In this system, Fc could convert overexpressed H₂O₂ to produce ·OH. Importantly, Cur could form dynamic boronate ester bonds with BA, and be encapsulated in SPSAs-1 through responsive chemical bond to form SPSAs-2. The acidic microenvironment and excessive H₂O₂ within tumor cells cause the dissociation of boronate ester bonds and β-CD/Fc complexes, releasing Cur. As a result, the GSH level could be reduced through the combination of the BA-induced GSH consumption and Cur-induced inhibition of TrxR activation, further enhancing CDT efficacy.

In future high-tech industries, such as high-speed optical computing for massive AI, quantum cryptographic communication, and ultra-high-resolution augmented reality (AR) displays, nanolasers—which process information using light—are gaining significant attention as core components for next-generation semiconductors. A research team at our university has proposed a new manufacturing technology capable of high-density placement of nanolasers on semiconductor chips, which process information in spaces thinner than a human hair.

A collaborative research team from Nagoya University and Tokyo Electron Miyagi Ltd. has demonstrated that the company's new semiconductor etching method achieves five times faster than conventional techniques. This new method employs plasma etching with hydrogen fluoride (HF) at very low temperatures. In contrast to conventional fluorocarbon etching gases, which have high global warming potentials (GWPs), HF has a substantially lower GWP.

A research team reveals that the way plant residues transform into humic substances can profoundly reshape soil microbial metabolism, viral–host interactions, and even the enrichment of antibiotic resistance genes (ARGs).

Researchers have developed a new type of cathode material for aqueous zinc-ion batteries by turning a crystalline MXene into an amorphous structure. This amorphous V₂CT_x cathode delivers high capacity, rapid charging capability, and long cycle life, outperforming most existing vanadium-based cathodes. The work offers a promising design strategy for next-generation energy storage systems.

Scientists have developed a groundbreaking on-chip quantum memory platform using 3D-nanoprinted hollow-core waveguides called "light cages" to store flying photons in cesium vapor. This innovative approach achieves storage times of several hundred nanoseconds while enabling multiple quantum memories on a single chip. The technology marks a major advance in spatially multiplexed quantum memories for use in quantum repeaters and photonic quantum computing platforms.