代表性论文

[1]   W. Li, D. Xie*, T. Pan, C. Fan, F. Xi, Y. Jia, Z. Shan*. Defect-suppressed extrusion of high-purity magnesium: A processing–structure–defect framework for biodegradable implants, Journal of Magnesium and Alloys  (2026) 102189.

[2]   L. Bai, L. Huang, Y. Ma, D. Xie*, Z. Shan. Orientation-Dependent Thermal Morphological Evolution of alpha-Fe Nanopillars, Nano Lett. 26 (2026) 8551-8558.

[3]   Y. Yang, D. Xie*, S. Shinzato, Z. Nie, X. Wang, S. Sun, W. Zhang, J. Chen, H. Ye, J. Huang, E. Ma, S. Ogata, J. Li, Z. Shan. Interfacial Plating Driving Convection-Like Motion of a Sandwiched Nanocrystal, Small n/a (2026) e12375.

[4]   Y. Li, L. Xia, N. Li, J. Wang, S. Tang, Y. Ge, B. Xiao, D. Xie*, Y. Cheng, Z.W. Shan, F. Djurabekova*, G. Meng*. Unveiling electric-field-driven deformation dynamics in metal nanostructures, Nat Commun 16 (2025) 11575.

[5]   T. Li, X. Dai, J. Su, D. Xie*. Hydrogen plasma-induced blistering on aluminum: morphology, growth, and interfacial energetics, Scripta Materialia 272 (2026).

[6]   X.-Y. Peng, D.-G. Xie*, L. Cai, S.-C. Zheng, K.-X. Feng, R.-C. Zeng, Z.-W. Shan*. Effect of manganese content on the corrosion resistance of AZ31 Mg alloys fabricated from high-purity magnesium, Acta Mater. 301 (2025).

[7]   X.-Y. Peng, D.-G. Xie, L.-Q. Bai, Z. Liu, Z.-W. Shan. Enhanced corrosion resistance of AZ31 magnesium alloys through the use of high-purity raw magnesium, Journal of Magnesium and Alloys  (2024).

[8]   D. Xie*, R. Zhang, X. Dai, Z. Nie, X. Wang, E. Ma, J. Li, Z. Shan. Long-distance interface diffusion induced non-volume-conserved deformation in self-supported submicron-sized aluminum pillars, Acta Mater. 255 (2023) 119092.

[9]   Longchao. Huang#, Dengke. Chen#, Degang. Xie*, Suzhi. Li, Ying. Zhang, Ting. Zhu, Dierk. Raabe, En. Ma, Ju. Li, Zhiwei. Shan*. Quantitative tests revealing hydrogen-enhanced dislocation motion in α-iron, Nat. Mater. 22 (2023) 710-716.

[10]           Nie Z-Y, Sato Y, Ogata S, Duarte MJ, Dehm G, Li J, Ma E, Xie D-G*, Shan Z-W. Ultralong one-dimensional plastic zone created in aluminum underneath a nanoscale indent. Acta Mater. 2022;232:117944.

[11]           Xie, D.-G., L. Wan, and Z.-W. Shan, Hydrogen enhanced cracking via dynamic formation of grain boundary inside aluminium crystal. Corrosion Science, 2021. 183: p. 109307.

[12]           Qin, Y., Z. Nie, C. Ma, L. Huang, Y. Yang, Q. Fu, W. He, and D. Xie*, Simple nanoindentation-based method for determining linear thermal expansion coefficients of micro-scale materials. Journal of Materials Research, 2020. 35(23): p. 3202-3209.

[13]           Xie, D.-G., Zhang, R.-R., Nie, Z.-Y., Li, J., Ma, E., Li, J. & Shan, Z.-W. Deformation mechanism maps for sub-micron sized aluminum. Acta Mater. 2020. 188: p. 570-578.

[14]           Xie D-G, Nie Z-Y, Shinzato S, Yang Y-Q, Liu F-X, Ogata S, Li J, Ma E, Shan Z-W. Controlled growth of single-crystalline metal nanowires via thermomigration across a nanoscale junction. Nature Communications, 2019, 10 (1)4478.

[15]           解德刚, 李蒙, 单智伟. 氢与金属的微观交互作用研究进展. 中国材料进展 【特约专栏】 37, 055-063 (2018).

[16]           Li M, Xie D-G, Ma E, Li J, Zhang X-X, Shan Z-W. Effect of hydrogen on the integrity of aluminium–oxide interface at elevated temperatures. Nature Communications 8, 14564 (2017).

[17]           Xie D, et al. Hydrogenated vacancies lock dislocations in aluminium. Nature Communications 7, 13341 (2016). (IDS：EB2CY）

[18]           Xie D, Wang Z, Sun J, et al. In situ study of the initiation of hydrogen bubbles at the aluminium metal/oxide interface[J]. Nature Materials, 2015, 14 (9): 899-903. (IDS：CP9CT)

[19]           Zhang LQ*, Wang YC*, Xie DG*, et al. In situ transmission electron microscopy study of the electrochemical sodiation process for a single CuO nanowire electrode[J]. RSC Advances, 2016, 6 (14): 11441-11445.

[20]           Wang Y, Xie D, Ning X, et al. Thermal treatment-induced ductile-to-brittle transition of submicron-sized Si pillars fabricated by focused ion beam[J]. Applied Physics Letters, 2015, 106 (8): 081905.

[21]           Xie D, Li W. A novel simple approach to preparation of superhydrophobic surfaces of aluminum alloys[J]. Applied Surface Science, 2011, 258 (3): 1004-1007.

部分会议报告

[1]   Hydrogen effects on dislocation motion revealed by in-situ environmental TEM tests, the 5^th International Conference on Metals and Hydrogen, 14-16 Oct, 2025, Gent, Belgium

[2]   Hydrogen-dislocation interaction in Al and Fe revealed by in-situ quantitative environmental TEM tests，MSE2024, 24-26 Sep, 2024, Darmstadt, Germany (Keynote Lecture, 40 min)

[3]   In situ quantitative environmental TEM tests on hydrogen-dislocation interaction in Al and Fe, The 20th International Microscopyh Congress, 10-15 September, 2023, Busan, Korea (Invited Speaker)

[4]   In situ study of hydrogen-induced cavity/blister nucleation and growth at metal/oxide interface, The 20th International Microscopyh Congress, 10-15 September, 2023, Busan, Korea (Invited Speaker) 

[5]   铝在微纳米尺度的高温变形行为，中国微米纳米技术学会微纳结构表征创新论坛（2023），2023年7月24日-26日，兰州（邀请报告）

[6]   用环境透射电镜原位定量研究氢对金属位错行为的影响，中国材料大会2022-2023，2023年7月7-10日，深圳。（邀请报告）

[7]   Hydrogen-dislocation interactions in Al and Fe revealed by in situ ETEM quantitative tests，第六届材料微结构与性能学术会议，2023年5月19-21日，杭州（邀请报告）

[8]   Hydrogen-dislocation interactiona in Al and Fe Rrevealed by in situ ETEM quantitative tests, 2023 International Workshop on Materials Behavior at Micro- and Nano-Scale, May 9-12, 2023, Xi’an

[9]   In-situ electron microscopy for hydrogen effect on dislocation motion and cracking in metals，第三届汽车EVI及高强度钢氢脆国际会议，2023年4月19日-21，重庆（邀请报告）

[10]           Environmental Attack in Metals Revealed by in Situ ETEM, The 10th Pacific Rim International Conference on Advanced Materials and Processing (PRICM10), August 18-22, 2019 in Xi'an. (邀请报告)

[11]           Thermomechanical and Chemomechanical Tests at Nanoscale，2019年第10届纳米力学年度应用技术研讨会，2019年8月13日，西安

[12]           Hydrogen-dislocation interaction in Al and Fe revisited by quantitative mechanical tests inside TEM, TMS2019,10-14 Mar 2019, San Antonio (邀请报告)

[13]           Deformation mechanism maps for submicron aluminum at elevated temperatures, TMS2019,10-14 Mar 2019, San Antonio

[14]           New insights into thermomechanical and chemomechanical problems via in situ quantitative nanomechanical TEM，NTNU, invited by Prof. Afrooz Barnoush, 7 June 2018, Trondheim, Norway

[15]           “Thermomechanical and Chemomechanical Experiments by in situ TEM: a Case Study on Hydrogen Embrittlement/Damage”, Oxford University, invited by Prof. Sergio Lozano-Perez, 25 May, 2018, Oxford, UK

[16]           “The role of hydrogenated vacancies on modulus, dislocation behavior and interfacial damage in pure aluminum”, 3^rd International Conference on Metals & Hydrogen, 29-31 May 2018, Ghent, Belgium

[17]           “用环境透射电子显微镜原位研究氢和位错及界面的交互作用”， 第一届中国汽车EVI及高强度钢氢致延迟断裂会议，12月14-15日，2017，北京（邀请报告）

[18]    “用环境透射电镜原位研究金属铝中氢与界面以及位错的交互作用”，北京科技大学，11月1日，2017，北京

[19]           “环境透射电镜在氢脆和氢损伤的微观机理研究中的应用”，全国腐蚀大会，10月18-20日，2017，青岛（讲座报告）

[20]    “用环境透射电镜研究金属铝中氢与界面以及位错的交互作用”，中国有色金属学会青年科技论坛，长沙，9月19-21日，2017 （邀请报告）

[21]    “材料在的力、电、热以及环境气氛中的纳米尺度表征”第二届电子显微网上年会，6月7日，2017

[22]     “环境透射电镜在研究氢与金属交互作用中的应用”, 天美公司&日立高新2016年电镜产品中国用户会, 成都, 10月29日-11月1日, 2016 （特邀报告）

[23]    “环境透射电镜中的纳米实验室”，第二届电镜网络会议(iCEM 2016)，10月25-26日，2016

[24]    “环境透射电镜在研究氢与金属交互作用中的应用”, 日立公司球差校正透射电镜HF5000新品发布会, 北京, 9月17日, 2016 （邀请报告）

[25]    “扫描电镜原位微纳尺度结构材料的变形特性与机理研究”，2016年全国电子显微学学术年会，天津，9月12-16日，2016

[26]    Xie D.-G., “Hydrogen effects on dislocation motion revisited by quantitative mechanical tests inside TEM”, 2016 International Hydrogen Conference, Moran, WY, USA, Sep. 11-14, 2016

[27]    解德刚，单智伟，“未来材料科学对于电镜的需求”， 电镜装备制造研讨扩大暨第三次会议，西安，8月27日，2016

[28]    “In situ TEM Investigation of Blister Formation on Aluminum Surface in Hydrogen Environment”, 2016 International Workshop on Materials Behavior at the Micro- and Nano-Scale, Xi’an China, Jun. 1-3, 2016

[29]    “Revealing Hydrogen Blistering Mechanism in Aluminum”，西北工业大学，西安，4月23日，2016

[30]    “Hydrogen Effects on Blistering and Dislocation Behavior in Single Crystal Aluminum”，清华大学，北京，4月18日，2016

[31]    “气氛中对材料进行力、电、热的纳米尺度表征”，中国石油管工程研究院，西安，3月30日，2016

[32]    “环境透射电镜中用PI95对纳米材料进行力、电、热表征”，浙江大学，杭州，9月20日，2015

[33]    “In Situ TEM Investigation of the Effects of Hydrogen on the Behavior of Dislocation and Cracking in Aluminum”, 2015 TMS Annual Meeting & Exhibition, Orlando, FL, USA, Mar. 15-19, 2015 

[34]    “Hydrogen embrittlement in aluminum investigated by in situ bending in environmental TEM”, 2015 International Workshop on Materials Behavior at the Micro- and Nano-Scale, Xi’an China, Jun. 1-3, 2015 

[35]    “In situ TEM Investigation of Blister Formation on Aluminum Surface in Hydrogen Environment”, 2015 MRS Fall meeting, Boston, MA, USA, Nov 29 – Dec 4, 2015

[36]    “In Situ TEM investigation of Electrical Current Effect on Aluminum Interconnect”, TMS2012, Orlando, FL