This study introduces a dual-scale CapCell microscope, a novel imaging system to dynamically visualize metabolic and vascular adaptations in vivo. The platform reveals subregional features associated with treatment that are often missed by bulk analyses.

A new global dryland assessment using long-term satellite observations reveals widespread vegetation greening over the past two decades, reversing long-held expectations of accelerating desertification.

Strategically designing heterostructures incorporating highentropy metal particles and carbon fibers can enhance the defect density within carbon fibers, which enhances the boosted polarization relaxation effects within composite materials. Traditional synthesis methods primarily rely on hydrothermal processes and laser-assisted synthesis, which are complex and yield low amounts of raw materials. Moreover, the controllable design of metal-carbon materials with magneto-electric synergistic effects based on natural fiber substrates remains highly challenging. Therefore, there is an urgent need to develop a green, pollution-free, low-cost, and simple synthetic strategy.

The research team has innovatively developed the QSteed quantum compilation framework, which introduces quantum resource virtualization and a select-before-compile mechanism at the system level.

A collaborative team led by Prof. Yi Xiong from Wuhan Textile University, Prof. Wei Zeng from Anhui University, and Prof. Shuo Jin from the Institute of High Energy Physics, Chinese Academy of Sciences, has proposed a hierarchically converged defect-engineering restoration strategy. By implementing this approach, the researchers constructed a multidimensional ZnO/Bi₂O₃/BiOCl/BP/MXene heterojunction photoelectrode framework, achieving highly sensitive photoelectrochemical-electrostatic dual-mode sensing. The work, entitled “Hierarchically Converged Defect Engineering with Sequential 2D Black Phosphorus/MXene Heterostructures for Sensitive Photoelectrochemical–Electrostatic Coupled Sensors”, was published in Research (2025, Volume 8).