摘要
锂离子电池作为一种重要的能量储存器,具备广泛的应用前景。正极材料是锂离子电池中关键的组成部分,其性能直接影响着电池的工作性能。本文研究了不同原料配比对锂电池正极材料性能的影响,并通过溶胶凝胶法制备新型锂电池正极材料。实验结果表明,通过调整原料配比,可优化正极材料的能量密度、循环寿命和倍率性能。高能量密度配比方案提高了电池的能量密度,但循环寿命相对较短,而平衡性能配比方案在能量密度、循环寿命和倍率性能之间达到了更好的平衡。同时,本文探讨优化设计新型锂电池正极材料的潜力和展望,包括提高能量密度、增强循环寿命和提高安全性等方面,通过材料设计与制备工艺的创新、跨界合作与技术集成以及强调可持续性和环保性,有望推动新型锂电池正极材料的发展,以满足电动汽车、移动设备等领域对高性能锂电池的需求。
Lithium ion batteries,as an important energy storage device,had broad application prospects.The positive electrode material was a crucial component in lithium-ion batteries,and its performance directly affects the working performance of the battery.In this paper,the effects of different raw materials on the performance of cathode materials for lithium batteries were studied,and new cathode materials for lithium batteries were prepared by sol-gel method.The experimental results showed that by adjusting the raw material ratio,the energy density,cycle life,and rate performance of the positive electrode material can be optimized.The high energy density ratio scheme improves the energy density of the battery,but the cycle life was relatively short,while the balanced performance ratio scheme achieves a better balance between energy density,cycle life,and rate performance.At the same time,this article explores the potential and prospects of optimizing the design of new lithium battery cathode materials,including improving energy density,enhancing cycle life,and improving safety.Through innovative material design and preparation processes,cross-border cooperation and technology integration,as well as emphasizing sustainability and environmental protection,it was expected to promote the development of new lithium battery cathode materials and meet the demand for high-performance lithium batteries in fields such as electric vehicles and mobile devices.
作者
梁振鹏
LIANG Zhen-peng(Huizhou Bestgrand St.An Chemicals Co.,Ltd.,Guangdong Huizhou 516000,China)
出处
《广州化工》
CAS
2024年第12期60-62,65,共4页
GuangZhou Chemical Industry
关键词
锂离子电池
正极材料
原料配比
电化学性能
lithium-ion batteries
positive electrode material
raw material ratio
electrochemical performance