Solid INTERface Batteries - SINTER

固体界面锂离子电池项目SINTER将研究形成固态电池的新材料和工艺，并优化其界面。合作伙伴拉夫堡大学和约翰逊马修技术中心将利用协同的理论和实验方法来研究一系列的锂导电玻璃陶瓷电解质材料，从而研究掺杂剂对锂迁移率的影响，从而研究锂的性能和热稳定性。拉夫堡大学将使用计算机建模研究来研究项目材料的静态晶格模拟，MD和从头算方法来确定锂离子在电解质体中的传输机制。表面和电极-电解质界面以及一种组合方法来映射相空间，以探索从玻璃相到结晶相的转变。JohnsonMatthey将制造通过建模工作定义的新型电解质，并研究将固体电解质与不同电极材料集成的各种方法，包括评估用于胶带铸造和3D打印沉积方法的新材料的可行性。

Project SINTER, Solid INTERface Lithium Ion Batteries, will investigate novel materials and processes to formsolid state batteries and optimise their interfaces. Partners Loughborough University and Johnson MattheyTechnology Centre will utilise a synergistic theoretical and experimental approach to investigate a range of Liconducting glass-ceramic electrolyte materials and consequently the effect of dopants on the Li mobility, andthus performance and thermal stability. Loughborough University will use computer modelling studies to studystatic lattice simulations of project materials, MD and Ab initio methods to identify Li–ion transportmechanisms across electrolyte bulk, surfaces and electrode–electrolyte interfaces and a combinatorialapproach to mapping the phase space to explore the transition from glassy to crystalline phases JohnsonMatthey will fabricate the novel electrolytes defined by modelling work and investigate various approaches tointegrate the solid electrolytes with different electrode materials, including assessement of feasibility of thenew materials for tape casting and 3D printing deposition methodologies.