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1) Yongxing Wei, Xiaotao Wang, Jintao Zhu, Xiaoli Wang*, J. J. Jia, Dielectric, Ferroelectric and Piezoelectric Properties of BiFeO₃¨CBaTiO₃ Ceramics, J. Am. Ceram. Soc. 2013; 96: 3163-3168. (JCR 1Çø, Time cited: 114£¬ESIÇ°3%¸ß±»ÒýÂÛÎÄ)

http://onlinelibrary.wiley.com/doi/10.1111/jace.12475/full 

2) Yongxing Wei*, Ning Zhang, Changqing Jin, Weitong Zhu, Yiming Zeng, Gang Xu, Ling Gao, Zengyun Jian, Bi_0.5K_0.5TiO₃¨CCaTiO₃ ceramics: Appearance of the pseudocubic structure and ferroelectric©\relaxor transition characters, J. Am. Ceram. Soc. 2019;102:3598-3608 (JCR 1Çø, J Am Ceram SocÇ°10%×î´óÏÂÔØÁ¿ÂÛÎÄ) https://ceramics.onlinelibrary.wiley.com/doi/10.1111/jace.16244

3) Yongxing Wei*, Xiaotao Wang, Jiangjiang Jia, Xiaoli Wang, Multiferroic and Piezoelectric Properties of 0.65BiFeO₃¨C0.35BaTiO₃ Ceramic with Pseudo-Cubic Symmetry, Ceram. Int. 2012; 38: 3499-3502. (JCR 1Çø,Time cited: 65)

http://www.sciencedirect.com/science/article/pii/S0272884211010509

4) Yongxing Wei*, Changqing Jin, Ruirui Ni, Niming Zeng, Dong Gao, Zengyun Jian, Enhanced photodielectric effect in (0.88¨Cx)Bi_0.5Na_0.5TiO₃¨C0.12BaTiO₃¨CxBa(Ti_0.5Ni_0.5)O_3¨C¦Ä (BNBTNO) ceramics, J. Eur. Ceram. Soc.  2018; 38: 4689-4693 (JCR 1Çø)  

https://www.sciencedirect.com/science/article/abs/pii/S0955221918304151

5) Yongxing Wei*, Changqing Jin,Yiming Zeng, Xiaotao Wang, Dong Gao, Xiaoli Wang, A coexistence of multi-relaxor states in 0.5BiFeO₃¨C0.5BaTiO₃, Ceram. Int. 2017; 43:17220-17224. (JCR 1Çø) http://www.sciencedirect.com/science/article/pii/S0272884217319326

6) Yongxing Wei*, Changqing Jin, Yiming Zeng, Xiaotao Wang, Gang Xu, Xiaoli Wang, Polar order evolutions near the rhombohedral to pseudocubic and tetragonal to pseudocubic phase boundaries of the BiFeO₃-BaTiO₃ system, Materials 2015; 53: 8355-8365. http://www.mdpi.com/1996-1944/8/12/5462

7) Yongxing Wei*, Chenxing Bai, Weitong Zhu, Changqing Jin, Dong Gao, Gang Xu, Zengyun Jian, Yiming Zeng, Multiferroic orders in 0.5BiFeO₃-0.5Bi_0.5K_0.5TiO₃, Ceram. Int. 2019; 45:15725~15729. (JCR 1Çø)

https://www.sciencedirect.com/science/article/pii/S0272884219310879

8) Yongxing Wei*, Chenxing Bai, Changqing Jin, Weitong Zhu, Lin Hu, Ruihua Nan, Zhonghua Dai, Frequency dispersion and temperature dependence of electrical behaviours in 0.4Bi(Ni_1/2Zr_1/2)O₃¨C0.6PbTiO₃, Ceram. Int. 2020; 46: 15297-15304 (JCR 1Çø)

https://www.sciencedirect.com/science/article/pii/S0272884220306921

9) Yongxing Wei*, Gang Xu, Changqing Jin, Yiming Zeng, Kang Yan, Siyuan Dong, Peng Li, Structure, dielectric behaviours, enhanced polarization responses and energy storage properties in (1?x)SrTiO₃¨CxBi(Mg_1/2Ti_1/2)O₃ ceramics, Appl. Phys. A 2018; 124: 862.

https://rd.springer.com/article/10.1007/s00339-018-2295-9

10) Yongxing Wei*, Changqing Jin, Pin Ye, Peng Li, Yiming Zeng, Gang Xu, Structural evolution, electrical properties and electric-field-induced changes of (0.8-x)PbTiO₃-xBiFeO₃-0.2BaZrO₃ system near the morphotropic phase boundary, Appl. Phys. A 2017; 123: 218.

https://link.springer.com/article/10.1007%2Fs00339-016-0736-x

11) Yongxing Wei*, Changqing Jin, Yiming Zeng. Progress of relaxor multiferroic materials, J. Inorg. Mater. £¨ÎÞ»ú²ÄÁÏѧ±¨£©2017; 32:1009-1017.

http://www.jim.org.cn/article/2017/1000-324X/1000-324X-32-10-1009.shtml

12) Yongxing Wei*, Ning Zhang, Gang Xu, Changqing Jin, Lin Hu, Ling Gao, Zengyun Jian, Weitong Zhu. Low-temperature dielectric anomaly in Bi_0.5K_0.5TiO₃, Appl. Phys. A 2019; 125:645.

https://rd.springer.com/article/10.1007/s00339-019-2930-0

13) Yongxing Wei*, Ning Zhang, Changqing Jin, Jiahao Shen, Jiahuan Xie, Zhonghua Dai, Lin Hu, Yiming Zeng, Zengyun Jian, A Bi_1/2K_1/2TiO₃-based ergodic relaxor ceramic for temperature-stable energy storage applications, Mater. Des.2021; 207: 109887 (JCR 1Çø)

http://www.sciencedirect.com/science/article/pii/S0264127521004408

14) Chenxing Bai, Yongxing Wei*, Changqing Jin, Weitong Zhu, Zengyun Jian, Changing the polar order using different sintering methods,, Ceram. Int. 2021; 47: 19191-19197. (JCR 1Çø) https://www.sciencedirect.com/science/article/pii/S0272884221009597

15) Yongxing Wei*, Chengxing Bai, Changqing Jin, Weitong Zhu, Zengyun Jian, Ruihua Nan, Lin Hu, Zhonghua Dai, Super short-range magnetic orderings in a multiferroic relaxor ceramic 0.41Bi(Ni_1/2Zr_1/2)O₃-0.59PbTiO₃, J. Mater. Sci. 2021; 56: 11838-11846. https://link.springer.com/article/10.1007/s10853-021-06039-1

16) Yongxing Wei*, Jiahao Shen, Chenxing Bai, Changqing Jin, Weitong Zhu, Ye Tian. Zhonghua Dai, Gang Xu, Nature of polar state in 0.67BiFeO₃-0.33BaTiO₃, J. Mater. Sci. Mater. Electron. 2020; 21: 19266-19276. https://link.springer.com/article/10.1007/s10854-020-04462-9

 

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10. G. Zhao, H. Zhou, G. Jin, B. Jin, S. Geng, Z. Luo, Z. Ge, F. Xu, Rational design of electrically conductive biomaterials toward excitable tissues regeneration, Progress in Polymer Science 131 (2022) 101573.

9. B. Jin, Z. Du, C. Zhang, Z. Yu, X. Wang, J. Hu, Z. Li, Eu-Chelate Polystyrene Microsphere-Based Lateral Flow Immunoassay Platform for hs-CRP Detection, Biosensors 12(11) (2022) 977.

8. B. Jin, Z. Li, G. Zhao, J. Ji, J. Chen, Y. Yang, R. Xu, Upconversion fluorescence-based paper disc for multiplex point-of-care testing in water quality monitoring, Analytica Chimica Acta 1192 (2022) 339388.

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5. Y. Gong, Y. Zheng, B. Jin, M. You, J. Wang, X. Li, M. Lin, F. Xu, F. Li, A portable and universal upconversion nanoparticle-based lateral flow assay platform for point-of-care testing, Talanta 201 (2019) 126-133.

4. B. Jin, Y. Yang, T. Lu, F. Xu, M. Lin, Lateral flow aptamer assay for detection of aflatoxin B1 in tea using upconversion nanoparticles, SCIENTIA SINICA Chimica 49(2) (2018) 353-359.

3. B. Jin, Y. Yang, R. He, Y.I. Park, A. Lee, D. Bai, F. Li, T.J. Lu, F. Xu, M. Lin, Lateral flow aptamer assay integrated smartphone-based portable device for simultaneous detection of multiple targets using upconversion nanoparticles, Sensors and Actuators B: Chemical 276 (2018) 48-56.

2. B. Jin, S. Wang, M. Lin, Y. Jin, S. Zhang, X. Cui, Y. Gong, A. Li, F. Xu, T.J. Lu, Upconversion nanoparticles based FRET aptasensor for rapid and ultrasenstive bacteria detection, Biosens Bioelectron 90 (2017) 525-533.

1. B. Jin, M. Lin, Y. Zong, M. Wan, F. Xu, Z. Duan, T. Lu, Microbubble embedded with upconversion nanoparticles as a bimodal contrast agent for fluorescence and ultrasound imaging, Nanotechnology 26(34) (2015) 345601.

 

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3. Äý¹Ì¼¼Êõ¹ú¼ÒÖصãʵÑéÊÒ¿ª·Å»ù½ð£¨SKLSP201410£©£ºCdZnTe¾§ÌåµÄµãȱÏÝÑо¿¼°¶Ô¹âµçÐÔÄܵÄÓ°Ï죬Ö÷³Ö£¬2014.07-2016.07£¬6ÍòÔª£»

4.  ***·¢Õ¹²¿×°±¸Ô¤ÏÈÑо¿ÁìÓò»ù½ð£¨809***501£©£º***ѹµç***Ñо¿£¬²ÎÓ룬2021.12-2022.05£¬50ÍòÔª£»

5. ¹ú¼Ò×ÔÈ»¿Æѧ»ù½ð£¨51602242£©£ºµãȱÏݵ÷¿ØµÄPSN-PMN-PT³ÚÔ¥Ìúµçµ¥¾§¾§¸ñ½á¹¹¡¢µç³ëÓ뼫ÐÔÆ£ÀÍÑо¿£¬²ÎÓ룬2017.01-2019.12£¬18ÍòÔª£»

6. ¹ú¼Ò×ÔÈ»¿Æѧ»ù½ð£¨11404251£©£ºÆøÃô½ðÊôÑõ»¯Îï°ëµ¼ÌåÄÉÃ×Çò¿ÇµÄÖƱ¸ºÍµçÊäÔ˵÷¿Ø£¬²ÎÓ룬2015.01-2017.12£¬30ÍòÔª£»

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1. ´ó³ß´ç¸ßÖÊÁ¿CH₃NH₃PbCl₃¸ÆîÑ¿óµ¥¾§µÄÉú³¤»úÀí¡¢Ïàת±äÓë¹âѧÐÔÄÜ, ÎïÀíѧ±¨(Acta Physica Sinica), 2023, 72(13): 138101, µÚÒ»×÷Õß

2. Step-controlled growth of MAPbBr₃ single crystal and temperature-dependent variations of MA⁺ cations during nonphase transition, Materials Science in Semiconductor Processing, 2021, 135: 106107, ͨѶ×÷Õß

3. Defect step controlled growth of perovskite MAPbBr₃ single crystal, Journal of Materials Science, 2019, 54: 11596-11603, ͨѶ×÷Õß

4. Distribution of microscopic defects in Al-doped CdZnTe, Journal of Materials Science, 2018, 53: 4387¨C4394, µÚÒ»×÷Õß

5. Macroscopic effects and microscopic origins of gamma-ray irradiation on In-doped CdZnTe crystal, Journal of Materials Science: Materials in Electronics, 2018, 29: 20462¨C20469, µÚÒ»×÷Õß

6. CdZnTeÏñËØ̽²âÆ÷µÄµçÊäÔËÐÔÄÜ, ÎïÀíѧ±¨(Acta Physica Sinica), 2017, 66(20): 206101, µÚÒ»×÷Õß

7. Compensation processes in high-resistivity CdZnTe crystals doped with In/Al, Journal of Crystal Growth, 2016, 451: 150¨C154, µÚÒ»×÷Õß

8. Relationship between high resistivity and the deep level defects in CZT:In, Nuclear Instruments and Methods in Physics Research Section A, 2013, 705: 32-35, µÚÒ»×÷Õß

9. Thermally stimulated current spectroscopy applied on de-fect characterization in semi-insulating Cd_0.9Zn_0.1Te, Journal of Crystal Growth, 2012, 361: 25-29, µÚÒ»×÷Õß

10. Irradiation-Induced Defects in Cd_0.9Zn_0.1Te:Al, Journal of Electronic Materials, 2012, 41: 3044-3049, µÚÒ»×÷Õß

11. Determination of trap levels in CZT:In by thermally stimulated current spectroscopy, Transactions of Nonferrous Metals Society of China, 2012, 22: s148-s152, µÚÒ»×÷Õß

12. Investigation on defect levels in CdZnTe:Al using ther-mally stimulated current spectroscopy, Journal of Physics D: Ap-plied Physics, 2010, 43: 345104, µÚÒ»×÷Õß

13. The electrical properties and defect levels of Al doped CdZnTe crystal for detector applications, Proceeding of SPIE, 2009, 7385: 73850U1-73850U7, µÚÒ»×÷Õß

14. ÄÏÈð»ª, Îä´ºÑà, Íõºã, ÕÅêØ, ½ù³¤ÇåµÈ, Ò»ÖÖ¾ßÓÐÔñÓÅÈ¡ÏòµÄ´ó³ß´ç¸ßÖÊÁ¿·øÉä̽²âÆ÷Óüװ·»ù½ðÊô±»¯Îï¸ÆîÑ¿óµ¥¾§¼°ÆäÖƱ¸·½·¨, 2023.04, ·¢Ã÷רÀû: ZL202210418717.2

15. ÄÏÈð»ª, Íõºã, Éêºìϼ, Íõ¼ª, ìèÁÕµÈ, Ò»ÖÖÏ¡ÍÁ²ôÔÓ·øÉä̽²âÆ÷ÓÃ˫±ËØÔÓ»¯¸ÆîÑ¿ó¾§Ìå²ÄÁϼ°ÆäÖƱ¸·½·¨, 2021.12, ·¢Ã÷רÀû: ZL202110243322.9

16. κÓÀÐÇ, ãÆ¿¡Áú, ½ù³¤Çå, ÕÅ»ªÎ°, ìèÁÕ, ÄÏÈ𻪵È, Ò»Ö־߱¸³¬¸ßѹµç³£ÊýµÄ³ÚÔ¥ÌúµçÌåPNN-PHTµÄºÏ³É·½·¨, 2023.04,·¢Ã÷רÀû: ZL202210844665.5

17. ÎºÓÀÐÇ, ÕÅÄþ, ½ù³¤Çå, ìèÁÕ, ÄÏÈ𻪵È, Ò»ÖÖ¾ßÓÐζÈÎȶ¨ÐÔµÄBKT»ù´¢Äܵç½éÖʲÄÁϼ°ÆäºÏ³É·½·¨, 2021.12, ·¢Ã÷רÀû: ZL202010498252.7

18. Ðí¸Ú, ¹ùÑ×·É, ¹ÈÖÇ, ÄÏÈð»ª, Àî¸ßºêµÈ, Ò»Öֶྦྷµâ»¯¹¯±¡Ä¤×Ѿ§²ãµÄÖƱ¸·½·¨, 2016.05, ·¢Ã÷רÀû: ZL201410082226.0

19. ·øÉä̽²âÆ÷ÓÃXλȡ´úMAPbBr₃¸ÆîÑ¿óµ¥¾§µÄÉú³¤ÓëÓ¦ÓÃ, ÉÂÎ÷Ê¡µÚÁù½ìÑо¿Éú´´Ð³ɹûÕ¹ÈýµÈ½±£¬2022.12, 1/2£¨µÚÒ»Ö¸µ¼½Ìʦ£©

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(1) Chenxu Zhao; Guoxu Zhang; Wang Gao*; Qing Jiang*; Single metal atoms regulated flexibly by a 2D InSe substrate for CO₂ reduction electrocatalysts, Journal of Materials Chemistry A, 2019, 7(14): 8210-8217 (ÆÚ¿¯ÂÛÎÄ)

(2) Chenxu Zhao; Menghui Xi; Jingrong Huo; Chaozheng He*; Ling Fu*; Electro-reduction of N₂ on nanostructured materials and the design strategies of advanced catalysts based on descriptors, Materials Today Physics, 2022, 22: 100609 (ÆÚ¿¯ÂÛÎÄ)

(3) Chenxu Zhao; Wang Gao*; Qing Jiang*; Scheme for Screening O₂ Reduction Electrocatalysts: From Pure Metals and Alloys to Single-Atom Catalysts, The Journal of Physical Chemistry C, 2020, 124(46): 25412-25420 (ÆÚ¿¯ÂÛÎÄ)

(4) Chenxu Zhao; Yifan Bu; Wang Gao*; Qing Jiang*; CO₂ Reduction Mechanism on the Pb(111) Surface: Effect of Solvent and Cations, The Journal of Physical Chemistry C, 2017, 121(36): 19767-19773 (ÆÚ¿¯ÂÛÎÄ)

(5) Chenxu Zhao; Menghui Xi; Jinrong Huo; Chaozheng He*; B-Doped 2D-InSe as a bifunctional catalyst for CO₂/CH₄ separation under the regulation of an external electric field, Physical Chemistry Chemical Physics, 2021, 23(40): 23219-23224 (ÆÚ¿¯ÂÛÎÄ)

 

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1. H.Q. Zhao*, C.Q. Jin, X. Yang, P. Lu, Y. Cheng, Synthesis of a one-dimensional carbon nanotube-decoratedthree-dimensional crucifix carbon architecture embedded with Co₇Fe₃/Co_5.47N nanoparticles for high-performance microwave absorption. Journal of Colloid and Interface Science, 2023, 645, 22¨C32. (ÖпÆÔº´óÀàÒ»Çø£¬ IF= 9.965)

2. H.Q. Zhao*, X. Yang, C.Q. Jin, , M.R. Li, Y. Cheng, Synthesis of porous carbon nanoparticles anchored on MnO nanosheets for enhanced microwave absorption. Ceramics International, 2023, 49, 35982-35990. (ÖпÆÔº´óÀàÒ»Çø£¬IF= 5.2)

3. H.Q. Zhao*, C.Q. Jin, P. Lu, Z.M. Xiao, Y. Cheng, Biomass-derived ultralight superior microwave absorber Towards X and Ku bands. Journal of Colloid and Interface Science, 2022, 626, 13¨C22. (ÖпÆÔº´óÀàÒ»Çø£¬IF= 9.965)

4. H.Q. Zhao*, C.Q. Jin, P. Lu, Z.M. Xiao, Y. Cheng, Anchoring well-dispersed magnetic nanoparticles on biomass-derived 2D porous carbon nanosheets for lightweight and efficient microwave absorption. Compos. Part A-Appl. Sci. Manuf. 2022, 154, 106773. (ÖпÆÔº´óÀàÒ»Çø£¬IF= 9.463)

5. H.Q. Zhao, Y. Cheng, Z. Zhang, B.S. Zhang, C.C. Pei, F. Y. Fan, G.B. Ji, Biomass-derived graphene-like porous carbon nanosheets towards ultralight microwave absorption and excellent thermal infrared properties. Carbon, 2021, 173  501-511. (ÖпÆÔº´óÀàÒ»Çø£¬IF= 11.307, ESI¸ß±»ÒýÂÛÎÄ)

6. H.Q. Zhao, Y. Cheng, Z. Zhang, J.W. Yu, J. Zheng, M. Zhou, L. Zhou, B.S. Zhang, G.B. Ji. Rational design of core-shell Co@C nanotubes towards lightweight and highefficiency microwave absorption. Composites Part B: Engineering, 2020, 196, 108119. (ÖпÆÔº´óÀàÒ»Çø£¬ IF=11.322)

7. H.Q. Zhao, Y. Cheng, W. Liu, L.J. Yang, B.S. Zhang, L. Wang, G.B. Ji, Z.C. Xu. Biomass-derived porous carbon-based nanostructures for microwave absorption. Nano-Micro Lett., 2019, 11, 24. (ÖпÆÔº´óÀàÒ»Çø£¬ IF=23.655£¬ESI¸ß±»ÒýÂÛÎÄ)

8. H.Q. Zhao, Y. Cheng, G.B. Ji, Y.W. Du. A novel hierarchically porous magnetic carbon derived from biomass for strong lightweight microwave absorption. Carbon, 2019, 142, 245-253. (ÖпÆÔº´óÀàÒ»Çø£¬IF=11.307,  ESI¸ß±»ÒýÂÛÎÄ)

9. H.Q. Zhao, Y. Cheng, J.N. Ma, Y.N. Zhang, G.B. Ji, Y. Du. A sustainable route from biomass cotton to construct lightweight and high-performance microwave absorber. Chem. Eng. J., 2018, 33, 432-441. (ÖпÆÔº´óÀàÒ»Çø£¬IF=16.744,  ESI¸ß±»ÒýÂÛÎÄ)

10. H.Q. Zhao, Y. Cheng, B.S. Zhang, G.B. Ji, Y.W. Du. Achieving sustainable ultralight electromagnetic absorber from flour by turning surface morphology of nanoporous carbon. ACS Sustain. Chem. Eng., 2018, 11, 15850-15857. (ÖпÆÔº´óÀàÒ»Çø£¬IF=9.224)

11. H.Q. Zhao, Y. Cheng, Y.N. Zhang, Z. Zhang, L. Zhou, B.S. Zhang. Core-shell hybrid nanowires with Co nanoparticles wrapped in Ndoped porous carbon for lightweight microwave absorption. Dalton Trans., 2019, 48, 15263-15271. (ÖпÆÔº´óÀà¶þÇø£¬IF=4.569)

12. H.Q. Zhao, J. Z. Yeow Seow, Y. Cheng, Z.C. J. Xu, G.B. Ji. Green synthesis of hierarchically porous carbons with tunable dielectric response for microwave absorption. Ceram. Int., 2020, 46, 15447-15455. (ÖпÆÔº´óÀà¶þÇø£¬IF=5.532)

13. H.Q. Zhao, Yan Cheng, Wei Liu, Z.H. Yang, B.S. Zhang, G.B. Ji, Y.W. Du. The flaky porous Fe₃O₄ with tunable dimensions for enhanced microwave absorption performance in X and C bands. Nanotechnology, 2018, 29, 295603. (ÖпÆÔº´óÀàÈýÇø, IF=3.953)

14. H.Q. Zhao, Y. Cheng, X.H. Liang, Y.W. Du, G.B. Ji. Constructing Large Interconnect Conductive Networks: An Effective Approach for Excellent Electromagnetic Wave Absorption at Gigahertz. Ind. Eng. Chem. Res. 2018, 57, 2155?2164. (ÖпÆÔº´óÀà¶þÇø, IF=3.573)

 

 

 

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20. Jingjing Dou; Xiang Li*; Bo Xi; Xiaoxuan Yang; Yaming Liu; Changqing Jin; Junjun Zhang. Indium-doped flower-shaped PdIn nanocatalyst for enhanced ethanol oxidation. Catal. Sci. Technol., 2023, DOI: 10.1039/D3CY00684K. (ÖпÆÔº2Çø, IF=5.0)

19. Xiang Li*; Junjun Zhang; Bo Xi; Yaming Liu; Changqing Jin; Xiaohua Feng; Ge Liu. Tuning the surface structure of Cu₂O@Pt for enhanced ethanol electrooxidation. New J. Chem., 2023, 47, 15450-15454. (ÖпÆÔº3Çø, IF=3.3)

18. Bo Xi; Xiang Li*; Junjun Zhang; Yaming Liu; Zewei Liu; Ke Wang; Jingjing Dou; and Changqing Jin. Phosphorus-Doped PdSn Nanocatalyst with Abundant Defective Atoms for Enhanced Methanol Oxidation. ACS Appl. Mater. Interfaces, 2023, 15, 30294-30301. (ÖпÆÔº2Çø, IF=10.383)

17. Liu, Yaming*; Wu, Meng; Sheng, Shanxiang; Zhi, Chao; Wang, Yongzhen; Li, Xiang*. The fabrication of Pt-Pb alloy networks with high-density micropores by dealloying for enhanced oxygen reduction activity. Int. Hydrogen Energy, 2023, 48, 13470-13478. (ÖпÆÔº2Çø, IF=7.139) .

16. Xiang Li*; Xinyuan Peng; Yixuan Wang; Bo Xi; Jingjing Dou; Jun-Jun Zhang; Yaming Liu; Changqing Jin. Iron- and Cobalt-Doped Palladium/Carbon Nanoparticles as Catalysts for Formic Acid Oxidation. ACS Appl. Nano Mater., 2022, 5, 12407-12412. (ÖпÆÔº2Çø, IF=6.140)

15. Xiang Li*; Junjun Zhang; Jingjing Dou; Mengyang Li; Xiaohua Feng; Ge Liu. Precisely Tuning the Surface Nanostructure of Ni@Pd Nanocatalysts for Enhanced Formic Acid Oxidation. ChemCatChem, 2022, e202200599. (ÖпÆÔº2Çø, IF=5.497)

14. Jun-Jun Zhang*; Meng-Yang Li; Xiang Li; Wei-Wei Bao; Chang-Qing Jin; Xiao-Hua Feng; Ge Liu; Chun-Ming Yang; Nan-Nan Zhang. Chromium-Modified Ultrathin CoFe LDH as High-Efficiency Electrode for Hydrogen Evolution Reaction. Nanomaterials, 2022, 12, 1227. (ÖпÆÔº2Çø, IF=5.719)

13. Xiang Li*; Yaming Liu; Jun-Jun Zhang; Bo Yan; Changqing Jin; Jingjing Dou; Mengyang Li; Xiaohua Feng; Ge Liu. No Annealing Synthesis of Ordered Intermetallic PdCu Nanocatalysts for Boosting Formic Acid Oxidation. Chem. Mater., 2022, 34(3): 1385-1391. (ÖпÆÔº1Çø, IF=10.508)

12. Tianou He; Weicong Wang; Fenglei Shi; Xiaolong Yang; Xiang Li; Jianbo Wu*; Yadong Yin*; Mingshang Jin*. Mastering the surface strain of platinum catalysts for efficient electrocatalysis. Nature, 2021, 598, 76-81. (ÖпÆÔº1Çø, IF=69.504)

11. Xiang Li*; Junjun Zhang; Changqing Jin; Bo Yan; Jiyun Cai; Mengyang Li; Xinyuan Peng; Yixuan Wang. Tailoring Reaction Pathways by Tuning the Surface Composition of AuPt Nanocatalysts for Enhanced Formic Acid Oxidation. ACS Sustainable Chem. Eng., 2021, 9(33): 11062-11069. (ÖпÆÔº1Çø, IF=9.224)

10. Meng-Yang Li; Jun-Jun Zhang*; Xiang Li; Wei-Wei Bao; Chun-Ming Yang; Chang-Qing Jin; Meng Li; Su-Min Wang; Nan-Nan Zhang. Tuning Electronic Structure of Self-supported Vertically Aligned CoFe LDH Arrays Integrated with Ni Foam toward High Efficient Electrocatalytic Water Oxidation. New J. Chem., 2021, 45(30): 13266-13270. (ÖпÆÔº3Çø, IF=3.925)

9. Xiang Li*; Xinyuan Peng; Yixuan Wang; Bo Yan; Synthesis of Pd Nanonetworks with Abundant Defects for Oxygen Reduction Electrocatalysis, New J. Chem., 2021, 45(5): 2814-2819. (ÖпÆÔº3Çø, IF=3.925)

8. Xiang Li*; Yaming Liu; Wei Bi; Jinglei Bi; Ruiyun Guo; Rui Li; Chaoqi Wang; Qi Zhan; Weicong Wang; Shengchun Yang; Fenglei Shi; Jianbo Wu; Mingshang Jin*; Lattice-mismatch-induced growth of ultrathin Pt shells with high-index facets for boosting oxygen reduction catalysis, J. Mater. Chem. A, 2020, 8(32), 16477-16486. (ÖпÆÔº1Çø, IF=14.511)

7. Chaoqi Wang, Xiang Li, Lei Jin, Penghan Lu, Catherine Dejoie, Wenxin Zhu, Zhenni Wang, Wei Bi, Rafal Dunin-Borkowski, Kai Chen and Mingshang Jin*. Etching-Assisted Route to Heterophase Au Nanowires with Multiple Types of Active Surface Sites for Silane Oxidation. Nano Lett., 2019, 19(9), 6363-6369. (ÖпÆÔº1Çø, IF=12.262)

6. Weicong Wang, Xiang Li, Tianou He, Yaming Liu and Mingshang Jin*. Engineering surface structure of Pt nanoshells on Pd nanocubes to preferentially expose active surfaces for ORR by manipulating the growth kinetics. Nano Lett., 2019, 19(3): 1743-1748. (ÖпÆÔº1Çø, IF=12.262)

5. Ruiyun Guo, Qiang Chen, Xiang Li, Yaming Liu, Chaoqi Wang, Wei Bi, Caiyang Zhao, Yanjun Guo and Mingshang Jin*. PdC_x nanocrystals with tunable compositions for alkyne semihydrogenation. J. Mater. Chem. A, 2019, 7(9): 4714-4720. (ÖпÆÔº1Çø, IF=14.511)

4. Yaming Liu, Xiang Li, Wei Bi and Mingshang Jin*. An etching-assisted route for fast and large-scale fabrication of non-layered palladium nanosheets. Nanoscale, 2018, 10(16): 7505-7510. (ÖпÆÔº1Çø, IF=8.307)

3. Xiang Li, Xixi Wang, Guang Yang, Maochang Liu, Qiang Chen*, Yadong Yin and Mingshang Jin*. Construction of Pd-M (M = Ni, Ag, Cu) alloy surfaces for catalytic applications. Nano Res., 2018, 11(2): 780-790. (ÖпÆÔº1Çø, IF=10.269)

2. Xiang Li, Zhenni Wang, Zhaorui Zhang, Guang Yang, Mingshang Jin,* Qiang Chen* and Yadong Yin*. Construction of Au-Pd alloy shells for enhanced catalytic performance toward alkyne semihydrogenation reactions. Mater. Horiz., 2017, 4(4): 584-590. (ÖпÆÔº1Çø, IF=15.717)

1. Xiang Li, Qiang Chen, Mengyue Wang, Zhenming Cao, Qi Zhan, Tianou He, Qin Kuang, Yadong Yin and Mingshang Jin*. Coordination effect assisted synthesis of ultrathin Pt layers on second metal nanocrystals as efficient oxygen reduction electrocatalysts. J. Mater. Chem. A, 2016, 4(34): 13033-13039. (ÖпÆÔº1Çø, IF=14.511)

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