工作经历  

l 2021.12 – 至今，副教授，上海大学材料基因组工程研究院

l 2020/10 – 2021.12 讲师，上海大学材料基因组工程研究院

l 2016/06 – 2020/09 博士后研究员，德国马普学会Fritz-Haber-Institute， 合作导师： Prof. Robert Schlögl（洪堡基金会主席）

l 2015/04 – 2016/03 博士后研究员，日本理化学研究所 Biofunctional Catalyst Research Team，合作导师: Prof. Ryuhei Nakamura

l 2013/05 – 2015/03 Research Associate，日本理化学研究所 RIKEN Innovation Center，合作导师: Dr. Shinichiro Nakamura

教育背景  

2009/03 – 2013/05 工学博士，环境工程，同济大学，导师：金放鸣教授（长江学者）

2005/09 – 2008/03 工学硕士, 环境科学, 东华大学，导师：周美华教授

2001/09 – 2005/07 理学学士, 环境科学, 青岛大学

承担项目情况：

1）2022-2025 机器学习新方法开发及其在钙钛矿电催化材料研究中的应用（国自然面上项目，No: 22173058），主要参与（排名第二）

2）2022-2025 基于功能核酸模板的手性圆偏振荧光材料设计及应用探索（国自然面上项目，No: 22177067），主要参与（排名第二）

3）2015-2016 主持日本理化学研究所科研奖励基金. 项目名称：“Turning Frustration into Electrochemical CO₂ Activation”. 项目经费：2百万日

1. 电催化材料的开发与表征

2. 原位拉曼光谱在催化中的应用

  王元庆长期从事能源与催化领域的研究，研究方向主要集中于热催化以及电催化相关的机理研究。王元庆利用理论计算提出离子液体电催化还原二氧化碳的分子机制；利用拉曼光谱解析了金属氧化物催化剂上分子氧的活化过程以及对烷烃选择氧化的影响；作为主持人主持了日本理化学研究所的一项科研奖励基金项目；在化学、化工、能源和催化等领域SCI学术期刊上共发表了30+篇学术论文；SCI论文已被引用超过800次；获邀在Springer和CRC等出版社发表英文著作章节3篇（一作）。

[1] Zhang, P., Fan J., Wang Y.*, Dang Y., Heumann S.*, Ding Y.* Insights into the role of defects on the Raman spectroscopy of carbon nanotube and biomass-derived carbon. Carbon 2024, 222, 118998.

[2] Hu, Z., Yan, Q., Wang, Y.* Dynamic surface reconstruction of perovskite oxides in oxygen evolution reaction and its impacts on catalysis: A critical review. Materials Today Chemistry 2023, 34, 101800.

[3] Li, Y., Zhu, R., Wang, Y.*, Feng, L.*, Liu, Y.* Center-environment deep transfer machine learning across crystal structures: from spinel oxides to perovskite oxides. NPJ Computational Materials 2023, 9 (1), 109.

[4] Wang, J.^#, Xie, H.^#, Wang, Y.*, Ouyang, R.* Distilling Accurate Descriptors from Multi-Source Experimental Data for Discovering Highly Active Perovskite OER Catalysts. Journal of the American Chemistry Society 2023. 145 (20), 11457-111465.

[5] Wang, Y., Rosowski, F., Schlögl, R., Trunschke, A. Oxygen Exchange on Vanadium Pentoxide. Journal of Physical Chemistry C 2022, 126, 7, 3443–3456.

[6] Wang, Y.*, Hayashi, T., He, D., Li, Y., Jin, F., Nakamura, R.* A reduced imidazolium cation layer serves as the active site for electrochemical carbon dioxide reduction. Applied Catalysis B: Environmental 2020, 264, 118495. (一作兼共同通讯作者)

[7] Wang, Y., Wang, F., Li, C., Jin F. Kinetics and mechanism of reduction of CO₂ by glycerol under alkaline hydrothermal conditions. International Journal of Hydrogen Energy 2016, 41(21), 9128-9134.

[8] Duo, J., Jin, F.*, Wang, Y.*, Zhong, H., Yao, G., Lyu, L., Huo, Z. NaHCO₃-enhanced Fe oxidation and in-situ efficient NaHCO₃ reduction into formic acid. Chemical Communications 2016, 52, 3316-3319. (共同通讯作者)

[9] Wang, Y., Hatakeyama, M., Ogata, K., Nakamura, S., Jin, F. Activation of CO₂ by ionic liquid EMIM-BF4 in the electrochemical system, a theoretical study. Physical Chemistry Chemical Physics 2015, 17 (36), 23521-23531.

[10]Wang, F.^#, Wang, Y.^#, Jin, F., Yao, G., Huo, Z., Zeng, X., Jing, Z. One-pot hydrothermal conversion of cellulose into organic acids with CuO as an oxidant. Industrial & Engineering Chemistry Research 2014, 53 (19), 7939-7946. (共同一作)

[11]Wang, Y., Jin, F., Sasaki, M., Wahyudiono, Wang, F., Jing, Z., Goto, M. Selective conversion of glucose into lactic acid and acetic acid with copper oxide under hydrothermal conditions. AIChE Journal 2013, 59 (6), 2096-2104.

[12]Wang, Y., Jin, F., Zeng, X., Yao, G., Jing, Z. A novel method for producing hydrogen from water with Fe enhanced by HS- under mild hydrothermal conditions. International Journal of Hydrogen Energy 2013, 38 (2), 760-768.

[13]Wang, Y., Jin, F., Zeng, X., Ma, C., Wang, F., Yao, G., Jing, Z. Catalytic activity of Ni₃S₂ and effects of reactor wall in hydrogen production from water with hydrogen sulphide as a reducer under hydrothermal conditions. Applied Energy 2013, 104, 306-309.

[14]Wang, Y., Wang, F., Jin, F., Jing, Z. Effects of metals and Ni₃S₂ on reactions of sulfur species (HS^-, S and S₂O₃^2-) under alkaline hydrothermal conditions. Industrial & Engineering Chemistry Research 2013, 52 (16), 5616-5625.

[15]Werny, M., Wang, Y., Girgsdies, F., Schlögl, R., Trunschke, A. Fluctuating storage of the active phase in a Mn-Na₂WO₄/SiO₂ catalyst for the oxidative coupling of methane. Angewandte Chemie International Edition 2020, 59 (35), 14921-14926.

[16]Fu, T., Wang, Y., Wernbacher, A., Schlögl., R., Trunschke, A. Single-site vanadyl species isolated within molybdenum oxide monolayers in propane oxidation. ACS Catalysis 2019, 9 (6), 4875-4886.