钠离子电池用高性能锑基负极材料的调控策略研究进展

doi:10.3866/PKU.WHXB202204049

物理化学学报 >> 2022, Vol. 38 >> Issue (11): 2204049.doi: 10.3866/PKU.WHXB202204049

所属专题：新锐科学家专刊

钠离子电池用高性能锑基负极材料的调控策略研究进展

李莹¹^,², 来雪琦¹^,², 曲津朋¹^,², 赖勤志¹^,², 伊廷锋¹^,²^,³^,*()

¹ 东北大学材料科学与工程学院, 沈阳 110819
² 东北大学秦皇岛分校资源与材料学院, 河北秦皇岛 066004
³ 河北省电介质与电解质功能材料重点实验室, 河北秦皇岛 066004

收稿日期:2022-04-26 录用日期:2022-05-20 发布日期:2022-05-25
通讯作者: 伊廷锋 E-mail:tfyihit@163.com
基金资助:
国家自然科学基金(U1960107);国家自然科学基金(22179019);河北省三三三人才工程(A202005018);河北省自然科学基金(B2020501003);中央高校基本业务费重点科学研究引导项目(N2123001)

Research Progress in Regulation Strategies of High-Performance Antimony-Based Anode Materials for Sodium Ion Batteries

Ying Li¹^,², Xueqi Lai¹^,², Jinpeng Qu¹^,², Qinzhi Lai¹^,², Tingfeng Yi¹^,²^,³^,*()

¹ School of Materials Science and Engineering, Northeastern University, Shenyang 110819, China
² School of Resources and Materials, Northeastern University at Qinhuangdao, Qinhuangdao 066004, Hebei Province, China
³ Key Laboratory of Dielectric and Electrolyte Functional Material Hebei Province, Qinhuangdao 066004, Hebei Province, China

Received:2022-04-26 Accepted:2022-05-20 Published:2022-05-25
Contact: Tingfeng Yi E-mail:tfyihit@163.com
About author:Tingfeng Yi, Email: tfyihit@163.com
Supported by:
the National Natural Science Foundation of China(U1960107);the National Natural Science Foundation of China(22179019);the "333" Talent Project of Hebei Province(A202005018);the Natural Science Foundation of Hebei Province, China(B2020501003);the Fundamental Research Funds for the Central Universities, China(N2123001)

摘要/Abstract

摘要：

锑(Sb)具有高的理论比容量、较小的电极极化、合适的Na⁺脱嵌电位、价格低廉以及环境友好的优势，而成为一种具有较大应用前景的钠离子电池负极材料。但是，Sb基负极材料的一个重要挑战是在循环过程中高比容量伴随着大的体积变化，进而导致活性材料粉化，并从集流体上脱落，这大大限制了其在钠离子电池领域的大规模应用。因此，如何解决Sb基负极材料充放电过程中体积膨胀问题对于高性能的钠离子电池设计是至关重要的。本文详细综述和讨论了Sb基材料的结构-性能关系及其在钠离子电池中的应用，详细介绍了钠离子电池Sb基负极材料在氧化还原反应机理、形貌设计、结构-性能关系等方面的最新研究进展。本综述的主要目的是探讨影响Sb基负极材料性能的决定因素，从而提出有前途的改性策略，以提高其可逆容量和循环稳定性。最后，对Sb基钠离子电池负极材料的未来发展、面临的挑战和前景进行了展望。本文可为Sb负极材料的构建和优化提供具体的观点，阐明了Sb基负极材料未来的发展方向，从而促进钠离子电池的快速发展和实际应用。

关键词: 钠离子电池, 反应机理, Sb, 负极材料, 优化策略

Abstract:

Na-ion batteries (SIBs) are promising alternatives for Li-ion batteries owing to the natural abundance of sodium resources and similar energy storage mechanisms. Although significant progress has been achieved in research on SIBs, there remain several challenges to be addressed. One of the major challenges in the construction of high-performance SIBs is the development of suitable anode materials with a large reversible capacity, high cycling stability, and good rate performance. Alloying anode materials mainly composed of elements from Groups IVA and VA, as well as their alloys, have attracted widespread attention because of their low working voltage, high cost-effectiveness, and large theoretical capacity. Alloying-type anode materials can be alloyed with metallic Na to achieve large reversible capacities, ensuring a high energy density. Antimony is a promising anode material for SIBs owing to its high theoretical specific capacity (660 mAh·g⁻¹, corresponding to the full sodiation Na₃Sb alloy), small degree of electrode polarization (~0.25 V), appropriate Na⁺ deintercalation potential (0.5–0.75 V), low price, and environmental friendliness. However, an important challenge for using Sb-based anode materials is that the high specific capacity is accompanied by large volume changes during cycling. Such changes lead to the pulverization of the active materials and their falling off from the collector, which significantly limit their large-scale application in the field of sodium-ion batteries. Therefore, mitigating the volume expansion issue of Sb-based anode materials in the charge-discharge process is very important for the design of high-performance SIBs. In recent years, researchers have attempted to address this issue by designing special structures to prepare various composites, and substantial progress has been achieved in improving the electrochemical performance of SIBs. In this review, the relationship between the structure and properties of Sb-based materials and their applications in SIBs are presented and discussed in detail. The latest research progress on using Sb-based anode materials for SIBs in redox reaction mechanisms along with their morphology design, structure-performance relationship, etc. have been reviewed. The main objective of this review is to explore the determining factors of the performance of Sb-based anode materials to propose suitable modification strategies for improving their reversible capacity and cycle stability. Finally, future developments, challenges, and prospects of Sb-based anode materials for SIBs are discussed. Despite several challenges, Sb-based materials are very promising anode materials for SIBs with alloying reaction mechanisms. To further improve the large-scale application of Sb-based anode materials, it is necessary to optimize the binder, electrode structure, and electrolyte composition. The combination of in-depth studies on the electrochemical reaction mechanisms and advanced characterization technologies is important for the development and construction of advanced Sb-based anode materials for SIBs. Finally, to achieve extensive large-scale applications, it is necessary to further explore environmentally friendly, low-cost, and controllable synthetic technologies to prepare high-performance Sb-based anode materials. This review provides specific perspectives for the construction and optimization of Sb-based anode materials and suggests scope for future work on Sb-based anode materials, thereby promoting the rapid development and practical application of SIBs.

Key words: Sodium ion battery, Reaction mechanism, Sb, Anode material, Optimization strategy

李莹, 来雪琦, 曲津朋, 赖勤志, 伊廷锋. 钠离子电池用高性能锑基负极材料的调控策略研究进展[J]. 物理化学学报, 2022, 38(11), 2204049. doi: 10.3866/PKU.WHXB202204049

Ying Li, Xueqi Lai, Jinpeng Qu, Qinzhi Lai, Tingfeng Yi. Research Progress in Regulation Strategies of High-Performance Antimony-Based Anode Materials for Sodium Ion Batteries[J]. Acta Phys. -Chim. Sin. 2022, 38(11), 2204049. doi: 10.3866/PKU.WHXB202204049

链接本文: https://www.whxb.pku.edu.cn/CN/10.3866/PKU.WHXB202204049

https://www.whxb.pku.edu.cn/CN/Y2022/V38/I11/2204049

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Anode	Carbon source	Rate capability Capacity [mAh?g^?1] (current density)	Cycling stability Capacity [mAh?g^?1] (n, current density)	Ref.
Sb-N/C	Urea and citric acid	142 (10 A?g^?1)	220 (180, 2 A?g^?1)	4
Sb@C microsphere	Furfural	228 (7C)	456 (300, 0.3C)	5
peapod-like Sb@C	Glucose	206 (10 A?g^?1)	305 (3000, 1 A?g^?1)	6
Sb@C	Bio-oil	303 (5 A?g^?1)	391 (500, 1 A?g^?1)	7
Sb@NC	1-Ethyl-3-methylimidazolium dicyanamide	237 (5 A?g^?1)	395 (100, 0.1 A?g^?1)	14
Sb/NPC	Phenylamine	357 (1.6 A?g^?1)	530 (100, 0.1 A?g^?1)	18
Sb@NCs	Diethylenetriaminepentaacetic acid	240 (2 A?g^?1)	360 (250, 0.1 A?g^?1)	35
Sb/NPC	Nitrilotriacetic acid	114 (2 A?g^?1)	401 (100, 0.1 A?g^?1)	38
Sb-CNC	1-methylimidazole and ClCH₂CN	203 (5 A?g^?1)	475 (150, 0.1 A?g^?1)	43
a-Sb/C	CaC₂	164 (10 A?g^?1)	283 (3000, 5 A?g^?1)	44

Anode	Synthesis method	Rate capability [mAh?g^?1] (current density)	Cycling stability [mAh?g^?1] (n, current density)	Ref.
MS_Fe-Sb alloy	Melt-spinning process	300 (1 A?g^?1)	466 (80, 0.05 A?g^?1)	8
FeSb₂	Ball milling	490 (0.3 A?g^?1)	440 (150, 0.3 A?g^?1)	24
FeSb-TiC-C	High energy mechanical milling	155 (10 A?g^?1)	215 (100, 0.1 A?g^?1)	20
Cu₂Sb-Al₂O₃-C	Mechanochemical reaction	160 (10 A?g^?1)	198 (70, 0.1 A?g^?1)	31
NiSb⊂3DCM	Cross-linking and galvanic replacement reaction	248 (5 A?g^?1)	345 (400, 1 A?g^?1)	25
Bi_0.2Sb_0.8	Mechanical alloying method	270 (1.5 A?g^?1)	520 (200, 0.05 A?g^?1)	32
Bi_0.25Sb_1.75Te₃/C	Ball milling	331 (2 A?g^?1)	406 (100, 2 A?g^?1)	36
SnSb/NC	One-pot process	85 (2 A?g^?1)	244 (200, 0.1 A?g^?1)	37
SnSb-TiC-C	High energy mechanical milling	200 (3 A?g^?1)	210 (30, 0.1 A?g^?1)	118
CNF-SnSb	Electrospun	110 (20C)	345 (200, 0.2C)	120
SnSb@rGO@CMFs	Centrifugally-spun	190 (0.8 A?g^?1)	325 (200, 0.05 A?g^?1)	122
SnSb/CNT@graphene	Hydrothermal method	268 (1 A?g^?1)	360 (100, 0.1 A?g^?1)	129
SnSb NCs	Colloidal synthesis	230 (20C)	345 (100, 0.5C)	130
Sn-Sb	Replacement reaction route	367 (2 A?g^?1)	451 (150, 0.5 A?g^?1)	131
SnSb	Ball milling	400 (4C)	525 (125, 0.5C)	137
SnS/SnSb@C	Electrospinning	159 (2 A?g^?1)	495 (100, 0.05 A?g^?1)	138
SnSb	Electrodeposited	440 (4C)	300 (100, 0.5C)	139

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钠离子电池用高性能锑基负极材料的调控策略研究进展

Research Progress in Regulation Strategies of High-Performance Antimony-Based Anode Materials for Sodium Ion Batteries

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