The construction project of a non-super high-rise public building in Guangzhou’s Nansha Free Trade Zone faces unique challenges.The project established a full-cycle technical management system,encompassing technical ...The construction project of a non-super high-rise public building in Guangzhou’s Nansha Free Trade Zone faces unique challenges.The project established a full-cycle technical management system,encompassing technical management across various sectors and BIM collaboration.Simultaneously,it introduced advanced technical management such as deep foundation pits and core tube construction,along with a risk management system and special weather response strategies.Through these measures,the project achieved numerous significant results,forming a unique management paradigm that offers valuable insights for similar engineering projects.展开更多
相对于传统商用锂离子电池,使用不易燃无机固体电解质的全固态锂电池可在实现高电压和大容量的同时确保电池的安全性。为实现全固态锂电池在室温条件下的稳定循环,开发具有良好电极相容性的超离子导体作为无机固体电解质材料显得至关重...相对于传统商用锂离子电池,使用不易燃无机固体电解质的全固态锂电池可在实现高电压和大容量的同时确保电池的安全性。为实现全固态锂电池在室温条件下的稳定循环,开发具有良好电极相容性的超离子导体作为无机固体电解质材料显得至关重要。2018年,采用Li_(3)YCl_(6)快离子导体作为电解质的In Li/Li Co O_(2)全固态锂电池在无需任何额外界面修饰情况下即可实现室温下的稳定循环,这使得氯化物基固体电解质材料重新引起关注,并在近几年得到飞速发展。本文首先强调了良好的正极相容性是氯化物基超离子导体最具吸引力的优势,同时指出传统氯化物基电解质在负极侧的界面不稳定性来源于易被还原的中心金属元素,并提出了通过非密堆积型阴离子亚晶格实现氯化物基超离子导体更快、更低势垒的离子传导设计思路。最后,总结了近几年氯化物基固体电解质材料的研究进展,并讨论了在其大规模应用之前仍需解决的问题。展开更多
文摘The construction project of a non-super high-rise public building in Guangzhou’s Nansha Free Trade Zone faces unique challenges.The project established a full-cycle technical management system,encompassing technical management across various sectors and BIM collaboration.Simultaneously,it introduced advanced technical management such as deep foundation pits and core tube construction,along with a risk management system and special weather response strategies.Through these measures,the project achieved numerous significant results,forming a unique management paradigm that offers valuable insights for similar engineering projects.
文摘相对于传统商用锂离子电池,使用不易燃无机固体电解质的全固态锂电池可在实现高电压和大容量的同时确保电池的安全性。为实现全固态锂电池在室温条件下的稳定循环,开发具有良好电极相容性的超离子导体作为无机固体电解质材料显得至关重要。2018年,采用Li_(3)YCl_(6)快离子导体作为电解质的In Li/Li Co O_(2)全固态锂电池在无需任何额外界面修饰情况下即可实现室温下的稳定循环,这使得氯化物基固体电解质材料重新引起关注,并在近几年得到飞速发展。本文首先强调了良好的正极相容性是氯化物基超离子导体最具吸引力的优势,同时指出传统氯化物基电解质在负极侧的界面不稳定性来源于易被还原的中心金属元素,并提出了通过非密堆积型阴离子亚晶格实现氯化物基超离子导体更快、更低势垒的离子传导设计思路。最后,总结了近几年氯化物基固体电解质材料的研究进展,并讨论了在其大规模应用之前仍需解决的问题。
