Here, researchers from Nanjing University of Aeronautics and Astronautics propose to control thermal stress at coating interfaces during laser induction processes and demonstrate a novel process for precisely graphenizing ultra-thin diamond coating surface through laser induction and mechanical cleavage, without damaging the substrates.

Their work provides an effective and cost-efficient avenue to overcome application bottlenecks in engineered diamond surfaces, expanding their use in friction pairs such as cutting tools, bearings, and mechanical seals. Moreover, it may facilitate advancements in multicarbon heterostructures and their preparation methods, supporting potential applications in electronics, aviation, and biomedicine involving diamond, graphene, and all-carbon devices.

A cutting-edge breakthrough in zero-sodium-excess solid-state batteries may reshape the energy storage landscape. This innovative study introduces a novel interphase design to address the persistent challenges of low energy density and poor interfacial stability in sodium-ion batteries, offering a solution poised to revolutionize next-generation energy storage systems.

A novel study has unveiled a transformative advancement in perovskite solar cells through bilayer interface engineering. This innovative method integrates 2D/3D perovskites with a dipole layer, achieving a remarkable leap in power conversion efficiency and overcoming critical challenges of scalability and stability in large-area solar modules.

A cutting-edge study has made significant advancements in battery lifetime prediction by utilizing transfer learning, a sophisticated approach that transfers knowledge across different data domains. This innovation enhances the accuracy of battery life predictions, a critical factor for ensuring product quality and accelerating progress in energy storage technologies.

Scientists have achieved a significant leap in aqueous Mg-ion battery technology by engineering a breakthrough cathode material (nickel oxide hydroxide (NiOOH)), and systematacially reveal the stable Mg-storage mechanism in NiOOH nanosheets. This innovative design significantly enhances aqueous Mg-ion battery performance, resolving long-standing challenges of balancing high voltage and high capacity. The achievement paves the way for a safer, more versatile energy storage solution, poised to meet the growing demands of next-generation devices.

Scientists have developed ultralight and ultrathin copper current collectors that could redefine lithium battery technology. These collectors, far lighter than traditional copper foils, significantly enhance cell-level energy density. This leap forward in efficiency and weight reduction is poised to transform the performance of portable electronics and electric vehicles, where lightweight, high-capacity batteries are crucial for progress.