顾少楠 博士/副教授

硕士生导师


基本信息


办公室:化工楼C307

实验室:化工楼C304、C306

电 话:15665755905

邮 箱:sngu@qlu.edu.cn

Scopus Author ID: 55303763000

orcid personal page:https://orcid.org/0000-0002-5781-6428


教育背景及工作经历


2011-2016 北京科技大学 博士

2016-2017 香港科技大学 研究助理

2017-2018 香港理工大学 博士后

2019-至今 半岛电竞app 副教授


研究方向


锂离子电池、锂硫电池电极材料、光催化材料等能源转化与储存材料的设计、合成与结构性质计算。欢迎感兴趣的同学加入课题组!


承担科研项目


1. 稀土元素多电子层键合活性中心RE-N的构筑及多硫化锂反应调控,国家自然科学基金,30万,主持,2022-2024

2.MoFe活性中心对光催化氮还原反应的调控,科教产融合试点工程项目,30万,主持,2022-2023.

3. 多壳层三元过渡金属氧化物@氮掺杂碳@石墨烯气凝胶锂离子电池负极材料的构筑及性能,国家自然科学基金,70万,参与,2020-2024

4. 二维-二维纳米片层结构TiO2/MXene复合材料的可控构筑及在光催化领域的应用,山东省自然科学基金,10万,参与,2019-2022

5. 多孔功能材料构筑及应用研究,济南市“高校20条”创新团队项目,150万,结题,2019-2022

6. 半岛电竞app优秀人才启动基金,30万,主持,2019-2022


发表论文


54. Yang, C.; Wang, X.; Ren, Y.;Gu, S.;Wang, Q.; Li, H.; Yue, K.; Zhou, G.*,NiFe2V2O8@N-doped carbon yolk-double shell spheres for efficient lithium storage,Chemical Engineering Journal2023,15, 140045

53. Zhu, L.; Hu, F.; Sun, B.;Gu, S.; Zhou, G.*,Recent advances on multivariate MOFs for photocatalytic CO2reduction and H2 evolution,Advanced Sustainable Systems2023,7, 2200394

52. Li, H.; Zhao, H.; Tao, B.; Xu, G.;Gu, S.*, Wang, G.; Chang, H.,Pt-based oxygen reduction reaction catalysts in proton exchange membrane fuel cells: controllable preparation and structural design of catalytic layer,Nanomaterials2022,23, 4173

51.Gu, S.*;Xu, S.; Sonf, X.; Li, H.; Wang, Y.; Zhou, G.; Chang, H.,Electrostatic potential-induced Co-N4active centers in a 2D conductive metal-organic framework for high-performance lithium-sulfur batteries,ACS Applied Material and Interfaces2022,45, 50815-50826(封面文章)

50. Wang, Q.; Wu, Y.; Pan, N.; Yang, C.; Wu, S,; Li, D,;Gu, S,*; Chai, J.,Preparation of rambutan-like Co0.5Ni0.5Fe2O4/C as anodes for high-performance lithium-ion batteries,Fronters in Chemistry2022,10, 1052560

49. Guo, M,;Gu, S.*; Xu, S.; Lu, J,; Wang, Y.; Zhou, G., Design, synthesis and application of two-dimensional metal tellurides as high-performance electrode materials,Fronters in Chemistry2022,10, 1023003

48.Gu, S.*; Liu, B.; Jiang, Y.; Li, H.; Wang, Y.; Gao, Y.; Ren, Y.; Zhou G.,Rational design of dual catalysts towards efficient polysulfides conversion for high performance Li-S batteries,Journal of Power Sources2022,545, 231950.

47. Li, H.; Zhao. H.; Li, C.; Li, B.; Tao, B.;Gu, S.*; Wang G.; Chang, H., Redox regulation of photocatalytic nitrogen reduction by gadolinium doping in two-dimensional bismuth molybdate nanosheets,Applied Surface Science2022,600, 154105

46.Ren, Y.;Li, X.;Wang, Y.;Gu, S.;Gao, T.;Cao, P.; Zhou, G., Preparation of yolk-double shell Mn0.5Zn0.5Co2O4/C nanomaterials as anodes for high-performance lithium-ion batteries,Applied Materials Today2022,27, 101452

45.Yue, K.;Zhai, C.;Gu, S.;Yeo, J.; Zhou, G., The effect of ionic liquid-based electrolytes for dendrite-inhibited and performance-boosted lithium metal batteries.Electrochimica Acta2022,401,

44.Ren, Y.;Li, X.;Wang, Y.;Gong, Q.;Gu, S.;Gao, T.;Sun, X.; Zhou, G., Self-template formation of porous yolk-shell structure Mo-doped NiCo2O4 toward enhanced lithium storage performance as anode material.Journal of Materials Science and Technology2022,102, 186-194.

43.Li, H.;Deng, H.;Gu, S.*;Li, C.;Tao, B.;Chen, S.;He, X.;Wang, G.;Zhang, W.; Chang, H., Engineering of bionic Fe/Mo bimetallene for boosting the photocatalytic nitrogen reduction performance.Journal of Colloid and Interface Science2022,607, 1625-1632.(封面文章)

42.Zha, Y.;Liu, X.;Gu, S.; Liu, J., Enhanced photocatalytic performance of rhodamine B and enrofloxacin by Pt loaded Bi4V2O11: boosted separation of charge carriers, additional superoxide radical production, and the photocatalytic mechanism.RSC Advances2021,11(16), 9746-9755.

41.Yue, K.;Zhai, C.;Gu, S.;He, Y.;Yeo, J.; Zhou, G., Performance-enhanced lithium metal batteries through ionic liquid based electrolytes and mechanism research derived by density functional theory calculations.Electrochimica Acta2021,368.

40.Sun, B.;Dong, X.;Li, H.;Shang, Y.;Zhang, Y.;Hu, F.;Gu, S.;Wu, Y.;Gao, T.; Zhou, G., Surface charge engineering for two-dimensional Ti2CTx MXene for highly efficient and selective removal of cationic dye from aqueous solution.Separation and Purification Technology2021,272.

39.Liu, X.;Gu, S.#;Zhang, X.;Li, X.;Zhao, Y.; Li, W., The production discipline and mechanism of hydroxyl radical by investigating the Ln2O3-Bi2MoO6 heterojunction photocatalysts.Journal of Alloys and Compounds2021,864.

38.Li, X.;Li, W.;Gu, S.;Liu, X.;Li, H.;Ren, C.;Ma, X.; Zhou, H., Efficient ytterbium-doped Bi2WO6 photocatalysts: Synthesis, the formation of oxygen vacancies and boosted superoxide yield for enhanced visible-light photocatalytic activity.Journal of Alloys and Compounds2021,851.

37.Li, H.;Li, C.;Tao, B.;Gu, S.;Xie, Y.;Wu, H.;Zhang, G.;Wang, G.;Zhang, W.; Chang, H., Two-Dimensional Metal Telluride Atomic Crystals: Preparation, Physical Properties, and Applications.Advanced Functional Materials2021,31(23).

36.Gong, Q.;Wang, H.;Song, W.;Sun, B.;Cao, P.;Gu, S.;Sun, X.; Zhou, G., Tunable Synthesis of Hierarchical Yolk/Double-Shelled SiOx@TiO2@C Nanospheres for High-Performance Lithium-Ion Batteries.Chemistry - A European Journal2021,27(8), 2555.

35.Tang, X.;Zhao, C.;Li, Z.;Zhang, Y.;Gu, S.*InHollow sandwich-structured N-doped carbon-silica-carbon nanocomposite anode materials for Li ion batteries,Journal of Physics: Conference Series,2020.

34.Ren, C.;Li, W.;Gu, S.;Liu, X.;Li, X.;Fan, H.;Han, K.; Ma, X., ZnSe nanoparticles with bulk WC as cocatalyst: A novel and noble-metal-free heterojunction photocatalyst for enhancing photocatalytic hydrogen evolution under visible light irradiation.Applied Materials Today2020,20.

33.Liu, X.;Gu, S.*;Zhao, Y.;Zhou, G.; Li, W., BiVO4, Bi2WO6 and Bi2MoO6 photocatalysis: A brief review.Journal of Materials Science and Technology2020,56, 45-68.(高被引)

32.Liu, T.;Gong, Q.;Cao, P.;Sun, X.;Ren, J.;Gu, S.*; Zhou, G., Preparations of nife2o4 yolk-shell@c nanospheres and their performances as anode materials for lithium-ion batteries.Nanomaterials2020,10(10), 1-15.

31.Liu, B.;Gu, S.*;Li, H.;Wang, Y.;He, Y.;Song, X.; Zhou, G., Valence mediation of samarium towards polysulfides as a redox mediator for high performance Li–S batteries.Materials Today Energy2020,17.

30.Li, H.;Gu, S.#;Tao, B.;Xie, Y.;Guo, F.;Zhang, S.;Liu, B.;Liu, J.;Zhang, W.; Chang, H., Highly wrinkled NiO nanosheet-based hierarchical structure/reduced fluorographene composite for enhanced performance of lithium-sulfur battery.Journal of the Taiwan Institute of Chemical Engineers2020,111, 205-211.

29.Li, H.;Gu, S.#;Sun, Z.;Guo, F.;Xie, Y.;Tao, B.;He, X.;Zhang, W.; Chang, H., The in-built bionic moFe cofactor in Fe-doped two-dimensional MoTe2nanosheets for boosting the photocatalytic nitrogen reduction performance.Journal of Materials Chemistry A2020,8(26), 13038-13048.

28.Gong, Q.;Wang, H.;Song, W.;Sun, B.;Cao, P.;Gu, S.;Sun, X.; Zhou, G., Tunable Synthesis of Hierarchical Yolk/Double-Shelled SiOx@TiO2@C Nanospheres for High-Performance Lithium-Ion Batteries.Chemistry - A European Journal2020.

27.Gong, Q.;Gu, S.;Li, J.;Wang, Q.;Sun, X.; Zhou, G., Fabrication of Silica/Sulfur@Polyaniline Spheres with Radial Mesochannels as Enhanced Cathode Materials for High-Performance LithiumSulfur Batteries.ChemNanoMat2020,6(5), 827-836.

26.Fan, H.;Zhou, H.;Li, W.;Gu, S.*; Zhou, G., Facile fabrication of 2D/2D step-scheme In2S3/Bi2O2CO3 heterojunction towards enhanced photocatalytic activity.Applied Surface Science2020,504.(高被引)

25.Wang, F.;Gu, S.;Shang, R.;Jing, P.;Wang, Y.; Li, W., Fabrication of AgBr/La2Ti2O7 hierarchical heterojunctions: Boosted interfacial charge transfer and high efficiency visible-light photocatalytic activity.Separation and Purification Technology2019,229.

24.Gu, S.;Bai, Z.;Majumder, S.;Huang, B.; Chen, G., Conductive metal–organic framework with redox metal center as cathode for high rate performance lithium ion battery.Journal of Power Sources2019,429, 22-29.

23.Gu, S.;Bai, Z.;Majumder, S.;Huang, B.; Chen, G., In situ grown α-Cos/Co heterostructures on nitrogen doped carbon polyhedra enabling the trapping and reaction-intensification of polysulfides towards high performance lithium sulfur batteries.Nanoscale2019,11(43), 20579-20588.

22.Wendi, H.;Sun, J.;Shen, T.;Gu, S.; Wang, X., DMF-Assisted Hydrothermal Synthesis of BiVO4/Bi2VO5 Heterojunction Photocatalyst with Highly Enhanced Photocatalytic Activity.Russian Journal of Physical Chemistry A2018,92(9), 1837-1845.

21.Wang, F.;Li, W.;Gu, S.;Li, H.;Ren, C.; Liu, X., Construction of Eu2O3/g-C3N4 Redox Heterojunctions Containing Eu3+/Eu2+ Self-Redox Centers for Boosted Visible-Light Photocatalytic Activity.European Journal of Inorganic Chemistry2018,2018(22), 2564-2573.

20.Wang, F.;Li, W.;Gu, S.;Li, H.;Wu, X.;Ren, C.; Liu, X., Facile fabrication of direct Z-scheme MoS2/Bi2WO6 heterojunction photocatalyst with superior photocatalytic performance under visible light irradiation.Journal of Photochemistry and Photobiology A: Chemistry2017,335, 140-148.

19.Wang, F.;Li, W.;Gu, S.;Li, H.;Liu, X.; Ren, C., Visible-light-driven heterojunction photocatalysts based on g-C3N4 decorated La2Ti2O7: Effective transportation of photogenerated carriers in this heterostructure.Catalysis Communications2017,96, 50-53.

18.Li, H.;Li, W.;Gu, S.;Wang, F.;Liu, X.; Ren, C., Forming oxygen vacancies inside in lutetium-doped Bi2MoO6 nanosheets for enhanced visible-light photocatalytic activity.Molecular Catalysis2017,433, 301-312.

17.Wang, M.;Li, W.;Zhao, Y.;Gu, S.;Wang, F.;Li, H.;Liu, X.; Ren, C., Synthesis of BiVO4-TiO2-BiVO4 three-layer composite photocatalyst: Effect of layered heterojunction structure on the enhancement of photocatalytic activity.RSC Advances2016,6(79), 75482-75490.

16.Wang, F.;Li, W.;Gu, S.;Li, H.;Wu, X.; Liu, X., Samarium and Nitrogen Co-Doped Bi2WO6Photocatalysts: Synergistic Effect of Sm3+/Sm2+Redox Centers and N-Doped Level for Enhancing Visible-Light Photocatalytic Activity.Chemistry - A European Journal2016,22(36), 12859-12867.

15.Wang, F.;Li, W.;Gu, S.;Li, H.;Liu, X.; Wang, M., Fabrication of FeWO4@ZnWO4/ZnO Heterojunction Photocatalyst: Synergistic Effect of ZnWO4/ZnO and FeWO4@ZnWO4/ZnO Heterojunction Structure on the Enhancement of Visible-Light Photocatalytic Activity.ACS Sustainable Chemistry and Engineering2016,4(12), 6288-6298.

14.Li, H.;Li, W.;Gu, S.;Wang, F.;Zhou, H.;Liu, X.; Ren, C., Enhancement of photocatalytic activity in Tb/Eu co-doped Bi2MoO6: The synergistic effect of Tb-Eu redox cycles.RSC Advances2016,6(53), 48089-48098.

13.Li, H.;Li, W.;Gu, S.;Wang, F.; Zhou, H., In-built Tb4+/Tb3+ redox centers in terbium-doped bismuth molybdate nanograss for enhanced photocatalytic activity.Catalysis Science and Technology2016,6(10), 3510-3519.

12.Gu, S.;Li, W.;Wang, F.;Li, H.; Zhou, H., Substitution of Ce(III,IV) ions for Bi in BiVO4 and its enhanced impact on visible light-driven photocatalytic activities.Catalysis Science and Technology2016,6(6), 1870-1881.

11.Gu, S.;Li, W.;Luo, W.; Chang, Z., Novel Application of Silicate Sol to Improve the Stability of Sodium Dodecylsulfate Foams Used for Enhanced Oil Recovery.Chemistry and Technology of Fuels and Oils2016,52(4), 386-395.

10.Gu, S.;Li, W.;Bian, Y.;Wang, F.;Li, H.; Liu, X., Highly-Visible-Light Photocatalytic Performance Derived from a Lanthanide Self-Redox Cycle in Ln2O3/BiVO4 (Ln: Sm, Eu, Tb) Redox Heterojunction.Journal of Physical Chemistry C2016,120(34), 19242-19251.

9.Zhang, Y.;Chang, Z.;Luo, W.;Gu, S.;Li, W.; An, J., Effect of starch particles on foam stability and dilational viscoelasticity of aqueous-foam.Chinese Journal of Chemical Engineering2015,23(1), 276-280.

8.Wu, X.;Zhou, H.;Gu, S.;Wang, F.;Liu, J.; Li, W., In situ preparation of novel heterojunction BiOBr/BiVO4 photocatalysts with enhanced visible light photocatalytic activity.RSC Advances2015,5(112), 92769-92777.

7.Wang, S.;Li, W.;Chen, F.;Gu, S.; Chang, Z., Visible light-driven BiVO4/TiO2 composite photocatalysts: Preparation methods and photocatalytic performance.Australian Journal of Chemistry2015,68(8), 1268-1275.

6.Wang, F.;Li, W.;Gu, S.;Li, H.;Zhou, H.; Wu, X., Novel In2S3/ZnWO4 heterojunction photocatalysts: facile synthesis and high-efficiency visible-light-driven photocatalytic activity.RSC Advances2015,5(109), 89940-89950.

5.Guo, X. N.;Liu, S. X.;Gu, S. N.;Liu, J.;Chang, Z. D.; Li, W. J., Preparation and properties of BiVO4/TiO2-graphene composite photocatalysts with wide spectra.Gongcheng Kexue Xuebao/Chinese Journal of Engineering2015,37(8), 1057-1062.

4.Gu, S.;Li, W. J.;Luo, W. L.;Chang, Z. D.; Zhou, H. L., Hydrophobic ZnO: Low temperature complex-precipitate synthesis and application in improving foam stability.Chinese Journal of Inorganic Chemistry2015,31(3), 594-602.

3.Gu, S.;Li, W.;Wang, F.;Wang, S.;Zhou, H.; Li, H., Synthesis of buckhorn-like BiVO4 with a shell of CeOx nanodots: Effect of heterojunction structure on the enhancement of photocatalytic activity.Applied Catalysis B: Environmental2015,170-171, 186-194.

2.Gu, S.;Sun, H. Y.;Fan, Y. J.; Sun, Z. X., Synthesis of size tunable nano copper oxide and its surface sulphidization.Chinese Journal of Inorganic Chemistry2013,29(6), 1185-1191.

1.Ru, M.;Chang, Z.;Luo, W.;Li, W.;Gu, S.;Zhang, Y.;Qiu, H.; Niu, J., Influence of hydrophobically modified silicon dioxide particles on stability of EOR flooding foam.Huagong Xuebao/CIESC Journal2012,63(6), 1943-1950.


授权专利


1.顾少楠,宋晓艺,周国伟,刘冰洁,任永强,一种锂硫电池用导电MOF修饰碳纤维纸插层材料,中国发明专利,专利号:ZL 202010421996.9

2.顾少楠,刘冰洁,王轶男,周国伟,宋晓艺,松枝状氧化钐石墨烯硫凝胶结构材料及制备方法与应用,中国发明专利,专利号:ZL 201910865750.8

3. 周国伟,宫庆华,顾少楠,孙学凤,胡婷婷,一种锂硫电池正极用硫/二氧化硅/聚苯胺核壳结构纳米复合材料及制备方法,中国发明专利,专利号:ZL 201910266578.4

4. 周国伟,刘田莉,顾少楠,宫庆华,王茜,核壳状铁酸镍及制备方法、铁酸镍@C材料及制备方法与应用,中国发明专利,专利号:ZL 201911088948.6


承担课程


《物理化学》,《物理化学实验》


主要荣誉


1. 半岛电竞app青年教学名师

2. 山东省青年教师教学比赛三等奖(2021)

3. 半岛电竞app教师教学比赛一等奖(2020)

4. 半岛电竞app本科生优秀毕业论文指导教师(2022)

4. 半岛电竞app本科生优秀毕业论文指导教师(2021)










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