阴极
微尺度化学
锂(药物)
电池(电)
有机自由基电池
储能
材料科学
笔记本电脑
纳米技术
商业化
工程物理
可再生能源
锂离子电池的纳米结构
计算机科学
工艺工程
阳极
电气工程
工程类
电极
化学
业务
物理
数学
物理化学
内分泌学
操作系统
功率(物理)
量子力学
营销
医学
数学教育
作者
Seung‐Taek Myung,Khalil Amine,Yang‐Kook Sun
摘要
The present concern with global warming urgently requires a large increase in the energy share provided by green, renewable energy sources, as well as massive commercialization of sustainable vehicles. The widespread availability of reliable energy storage systems and highly efficient lithium batteries can, in principle, meet this need. For example, many individuals already own at least one lithium-ion battery portable device, such as a cellular phone, MP3 player, digital camera, or laptop computer. Hybrid electric vehicles and full electric vehicles will sooner or later be marketed with lithium-ion batteries. However, to acquire an established role in the commercial sector, lithium-ion batteries must be improved with regard to energy density, cost, and particularly, safety. Further development of electrode materials, especially the cathode active materials, is important to satisfy the above requirements. The easiest route to cathode improvement is to modify the cathode surface. This article describes recent advances in cathode active materials with surface modification from the nano- to microscale.
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