Enhanced potassium storage of carbon nanofibers as binderfree anodes enabled by coupling ultra-small amorphous Sb₂O₃,graphene modification and sulfur doping AITranslate

1Ya-Nan Zhang,Chen-Yang Su,Jun-Lei Chen,Wen-Huan Huang,Rui Lou.Recent progress of transition metal-based biomass-derived carbon composites for supercapacitor[J].Rare Metals,2023,42(3):769-796. 被引量：3

2Zhao Huang,Baling Fang,Jin Deng.Multi-objective optimization strategy for distribution network considering V2Genabled electric vehicles in building integrated energy system[J].Protection and Control of Modern Power Systems,2020,5(1):48-55. 被引量：37

3Chenglin Zhang,Huaping Zhao,Yong Lei.Recent Research Progress of Anode Materials for Potassium-ion Batteries[J].Energy & Environmental Materials,2020,3(2):105-120. 被引量：8

6Bing-Lu Deng,Li-Ping Guo,Yuan Lu,Hai-Bo Rong,Dong-Chu Cheng.Sulfur–nitrogen co-doped graphene supported cobalt–nickel sulfide rGO@SN-CoNi_(2)S_(4) as highly efficient bifunctional catalysts for hydrogen/oxygen evolution reactions[J].Rare Metals,2022,41(3):911-920. 被引量：3

7Jun Pan,Nana Wang,Yanli Zhou,Xianfeng Yang,Wenyao Zhou,Yitai Qian,Jian Yang.Simple synthesis of a porous Sb/Sb2O3 nanocomposite for a high-capacity anode material in Na-ion batteries[J].Nano Research,2017,10(5):1794-1803. 被引量：10

8Qun Ma,Lida Song,Yuan Wan,Kangze Dong,Zhiyuan Wang,Dan Wang,Hongyu Sun,Shaohua Luo,Yanguo Liu.Precise tuning of low-crystalline Sb@Sb_(2)O_(3) confined in 3D porous carbon network for fast and stable potassium ion storage[J].Journal of Materials Science & Technology,2021(35):123-129. 被引量：3

10Ting Fu,Peng-Chao Li,Hong-Cheng He,Shuang-Shuang Ding,Yong Cai,Ming Zhang.Electrospinning with sulfur powder to prepare CNF@G-Fe_(9)S_(10) nanofibers with controllable particles distribution for stable potassium-ion storage[J].Rare Metals,2023,42(1):111-121. 被引量：1

1Call for Papers from Journal of Future Foods[J].食品科学,2024,45(5).

2Call for Papers from Journal of Future Foods[J].食品科学,2024,45(7).

3Call for Papers from Journal of Future Foods[J].食品科学,2024,45(6).

4Luming Wu,Ruge Zhao,Guo Du,Huan Wang,Machuan Hou,Wei Zhang,Pingchuan Sun,Tiehong Chen.Hierarchically porous Fe/N/S/C nanospheres with high-content of Fe-Nx for enhanced ORR and Zn-air battery performance[J].Green Energy & Environment,2023,8(6):1693-1702. 被引量：1

6Ting-Ting Wang,Bao-Shuai Xing,Chuan-Yu Guo,Juan-Yuan Hao,You Wang,Li-Hua Huo,Xiao-Li Cheng,Ying-Ming Xu.Recent advances of emerging tin disulfide for room temperature gas sensing[J].Rare Metals,2023,42(12):3897-3913.

7Daijie Deng,Honghui Zhang,Jianchun Wu,Xing Tang,Min Ling,Sihua Dong,Li Xu,Henan Li,Huaming Li.Electronic structure and spin state regulation of vanadium nitride via a sulfur doping strategy toward flexible zinc-air batteries[J].Journal of Energy Chemistry,2024,89(2):239-249.

8Guoping Liu,Lingling Ding,Yuxuan Meng,Ahmad Ali,Guifu Zuo,Xianguang Meng,Kun Chang,Oi Lun Li,Jinhua Ye.A review on ultra-small undoped MoS_(2) as advanced catalysts for renewable fuel production[J].Carbon Energy,2024,6(2):92-112.

9Xinwei Wang,Rong Chen,Shuhui Sun.Material manufacturing from atomic layer[J].International Journal of Extreme Manufacturing,2023,5(4):454-460. 被引量：1

10Yongbiao Mu,Youqi Chu,Lyuming Pan,Buke Wu,Lingfeng Zou,Jiafeng He,Meisheng Han,Tianshou Zhao,Lin Zeng.3D printing critical materials for rechargeable batteries: from materials, design and optimization strategies to applications[J].International Journal of Extreme Manufacturing,2023,5(4):215-245.

Basic Information:

DOI：

Chinese Library Classification Number:TM912[电气工程—电力电子与电力传动];TQ343[化学工程—化纤工业];TB383.1[一般工业技术—材料科学与工程]

Citation Information:

Considering the intrinsic advantages of natural copiousness and cost-effectiveness of potassium resource,potassium-ion batteries(KIBs) are booming as prospective alternatives to lithium-ion batteries(LIBs) in large-scale energy storage scenarios. Nevertheless, lacking desirable electrodes for reversibly hosting the bulky K+hinders the widespread application of KIBs, and it needs to be urgently solved. Hereon, the porous S-doped Sb₂O₃-graphene-carbon(SAGC) nanofibers are manufactured through an adjustable and facile approach, which involves electrospinning, in situ etching and sulfuration. The synthesized SAGC is featured by the ultra-small amorphous Sb₂O₃ homogeneously wrapped inside the carbon matrix, as well as the co-incorporation of graphene and sulfur. Tentatively,the SAGC nanofiber sheets are applied as binder-free anodes for KIBs, exhibiting a prominent cycling life(256.72 m Ah·g^-1 over 150 cycles at 100 m A·g^-1) and rate·g^-1 over 100 cycles at 1 A·g^-1). The positive synergy among all the active components accounts for the distinguished performances of the SAGC. By reinforcing the tolerability to the swelling stress, producing the valid electrochemical active sites, and promoting the charge transferring for reversible K+uptake, the SAGC finally renders the excellent cyclability, capacity, and rate capability. Moreover, the extrinsic electrochemical pseudocapacitance characteristics induced by the porous carbon substrate elevate the K-storage capacity of the SAGC as well. It is hoped that the conclusions drawn may offer new insights into a direction for the high-performance binderfree KIB anodes.