Chemical Industry and Engineering Progress ›› 2024, Vol. 43 ›› Issue (7): 3872-3890.DOI: 10.16085/j.issn.1000-6613.2023-0993
• Materials science and technology • Previous Articles
SHAO Wei1(), MA Zhuang1, ZHENG Hongwei1, LIU Guangju1, GAO Xiang1, XIE Jian2, HE Qinggang1()
Received:
2023-06-16
Revised:
2023-11-02
Online:
2024-08-14
Published:
2024-07-10
Contact:
HE Qinggang
邵威1(), 马壮1, 郑宏玮1, 刘光举1, 高翔1, 谢健2, 和庆钢1()
通讯作者:
和庆钢
作者简介:
邵威(1989—),男,硕士,研究方向为水系有机电池。E-mail:jusswei@zju.edu.cn。
基金资助:
CLC Number:
SHAO Wei, MA Zhuang, ZHENG Hongwei, LIU Guangju, GAO Xiang, XIE Jian, HE Qinggang. Recent advances of organic materials for aqueous rechargeable batteries[J]. Chemical Industry and Engineering Progress, 2024, 43(7): 3872-3890.
邵威, 马壮, 郑宏玮, 刘光举, 高翔, 谢健, 和庆钢. 有机电极材料在水系电池中的应用研究进展[J]. 化工进展, 2024, 43(7): 3872-3890.
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URL: https://hgjz.cip.com.cn/EN/10.16085/j.issn.1000-6613.2023-0993
材料结构 | 电解液 | 对电极 | 电极组成 | 放电容量 /mAh·g-1, 电流密度 /A·g-1 | 倍率性能 /mAh·g-1, 电流密度 /A·g-1 | 循环稳定性/%, 循环次数 | 电池体系 | 参考文献 |
---|---|---|---|---|---|---|---|---|
PT | 1mol/L CaCl2 | — | PT∶AC 6∶3 | 150,5 | 86.1,100 | 66.6,3000 | 水系钙离子电池 | [ |
PTO | 4.4mol/L H2SO4 | PbO2 | PTO∶羧基碳管 1∶1 | 395,0.04 | 331.8,8 | 96,1500 | 铅酸电池 | [ |
PPTO | 2.5mol/L Li2SO4 | LiMn2O4 | PPTO∶SP∶ PTFE | 229 | 137.4,20C | 80,3000 | 水系锂离子电池 | [ |
PAQS | 10mol/L KOH | AC | PAQS∶SP∶PTFE 7∶2∶1 | 200 | — | 176,1350 | 碱性水系 电池 | [ |
PQ | 3mol/L Zn(CF3SO3)2 | Zn | PQ∶Super P∶PTFE 6∶3.5∶0.5 | — | — | — | 水系锌离子电池 | [ |
C4Q | 3mol/L Zn(CF3SO3)2 | 锌箔 | C4Q∶SP∶PVDF 6∶3.5∶0.5 | 335,0.02 | — | 87,1000 | 水系锌离子电池 | [ |
PQ | 2mol/L Zn(SO4)2 | Zn | PQ:AC 6∶4 | 150,0.1 | — | 96.3,36000 | 水系锌离子电池 | [ |
PT | 17mol/L NaClO4 | NiHCF | PT∶KB∶PTFE 6∶3∶1 | 126,0.2 | 87.9,50 | — | 水系钠离子电池 | [ |
锂化查尔酮 | 饱和Li2SO4 | LiFePO4 | — | 111.23,0.125C | 58.9,1C | 91,1000 | 水系锂离子电池 | [ |
PTCDA | 2mol/L ZnSO4 | Zn | PTCDA∶SP∶PVDF 6∶3∶1 | 136,0.01 | 77,1 | 80,2000 | 水系锌离子电池 | [ |
PTCDA | 0.8mol/L Mg(NO3)2 | 活性炭 | PTCDA∶SP∶PVDF 7∶2∶1 | 125,0.02 | 70,0.5 | — | 水系镁离子电池 | [ |
AQ | 1mol/L Al2(SO4)3 | 活性炭 | AQ∶SP 7∶3 | 211,0.8 | — | 94.5,500 | 水系铝离子电池 | [ |
PBQS | 3mol/L Zn(CF3SO3)2 | Zn | PBQS∶KB∶PTFE 6∶3∶1 | 203,0.1C | 126,5C | 83,50 | 水系锌离子电池 | [ |
NDA-△ | — | 锂箔 | NDA-△:SP∶PVDF 5∶4∶1 | 146.4,0.1C | 58.1,100C | — | 锂离子 电池 | [ |
NTCDA | 5mol/L LiNO3 | LiCoO2 | NTCDA∶ XE2 carbon∶PTFE 6∶3∶1 | 71,0.1 | 65,0.5 | 80,200 | 水系锂离子电池 | [ |
PNFE | 0.5mol/L Li2SO4 | MnO2 | — | 153.7,4C | 86.2,128C | 77.5,500 | 水系锂离子电池 | [ |
材料结构 | 电解液 | 对电极 | 电极组成 | 放电容量 /mAh·g-1, 电流密度 /A·g-1 | 倍率性能 /mAh·g-1, 电流密度 /A·g-1 | 循环稳定性/%, 循环次数 | 电池体系 | 参考文献 |
---|---|---|---|---|---|---|---|---|
PT | 1mol/L CaCl2 | — | PT∶AC 6∶3 | 150,5 | 86.1,100 | 66.6,3000 | 水系钙离子电池 | [ |
PTO | 4.4mol/L H2SO4 | PbO2 | PTO∶羧基碳管 1∶1 | 395,0.04 | 331.8,8 | 96,1500 | 铅酸电池 | [ |
PPTO | 2.5mol/L Li2SO4 | LiMn2O4 | PPTO∶SP∶ PTFE | 229 | 137.4,20C | 80,3000 | 水系锂离子电池 | [ |
PAQS | 10mol/L KOH | AC | PAQS∶SP∶PTFE 7∶2∶1 | 200 | — | 176,1350 | 碱性水系 电池 | [ |
PQ | 3mol/L Zn(CF3SO3)2 | Zn | PQ∶Super P∶PTFE 6∶3.5∶0.5 | — | — | — | 水系锌离子电池 | [ |
C4Q | 3mol/L Zn(CF3SO3)2 | 锌箔 | C4Q∶SP∶PVDF 6∶3.5∶0.5 | 335,0.02 | — | 87,1000 | 水系锌离子电池 | [ |
PQ | 2mol/L Zn(SO4)2 | Zn | PQ:AC 6∶4 | 150,0.1 | — | 96.3,36000 | 水系锌离子电池 | [ |
PT | 17mol/L NaClO4 | NiHCF | PT∶KB∶PTFE 6∶3∶1 | 126,0.2 | 87.9,50 | — | 水系钠离子电池 | [ |
锂化查尔酮 | 饱和Li2SO4 | LiFePO4 | — | 111.23,0.125C | 58.9,1C | 91,1000 | 水系锂离子电池 | [ |
PTCDA | 2mol/L ZnSO4 | Zn | PTCDA∶SP∶PVDF 6∶3∶1 | 136,0.01 | 77,1 | 80,2000 | 水系锌离子电池 | [ |
PTCDA | 0.8mol/L Mg(NO3)2 | 活性炭 | PTCDA∶SP∶PVDF 7∶2∶1 | 125,0.02 | 70,0.5 | — | 水系镁离子电池 | [ |
AQ | 1mol/L Al2(SO4)3 | 活性炭 | AQ∶SP 7∶3 | 211,0.8 | — | 94.5,500 | 水系铝离子电池 | [ |
PBQS | 3mol/L Zn(CF3SO3)2 | Zn | PBQS∶KB∶PTFE 6∶3∶1 | 203,0.1C | 126,5C | 83,50 | 水系锌离子电池 | [ |
NDA-△ | — | 锂箔 | NDA-△:SP∶PVDF 5∶4∶1 | 146.4,0.1C | 58.1,100C | — | 锂离子 电池 | [ |
NTCDA | 5mol/L LiNO3 | LiCoO2 | NTCDA∶ XE2 carbon∶PTFE 6∶3∶1 | 71,0.1 | 65,0.5 | 80,200 | 水系锂离子电池 | [ |
PNFE | 0.5mol/L Li2SO4 | MnO2 | — | 153.7,4C | 86.2,128C | 77.5,500 | 水系锂离子电池 | [ |
种类 | 电解液 | 对电极 | 电极组成 | 放电容量/mAh·g-1, 电流密度/A·g-1 | 倍率性能/mAh·g-1, 电流密度/A·g-1 | 循环稳定性/%, 循环次数 | 电池体系 | 参考 文献 |
---|---|---|---|---|---|---|---|---|
PANI | 2mol/L ZnSO4 | Zn | — | 160,1.5 | — | 79,700 | 水系锌离子电池 | [ |
CLPy | 30mol/L ZnCl2 | Zn | — | 105,3 | — | 96.4,38000 | 水系锌离子电池 | [ |
PPy | LiSO4 | LiCoO2 | PPy∶AB∶ PVDF 8∶1∶1 | — | — | — | 水系锂离子电池 | [ |
Cu3(HHTP)2 | 3mol/L Zn(CF3SO3)2 | Zn | Cu3(HHTP)2∶AB∶PVDF 6∶2∶2 | 228,0.05 | — | 75,500 | 水系锌离子电池 | [ |
PBA | 0.5mol/L K2SO4 | — | PBA∶AC∶PTFE 8∶1∶1 | — | — | 85,500 | 水系钾离子电池 | [ |
PA-COF | 1mol/L ZnSO4 | Zn | PA-COF∶AB∶PTFE 6∶3∶1 | 265,0.05 | 68,10 | — | 水系锌离子电池 | [ |
HqTp | 1mol/L CaCl2 | AC | PBA∶Super P∶PTFE 4∶4∶2 | 119.5,1 | 78.8,50 | 73.7,1600 | 水系钾离子电池 | [ |
种类 | 电解液 | 对电极 | 电极组成 | 放电容量/mAh·g-1, 电流密度/A·g-1 | 倍率性能/mAh·g-1, 电流密度/A·g-1 | 循环稳定性/%, 循环次数 | 电池体系 | 参考 文献 |
---|---|---|---|---|---|---|---|---|
PANI | 2mol/L ZnSO4 | Zn | — | 160,1.5 | — | 79,700 | 水系锌离子电池 | [ |
CLPy | 30mol/L ZnCl2 | Zn | — | 105,3 | — | 96.4,38000 | 水系锌离子电池 | [ |
PPy | LiSO4 | LiCoO2 | PPy∶AB∶ PVDF 8∶1∶1 | — | — | — | 水系锂离子电池 | [ |
Cu3(HHTP)2 | 3mol/L Zn(CF3SO3)2 | Zn | Cu3(HHTP)2∶AB∶PVDF 6∶2∶2 | 228,0.05 | — | 75,500 | 水系锌离子电池 | [ |
PBA | 0.5mol/L K2SO4 | — | PBA∶AC∶PTFE 8∶1∶1 | — | — | 85,500 | 水系钾离子电池 | [ |
PA-COF | 1mol/L ZnSO4 | Zn | PA-COF∶AB∶PTFE 6∶3∶1 | 265,0.05 | 68,10 | — | 水系锌离子电池 | [ |
HqTp | 1mol/L CaCl2 | AC | PBA∶Super P∶PTFE 4∶4∶2 | 119.5,1 | 78.8,50 | 73.7,1600 | 水系钾离子电池 | [ |
材料分类 | 代表性材料 | 优点 | 缺点 |
---|---|---|---|
羰基化合物 | 酮、醌、酰亚胺、酸酐 | 高容量、快速反应动力学 | 高溶解度、低电导率 |
导电聚合物 | 聚吡咯、聚苯胺 | 高电导率 | 低容量、倾斜放电平台 |
亚胺类化合物 | 吩嗪类、异咯嗪 | 高容量、快速反应动力学 | 高溶解度、低电导率 |
COFs | PA-COF | 高容量 | 低电导率 |
MOFs | Cu3(HHTP)2 | 高电导率 | — |
复合材料 | TTF-TCNQ | 高电导率 | — |
材料分类 | 代表性材料 | 优点 | 缺点 |
---|---|---|---|
羰基化合物 | 酮、醌、酰亚胺、酸酐 | 高容量、快速反应动力学 | 高溶解度、低电导率 |
导电聚合物 | 聚吡咯、聚苯胺 | 高电导率 | 低容量、倾斜放电平台 |
亚胺类化合物 | 吩嗪类、异咯嗪 | 高容量、快速反应动力学 | 高溶解度、低电导率 |
COFs | PA-COF | 高容量 | 低电导率 |
MOFs | Cu3(HHTP)2 | 高电导率 | — |
复合材料 | TTF-TCNQ | 高电导率 | — |
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