Personal profile
Personal profile
In August 2022, he joined the Beijing Key Laboratory of Chemical Power and Green Catalysis, School of Chemistry and Chemical Engineering, Beijing Institute of Technology, as an assistant professor and master supervisor. He is mainly engaged in the research of catalysts and reactors related to multiphase electrocatalytic conversion of small energy molecules. He has a solid foundation and rich experience in the design and synthesis of high-efficiency catalysts, the systematic research of electrocatalytic reaction mechanism and the development of new electrocatalytic reactors. Participated in a number of national and provincial projects and enterprise research and development projects. In Angew.Chem.Int.Ed., Appl.Catal. B-Environ., Chem.Eng. J., Prog.Energ.Combust. Sci., ChemSusChem, J. Clean.Prod. He has published more than ten papers in other journals.
Research Interests
(1) Basic research:
In the field of electrocatalytic CO2/CO conversion, efficient methods such as in-situ polymerization coating method, controlled impregnation method and impregnation-in-situ growth method have been developed to prepare a series of polyionic liquid-mono/bimetallic hybrid catalysts with different cationic frameworks, different anion compositions, and different metal types and ratios. Highly selective conversion of CO2/CO to high value-added chemicals at industrial grade current density (100 ~ 1000 mA cm-2). In the field of electrocatalytic N2 conversion, a series of iron-based catalysts have been developed to directly produce NH3 by the reaction of N2 and H2O under mild conditions (atmospheric pressure and medium low temperature).
In the field of new electrocatalytic reactor, a gas-liquid equilibrium flow electrolysis system has been developed to realize the dynamic balance of reaction gas and electrolyte near the catalytic layer. In situ fluorescence flow electrolytic cell was developed and combined with in situ Raman flow electrolytic cell to provide a powerful tool for on-line analysis of reactant supply and surface/interface information under reaction conditions. The medium and low temperature submolten salt gas electrolytic cell was developed to realize the in-situ efficient supply of insoluble reaction gas in submolten salt system.
(2) Application research and development:
As the backbone of the research, I participated in the research of the cooperative R&D project (new green technology of adiponitrile), responsible for the green research of the electrolytic dipolymerization of acrylonitrile into adiponitrile, and used ionic liquids to strengthen the supply of reactants and improve the product selectivity, so as to make the route greener, more energy saving and cleaner. Responsible for the research and development of preparation methods for industrial carbonylation catalysts, and developed feasible methods to prepare a variety of high-value didentate phosphine ligands using bulk chemicals as raw materials.
In the field of electrocatalytic CO2/CO conversion, efficient methods such as in-situ polymerization coating method, controlled impregnation method and impregnation-in-situ growth method have been developed to prepare a series of polyionic liquid-mono/bimetallic hybrid catalysts with different cationic frameworks, different anion compositions, and different metal types and ratios. Highly selective conversion of CO2/CO to high value-added chemicals at industrial grade current density (100 ~ 1000 mA cm-2). In the field of electrocatalytic N2 conversion, a series of iron-based catalysts have been developed to directly produce NH3 by the reaction of N2 and H2O under mild conditions (atmospheric pressure and medium low temperature).
In the field of new electrocatalytic reactor, a gas-liquid equilibrium flow electrolysis system has been developed to realize the dynamic balance of reaction gas and electrolyte near the catalytic layer. In situ fluorescence flow electrolytic cell was developed and combined with in situ Raman flow electrolytic cell to provide a powerful tool for on-line analysis of reactant supply and surface/interface information under reaction conditions. The medium and low temperature submolten salt gas electrolytic cell was developed to realize the in-situ efficient supply of insoluble reaction gas in submolten salt system.
(2) Application research and development:
As the backbone of the research, I participated in the research of the cooperative R&D project (new green technology of adiponitrile), responsible for the green research of the electrolytic dipolymerization of acrylonitrile into adiponitrile, and used ionic liquids to strengthen the supply of reactants and improve the product selectivity, so as to make the route greener, more energy saving and cleaner. Responsible for the research and development of preparation methods for industrial carbonylation catalysts, and developed feasible methods to prepare a variety of high-value didentate phosphine ligands using bulk chemicals as raw materials.
Education
2016.09-2020.07 Beijing University of Chemical Technology, Chemical Engineering and Technology Major, Doctor of Engineering
2013.09-2016.07 Beijing University of Chemical Technology, Chemical Engineering, Master of Engineering
2009.09-2013.07 Beijing University of Chemical Technology, Bachelor of Science in Applied Chemistry
2013.09-2016.07 Beijing University of Chemical Technology, Chemical Engineering, Master of Engineering
2009.09-2013.07 Beijing University of Chemical Technology, Bachelor of Science in Applied Chemistry
Professional Experience
2020.07-2022.07 Postdoctoral Researcher, Institute of Process Engineering, Chinese Academy of Sciences
Research Achievement
(1) Guoyi Duan#, Xiaoqiang Li#, Guangrong Ding, Lijun Han, Baohua Xu*, Suojiang Zhang*. Highly Efficient Electrocatalytic CO2 Reduction to C2+ Products on A Poly(ionic liquid)-Based Cu0–CuI Tandem Catalyst. Angew. Chem. Int. Ed., 2022, 61: e202110657. (IF = 16.823)
(2) Xiaoqiang Li, Guoyi Duan*, Rui Wang, Lijun Han, Yaofeng Wang, Baohua Xu*. Poly(ionic liquid)-Based Bimetallic Tandem Catalysts for Highly Efficient Carbon Dioxide Electroreduction. Appl. Catal. B. Environ. , 2022, 313: 121459. (IF = 24.319)
(3) Xiaoqiang Li#, Guoyi Duan#, Junwu Chen, Lijun Han, Suojiang Zhang, Baohua Xu*. Regulating Electrochemical CO2RR Selectivity at Industrial Current Densities by Structuring Copper@Poly(ionic liquid) Interface, Appl. Catal. B. Environ. , 2021, 297: 120471. (IF = 24.319)
(4) Guoyi Duan, Xiaoqiang Li, Yiran Du, Baohua Xu*, Efficient Electrocatalytic Reduction of CO2 to CO on Highly Dispersed Ag Nanoparticles Confined by Poly(ionic liquid), Chem. Eng. J., 2023, 455: 140910. (IF = 16.744)
(5) Guoyi Duan#, Xiaoqiang Li#, Junwu Chen, Guangrong Ding, Pengxin Guan, Baohua Xu*. Poly(ionic liquid) Boosts Overall Performance of Electrocatalytic Reduction of Low Concentration of CO Gas, Chem. Eng. J., 2023, 451: 138491. (IF = 16.744)
(2) Xiaoqiang Li, Guoyi Duan*, Rui Wang, Lijun Han, Yaofeng Wang, Baohua Xu*. Poly(ionic liquid)-Based Bimetallic Tandem Catalysts for Highly Efficient Carbon Dioxide Electroreduction. Appl. Catal. B. Environ. , 2022, 313: 121459. (IF = 24.319)
(3) Xiaoqiang Li#, Guoyi Duan#, Junwu Chen, Lijun Han, Suojiang Zhang, Baohua Xu*. Regulating Electrochemical CO2RR Selectivity at Industrial Current Densities by Structuring Copper@Poly(ionic liquid) Interface, Appl. Catal. B. Environ. , 2021, 297: 120471. (IF = 24.319)
(4) Guoyi Duan, Xiaoqiang Li, Yiran Du, Baohua Xu*, Efficient Electrocatalytic Reduction of CO2 to CO on Highly Dispersed Ag Nanoparticles Confined by Poly(ionic liquid), Chem. Eng. J., 2023, 455: 140910. (IF = 16.744)
(5) Guoyi Duan#, Xiaoqiang Li#, Junwu Chen, Guangrong Ding, Pengxin Guan, Baohua Xu*. Poly(ionic liquid) Boosts Overall Performance of Electrocatalytic Reduction of Low Concentration of CO Gas, Chem. Eng. J., 2023, 451: 138491. (IF = 16.744)
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Insight into Carbon Hybrid and Interfacial Modulation for High-Performance Electrosynthesis of Ethylene Glycol
Li, X. Q., Duan, G. Y., Pan, Y., Fang, J. & Xu, B. H., 18 Apr 2025, In: ACS Catalysis. 15, 8, p. 6572-6580 9 p.Research output: Contribution to journal › Article › peer-review
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Microenvironment regulation for high-performance acidic CO2 electroreduction on Poly(ionic liquid)-modified Cu surface
Pan, Y., Li, X. Q., Duan, G. Y., Fang, J. & Xu, B. H., Feb 2025, In: Applied Catalysis B: Environmental. 361, 124681.Research output: Contribution to journal › Article › peer-review
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Regulating selectivity of high-rate CO electroreduction on bimetallic catalysts
Pan, Y., Duan, G. Y., Li, R. L., Fang, J., Yu, Z. F. & Xu, B. H., 5 Dec 2025, In: Applied Catalysis B: Environmental. 378, 125584.Research output: Contribution to journal › Article › peer-review
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Switching CO2electroreduction selectivity between CO and HCOOH on poly(ionic liquid)–Ag hybrids
Li, A., Duan, G. Y., Pan, Y., Li, X. Q., Li, R. L., Fang, J., Chen, Y. M. & Xu, B. H., 28 Nov 2025, In: Nanoscale. 17, 44, p. 25526-25536 11 p.Research output: Contribution to journal › Article › peer-review
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Stabilizing High-Valence Copper(I) Sites with Cu–Ni Interfaces Enhances Electroreduction of CO2 to C2+ Products
Du, Y. R., Li, X. Q., Yang, X. X., Duan, G. Y., Chen, Y. M. & Xu, B. H., 17 Oct 2024, In: Small. 20, 42, 2402534.Research output: Contribution to journal › Article › peer-review
11 Citations (Scopus)