材料科学
阴极
容量损失
涂层
纳米技术
插层(化学)
电池(电)
工程物理
光电子学
电气工程
功率(物理)
工程类
无机化学
化学
物理
量子力学
作者
Weiyuan Huang,Jianyuan Li,Qinghe Zhao,Shunning Li,Mingyuan Ge,Jianjun Fang,Zhefeng Chen,Lei Yu,Xiaozhou Huang,Wenguang Zhao,Xiaojing Huang,Guoxi Ren,Nian Zhang,Lunhua He,Jianguo Wen,W. L. Yang,Mingjian Zhang,Tongchao Liu,Khalil Amine,Feng Pan
标识
DOI:10.1002/adma.202405519
摘要
, up to 93% of Li utilization). This innovative approach also demonstrates exceptional cyclability and rate capability, as validated in practical Ah-level pouch full cells, surpassing the current performance benchmarks. Comprehensive characterizations with multiscale X-ray, electron diffraction, and imaging techniques unveil that the gradient disordering structure notably diminishes the anisotropic lattice strain and exhibits high fatigue resistance, even under extreme delithiation states and harsh operating voltages. Consequently, this designed LCO cathode impedes the growth and propagation of particle cracks, and mitigates irreversible phase transitions. This work sheds light on promising directions toward next-generation high-energy-density battery materials through structural chemistry design.
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