A microwave-free quantum magnetometer directly driven by sunlight operates with greatly reduced electric power consumption.

Recent advances and future directions for developing zeolite-based solid electrolytes for solid-state batteries are presented, highlighting the advantages and functions of zeolite materials.

Increasing demand for safe and reliable energy storage drives research in all-solid-state batteries, and better battery design motivates researchers to understand the thermal properties of battery materials.

A thermodynamic model for photon-multiplier luminescent solar concentrators (LSCs) is presented, and the achievable concentration limits are discussed and compared with traditional LSCs.

A microwave-free quantum magnetometer directly driven by sunlight operates with greatly reduced electric power consumption.

A comparative study of state-of-the-art simulations of cathode materials is presented: DFT+U+V shows reliability in predicting electrochemical properties of phospho-olivine cathode materials.

The authors demonstrate an impact-driven energy harvesting device with dual piezoelectric-triboelectric responses that compensate for impact power loss, improving the device’s energy harvesting efficiency for a number of practical applications.

A deep reinforcement-learning strategy is developed for protecting large power transmission grid systems against cyberattacks.

Three classes of ternary oxides are identified as semiconductor candidates for high-power electronic devices using a high-throughput computational workflow and a review of doping and crystal growth feasibility.