姓名:王恒伟
职称:副研究员
单位:精准智能化学全国重点实验室
邮箱:whw@ustc.edu.cn
主要从事原子层沉积（Atomic layer deposition，ALD）技术在能源催化材料设计领域中应用的研究工作。近年来，围绕“亚纳米/原子尺度高分散界面单元精准构筑——原位结构表征——催化反应化学——理论计算”的研究策略，聚焦能源小分子（CO和CO2）催化加氢反应，主要学术成果包括：（1）提出高分散氧化物–金属/氧化物单界面精准构筑策略，实现高效、且稳定的CO2加氢制甲醇并识别真实活性位结构。（2）提出原子级金属-氧化物界面和载体表面协同调控策略，实现单原子催化剂在CO2加氢反应中的高效选择性调控。（3）提出“功能互补、原子级亲密”氧化物–金属–氧化物双界面构筑策略，实现串联协同催化，实现高效且稳定的甲醇和乙醇合成。共发表SCI收录文章32篇，其中以第一/通讯作者（共同）身份发表13篇文章，包括Nature Nanotechnol. Angew. Chem. Int. Ed. (3篇)、Science Adv.、Nature Commun.、J. Catal. (2篇)、J. Energy Chem.、Catal. Today等，其中2篇论文入选ESI高被引论文，总引用超过4700次，H指数为27，授权发明专利1项。
1. Shang Li#; Li Feng#; Hengwei Wang*; Yue Lin; Zhihu Sun; Lulu Xu; Yuxing Xu; Xinyu Liu; Wei-Xue Li; Shiqiang Wei; Jin-Xun Liu*; Junling Lu*; Atomically‒intimate assembly of dual metal‒oxide interfaces for tandem conversion of syngas to ethanol, Nature Nanotechnology, 2025, 20(2): 255-264.
2. Lulu Xu#; Qi Wang#; Qingqing Gu#; Shang Li; Yuxing Xu; Hao Chen; Hongjun Zhang; Bangjiao Ye; Jiafu Chen; Hanbao Chong; Jing Zhou; Xinyu Liu; Zhihu Sun; Shiqiang Wei; Yang, Bing; Xiang-Kui Gu*; Hengwei Wang*; Junling Lu*; Interfacial-confined oxygen vacancy clusters in ZrO2-supported In2O3-x catalysts boost methanol production from CO2, Angewandte Chemie International Edition , 2025, 64(32): e202508091.
3. Shang Li#; Yuxing Xu#; Hengwei Wang*; Botao Teng; Qin Liu; Qiuhua Li; Lulu Xu; Xinyu Liu; Junling Lu*; Tuning the CO2 hydrogenation selectivity of rhodium single‐atom catalysts on zirconium dioxide with alkali ions, Angewandte Chemie International Edition, 2023, 62(8): e202218167.
4. Xinyu Liu#; Jie Luo#; Hengwei Wang#; Li Huang#; Shasha Wang; Shang Li; Zhihu Sun; Fanfei Sun; Zheng Jiang; Shiqiang Wei; Wei-Xue Li*; Junling Lu*; In situ spectroscopic characterization and theoretical calculations identify partially reduced ZnO1-x/Cu interfaces for methanol synthesis from CO2. Angewandte Chemie International Edition, 2022, 61(23): e202202330.
5.Hengwei Wang#; Xiang-Kui Gu#; Xusheng Zheng; Haibin Pan; Junfa Zhu; Si Chen; Lina Cao; Wei-Xue Li; Junling Lu; Disentangling the size-dependent geometric and electronic effects of palladium nanocatalysts beyond selectivity, Science Advances, 2019, 5(1): eaat6413.