Apricot shell derived hard carbons and their tin oxide composites as anode materials for sodium-ion batteries

Demir, Emrah; Aydın, Meral; Arie, Arenst Andreas; Demir‐Cakan, Rezan

doi:10.1016/j.jallcom.2019.02.264

Cited by 46 publications

(24 citation statements)

References 39 publications

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“…Figure is the XRD patterns of the composites pyrolyzed at different temperatures, indicating that the thermal treatment above 500 °C leads the thermal reduction from SnO 2 to Sn. The similar finding is also reported in previous work . Furthermore, the relatively low temperature makes SnO 2 less crystalline, as the broad peaks displayed in the XRD patterns, which is beneficial for the diffusion and intercalation of Na + …”

Section: Resultssupporting

confidence: 91%

“…The similar finding is also reported in previous work. 26 Furthermore, the relatively low temperature makes SnO 2 less crystalline, as the broad peaks displayed in the XRD patterns, which is beneficial for the diffusion and intercalation of Na + . 13 The surface and interior morphologies of SnO 2 /C-2 were respected via TEM and SEM analyses.…”

Section: ■ Results and Discussionmentioning

confidence: 99%

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Uniform Nano-SnO₂/C Composite Anodes from Coal Tar Pitch for Sodium-Ion Batteries

Liu

Wang

2021

Energy Fuels

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Because of the superiority in high theoretical capacity and environmental friendliness, SnO 2 as an ideal anode material exhibits an application prospect in sodium-ion batteries. Nevertheless, its practical use is restricted by the poor electroconductivity and huge volume expansion. To solve these difficulties, a maneuverable and effective strategy is introduced to synthesis SnO 2 /C composites in this work. For the operation, the composites are prepared via a one-pot hydrothermal technique. For the effect, SnO 2 particles disperse uniformly on the pitchderived carbon matrix in nanometer size. The impacts of the pyrolysis temperature and SnO 2 content are investigated in detail. It is surprising that the diameter of the SnO 2 particle is ∼5 nm observed by high-resolution transmission electron microscopy, and the Sn−O−C bond exists, confirmed by X-ray photoelectron spectroscopy. In comparison to the carbonaceous substrate and pure SnO 2 , the composite shows higher storage capacity and greater cycle performance that SnO 2 /C-2 delivers a charge specific capacity of 311.8 mAh g −1 at 100 mA g −1 initially and a residual capacity of 144.2 mAh g −1 after 1000 cycles at 500 mA g −1 . The remarkable electrochemical performance benefits from the nanosized SnO 2 particles with high dispersion as well as the tight link between SnO 2 and the carbon matrix.

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Section: Resultssupporting

confidence: 91%

Section: ■ Results and Discussionmentioning

confidence: 99%

Uniform Nano-SnO₂/C Composite Anodes from Coal Tar Pitch for Sodium-Ion Batteries

Liu

Wang

2021

Energy Fuels

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“…Furthermore, the materials should be environmentally friendly, simple for the preparation process, and rich in availability 10a,54. At present, SIB anode materials include carbonaceous materials (graphene, carbon nanotubes (CNTs), carbon NFs, hard carbon, etc. ), metal oxides (TiO 2 ,41c,59 SnO 2 , etc.…”

Section: The Electrode Engineering Of Traditional Sib Materials Desigmentioning

confidence: 99%

Electrode Engineering by Atomic Layer Deposition for Sodium‐Ion Batteries: From Traditional to Advanced Batteries

Zhang

et al. 2019

Adv Funct Materials

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Sodium‐ion batteries (SIBs) have emerged as one of the most promising and competitive energy storage systems due to abundant sodium resources and its environmentally friendly features. However, further improvements in the engineering of the SIB electrode/electrolyte interphase—which directly determines the Na‐ion transfer behavior, material structure stability, and sodiation/desodiation property—are highly recommended to meet the continuously increasing requirements for secondary power sources. Reasonably speaking, to promote SIBs, the advanced and controllable interphase/electrode engineering approach exhibits promise by rationally designing the bulk electrode and generating a well‐defined interphase. Atomic layer deposition (ALD) technology, with atomic‐scale deposition, superior uniformity, excellent conformality, and a self‐limiting nature, is thus expected to address the current challenges facing SIBs in terms of low energy density, limited cycling life, and structural instability, and to promote innovations such as multifunctional electrodes and nanostructured materials for advanced SIBs. This review summarizes and discusses the most recent advancements in the interphase engineering of SIBs by ALD via modifying traditional electrodes and designing advanced electrodes (such as 3D, organic, and protected sodium metal electrodes). Furthermore, based on the recent critical progress and current scientific understanding, future perspectives for the engineering of next‐generation SIB electrodes by ALD can be provided.

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“…[48,[78][79][80][81][82][83][84] Many studies have been reported by using BDC as an important part of batteries. [50][51][52][53][54][55][56][57][58][59][60] To better understand the research progress of BDC, we summarized the performance improvement diagrams of BDC-based materials in LIBs (Figure 1b), [79,80,[85][86][87][88][89][90][91][92][93][94][95] SIBs (Figure 1c) [8,81,[96][97][98][99][100][101][102][103] and KIBs (Figure 1d) [104][105][106][107][108]…”

Section: Introductionmentioning

confidence: 99%

Biomass‐Derived Carbon for High‐Performance Batteries: From Structure to Properties

Sun

Shi

Yang

et al. 2022

Adv Funct Materials

101

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Owing to the sustainability, environmental friendliness, and structural diversity of biomass-derived materials, extensive efforts have been devoted to use them as energy storage materials in high-energy rechargeable batteries. A timely and comprehensive review from the structures to mechanisms will significantly widen this research field. Here, it starts with the operation mechanism of batteries, and it aims to summarize the latest advances for biomass-derived carbon to achieve high-energy battery materials, including activation carbon methods and the structural classification of biomass-derived carbon materials from zero dimension, one dimension, two dimension, and three dimension. Each strategy starts with carefully selected examples and then moves to illustrate the underlying transport mechanism of electrons in the structure. In the end, challenges, strategies, and outlooks are pointed out for the future development of biomass-derived carbon materials. Overall, this review will help researchers choose appropriate strategies to design biomass-derived carbon materials, thereby promoting the application of biomass materials in battery design.

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Apricot shell derived hard carbons and their tin oxide composites as anode materials for sodium-ion batteries

Cited by 46 publications

References 39 publications

Uniform Nano-SnO₂/C Composite Anodes from Coal Tar Pitch for Sodium-Ion Batteries

Uniform Nano-SnO₂/C Composite Anodes from Coal Tar Pitch for Sodium-Ion Batteries

Electrode Engineering by Atomic Layer Deposition for Sodium‐Ion Batteries: From Traditional to Advanced Batteries

Biomass‐Derived Carbon for High‐Performance Batteries: From Structure to Properties

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Apricot shell derived hard carbons and their tin oxide composites as anode materials for sodium-ion batteries

Cited by 46 publications

References 39 publications

Uniform Nano-SnO2/C Composite Anodes from Coal Tar Pitch for Sodium-Ion Batteries

Uniform Nano-SnO2/C Composite Anodes from Coal Tar Pitch for Sodium-Ion Batteries

Electrode Engineering by Atomic Layer Deposition for Sodium‐Ion Batteries: From Traditional to Advanced Batteries

Biomass‐Derived Carbon for High‐Performance Batteries: From Structure to Properties

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Product

Resources

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Uniform Nano-SnO₂/C Composite Anodes from Coal Tar Pitch for Sodium-Ion Batteries

Uniform Nano-SnO₂/C Composite Anodes from Coal Tar Pitch for Sodium-Ion Batteries