1. 国家高层次青年人才项目，主持；

2. 2023.05-2026.04 东南大学科研启动经费，主持；

代表性论文：1共同一作；*通讯作者

加入东南大学之后：

1.       Y.N. Wang,1 F.Yang,1 H.M. Xu,1 J. Jang, E. Delmo, X.Y. Qiu, Z.H. Ying, P. Gao, S.Q. Zhu*, M.D. Gu*, M.H. Shao*, "The Role of Phase Mixing Degree in Promoting C-C Coupleing in Electrochemical CO2 Reduction Reaction on Cu-based Catalysts", Angewandte Chemie International Edition, 2024, e202400952.

2.       H.M. Xu, Z.X. Fan, S.Q. Zhu*, M.H. Shao*, "A Minireview on Slelected Applications of in situ Infrared Spectroscopy in Studying CO2 Electrochemical Reduction Reaction", Current Opinion in Electrochemistry, 2023, 41: 101363.

加入东南大学之前：

1.       S.Q. Zhu,1 X.P. Qin,1 F. Xiao, Y. Xu, Z. Tan, J.D. Li, J.W. Yan, Q. Chen,M.H. Shao*, “The Role of Ruthenium in Improving the Kinetics of Hydrogen Oxidation and Evolution Reactions of Platinum”, Nature Catalysis, 2021,4: 711-718 (ESI高被引文章).

2.       S.Q. Zhu,1 E.P. Delmo,1 T.H. Li, X.P. Qin, J. Tian, L.L. Zhang, M.H.Shao*, “Recent Advances in Catalyst Structure and Composition Engineering Strategies for Regulating CO2 Electrochemical Reduction”, Advanced Materials, 2021, 33: 2005484.

3.       S.Q. Zhu, X.P.Qin, Y. Yao, M.H. Shao*, “pH-Dependent Hydrogen and Water Binding Energies on Platinum Surfaces as Directly Probed through Surface-Enhanced Infrared Absorption Spectroscopy”, Journal of the American Chemical Society, 2020, 142: 8748-8754.

4.       S.Q. Zhu, B.Jiang, W.B. Cai, M.H. Shao*, “Direct Observation on Reaction Intermediates and the Role of Bicarbonate Anions in CO2 Electrochemical Reduction Reaction on Cu Surfaces”, Journal of the American Chemical Society, 2017, 139: 15664-15667 (ESI高被引文章).

5.       S.Q. Zhu, T.H.Li, W.B. Cai, M.H. Shao*, “CO2 Electrochemical Reduction as Probed through Infrared Spectroscopy”, ACS Energy Letters, 2019, 4: 682-689 (ACS Editors’ Choice, 封面文章).

6.       S.Q. Zhu, Q.Wang, X.P. Qin, M. Gu, R. Tao, B.P. Lee, L.L. Zhang, Y.Z. Yao, T.H.Li, M.H. Shao*, “Tuning Structural and Compositional Effects in Pd–Au Nanowires for Highly Selective and Active CO2 Electrochemical Reduction Reaction”, Advanced Energy Materials, 2018, 8, 1802238.

7.       S.Q. Zhu,1 X.P. Qin,1 Q. Wang,1 T.H. Li, R. Tao, M. Gu*, M.H.Shao*, “Composition-Dependent CO2 Electrochemical Reduction Activityand Selectivity on Au-Pd Core-Shell Nanoparticles”, Journal of Materials Chemistry A, 2019, 7: 16954-16961.

8.       Y.N. Hao,1 F. Hu,*1 S.Q.Zhu,1 Y.J. Sun, H. Wang, L.Q. Wang, Y. Wang, J.J. Xue, Y.-F.Liao, M.H. Shao, S.J. Peng*, “MXene‐Regulated Metal‐Oxide Interfaces with Modified Intermediate Configurations Realizing Nearly 100% CO2 Electrocatalytic Conversion”, Angewandte Chemie International Edition, 2023, e202304179.

9.       J.W. Zhang,1 G.M. Zheng,1 S.Q.Zhu,1 H.L. Tao,1 Y. Pan,1 W.C. Lai, J.Bao, C. Lian*, D. Su*, M.H. Shao*, H.W. Huang*, “Steering CO2 Electroreduction Pathway toward Ethanol via Surface-Bounded HydroxylSpecies-Induced Noncovalent Interaction”, Proceedings of the National Academy of Sciences, 2023, 120: e2218987120.

10.    L. Wang,*1 S.Q. Zhu,1 Y.A. Wang, Z.P. Liu, Y.S. Liu, Q. Wang, M. Gu, K.D. Li, X.D. Sun, L.W. Yang, M.H.Shao*, “Amorphous Nickel Tungstate Nanocatalyst Boosts Urea Electrooxidation”, Chemical Engineering Journal, 2023, 460:141826.

11.    B. Huang,1 Y.Y Ge,1 A. Zhang,1 S.Q. Zhu,1 B. Chen, G.X. Li, Q.B. Yun, Z.Q. Huang, Z.Y. Shi,X.C. Zhou, L.J. Li, X.X. Wang, G. Wang, Z.Q. Guan, L. Zhai, Q.X. Luo, Z.J. Li,S.Y. Lu, Y. Chen, C.‐S. Lee, Y. Han, M.H. Shao, H. Zhang*, “Seeded Synthesis of Hollow PdSn Intermetallic Nanomaterials for Highly Efficient Electrocatalytic Glycerol Oxidation”, Advanced Materials, 2023, 2302233.

12.    X.C. Zhou,1 Y.B. Ma,1 Y.Y.Ge,1 S.Q. Zhu,1 Y. Cui, B. Chen, L.W. Liao, Q.B.Yun, Z. He, H.W. Long, L.J. Li, B. Huang, Q.X. Luo, L. Zhai, X.X. Wang, L.C.Bai, G. Wang, Z.Q. Guan, Y. Chen, C.-S. Lee, C.Y. Ling*, J.L. Wang, M.H. Shao*,Z.X. Fan*, H. Zhang*, “Preparation of Au@Pd Core-Shell Nanorods with fcc-2H-fcc Heterophase for Highly Efficient Electrocatalytic Alcohol Oxidation”, Journal of the American Chemical Society, 2022, 144: 547-555.

13.    Z.H. Lyu,1 S.Q. Zhu,1 M.H. Xie, Y. Zhang, Z.T. Chen, R.H. Chen, M.K. Tian, M.F. Chi, M.H. Shao*, Y.N.Xia*, “Controlling the Surface Oxidation of Cu Nanowires Improves Their Catalytic Selectivity and Stability toward C2+ Products in CO2 Reduction”, Angewandte Chemie International Edition, 2021, 60: 1909-1915.

14.    Z.H. Lyu,1 S.Q. Zhu,1 L. Xu, Z.T. Chen, Y. Zhang, M.H. Xie, T.H. Li, S. Zhou, J.Y. Liu, M.F. Chi,M.H. Shao*, M. Mavrikakis*, Y.N. Xia*, “Kinetically Controlled Synthesis of Pd–Cu Janus Nanocrystals with Enriched Surface Structures and Enhanced Catalytic Activities toward CO2 Reduction”, Journal of the American Chemical Society, 2021, 143: 149-162.

15.    Y.X. Wang,1 H.Y. Su,1 Y.H.He,1 L.G. Li,1 S.Q. Zhu,1 H. Shen, P.F.Xie, X.B. Fu, G.Y. Zhou, C. Feng, D.K. Zhao, F. Xiao, X.J. Zhu, Y.C. Zeng, M.H.Shao*, S.W. Chen*, G. Wu*, J. Zeng*, C. Wang*, “Advanced Electrocatalysts with Single-Metal-Atom Active Sites”, Chemical Reviews, 2020, 120:12217-12314 (ESI高被引文章).

16.    X.P. Qin,1 S.Q. Zhu,1 F. Xiao,1 L.L. Zhang, M.H. Shao*, “Active Sites on Heterogeneous Single-Iron-Atom Electrocatalysts in CO2 Reduction Reaction”, ACS Energy Letters, 2019, 4: 1778-1783.

书籍章节

1.      S.Q. Zhu, M.H. Shao, “Attenuated Total Reflection InfraredSpectroscopy in Nano-Electrocatalysis”, in Encyclopedia of Nanomaterials,edited by Younan Xia and Yadong Yin, Elsevier (2022).

2.      S.Q. Zhu, M.H. Shao, “Understanding hydrogen oxidation/evolution electrochemical interfacesthrough in situ Raman scattering and infrared absorption spectroscopies”,in Encyclopedia of Solid-Liquid Interfaces, edited by Gianlorenzo Bussetti and Klaus Wandelt, Elsevier (2023).

1. 先进电化学能源技术：利用燃料电池和电解池等电化学装置，实现电能与化学能的相互转化。相关技术可为不稳定、非连续的可持续电能的储存、运输和再利用提供媒介，并实现资源小分子向高附加值化学品的升级，环境污染物的消除等目的，加快碳中和及可持续发展目标的实现。重点关注体系：氢气燃料电池和电解水制氢相关反应、CO2还原、N2/NOx还原、有机物小分子氧化等。

2. 电化学界面原位表征技术：利用原位红外、拉曼光谱等与其他表征技术的连用，实现反应条件下的电化学固-液界面过程的现场检测，获取反应中间体/反应路径相关信息，理解传质/传热状态、反应物浓度/分压、电解质离子种类/浓度、催化剂的成分/结构等条件对反应结果的影响，结合理论计算等手段深入理解反应机理。促进基础电化学理论发展，并为高效催化剂/催化界面的理性设计提供科学指导。

3. 先进催化材料：利用多种制备手段，合成结构和成分的精确可控的纳米催化剂，系统性评价其在电化学反应中的催化活性、选择性、稳定性等性质。结合原位表征手段，分析其在电化学反应条件下的结构演变。通过反应器和工艺流程的开发，实现高性能催化剂的批量化生产和实际应用。

招生方向：

化学工程与技术，化学工程，材料与化工

招生要求：

1. 身心健康，工作认真负责，为人和善，有合作精神，具有一定的抗压能力，对科研及本课题组的研究方向具有浓厚的兴趣；

2. 具有一定的相关方向基础知识、较强的英文阅读与写作能力；

3. 有优秀的论文发表记录的同学将会优先考虑

申请方式: 

如有意申请者，请发送申请至邮箱：sqzhu@seu.edu.cn

邮件标题请注明：博士/硕士申请+姓名+拟入学时间

附件材料需包括个人简历，本科及研究生期间成绩单（非正式的即可），第一作者身份的代表性论文（如有）

2023级硕士研究生