TS-075552 — The battery industry is under increasing pressure to develop cathode materials that deliver higher energy density while reducing reliance on expensive and supply-constrained metals such as cobalt and nickel. Cation-disordered rock-salt (DRX) cathodes have emerged as promising candidates due to the…

TS-075052 — Next-generation lithium- and metal-based batteries require higher energy density, which depends on operating at elevated voltages. However, conventional electrolyte salts suffer from limited electrochemical stability, low solubility, and degradation issues such as aluminum current collector corros…

TS-074726 — Potassium-based batteries are attractive for large-scale energy storage due to potassium’s abundance and favorable electrochemical properties. However, commercial development is limited by the lack of suitable solid electrolytes that combine high potassium-ion conductivity, chemical stability wi…

TS-074525 — Many advanced electronic, sensing, and optical devices rely on high‑quality thin films, yet manufacturing uniform, defect‑free films over large areas remains challenging. Conventional solution‑based approaches often result in rough, cracked, or non‑uniform coatings, while vacuum‑based de…

TS-074050 — As batteries are pushed toward faster charging and higher power operation, conventional electrode architectures struggle to deliver their full theoretical capacity. Dense electrodes often suffer from poor ion and electron transport, leading to large capacity losses at high charge and discharge rat…

TS-073403 — The rapid growth of electric vehicles and energy storage systems is driving an unprecedented volume of end‑of‑life lithium‑ion batteries, creating both environmental and supply‑chain challenges. Conventional recycling routes focus on metal recovery through energy‑intensive processes and …

TS-072842 — The energy density and safety of lithium-metal solid-state batteries (LIMSSBs) are limited by the stability of the interface between the lithium-metal anode and the solid-state electrolyte. Traditional approaches using static interlayers or coatings often fail to maintain continuous contact during…

TS-072330 — The Need Current solid-state batteries (SSBs) offer high energy density and improved safety but require high stack pressures for stable operation, limiting their practicality in electric vehicles and consumer electronics. Silicon anodes, while promising for their high capacity, suffer from rapid deg…

TS-070308 — The Need Current lithium iron phosphate (LFP) cathode materials suffer from poor electronic conductivity and limited lithium-ion diffusion, especially under high-rate charging conditions. These limitations hinder the performance of lithium-ion batteries (LiBs) in demanding applications such as elect…

TS-066056 — The Need The advancement of lithium-ion battery technology relies heavily on increasing energy density, yet practical usage of silicon (Si) anodes faces challenges due to parasitic side reactions and active lithium consumption. Controlling lithium amounts precisely while achieving uniform distribut…