基本信息来源于合作网站,原文需代理用户跳转至来源网站获取       
摘要:
Sodium-ion storage devices are highly desirable for large-scale energy storage applications owing to the wide availability of sodium resources and low cost.Transition metal nitrides(TMNs)are promising anode materials for sodium-ion storage,while their detailed reaction mechanism remains unexplored.Herein,we synthesize the mesoporous Mo3N2 nanowires(Meso-Mo3N2-NWs).The sodium-ion storage mecha-nism of Mo3N2 is systematically investigated through in-situ XRD,ex-situ experimental characterizations and detailed kinetics analysis.Briefly,the Mo3N2 undergoes a surface pseudocapacitive redox charge stor-age process.Benefiting from the rapid surface redox reaction,the Meso-Mo3N2-NWs anode delivers high specific capacity(282 mAh g-1 at 0.1 A g-1),excellent rate capability(87 mAh g-1 at 16 A g-1)and long cycling stability(a capacity retention of 78.6%after 800 cycles at 1 A g-1).The present work highlights that the surface pseudocapacitive sodium-ion storage mechanism enables to overcome the sluggish sodium-ion diffusion process,which opens a new direction to design and synthesize high-rate sodium-ion storage materials.
推荐文章
Kyanite far from equilibrium dissolution rate at 0–22℃ and pH of 3.5–7.5
Kinetics
Kyanite
Reaction rates
Mixed-flow reactor
Adsorption characteristics of copper ion on nanoporous silica
Nanoporous silica
Copper ion
Adsorption
An experimental study of interaction between pure water and alkaline feldspar at high temperatures a
Alkaline feldspar
Autoclave
High-temperature and high-pressure experiments
Mo2N量子点@N-掺杂石墨烯复合材料的制备及储锂性能
Mo2N量子点
氮掺杂石墨烯
纳米材料
纳米结构
电化学
锂离子电池
内容分析
关键词云
关键词热度
相关文献总数  
(/次)
(/年)
文献信息
篇名 Surface pseudocapacitance of mesoporous Mo3N2 nanowire anode toward reversible high-rate sodium-ion storage
来源期刊 能源化学 学科
关键词
年,卷(期) 2021,(4) 所属期刊栏目
研究方向 页码范围 295-303
页数 9页 分类号
字数 语种 英文
DOI
五维指标
传播情况
(/次)
(/年)
引文网络
引文网络
二级参考文献  (0)
共引文献  (0)
参考文献  (0)
节点文献
引证文献  (0)
同被引文献  (0)
二级引证文献  (0)
2021(0)
  • 参考文献(0)
  • 二级参考文献(0)
  • 引证文献(0)
  • 二级引证文献(0)
引文网络交叉学科
相关学者/机构
期刊影响力
能源化学
双月刊
2095-4956
10-1287/O6
大连市中山路457号
eng
出版文献量(篇)
2804
总下载数(次)
0
论文1v1指导