A new generation of biosensors is transforming how we monitor health—by stretching with the body and sensing multiple signals in real time. Scientists have developed highly flexible biosensors that detect sweat pH, electrolyte levels, and electromyography (EMG) signals simultaneously. Their secret lies in a hybrid microstructure (HMS) that combines wave-like flexibility with microcrack stress dispersion, ensuring both durability and precision. Even under 60% strain or after 5000 stretching cycles, the sensors retain electrical stability. Coated with conductive polymers, the devices provide continuous and accurate feedback, making them ideal for next-level wearable technologies in personalized health monitoring.

Scientists have developed a game-changing fiber-optic sensing system for marine seismic exploration. This innovative technology simplifies traditional methods, making them more cost-effective and efficient. Discover how this breakthrough could transform our understanding of the ocean floor and unlock new resources.

Could DNA be glycosylated? A new study published in Engineering explores this intriguing question, suggesting that DNA might undergo glycosylation, a process that could revolutionize our understanding of cellular biology. Discover how this potential discovery could impact the ceullar sociomateriality from gene regulation to disease prevention and treatment.

This article highlights a new synthetic biology platform developed by researchers at South China Agricultural University. The platform, known as FerTiG, is designed to degrade tetracycline residues in various aquatic environments. By integrating multiple functional modules into a single enzyme assembly, FerTiG offers enhanced stability and efficiency for antibiotic removal. The study demonstrates its effectiveness in different water matrices and confirms its biosafety through ecological and in vivo tests. This work presents a potential solution for addressing antibiotic pollution in water sources.