Mechanochemically made Li-Nb-Zr oxyhalide conductors improve lithium-ion transport and lithium-metal stability while lowering solid-state electrolyte cost.
Using high- and low-basicity solvents, this electrolyte builds a strong inorganic SEI that suppresses lithium dendrites and improves battery life.
A three-solvent nonaqueous electrolyte balances stability and ion migration to retain discharge capacity and suppress lithium dendrites.
A cyclic and linear ether solvent mix lowers viscosity and improves ionic conductivity for longer battery cycling and better low-temperature retention.
Mixed dopants stabilize cubic bismuth oxide from 550°C to 700°C, preserving high oxygen-ion conductivity for lower-temperature SOC operation.
An ultrathin vapor-deposited inorganic layer avoids ceramic agglomeration and thick coatings while improving separator adhesion, wettability, and battery safety.
Fluorinated borate and LiNFBSI additives regulate polysulfide conversion, curb shuttling, and improve Li-S battery cycling stability.
Using water-based slurry mixing and rotary or spray drying, this case improves ceramic electrolyte particle uniformity and ionic conductivity.
A mixed carbonate electrolyte with TMSB improves NaBF4 solubility, interphase stability, and long-term cycling in sodium-ion full cells.
A LiF-containing glass cover layer blocks moisture and improves insulation, preventing lithium precipitate buildup in solid-state batteries.
A phosphate additive and radical scavenger suppress cathode side reactions and gas generation, improving lithium battery life at high temperatures.
Aluminum fluoride converts LLZO surface lithium carbonate into Al2O3 and LiF, improving cubic-phase stability, densification, and ionic conductivity.
A C12-C13 pivalate ester raises electrolyte flash point while preserving low-temperature fast charging and initial capacity in Li-ion batteries.
Fluorinated acyclic ester with LiFSI improves high-voltage electrolyte stability, boosting Li-ion cycling and high-temperature storage.
An oxyhalide-over-halide solid electrolyte improves lithium wettability to cut interfacial resistance, stress, and dendrite-driven battery fade.