dwell time of 8 ms.

4. X射线显微镜（SEM）

　　节选自（Jin-HuaLi, Geoscience Frontiers, 2022）供参考：All the scanning μXRF element mapping experiments were performed with an X-ray tube energy of 50 kV and a current of 600 μA, with 40 ms per pixel spectrum acquisition time and a pixel step-size of 9 μm. Data analyses including obtaining elemental maps on all objects and XRF spectrum from each object or region of interest were undertaken with the characterization software provided by Bruker Micro Analytics.（更多详情请参考列表相关文章）

5. 关于致谢(Acknowledge)

　　(1) 凡出自本实验室的实验数据发表的文章，请务必按照规范在方法或致谢中提及相应的设备和技术人员的支撑工作(仅便于仪器的成果统计)。

　　举例：We thank XXX at the Electron Microscopy Laboratory, Institute of Geology and Geophysics, Chinese Academy of Sciences (EML, IGGCAS), for their efforts to maintain operation in FIB-SEM /(&) TEM experiments.

6. 关于挂名(Co-Author)

　　对文章挂名不做要求。测试者可根据技术人员的贡献，自行选择。由本室实验数据产出的成果越多，实验会予以优先安排。

7. 部分文章列表

　　实验室成果：
　　（1）Li J H, Li Q L, Zhao L, et al. Rapid screening of Zr-containing particles from Chang’e-5 lunar soil samples for isotope geochronology: Technical roadmap for future study. Geoscience Frontiers, 2022, 13(3): 101367.（月壤单颗粒研究）
　　（2）Li J, Liu P, Menguy N, et al. Identification of sulfate‐reducing magnetotactic bacteria via a group‐specific 16S rDNA primer and correlative fluorescence and electron microscopy: Strategy for culture‐independent study[J]. Environmental Microbiology, 2022.（趋磁细菌研究策略）
　　（3）Lixin Gu, Yongjin Chen, Yuchen Xu, Xu Tang, Yangting Lin, Takaaki Noguchi, Jinhua Li, 2022, Space Weathering of the Chang'e‐5 Lunar Sample From a Mid‐High Latitude Region on the Moon. Geophysical Research Letters, 2022, 49(7): e2022GL097875.（FIB-TEM）
　　（4）Lixin Gu, Sen Hu, Mahesh Anand, Xu Tang, Jianglong Ji, Bin Zhang, Nian Wang, Yangting Lin, 2022, Occurrence of tuite and ahrensite in Zagami and their significance for shock-histories recorded in Martian meteorites. American mineralogist, 107(6): 1018-1029.（FIB-TEM及自动矿物分析）
　　（5）Xu Tang, Qiu-Li Li, Bin Zhang, Peng Wang, Li-Xin Gu, Xiao-Xiao Ling, Chen-Hui Fei, Jin-Hua Li. 2020.The Chemical State and Occupancy of Radiogenic Pb, and Crystallinity of RW-1 Monazite Revealed by XPS and TEM. Minerals.10:504. （FIB-TEM）
　　（6）Lixin Gu, Bin Zhang, Sen Hu, Takaaki Noguchi, Hiroshi Hidaka, Yangting Lin, The Discovery of Silicon Oxide Nanoparticles in Space-weathered of Apollo 15 Lunar Soil Grains, Icarus, 303 (2018) 47–52.（FIB-TEM）
　　（7）Xu Tang, Li Xin Gu, Qiu Li Li, Zhong Ming Du, Sai Hong Yang, Lian Jun Feng, Jin Hua Li. An apparatus for plasma cleaning and storage of transmission electron microscopy specimens and specimen holders. Microscopy Research and Technique, 2022: 1-10.（TEM）
　　（8）Yan Liu, Chaoqun Zhang, Di Zhang,d Tong Liu,d Hao Qiu, Qiu-Li Li, and Jin-Hua Li, Non-destructive Micro X-ray Fluorescence Quantitative Analysis of Geological Materials, Atomic Spectroscopy, 2022, 43 (05).（XRF）
　　（9）Chaoqun Zhang and Jin-Hua Li, Non-destructive Identification and quantification of Ilmenite from a Single Particle of the Chang’E-5 Lunar Soil Sample, Atomic Spectroscopy, 2022, 43 (4), 284-291.（XRF）
　　（10）Jinhua Li, Rui Pei, Fangfang Teng, Hao Qiu, Roald Tagle, Qiqi Yan, Qiang Wang, Xuelei Chu, and Xing Xu, Micro-XRF Study of the Troodontid Dinosaur Jianianhualong Tengi Reveals New Biological and Taphonomical Signals, Atomic Spectroscopy, 2021, 42 (1), 1-11.（XRF）
　　（11）唐旭，李金华. 透射电子显微镜技术新进展及其在地球和行星科学研究中的应用. 地球科学. 2021. 46(4): 1374-1415.（TEM）
　　（12）李金华, 潘永信. 透射电子显微镜在地球科学研究中的应用. 中国科学: 地球科学, 2015, 45(9): 1359-1382.（TEM）
　　（13）谷立新, 李金华. 聚焦离子束显微镜技术及其在地球和行星科学研究中的应用. 矿物岩石地球化学通报, 2020, 39(6): 1119-1140.（FIB-SEM）

　　部分合作成果：
　　（1） Li Q L, Zhou Q, Liu Y, et al. Two-billion-year-old volcanism on the Moon from Chang’e-5 basalts. Nature. 2021. 600: 54-58.（行星科学）
　　（2）Hu S, He H, Ji J, et al. A dry lunar mantle reservoir for young mare basalts of Chang’e-5. Nature. 600: 49-53.（行星科学）
　　（3）Liu C, Tang X, Cheng L, et al. The characterization of corrosion layers of GH3535 and Inconel 625 alloys in molten KNO3-NaNO3 salts at 500 °C. Corrosion Science. 2022. 204: 110406.（材料科学）
　　（4）Cai Y, Wang Y, Xu H, et al. Positive magnetic resonance angiography using ultrafine ferritin-based iron oxide nanoparticles. Nanoscale, 2019. 11(6): 2644-2654. （生物地磁）
　　（6）Yang J, Zhang C, Miyahara M, et al. Evidence for early impact on a hot differentiated planetesimal from Al-rich micro-inclusions in ungrouped achondrite Northwest Africa 7325. Geochimica et Cosmochimica Acta. 2019. 258: 310-335.（行星科学）
　　（7）Jiang X D, Zhao X, Chou Y M, et al. Characterization and quantification of magnetofossils within abyssal manganese nodules from the western Pacific Ocean and implications for nodule formation. Geochemistry, Geophysics, Geosystems. 2020. 21: e2019GC008811.（生物地磁）
　　（8）Guo S, Hermann J, Tang P, et al. Formation of carbon-bearing silicate melts by melt-metacarbonate interaction at convergent plate margins. Earth and Planetary Science Letters, 2022, 597: 117816. （地质学）
　　（9）Liu X, Su B X, Bai Y, et al. Genesis of “silicate exsolution lamellae” in chromite of the Stillwater Complex: A challenge to the high-pressure crystallization of ophiolitic chromitite. Lithos. (2020)378–379: 105796.（地质学）