- 姓名: 鮮海洋
- 性別: 男
- 職務(wù):
- 職稱: 副研究員
- 學歷: 博士研究生
- 電子郵件: xianhaiyang@gig.ac.cn
鮮海洋,副研究員,碩士生導師。2012年和2015年于西南科技大學分別獲學士和碩士學位,2018年獲中國科學院大學博士學位。現(xiàn)任中國礦物巖石地球化學學會礦物物理礦物結(jié)構(gòu)專業(yè)委員會秘書、隕石及天體化學專業(yè)委員會委員、新礦物及礦物命名專業(yè)委員會委員,《地球化學》和《礦物巖石地球化學通報》期刊青年編委。主要以電子顯微術(shù)等先進實驗手段與密度泛函理論等模擬計算方法相結(jié)合,研究礦物結(jié)構(gòu)與礦物表/界面的微觀反應(yīng)機制、礦物表/界面反應(yīng)的成礦作用和行星演化環(huán)境效應(yīng)。
簡 歷:
社會任職:
1. 月球與行星礦物學
2. 礦物結(jié)構(gòu)的電子顯微表征技術(shù)
研究方向:
1. 中國科學院廣州分院年度優(yōu)秀青年科技工作者(2024年)
2. 中國科學院青年創(chuàng)新促進會會員(2021353)
3. 中國科學院廣州地化所涂光熾優(yōu)秀青年學者A類(2020年)
4. 廣東省100位博士博士后創(chuàng)新人物(2019年)
獲獎及榮譽:
2025
1. He Z.,?Xian H.*, Zhu J., Liang X. and He H. (2025) Revealing the reaction pathways of reactive oxygen species anaerobic generation at pyrite-water interface using the ReaxFF force field.?Geochimica et Cosmochimica Acta. doi:?10.1016/j.gca.2025.11.018.
2.?Xian H., Li S., Yang Y., Zhu J.*, Lin X., Xi J., Yang W., Xiao Y., Cao Y., Zhao C., Zhang M., Zhang L., Zhang Y., Tsuchiyama A., Lin M., He H. and Xu Y.-G. (2025) Highly oxidized exogenous materials in Chang’e 6 sample returned from the lunar farside South Pole-Aitken basin.?Earth and Planetary Science Letters?668, 119556.
3. Li S., Wen K., Yang Y., Lin X., Cao Y., Xiao Y.,?Xian H.*, Zhu J. and He H. (2025) Quantification of ferric iron content in minerals via the STEM-EELS-mapping method.?J. Anal. At. Spectrom. 40, 1954–1963.
4. Yang H.,?Xian H.*, Zhu J., Wu X., Li S., Lin X., Xi J., Yang Y. and He H. (2025) Impact-induced fayalite glass from Chang’e-5 regolith revealed by electron pair distribution function and ReaxFF molecular dynamics.?Icarus?438, 116643.
5. Lin J.,?Xian H.*, Yang Y., Li S., Xi J., Lin X., Xiao Y., Chen S., Zhao C., Zhang M., Tsuchiyama A., Zhu J.*, He H. and Xu Y.-G. (2025) Differences in space weathering between the near and far side of the Moon: evidence from Chang’e-6 samples.?National Science Review?12, nwaf087.
2024
6. He Z.,?Xian H.*, Xu L., Zhu J., Lin M., Liang X. and He H. (2024) Modified spectrophotometry for micromolar H2O2?determination in iron-containing solutions with leuco crystal violet under both aerobic and anaerobic conditions.?Anal. Methods?16, 7460–7467.
7.?Xian H., Zhu J.*, Yang Y., Li S., Xi J., Lin X., Xing J., Wu X., Yang H., He H. and Xu Y. (2024) Formation of nanophase metallic iron through charge disproportionation of ferrous iron during micrometeoroid impact‐induced splash melting.?Meteorit & Planetary Scien?59, 1692–1704.
8.?楊宜坪,?林梟舉,?鮮海洋*,?陳生東,?袁玉環(huán),?席佳鑫,?朱建喜,?何宏平?(2024)?三維電子衍射:納米礦物晶體結(jié)構(gòu)分析的變革性技術(shù).?礦物學報, 1–14.
2023
9.?Xian H., Zhu J., Yang Y., Li S., Lin X., Xi J., Xing J., Wu X., Yang H., Zhou Q., Tsuchiyama A., He H.* and Xu Y.-G.* (2023) Ubiquitous and progressively increasing ferric iron content on the lunar surfaces revealed by the Chang’e-5 sample.?Nat Astron?7, 280–286.
10.?Xian H., Yang Y., Zhu J.*, Lin X., Liang X., Zhu R. and He H. (2023) Surface-dependent generation of reactive oxygen species at pyrite–water interface.?AIP Advances?13, 115229.
2022
11.?Xian H., He H.*, Zhu J., Qiu K., Li Y., Yang Y., Xing J., Tan W., Tsuchiyama A., Yastake M., Enju S., Miyake A. and Zhu R. (2022) Hyperenrichment of gold in pyrite induced by solid-state transportation.?Commun Earth Environ?3, 1–6.
12.?Xian H., Yang Y., Li S., Zhu J.*, Li R., Xing J., Xi J., Yang H., Lin X., Wu X. and He H. (2022) Three-dimensional Analyses of Geological Materials on Nanoscale by Electron Tomography.?Atom. Spectrosc. 43, 272–283.
13. Tang H., Wu X., Yang Y.,?Xian H.*, Zhu J., Fan M., Xi X., Wei J., Du R., Liu H. and Zhu R. (2022) Site-specific interactions enhanced dissolution of natural aragonite (110) surfaces in succinic acid (SUC) solutions: Implications for the oceanic aragonite dissolution fluxes.?Geochimica et Cosmochimica Acta?319, 135–150.
14.?何昭露,?杜潤香,?鮮海洋*,?林梟舉,?吳逍,?朱建喜,?何宏平?(2022)?無氧條件下黃鐵礦表面的羥基化與自氧化.?地球化學?51, 283–293.
15.?唐紅梅,?鮮海洋*,?朱建喜,?李琴,?黎建剛,?黃振雄?(2022)?文石與方解石在含Cu2+溶液中的界面溶解—再沉淀.?地球化學?51, 251–260.
2021
16. Du R.,?Xian H.*, Wu X., Zhu J., Wei J., Xing J., Tan W. and He H. (2021) Morphology dominated rapid oxidation of framboidal pyrite.?Geochem. Persp. Let.?16, 53–58.
17.?Xian H., Wu X., Zhu J.*, Du R., Wei J., Zhu R. and He H. (2021) Environmental-sulfur-controlled surface properties of pyrite: a first principles PBE + U study.?Phys Chem Minerals?48, 20.
2021以前
18. Tang H., Wu X.,?Xian H.*, Zhu J., Wei J., Liu H. and He H. (2020) Heterogeneous Nucleation and Growth of CaCO3?on Calcite (104) and Aragonite (110) Surfaces: Implications for the Formation of Abiogenic Carbonate Cements in the Ocean.?Minerals?10, 294.
19. Tang H.,?Xian H.*, He H., Wei J., Liu H., Zhu J. and Zhu R. (2019) Kinetics and mechanisms of the interaction between the calcite (10.4) surface and Cu2+-bearing solutions.?Science of The Total Environment?668, 602–616.
20.?Xian H., He H., Zhu J., Du R., Wu X., Tang H., Tan W., Liang X., Zhu R. and Teng H. H. (2019) Crystal habit-directed gold deposition on pyrite: Surface chemical interpretation of the pyrite morphology indicative of gold enrichment.?Geochim. Cosmochim. Acta?264, 191–204.
21.?Xian H., Zhu J.*, Tan W., Tang H., Liu P., Zhu R., Liang X., Wei J., He H. and Teng H. H. (2019) The mechanism of defect induced hydroxylation on pyrite surfaces and implications for hydroxyl radical generation in prebiotic chemistry.?Geochim. Cosmochim. Acta?244, 163–172.
22.?Xian H., Du R., Zhu J.*, Chen M., Tan W., Zhu R., Wei J. and He H. (2018) Hydration induced bandgap shift at pyrite-water interface.?Applied Physics Letters?113, 123901.
23.?Xian H., Zhu J.*, Liang X. and He H. (2016) Morphology controllable syntheses of micro-and nano-iron pyrite mono-and poly-crystals: a review.?RSC Advances?6, 31988–31999.
24.?Xian H., Zhu J.*, Tang H., Liang X., He H. and Xi Y. (2016) Aggregative growth of quasi-octahedral iron pyrite mesocrystals in a polyol solution through oriented attachment.?CrystEngComm?18, 8823–8828.
代表論著:
[1] ?國家自然科學基金青年科學基金項目B類,42522801,月球礦物化學,2026.01-2028.12,200萬元,主持,在研
[2] ?中國科學院戰(zhàn)略性先導科技專項(B類)“深地揮發(fā)份循環(huán)的成礦驅(qū)動機制及資源效應(yīng)”之課題:深地納米礦物晶體結(jié)構(gòu)快速解析儀器研制,XDB0840103,2024.6-2029.5,853萬元,主持,在研
[3] ?中國科學院院長基金課題,QYJ-2025-01,嫦娥六號月球樣品巖石礦物學與物質(zhì)成分,2025.01-2027.12,280萬元,主持,在研
[4] ?國家自然科學基金重大研究計劃培育項目,92579103,揮發(fā)份在深地礦物晶格賦存狀態(tài)的三維電子衍射表征,2026.01-2028.12,80萬元,主持,在研
[5] ?廣東省基礎(chǔ)與應(yīng)用基礎(chǔ)研究基金杰出青年項目:黃鐵礦中“不可見”金的原子尺度賦存狀態(tài)與可利用性,2022.01-2025.12,100萬元,主持,在研
[6] ?國家自然科學基金青年科學基金項目,42102028;環(huán)境氧濃度對黃鐵礦-水界面產(chǎn)生活性氧的制約,2022.01-2024.12,30萬元,主持,結(jié)題
[7] ?中國科學院青年創(chuàng)新促進會人才項目,2021.01-2024.12,80萬元,主持,完成
[8] ?國家自然科學基金專項項目,42241127,嫦娥五號月海玄武巖沖擊變質(zhì)特征的晶體結(jié)構(gòu)與取向記錄,2023.01-2023.12,25萬元,主持,結(jié)題
[9] ?廣州市科技計劃項目,2022.04-2024.03,卡林型金礦含砷黃鐵礦中金賦存狀態(tài)的電子斷層三維重構(gòu)(項目編號:202201010385),5萬元,主持,結(jié)題
[10] ?國家重點研發(fā)計劃課題:成礦關(guān)鍵元素賦存狀態(tài)及成礦實驗與模擬,2019.09-2024.02,528萬元,參加,結(jié)題
[11] ?國家自然科學基金重大研究計劃重點支持項目:鎂鐵-超鎂鐵質(zhì)巖中鉑族元素和鈷的賦存狀態(tài)研究,2020.01-2023.12,313萬元,參加,結(jié)題
[12] ?中國博士后科學基金面上二等資助項目:黃鐵礦/水界面電子結(jié)構(gòu)對其氧化還原反應(yīng)性的制約機制,2018.09-2020.07,5萬元,主持,結(jié)題
[13] ?中國博士后科學基金特別資助(站中)項目:表面位點電子結(jié)構(gòu)對水在黃鐵礦表面反應(yīng)行為的制約機制,2019.04-2020.07,18萬元,主持,結(jié)題
[14] ?廣東省基礎(chǔ)與應(yīng)用基礎(chǔ)研究基金面上項目:Au、As元素在黃鐵礦中晶格占位及電子結(jié)構(gòu),2019.10-2022.09,10萬元,主持,結(jié)題
[15] ?中國科學院廣州地球化學研究所“涂光熾優(yōu)秀青年學者計劃”A類人才項目,2020.08-2023.07,100萬元,主持,結(jié)題

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