Sustainable cellulose-based bioplastic not only offers high performance but also ensures complete biodegradability and closed-loop recyclability
Peer-Reviewed Publication
Updates every hour. Last Updated: 25-Oct-2026 18:16 ET (25-Oct-2026 22:16 GMT/UTC)
A deep learning system (DL-T1b) leveraging digital pathology achieved strong performance (AUC 0.910) for predicting lymph node metastasis in T1b gastric cancer. Integration with six clinical risk factors into a nomogram further boosted predictive accuracy, offering a precise tool for personalized treatment decisions. This study establishes proof-of-concept for deep learning-based pathomics in early gastric cancer risk stratification.
Researchers have developed a super-hydrated supramolecular hydrogel that combines high mechanical strength with persistent low friction. Inspired by natural articular cartilage, the material leverages zwitterionic units to form a stable hydration layer and microphase-separated structure, achieving a friction coefficient as low as 0.057 and maintaining lubrication over 100,000 sliding cycles.
Natural biomass hydrogels are emerging as promising building blocks for intelligent sensors because they combine softness, water-rich structures, tunable networks, and abundant functional groups. A new review brings together recent progress in turning materials such as cellulose, chitosan, sodium alginate, gelatin, starch, hemicellulose, proteins, and lignin into responsive sensing platforms. By focusing on the correlation between crosslinking networks and sensor behavior, the review connects material design with practical performance, including sensitivity, response speed, durability, and environmental stability. The work offers a clearer roadmap for developing sustainable sensors for wearable electronics, healthcare monitoring, environmental sensing, and smart human–machine interfaces.
Researchers developed a KRAS-driven mouse model of sporadic brain arteriovenous malformation and identified thalidomide as a candidate therapy. In mice, thalidomide improved survival, reduced lesion growth, and stabilized abnormal vessels. In a proof-of-concept clinical study, most evaluable patients showed stable or regressed lesions.
Efficient electrochemical nitrate reduction to ammonia requires not only active catalysts, but also precise control over active hydrogen utilization under industrial operating conditions. By introducing cerium into Cu2O, we constructed Cu0-Cu+ and Cu-O-Ce dual active sites, enabling the regulation of hydrogen transfer pathways and suppressing the competing hydrogen evolution reaction to promote the selective nitrate-to-ammonia conversion.