Abstract Machine learning (ML) exhibits substantial potential for predicting the properties of
solid‐state electrolytes (SSEs). By integrating experimental or/and simulation data within ML …

Coupling high-capacity cathode and Li-anode with solid-state electrolyte has been
demonstrated as an effective strategy for increasing the energy densities and safety of …

Current lithium-ion batteries (LIBs) with lightweight, rechargeable, and powerful
characteristics have revolutionized our lives. However, commercialized battery technology is …

Lithium–sulfur (Li–S) batteries suffer from rampant polysulfide shuttling and sluggish
reaction kinetics, which have curtailed sulfur utilization and deteriorated their actual …

For flexible devices to be effectively integrated into long-lasting wearable systems, self-
healing properties that can repair the damage are crucial. Although numerous studies have …

Polymeric solid electrolytes have attracted tremendous interest in high‐safety and high‐
energy capacity lithium–sulfur (Li─ S) batteries. There is, however, still a dilemma to …

The demand for high-energy and power-dense microbatteries is growing rapidly in the
microelectronics and wireless devices industry. Lithium-sulfur (Li–S) electrochemical cells …

Li2S is a promising cathode candidate for all-solid-state batteries (ASSBs) because of its
high theoretical capacity and availability for coupling with a Li-free anode or an anode-less …

Lithium-sulfur batteries as a promising candidate for the next generation of battery systems
face major challenges in their commercialization process, primarily due to the irreversible …

Lithium batteries, essential for consumer electronics, transportation and the energy sector,
still require further improvement in performance, safety, and sustainability. Traditonal …