In2S3 nanosheets array anchored on reduced graphene oxide as high-performance anode for sodium-ion batteries

Shao, Hengjia; Feng, Xiangmin; Liu, Yipeng; Zhang, Yong; Han, Lin-Xuan; Wang, Na; Zhang, Xintao; Jiang, Fuyi; Dong, Chaoqun

doi:10.1016/j.jallcom.2022.165506

Cited by 9 publications

(1 citation statement)

References 33 publications

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“…In previous works, the interactions of Mg an Li ions and some types of important nanostructures and nanomaterials are examined by theoretical models and also the potential of these nanostructures and cathodes of Mg-ion batteries and Li-ion batteries are investigated [14]. Researchers have demonstrated the attached halides on nanostructures can improve and increase their interactions with Mg ions and adsorptions of Mg ions when the attached halides on nanostructures have been used in Mg-ion batteries [15,16].…”

Section: Introductionmentioning

confidence: 99%

Potential of Silicon and Carbon Nanocages (C38, F-C38, Cl-C38, Si38, F-Si38, Cl-Si38) as Anode Materials in Li-ion Battery and Mg-ion Battery

Tian

Bao

et al. 2023

Silicon

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The potential of various nanocages in metal-ion batteries are examined to propose novel materials with higher e ciency. The gap energy (E HLG ), cohesive energy (E cohesive ) and adsorption energy (E adsorption ) of C 38 , F-C 38 , Cl-C 38 , Si 38 , F-Si 38 and Cl-Si 38 nanocages are calculated by theoretical methods. The interaction energy (E interaction ), cell voltage (V cell ) and theoretical capacity (C theory ) of C 38 , F-C 38 , Cl-C 38 , Si 38 , F-Si 38 , Cl-Si 38 nanocages in Li-ion batteries and Mg-ion batteries are calculated in gas phase and water. Results shown that the attaching of F and Cl can increase the E cohesive and stability of carbon and silicon nanocages. The silicon nanocages in Mg-ion battery and Li-ion battery have higher V cell and C theory than corresponding carbon nanocages. The Mgion batteries have higher V cell and C theory values than Li-ion batteries. Results shown that F and Cl attached to silicon nanocages (F-Si 38 and Cl-Si 38 ) have the highest V cell and C theory values in gas phase and water.

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Section: Introductionmentioning

confidence: 99%

Potential of Silicon and Carbon Nanocages (C38, F-C38, Cl-C38, Si38, F-Si38, Cl-Si38) as Anode Materials in Li-ion Battery and Mg-ion Battery

Tian

Bao

et al. 2023

Silicon

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Construction of ZnS/Sb₂S₃ Heterojunction as an Ion‐Transport Booster toward High‐Performance Sodium Storage

Dong

Shao

Zhou

et al. 2022

Adv Funct Materials

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Metal sulfides have shown great promise for sodium‐ion batteries due to their excellent redox reversibility and relatively high capacity. However, metal sulfides generally suffer from sluggish charge transport and serious volume change during the charge–discharge process. Herein, potato chip‐like nitrogen‐doped carbon‐coated ZnS/Sb2S3 heterojunction (ZnS/Sb2S3@NC) is precisely synthesized through a sulfurization reaction, and a subsequent metal cation exchange process between Zn2+ and Sb3+. The theoretical calculations and experimental studies reveal the boosted charge transfer in ZnS/Sb2S3@NC composites. Therefore, the ZnS/Sb2S3@NC electrode exhibits excellent cycling stability (a high reversible capacity of 511.4 mAh g‐1 after 450 cycles) and superior rate performance (400.4 mAh g‐1 at 10 A g‐1). In addition, ZnS/Sb2S3@NC is based on a conversion‐alloy reaction mechanism to store Na+, which is disclosed by the X‐ray diffraction and high resolution transmission electron microscopy analysis. This effective synthesis method can provide a reference for the design of other high‐performance electrode materials for sodium‐ion batteries.

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Aluminum Nitride, Silicon and Carbon Nanocages as Anode Materials in Metal-Ion Battery

Yan

2023

Silicon

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In2S3 nanosheets array anchored on reduced graphene oxide as high-performance anode for sodium-ion batteries

Cited by 9 publications

References 33 publications

Potential of Silicon and Carbon Nanocages (C38, F-C38, Cl-C38, Si38, F-Si38, Cl-Si38) as Anode Materials in Li-ion Battery and Mg-ion Battery

Potential of Silicon and Carbon Nanocages (C38, F-C38, Cl-C38, Si38, F-Si38, Cl-Si38) as Anode Materials in Li-ion Battery and Mg-ion Battery

Construction of ZnS/Sb₂S₃ Heterojunction as an Ion‐Transport Booster toward High‐Performance Sodium Storage

Aluminum Nitride, Silicon and Carbon Nanocages as Anode Materials in Metal-Ion Battery

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In2S3 nanosheets array anchored on reduced graphene oxide as high-performance anode for sodium-ion batteries

Cited by 9 publications

References 33 publications

Potential of Silicon and Carbon Nanocages (C38, F-C38, Cl-C38, Si38, F-Si38, Cl-Si38) as Anode Materials in Li-ion Battery and Mg-ion Battery

Potential of Silicon and Carbon Nanocages (C38, F-C38, Cl-C38, Si38, F-Si38, Cl-Si38) as Anode Materials in Li-ion Battery and Mg-ion Battery

Construction of ZnS/Sb2S3 Heterojunction as an Ion‐Transport Booster toward High‐Performance Sodium Storage

Aluminum Nitride, Silicon and Carbon Nanocages as Anode Materials in Metal-Ion Battery

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Construction of ZnS/Sb₂S₃ Heterojunction as an Ion‐Transport Booster toward High‐Performance Sodium Storage