To address fidelity loss in deep-tissue imaging, Prof. Peng Xi’s team at Peking University developed Confocal² Spinning-Disk Image Scanning Microscopy (C²SD-ISM). By combining spinning-disk confocal microscopy with structured illumination, C²SD-ISM achieves high-fidelity 3D imaging up to 180 μm deep, with 144 nm lateral and 351 nm axial resolution, and retains up to 92% correlation with original confocal images.

Even large objects with several hundred million atoms can exhibit quantum mechanical behaviour – without cooling and at room temperature, as researchers at ETH Zurich have shown. This yields exciting potential for new technologies.

A novel meta-absorber efficiently captures noise across seven octaves–spanning most of the human hearing range–by engineering how fine-tuned resonator arrays manipulate and dissipate energy.

A research team from Shenzhen University, University of Chinese Academy of Sciences and Hong Kong Polytechnic University has developed an innovative, bioinspired hydrogel patch with controllable adhesion properties to enhance soft tissue repair and prevent adhesions. Inspired by octopus suction cups and the eyeball surfaces, this patch features a dual-sided design: one side offers adjustable, revocable adhesion, while the other provides anti-adhesive functions. In vivo experiments demonstrate its effectiveness in reducing inflammation, promoting tissue healing, and allowing repositioning during surgical procedures, marking a significant advancement in biomedical materials. 

A recent study published in the International Journal of Extreme Manufacturing by researchers from Beijing University of Technology and international collaborators investigates atomic-scale electrochemical deposition as a method for precise control of material properties. The research highlights the potential of this technique to support future developments in areas such as semiconductors, quantum computing, and nanomedicine.

A team of physicists has discovered a method to temporarily halt the ultrafast melting of silicon using a carefully timed sequence of laser pulses. This finding opens new possibilities for controlling material behavior under extreme conditions and could improve the accuracy of experiments that study how energy moves through solids.

What if chemical manufacturers could cut their energy costs while eliminating toxic heavy metals from their processes? Researchers at Nagoya University have developed a catalyst system that does exactly that by converting alcohols to valuable chemical products at lower temperature using safer iodine compounds instead of dangerous heavy metals, expensive precious metals, and reagents.