周笑靥副教授

周笑靥博士是深圳北理莫斯科大学副教授，在北京科技大学获得材料物理学士学位后，前往香港科技大学攻读机械工程博士学位。博士毕业后前往本田技术研究所从事研发工作。主要研究方向是利用人工智能与计算材料学开展材料性能优化设计。主持国家自然科学基金青年项目一项，国家工程中心开放课题一项，参与国家重点研发计划两项。在Acta  Materialia, Nature  Communications等期刊发表论文22篇。

■ Biography-Short  Description

Dr.  Xiao-Ye Zhou is an associate  professor at Shenzhen MSU-BIT  University. After receiving her  bachelor's degree in materials  physics from University of  Science and Technology Beijing,  she went to the Hong Kong  University of Science and  Technology to pursue her Ph.D.  in mechanical engineering. She  then went to Japan and worked in  R&D at the Honda Research  Institute after graduation.  Currently, her main research  interest is to use artificial  intelligence and computational  materials science to carry out  material design for better  performance. She is the PI of  one youth project of the  National Natural Science  Foundation of China, one open  project of the National  Engineering Center, and a key  member in two national key  research and development  programs. She has published 22  papers in Acta Materialia,  Nature Communications and other  journals.

■ 教育经历

□ 2008.09-2012.06  北京科技大学材料物理系，本科;
□ 2012.08-2016.08  香港科技大学机械工程系，博士.

■ 工作经历

□ 2016.10-2018.06 本田技术研究所，副研究员；

□ 2018.07-2022.12 深圳大学土木与交通学院，副研究员；

□ 2023.01-至今 深圳北理莫斯科大学材料系，副教授.

■ 研究领域

□ 金属材料塑性变形机理的原子模拟；

□ 高强钢氢脆机理与跨尺度模拟；

□ 基于人工智能算法的跨尺度计算与材料优化设计；

□ 催化产氢过程的第一性原理计算

■ Research  Interest

□ Atomic simulation of plastic  deformation mechanism of metal  materials;

□ Cross-scale simulation of  hydrogen embrittlement mechanism  and mechanical behaviors of  high-strength steel;

□ Cross-scale calculation and  material optimization design  based on artificial intelligence  algorithm;

□ First-principles calculation  of catalytic hydrogen production  process

■ 主讲课程

1．化学导论

■ 社会兼职

□ 辽宁实验室自主计算团队骨干

■ 荣誉奖励

■ 科研工作

□ 2022年01月至 2024年  12月，国家自然科学基金青年科学基金，基于第一性原理计算的FeCoNiCr系高熵合金氢脆机理研究，资助经费：30.00万元，主持；

□ 2022年01月至 2023年  12月，金属材料磨损控制与成型技术国家地方联合工程研究中心开放基金，表面纳米化提升金属材料磨损性能机理研究，资助经费：5.00万元主持.

■代表性成果（论文和专利）

1. Zhu,  D.-X.; Pan, K.-M.; Wu, Y.; Zhou,  X.-Y.; Li, X.-Y.; Ren, Y.-P.;  Shi, S.-R.; Yu, H.; Wei, S.-Z.;  Wu, H.-H.; Yang, X.-S., Improved  material descriptors for bulk  modulus in intermetallic  compounds via machine learning.  Rare Metals 2023, 42 (7),  2396-2405.

2. Wu,  H.-H.; Dong, L.-S.; Wang, S.-Z.;  Wu, G.-L.; Gao, J.-H.; Yang,  X.-S.; Zhou, X.-Y.; Mao, X.-P.,  Local chemical ordering  coordinated thermal stability of  nanograined high-entropy alloys.  Rare Metals 2023, 42 (5),  1645-1655.

3. Wang,  F.; Wu, H.-H.; Dong, L.; Pan,  G.; Zhou, X.; Wang, S.; Guo, R.;  Wu, G.; Gao, J.; Dai, F.-Z.;  Mao, X., Atomic-scale  simulations in multi-component  alloys and compounds: A review  on advances in interatomic  potential. J. Mater. Sci.  Technol. 2023, 165, 49-65.

4. Wang,  F.; Dong, L.; Wu, H.-H.; Bai,  P.; Wang, S.; Wu, G.; Gao, J.;  Zhu, J.; Zhou, X.; Mao, X.,  Enhanced nanocrystalline  stability of BCC iron via copper  segregation. Progress in Natural  Science: Materials International  2023, 33 (2), 185-192.

5. Jiao,  M.; Lei, Z.; Wu, Y.; Du, J.;  Zhou, X.-Y.; Li, W.; Yuan, X.;  Liu, X.; Zhu, X.; Wang, S.; Zhu,  H.; Cao, P.; Liu, X.; Zhang, X.;  Wang, H.; Jiang, S.; Lu, Z.,  Manipulating the ordered oxygen  complexes to achieve high  strength and ductility in  medium-entropy alloys. Nat.  Commun. 2023, 14 (1), 806.

6. Zhou,  X.-Y.; Zhu, J.-H.; Wu, Y.; Yang,  X.-S.; Lookman, T.; Wu, H.-H.,  Machine learning assisted design  of FeCoNiCrMn high-entropy  alloys with ultra-low hydrogen  diffusion coefficients. Acta  Mater. 2022, 224, 117535.

7. Zhou,  X.; Fu, H.; Zhu, J.-H.; Yang,  X.-S., Atomistic simulations of  the surface severe plastic  deformation-induced grain  refinement in polycrystalline  magnesium: The effect of  processing parameters. Journal  of Magnesium and Alloys 2022, 10  (5), 1242-1255.

8. Qin,  Y.; Yu, T.; Deng, S.; Zhou,  X.-Y.; Lin, D.; Zhang, Q.; Jin,  Z.; Zhang, D.; He, Y.-B.; Qiu,  H.-J.; He, L.; Kang, F.; Li, K.;  Zhang, T.-Y., RuO2 electronic  structure and lattice strain  dual engineering for enhanced  acidic oxygen evolution reaction  performance. Nat. Commun. 2022,  13 (1), 3784.

9. Li,  B.; Niu, C.-M.; Zhang, T.-L.;  Chen, G.-Y.; Zhang, G.; Wang,  D.; Zhou, X.-Y.; Zhu, J.-M.,  Advances of machining techniques  for gradient structures in  multi-principal-element alloys.  Rare Metals 2022.

10.  Dong, L.; Wang, S.; Wu, G.; Gao,  J.; Zhou, X.; Wu, H.-H.; Mao,  X., Application of atomic  simulation for studying hydrogen  embrittlement phenomena and  mechanism in iron-based alloys.  Int. J. Hydrogen Energy 2022, 47  (46), 20288-20309.

11.  Zhou, X.-Y.; Zhu, J.-H.; Wu,  H.-H.; Yang, X.-S.; Wang, S.;  Mao, X., Unveiling the role of  hydrogen on the creep behaviors  of nanograined α-Fe via  molecular dynamics simulations.  Int. J. Hydrogen Energy 2021, 46  (14), 9613-9629.

12.  Zhou, X.-Y.; Wu, H.-H.; Zhu,  J.-H.; Li, B.; Wu, Y., Plastic  deformation mechanism in  crystal-glass high entropy alloy  composites studied via molecular  dynamics simulations. Compos.  Commun. 2021, 24, 100658.

13.  Zhang, Z.; Xu, H.; Zhou, X.;  Guo, T.; Pang, X.; Volinsky, A.  A., Deformation Mechanisms of  NiP/Ni Composite Coatings on  Ductile Substrates. Coatings  2021, 11 (7).

14. Wu,  B.; Fu, H.; Zhou, X.; Qian, L.;  Luo, J.; Zhu, J.; Lee, W. B.;  Yang, X.-S., Severe plastic  deformation-produced gradient  nanostructured copper with a  strengthening-softening  transition. Mater. Sci. Eng. A  2021, 819, 141495.

15. Fu,  H.; Zhou, X.; Wu, B.; Qian, L.;  Yang, X.-S., Atomic-scale  dissecting the formation  mechanism of gradient  nanostructured layer on Mg alloy  processed by a novel high-speed  machining technique. J. Mater.  Sci. Technol. 2021, 82, 227-238.

16.  Zhou, X.-Y.; Zhu, J.-H.; Wu,  H.-H., Molecular dynamics  studies of the grain-size  dependent hydrogen diffusion  coefficient of nanograined Fe.  Int. J. Hydrogen Energy 2020, 46  (7), 5842-5851.

17.  Zhou, X.-Y.; Yang, X.-S.; Zhu,  J.-H.; Xing, F., Atomistic  simulation study of the  grain-size effect on hydrogen  embrittlement of nanograined Fe.  Int. J. Hydrogen Energy 2020, 45  (4), 3294-3306.

18. Pei,  C.; Zhou, X.; Zhu, J.-H.; Su,  M.; Wang, Y.; Xing, F.,  Synergistic effects of a novel  method of preparing  graphene/polyvinyl alcohol to  modify cementitious material.  Construction and Building  Materials 2020, 258, 119647.

19. Li,  K.; Zhou, X.; Nie, A.; Sun, S.;  He, Y.-B.; Ren, W.; Li, B.;  Kang, F.; Kim, J.-K.; Zhang,  T.-Y., Discovering a First-Order  Phase Transition in the Li–CeO2  System. Nano Lett. 2017, 17 (2),  1282-1288.

20.  Zhou, X.-Y.; Huang, B.-L.;  Zhang, T.-Y., Size- and  temperature-dependent Young's  modulus and size-dependent  thermal expansion coefficient of  thin films. Phys. Chem. Chem.  Phys. 2016, 18 (31),  21508-21517.

21.  Zhou, X.-Y.; Ren, H.; Huang,  B.-L.; Zhang, T.-Y.,  Surface-induced size-dependent  ultimate tensile strength of  thin films. Phys. Lett. A 2015,  379 (5), 471-481.

22.  Zhou, X. Y.; Ren, H.; Huang, B.  L.; Zhang, T. Y., Size-dependent  elastic properties of thin  films: surface anisotropy and  surface bonding. Science China  2014, 57 (4), 680-691.

■其他