Simple PAH-terminated monolayers enable clear low-voltage molecular rectification by HOMO-level tuning and pure tunneling.
Layered titanic acid electrolyte uses ion intercalation and cation substitution to improve Li-ion conductivity without hydrogen sulfide risk.
In-situ polymerization under pressure forms a dense hybrid solid-state electrolyte that preserves ionic conductivity while improving electrode adhesion.
Stoichiometric tuning of Li-In-Cl-Br halide electrolytes improves water resistance while preserving high ionic conductivity for scalable solid-state batteries.
A Li-M-Y-Gd-I halide electrolyte avoids hydrogen sulfide risk while delivering room-temperature lithium-ion conduction for solid-state batteries.
V-site substitution in β-LVO anodes cuts garnet-electrolyte interface resistance and preserves capacity at higher charge rates.
A ketone-based dispersion medium with an added dispersant keeps solid electrolyte and carbon uniformly dispersed, supporting battery capacity.
Controlling XRD peak width in a sulfur-free Li-Y-I solid electrolyte preserves ion conductivity while improving heat resistance in batteries.
A LiCB9H10/LiCB11H12 mixed ion conductor maintains room-temperature conductivity while improving stability against water and oxygen.
Li-Nb-M-F solid electrolyte chemistry suppresses charge-induced oxidation and resistance-layer growth while preserving ionic conductivity.
Doped borophosphate solid electrolytes balance sulfide-like lithium conductivity with air-stable, lower-toxicity chemistry for solid-state batteries.