Recently, a research team led by Professor Xie Huiqi at Sichuan University conducted a systematic review of dual-function biomaterials that combine anti-tumor and bone regeneration capabilities for postoperative osteosarcoma treatment. The article categorizes existing research findings into three design strategies: conventional dual-function strategies, enhanced anti-tumor strategies, and temporally regulated strategies. It further explores their design principles, therapeutic efficacy, and potential for clinical translation. This review aims to provide insights for establishing an integrated "anti-tumor and bone regeneration" treatment model and offers perspectives on future research directions in the field. The related work, entitled "Dual-Function Biomaterials for Postoperative Osteosarcoma: Tumor Suppression and Bone Regeneration," has been published in Research.

Researchers have developed a novel AI-driven framework using the XGBoost algorithm to accurately evaluate the skid resistance of asphalt pavements under various conditions. Published in Smart Construction, this breakthrough achieves over 90% prediction accuracy, offering a smarter and more adaptive approach to enhancing road safety and maintenance.

An Osaka Metropolitan University-led research team conducted a review that examined the theoretical foundations of Artificial Superintelligence and explored how misaligned AI systems could optimize for wrong objectives, leading to patient harm and systemic failures.

Cu-Zn-Ce ternary interface prepared through a urea-assisted grinding strategy significantly enhances catalytic performance for CO₂ hydro genation to methanol.

Non-thermal plasma (NTP) efficiently activates lattice oxygen at asymmetric Ce-O-Co sites in the Ce_0.8Co_0.2O_2-δ catalyst, enabling rapid soot combustion at low temperatures, with a maximum energy efficiency of 14.7 g kWh^–1 — 49-fold higher than plasma alone (0.3 g kWh^–1). NTP accelerates lattice oxygen activation to O* and the regeneration of the generated oxygen vacancies during the reaction by O atoms, O₂, O₃, O^–, and O₂^– species, or adjacent lattice oxygen.

CU researchers are using ultrasound with particles that respond to sound waves to soften tumors and make them easier to treat.

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