The researchers synthesized Li₃TiCl₆ from LiCl and TiCl₃ and, with electrochemical testing, found room-temperature ionic conductivities above 1 mS cm^–1. This is a relatively high value that enables positive electrode formulation in which the active material comprises 95 wt% of the solid composite electrode, a greater proportion than the <80 wt% in most solid-state cells. X-ray diffraction and bond-valance site-energy calculations suggest that Li⁺ transport occurs within and between the layered planes of Li₃TiCl₆ more easily than in conventional oxide materials. Furthermore, under 350 MPa compression, Li₃TiCl₆ showed an 86% higher relative density, suggesting greater durability against crack formation during battery cycling.

研究人员从 LiCl 和 TiCl _{3合成了 Li 3} TiCl ₆，并通过电化学测试发现室温离子电导率高于 1 mS cm ^–1。这是一个相对较高的值，可以实现正极配方，其中活性材料占固体复合电极的 95 wt%，比大多数固态电池中 <80 wt% 的比例更大。X 射线衍射和键价位能计算表明，与传统氧化物材料相比， Li ^{+传输更容易发生在 Li} ₃ TiCl ₆的层状平面内和层状平面之间。此外，在 350 MPa 压力下，Li ₃ TiCl ₆显示出高出 86% 的相对密度，表明在电池循环过程中抗裂纹形成的耐久性更高。