In a recent development in construction materials research, a study published in Engineering by Peizhao Zhou and Peng Feng from Tsinghua University has introduced a new composite material. Named flexible ultra-high performance reinforced cementitious composite (FHPRC), it combines the benefits of different materials. The research includes material design, experiments, and model validation, aiming to provide insights for the construction industry.

Researchers at the University of Pittsburgh have developed silk iron microparticles (SIMPs)—magnetic, biodegradable carriers designed to deliver therapies directly to disease sites like aneurysms or tumors. The particles are created by chemically bonding iron oxide nanoparticles to regenerated silk fibroin using glutathione, enhancing their magnetic responsiveness while maintaining biocompatibility. These nanoscale carriers, roughly one-hundred-thousandth the width of a human hair, can potentially be guided externally to precise locations in the body. The platform enables localized delivery of therapeutic agents such as extracellular vesicles, regenerative factors, or drugs, offering a minimally invasive approach to treating conditions like abdominal aortic aneurysms and expanding the potential for targeted therapies in regenerative medicine.

A new study in Engineering introduces the electroactive biofiltration dynamic membrane (EBDM). Developed by researchers from Tongji University, this innovation aims to enhance wastewater treatment and mitigate membrane fouling. Tests show it has the potential to improve treatment efficiency and methane production, offering a promising solution for the wastewater treatment field.

A new study at the University of Illinois Urbana-Champaign asks a deceptively simple question: what is the best way to feed artificially reared pigs? The answer has implications not just for agriculture, but for biomedical research where pigs are used to study different aspects of human medicine. 

A new UAS traffic management platform named AcrOSS, detailed in a paper published in Engineering, has been developed by researchers from the University of Salento. Designed to enhance the safety and efficiency of unmanned aircraft system operations in critical areas, the platform features a three-layer architecture and has undergone experimental testing, offering both promising results and areas for improvement.

MIT researchers showed they can inexpensively nanomanufacture silk microneedles to precisely fortify crops, monitor plant health, and detect soil toxins.