1. (18).Yuan, Saifei;The Synergy of Substrate Chemical Environments and Single Atom Catalysts Promotes Catalytic Performance: Nitrogen Reduction on Chiral and Defected Carbon Nanotubes ACS APPL MATER INTER. In Press.

  2. (18).Zhang, Siyu;Rong, Xianchao;Li, Tao;Ren, Wenjie;Ren, Hao;*Zhi, Linjie;Wu, Mingbo;*Li, Zhongtao;Theoretical Kinetic Quantitative Calculation Predicted the Expedited Polysulfides Degradation NANO RES. 2022, 1998-1024.

  3. (17).Wang, Lu;Wang, Lin;*Yuan, Saifei;Song, Liping;Ren, Hao;XU, Yuankang;He, Manman;Zhang, Yuheng;Wang, Hang;Huang, Yichao;Wei, Tong;Zhang, Jiangwei;*Himeda, Yuichiro;*Fan, Zhuangjun;*Covalently-bonded single-site Ru-N2 knitted into covalent triazine frameworks for boosting photocatalytic CO2 reduction APPL CATAL B-ENVIRON. 2023, 322, 122097.

  4. (16).Ge, Zhencui;Zhao, Wen;*Yuan, saifei;Gao, Zhixiao;Hao, Chunlian;Ma, Hao;*Ren, Hao;Guo, Wenyue;*Effect of surface Se concentration on stability and electronic structure of monolayer Bi2O2Se. APPL SURF SCI. In Press.

  5. (15).Chen, Zhengnan;Chi, Yuhua;*Ma, Hao;Yuan, Saifei;Hao, Chunlian;Zhu, Houyu;Guo, Wenyue; Effect of vacancy concentration on the production selectivity of Janus In2S2X (X=Se, Te) monolayer heterojunction photocatalytic reduction of CO2. PHYSICA E. 2023, 146, 115549.

  6. (14).Ma, Hao;Wang, Zhengjie;Zhao, Wen;*Ren, Hao;Zhu, Houyu;Chi, Yuhua,Guo, Wenyue;* Enhancing the Photoinduced Interlayer Charge Transfer and Spatial Separation in Type-II Heterostructure of WS2 and Asymmetric Janus-MoSSe with Intrinsic Self-Build Electric Field. J PHYS CHEM LETT. 2022, 13, 8484.

  7. (13). Hao, Chunlian; Zhu, Houyu; Ren, Hao; Chi, Yuhua; Zhao, Wen; Liu, Xiuping;* Guo, Wenyue;* Enhancing the natural gas upgrading and acetylene extraction performance of stable zirconium-organic frameworks PCN-605 by ligand functionalization. J. Environ. Chem. Eng. 2022, 10, 108383.

  8. (12). Gao, Zhixiao; Ma, Hao; Yuan, Saifei; Ren, Hao; Ge, Zhencui; Zhu, Houyu; Guo, Wenyue; Ding, Feng; Zhao, Wen;* Benzenehexol-based 2D MOF as high-performance electrocatalyst for oxygen reduction reaction. Appl. Surf. Sci. 2022, 601, 154181.

  9. (11). Ren, Hao; Zhang, Qian; Wang, Zhengjie; Zhang, Guozhen; Liu, Hongzhang; Guo, Wenyue; Mukamel, Shaul;* Jiang, Jun;* Machine learning recognition of protein secondary structures based on two-dimensional spectroscopic descriptors. Proc. Natl. Acda. Sci. U.S.A. 2022, 119(18), e2202713119.

  10. (10). Ma, Hao; Zhao, Wen;* Zhang, Qian; Liu,Dongyuan; Ren, Hao; Zhu, Houyu; Chi, Yuhua; Ding, Feng;* Guo, Wenyue;* Chemical environment dependent stabilities, electronic properties, and diffusion behaviors of intrinsic point defects in novel two-dimensional MoSi2N4 monolayer. Appl. Surf. Sci. 2022, 592, 153214.

  11. (9). Cao, Shoufu; Zhou, Sainan; Chen, Hongyu; Wei, Shuxian; Liu, Siyuan; Lin, Xiaojing; Chen, Xiaodong; Wang, Zhaojie; Guo, Wenyue; Lu, Xiaoqing; How can the Dual-atom Catalyst FeCo-NC Surpass Single-atom Catalysts Fe-NC/Co-NC in CO2RR? - CO Intermediate Assisted Promotion via a Synergistic Effect. Energy Environ. Mater. 2022, 0, 1-9.

  12. (8). Li, Min; Wang, Minmin; Liu, Dongyuan; Shi, Naiyou; Liu, Shoujie; Sun, Kaian; Chen, Yanju; Zhu, Houyu; Guo, Wenyue; Li, Yanpeng; Cui, Zhiming; Liu, Bin; Liu, Yunqi; Liu, Chenguang; Atomically-dispersed NiN4-Cl active sites with axial Ni-Cl coordination for accelerating electrocatalytic hydrogen evolution. J. Mater. Chem. A. 2022, 10, 6007-6015.

  13. (7). Hao, Chunlian; Ren, Hao; Zhu, Houyu;* Chi, Yuhua; Zhao, Wen; Liu, Xiuping; Guo, Wenyue;* CO2-favored metal–organic frameworks SU-101(M) (M = Bi, In, Ga, and Al) with inverse and high selectivity of CO2 from C2H2 and C2H2. Sep. and Purif. Technol. 2022, 290, 120804.

  14. (6). Ma, Huifang; Wu, Bin; Wang, Ying; Ren, Hao; Jiang, Wanshun;* Tang, Mingming;* Guo, Wenyue;* A novel lattice boltzmann scheme with single extended force term for electromagnetic wave propagating in one-dimensional plasma medium. Electronics 2022, 11, 882.

  15. (5). Ma, Huifang; Yang, Yanzhao; Jing, Heng; Jiang, Wanshun; Guo, Wenyue;* Ren, Hao;* A semi-empirical model to retrieve finite temperature terahertz absorption spectra using Morse potential. Chin. J. Chem. Phys. 2022, in press.

  16. (4). Wang, Qian; Zhang, Qian; He, Hua;* Feng, Zhenzhen; Mao, Jian; Hu, Xiang; Wei, Xiaoyun; Bi, Simin; Qin, Guangyong; Wang, Xiaojuan; Ge, Baosheng; Yu, Daoyong; Ren, Hao; Huang, Fang;* Carbon dot blinking fingerprint uncovers native membrane receptor organizations via deep learning. Anal. Chem. 2022, 94, 3914.

  17. (3). Li, Tuya; Zhu, Houyu;* Yu, Zehua; Shi, Naiyou; Ma, Qitang; Yu, Jinggang; Ren, Hao; Pan, Yuan; Liu, Yunqi; Guo, Wenyue; Promotion effects of Ni-doping on H2S removal and ZnO initial sulfuration over ZnO nanowire by first-principle study. Mol. Catal. 2022, 519, 112148.

  18. (2). Wu, Zhensheng;* Yang, Haitao;* Tian, Fuqiang; Ren, Hao; Chen, Yu; Effective tuning of the performance of conductive silicon compound by few-layered graphene additives. Nanomaterials 2022, 12, 907.

  19. (1). Liu, Dongyuan; Zhu, Houyu; Yuan, Saifei; Shi, Naiyou; Yu, Jinggang; Li, Tuya; Ma, Qitang; Zhao, Wen; Ren, Hao; Guo, Wenyue; Understanding the oxygen-vacancy-related catalytic cycle for H2 oxidation on ceria-based SOFC anode and the promotion effect of lanthanide doping from theoretical perspectives. Appl. Surf. Sci. 2022, 576, 151803.