Al homogeneous deposition induced by N-containing functional groups for enhanced cycling stability of Al-ion battery negative electrode

Rechargeable Al-ion batteries (AIBs) are considered as one of the most fascinating energy storage systems due to abundant Al resource and low cost. However, the cycling stability is subjected to critical problems for using Al foil as negative electrode, including Al dendrites, corrosion and pulveriz...

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Veröffentlicht in:Nano research 2021-03, Vol.14 (3), p.646-653
Hauptverfasser: Jiao, Handong, Jiao, Shuqiang, Song, Wei-Li, Xiao, Xiang, She, Dongmei, Li, Na, Chen, Haosen, Tu, Jiguo, Wang, Mingyong, Fang, Daining
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container_issue 3
container_start_page 646
container_title Nano research
container_volume 14
creator Jiao, Handong
Jiao, Shuqiang
Song, Wei-Li
Xiao, Xiang
She, Dongmei
Li, Na
Chen, Haosen
Tu, Jiguo
Wang, Mingyong
Fang, Daining
description Rechargeable Al-ion batteries (AIBs) are considered as one of the most fascinating energy storage systems due to abundant Al resource and low cost. However, the cycling stability is subjected to critical problems for using Al foil as negative electrode, including Al dendrites, corrosion and pulverization. For addressing these problems, here a lightweight self-supporting N-doped carbon rod array (NCRA) is demonstrated for a long-life negative electrode in AIBs. Experimental analysis and first-principle calculations reveal the storage mechanism involving the induced deposition of N-containing function groups to Al as well as the ideal skeleton of the NCRA matrix for Al plating/stripping, which is favorable for regulating Al nucleation and suppressing dendrites growth. Compared with the Al foil, the NCRA exhibits lower areal mass density (∼ 72% of Al foil), smaller thickness (40% of Al foil), but much longer cycle life (> 4 times of Al foil). Benefiting from the remarkable stability of the array structure, symmetric cells show excellent cycling stability with small voltage hysteresis (∼ 80 mV) and meanwhile there are no corrosion and pulverization problems even after cycled for 120 hours. Besides, full cells also manifest long lifespan (1,500 cycles) and increased Coulombic efficiency (100±1%).
doi_str_mv 10.1007/s12274-020-3088-y
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However, the cycling stability is subjected to critical problems for using Al foil as negative electrode, including Al dendrites, corrosion and pulverization. For addressing these problems, here a lightweight self-supporting N-doped carbon rod array (NCRA) is demonstrated for a long-life negative electrode in AIBs. Experimental analysis and first-principle calculations reveal the storage mechanism involving the induced deposition of N-containing function groups to Al as well as the ideal skeleton of the NCRA matrix for Al plating/stripping, which is favorable for regulating Al nucleation and suppressing dendrites growth. Compared with the Al foil, the NCRA exhibits lower areal mass density (∼ 72% of Al foil), smaller thickness (40% of Al foil), but much longer cycle life (&gt; 4 times of Al foil). Benefiting from the remarkable stability of the array structure, symmetric cells show excellent cycling stability with small voltage hysteresis (∼ 80 mV) and meanwhile there are no corrosion and pulverization problems even after cycled for 120 hours. 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However, the cycling stability is subjected to critical problems for using Al foil as negative electrode, including Al dendrites, corrosion and pulverization. For addressing these problems, here a lightweight self-supporting N-doped carbon rod array (NCRA) is demonstrated for a long-life negative electrode in AIBs. Experimental analysis and first-principle calculations reveal the storage mechanism involving the induced deposition of N-containing function groups to Al as well as the ideal skeleton of the NCRA matrix for Al plating/stripping, which is favorable for regulating Al nucleation and suppressing dendrites growth. Compared with the Al foil, the NCRA exhibits lower areal mass density (∼ 72% of Al foil), smaller thickness (40% of Al foil), but much longer cycle life (&gt; 4 times of Al foil). Benefiting from the remarkable stability of the array structure, symmetric cells show excellent cycling stability with small voltage hysteresis (∼ 80 mV) and meanwhile there are no corrosion and pulverization problems even after cycled for 120 hours. Besides, full cells also manifest long lifespan (1,500 cycles) and increased Coulombic efficiency (100±1%).</abstract><cop>Beijing</cop><pub>Tsinghua University Press</pub><doi>10.1007/s12274-020-3088-y</doi><tpages>8</tpages></addata></record>
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identifier ISSN: 1998-0124
ispartof Nano research, 2021-03, Vol.14 (3), p.646-653
issn 1998-0124
1998-0000
language eng
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source SpringerNature Journals
subjects Aluminum-ion batteries
Arrays
Atomic/Molecular Structure and Spectra
Biomedicine
Biotechnology
Chemistry and Materials Science
Condensed Matter Physics
Corrosion
Cycles
Dendrites
Deposition
Electrodes
Energy storage
First principles
Functional groups
Life span
Materials Science
Metal foils
Nanotechnology
Nucleation
Rechargeable batteries
Research Article
Storage batteries
Storage systems
Structural stability
title Al homogeneous deposition induced by N-containing functional groups for enhanced cycling stability of Al-ion battery negative electrode
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