Fabric-type wearable electronics offer comfort and adaptability, integrating flexible materials for advanced functionality. Recent studies highlight innovations in stability, energy storage, and dynamic features, paving the way for practical applications.
Researchers in China have developed a reprogrammable adhesive device patch that integrates advanced materials and laser processing for high-sensitive biosensing. This multifunctional patch aims to revolutionize personalized health monitoring and disease management through innovative, skin-interfaced electronics.
In a recent study published in ACS Sensors, researchers from the University of Chinese Academy of Science set out to design a TENG-based sensor that could be integrated into an MRI machine.
In a recent study published in Science, researchers from the University of Chicago have developed a prototype referred to as “living bioelectronics”- a gel, electronics, and living cell combination that can be integrated with living tissue.
A team of Penn State researchers has developed an adhesive sensing device that seamlessly attaches to human skin to detect and monitor the wearer's health.
Researchers in the United Kingdom have developed organic bioelectronic fibers that integrate seamlessly with biological tissues, aiming to create non-invasive platforms for health monitoring and environmental sensing.
In a recent article in Scientific Reports, researchers from Hungary used an optical sensor to explore the relationship between cell dissociation methods and cell adhesivity, focusing on the early stages of the adhesion process.
A recent review in Microsystems & Nanoengineering highlights advances in electrochemical protein biosensors, driven by artificial intelligence, for detecting disease markers. These sensors, utilizing materials like nanoparticles and graphene, show promise in identifying cancer, viral infections, and other conditions, potentially revolutionizing diagnostics and personalized medicine.
In a study published in Biosensors and Bioelectronics, Dr Kim Joohee from the Bionics Research Center at the Korea Institute of Science and Technology (KIST, Director Oh Sangrok) and Professor John A. Rogers from Northwestern University collaborated to create a convenient sweat monitoring device that delivers drug stimulation through the skin without physical activity.
Researchers from Taiwan explored the efficacy of organic inverter-based biosensors in identifying bacterial contaminants. Using organic field-effect transistors, they observed minimal changes in surface morphology post-bacterial exposure, though n-type OFETs exhibited subtle electrical variations.
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