制备富镍氧化物和 LLZO 陶瓷锂离子导体的新型泰勒流反应器研究

Impact Pub Date : 2024-01-22 DOI:10.21820/23987073.2024.1.31
Chun-Chen Yang
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引用次数: 0

摘要

新的绿色技术更有利于保护环境,在全球变暖和气候变化日益加剧的背景下,这一点变得越来越重要。随着电池供电设备的普及,其中一个重要部分就是改进电池技术,提高性能和能效。台湾明基科技大学化学工程系的杨春辰教授也是台湾绿色能源电池研究中心(BRCGE)的主任,该中心正在进行新型、革命性电池技术的研发工作。杨和他的团队关注的重点是锂(Li)电池和融合了不同元素的新型电池,以期提高储能能力和绿色可持续能源实践。他认识到需要提高这些电池的能量密度和安全性,以满足未来应用的要求,并正在探索使用全固态锂金属电池(ASSLMB)的好处。研究人员正在使用泰勒流反应器进行研究,以制备富含镍的氧化物和 LLZO 陶瓷锂离子导体,目前已经取得了一些优势,他们希望将来这种方法能被广泛采用,并能开发出新的改进型电池。首先,研究小组希望克服难以控制均匀性和质量的问题。
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Research on new Taylor flow reactor to prepare Ni-rich oxide and LLZO ceramic Li+ ion conductors
New, green technologies are better for the environment and this is increasingly important in the context of worsening global warming and climate change. With the prevalence of battery powered devices, an important part of this is improved battery technology with improved performance and enhanced energy efficiency. Professor Chun-Chen Yang, Department of Chemical Engineering, Ming Chi University of Technology, Taiwan is also a director of the Battery Research Centre of Green Energy (BRCGE), Taiwan, which is conducting R&D on new, revolutionary battery technologies. A focus for Yang and his team is lithium (Li) batteries and new versions that incorporate different elements, with a view to improving energy storage capacity and green sustainable energy practices. He recognises the need to increase the energy density and safety of these batteries in order to meet the requirements of future applications and is exploring the benefits of using a full solid-state Li metal battery (ASSLMB). The researchers are conducting studies using a Taylor flow reactor to prepare Ni-rich oxide and LLZO ceramic Li+ ion conductors and have already yielded advantages and they hope, in the future, the method can be adopted on a wide scale and lead to the development of new and improved batteries. First, the team is keen to overcome issues associated with the difficulty of controlling uniformity and quality.
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