个人经历：

1. B.S. Physics (2006), 浙江大学物理系；

2. Visiting student, 2007.10 – 2008.12, 纽约州立大学布法罗分校物理与天文系；
   

3. Ph.D. Physics (2011), 2006.9 – 2011.6 浙江大学物理系凝聚态物理研究所；

4. Postdoc, 2011.09 – 2015.03, 纽约州立大学布法罗分校物理与天文系；

5. 副研究员、博士生导师，上海交通大学物理与天文学院。

1. 国家自然科学基金面上项目“极性金属的电输运和热电效应研究”，2023/01 – 2026/12，主持；

2. 国家重点研发计划“马约拉纳零能模的构筑与操控”的课题“拓扑量子材料和原型器件探索” ，2019/12 – 2024/11，课题骨干；

3. 上海市自然科学基金面上项目“邻近莫特相变的拓扑半金属态的量子输运和调控”，2020/7 – 2023/6, 主持;

4. 国家自然科学青年科学基金“强关联钌氧化物的热电量子输运研究”, 2019/1 – 2021/12，主持。

部分论文列表：

1. Anomalous enhancement of the Nernst effect at the crossover between a Fermi liquid and a strange metal, Nature Physics 19, 379-385 (2023). https://doi.org/10.1038/s41567-022-01904-5, Yusen Yang, Qian Tao, Yuqiang Fang, Guoxiong Tang, Chao Yao, Xiaoxian Yan, Chenxi Jiang, Xiangfan Xu, Fuqiang Huang, Wenxin Ding, Yu Wang, Zhiqiang Mao, Hui Xing*, and Zhu-An Xu^#.  I also wrote a complementary "Behind the paper" essay to introduce the physics background of this paper and our experience in the pursuit of this work. The essay can be found at https://physicscommunity.nature.com/posts/how-does-nernst-effect-probe-strange-metals. 

2. Possible Kondo scattering and its signature in Seebeck coefficient in topological superconductor Fe_1+yTe_0.55Se_0.45, Journal of Magnetism and Magnetic Materials 564, 170126 (2022). Yusen Yang, Guoxiong Tang, Chao Yao, Xiaoxian Yan, Yu Wang, Xiangfan Xu, Zhiqiang Mao, and Hui Xing*.

3. A Simplified Method Characterizing Magnetic Ordering Modulated Photo-Thermoelectric Response in Noncentrosymmetric Semimetal Ca₃Ru₂O₇, Adv. Photonics Res. 2200029 (2022). Qiang Chen, Jialin Li, Huanfeng Zhu, Tian Zhang, Wei Tang, Hui Xing, Jin Peng, Zhiqiang Mao, and Linjun Li*.

4. Signature of Electron-magnon Umklapp Scattering in L1₀ FePt probed by Thermoelectric Measurements, Appl. Phys. Lett. 119, 182402 (2021). Xiaoxian Yan, Chang Huai, Hui Xing*, James P. Parry, Yusen Yang, Guoxiong Tang, Chao Yao, Guohan Hu, Renat Sabirianov, and Hao Zeng*.

5. Anisotropic Berry phase in Dirac nodal-line semimetal ZrSiS: the effect of spin-orbit coupling, Phys. Rev. B 103, 125160 (2021). Yusen Yang, Hui Xing*, Guoxiong Tang, Chenqiang Hua, Chao Yao, Xiaoxian Yan, Yunhao Lu, Jin Hu, Zhiqiang Mao, and Ying Liu* .

6. Anisotropic gapping of topological Weyl rings in the charge-density-wave superconductor In_xTaSe₂, Science Bulletin 66, 243 (2021). Yupeng Li, Yi Wu, Chenchao Xu, Ningning Liu, Jiang Ma, Baijiang Lv, Gang Yao, Yan Liu, Hua Bai, Xiaohui Yang, Lei Qiao, Miaocong Li, Linjun Li, Hui Xing, Yaobo Huang, Junzhang Ma, Ming Shi, Chao Cao*, Yang Liu*, Canhua Liu, Jinfeng Jia, and Zhu-An Xu*.

7. Structural domain imaging and direct determination of crystallographic orientation in noncentrosymmetric Ca₃Ru₂O₇ using polarized light reflectance, Chinese Physics Letters 37, 106102 (2020). Guoxiong Tang, Libin Wen, Hui Xing*, Wenjie Liu, Jin Peng, Yu Wang, Yupeng Li, Baijiang Lv, Yusen Yang, Chao Yao, Yueshen Wu, Hong Sun, Zhu-An Xu, Zhiqiang Mao, and Ying Liu.

8. Type-I superconductivity in noncentrosymmetric NbGe₂, Phys. Rev. B 102, 064507 (2020). Baijiang Lv, Miaocong Li, Jia Chen, Yusen Yang, Siqi Wu, Lei Qiao, Feihong Guan, Hui Xing, Qian Tao, Guang-Han Cao, and Zhu-An Xu*.

9. Impurity-pinned incommensurate charge density wave and local phonon excitations in 2H-NbS₂, Phys. Rev. B 101, 241404(R) (2020). Chenhaoping Wen, Yuan Xie, Yueshen Wu, Shiwei Shen, Pengfei Kong, Hailong Lian, Jun Li, Hui Xing, and Shichao Yan*.

10. Thermoelectric probe of defect state induced by ionic liquid gating in vanadium dioxide, Appl. Phys. Lett. 116, 193502 (2020). [Highlighted as Editor’s Pick] Hui Xing*, Peihong Zhang, and Hao Zeng*.

11. Coexistence of ferromagnetic and superconducting domains in Co-doped BaFe₂As₂ superconductors probed using infrared Faraday measurements, IEEE IRMMW-THz 1, 8873994 (2019). A. Mukherjee, M.M. Arik, J. Seo, Hui Xing, P. Taheri, H. Zeng, I.I. Mazin, H. Sato, H. Hiramatsu, H. Hosono, and J. Cerne*.

12. Ion intercalation engineering of electronic properties of two-dimensional crystals of 2H-TaSe₂, Phys. Rev. Materials 3, 104003 (2019). Yueshen Wu, Hui Xing*, Chao-Sheng Lian, Hailong Lian, Jiaming He, Wenhui Duan, Jinyu Liu, Zhiqiang Mao, and Ying Liu*.

13. Dimensional reduction and ionic gating induced enhancement of superconductivity in atomically thin crystals of 2H-TaSe₂, Nanotechnology 30, 035702 (2019). Yueshen Wu, Jiaming He, Jinyu Liu, Hui Xing, Zhiqiang Mao, and Ying Liu*.

14. Angle-dependent magnetoresistance as a sensitive probe of the charge density wave in quasi-one-dimensional semimetal Ta₂NiSe₇, Appl. Phys. Lett. 113, 192401 (2018). Jiaming He, Libin Wen, Yueshen Wu, Jinyu Liu, Guoxiong Tang, Yusen Yang, Hui Xing*, Zhiqiang Mao, Hong Sun, Ying Liu*.

15. Existence of electron and hole pockets and partial gap opening in correlated semimetal Ca₃Ru₂O₇, Phys. Rev. B 97, 041113(R) (2018). Hui Xing, Libin Wen, Chenyi Shen, Jiaming He, Xinxin Cai, Jin Peng, Shun Wang, Mingliang Tian, Zhu-An Xu, Wei Ku, Zhiqiang Mao*, and Ying Liu*.

16. Lithium ion intercalation in thin crystals of hexagonal TaSe₂ gated by a polymer electrolyte, Appl. Phys. Lett. 112, 023502 (2018). [Highlighted as Editor’s Pick; Top article in the Device Physics section of APL in 2019] Yueshen Wu, Hailong Lian, Jiaming He, Jinyu Liu, Shun Wang, Hui Xing*, Zhiqiang Mao, and Ying Liu*.

17. Probing the intrinsic charge transport in indacenodithiophene-co-benzothiadiazole thin films, AIP advances 7, 125314 (2017). Wenhe Wang, Wei Tang, Jiaqing Zhao, Bei Bao, Hui Xing,  Xiaojun Guo*, Shun Wang*, and Ying Liu.

18. Band dependence of charge density wave in quasi-one-dimensional Ta₂NiSe₇ probed by orbital magnetoresistance, Appl. Phys. Lett. 111, 052405 (2017). Jiaming He, Yiran Zhang, Libin Wen, Yusen Yang, Jinyu Liu, Yueshen Wu, Hailong Lian, Hui Xing*, Shun Wang, Zhiqiang Mao, and Ying Liu*
.

19. Effect of stoichiometry on the superconducting transition temperature in single crystalline 2H-NbS₂, Physica C 538, 27 (2017). Hailong Lian, Yueshen Wu, Hui Xing, Shun Wang*, Ying Liu.

    
    

授权专利：

1. 一种非中心对称晶体的晶畴空间分布及晶格取向的确定方法，邢晖、唐国雄、许祝安；公开号：CN111855585A; 授权日期：2023.07.19.

我们工作的一个缩影可参看这篇题为“How does Nernst effect probe strange metals”的短文。该文介绍了我们常用的测量手段的物理基础和一些研究经历。具体请见: https://physicscommunity.nature.com/posts/how-does-nernst-effect-probe-strange-metals. 

欢迎对关联体系的电子输运和热电输运感兴趣的同学联系我们 (huixing@sjtu.edu.cn)。