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Figuring out a better way to connect nerve cells to bioelectronics will be the next technological leap in health care, and the Neurobiological Interfaces Lab at Binghamton University is at the ...

Bringing together soft, malleable living cells with hard, inflexible electronics can be a difficult task. UChicago researchers have developed a new method to face this challenge by utilizing ...

A wearable sensor that tracks COVID-19 symptoms and recovery. A wireless, flexible respiratory monitor for patients with sleep apnea. An implant that senses fatal levels of ingested opioids and then ...

The Henry Royce Institute has published the Materials for Bioelectronics in Healthcare Strategy and Action Plan a comprehensive report that aims to help future-proof the UK’s bioelectronics for ...

Researchers have developed a new silver-hydrogel composite for bioelectronics that combines high electrical conductivity with soft, stretchable biocompatibility. In the field of robotics, metals offer ...

The ideal material for interfacing electronics with living tissue is soft, stretchable, and just as water-loving as the tissue itself: in short, a hydrogel. Meanwhile, semiconductors—the key materials ...

As a wound heals, it goes through several stages: clotting to stop bleeding, immune system response, scabbing, and scarring. A wearable device called "a-Heal," designed by engineers at the University ...

A team of researchers has developed a new class of biomaterial inks that mimic native characteristics of highly conductive human tissue, much like skin, which are essential for the ink to be used in ...

Implantable bioelectronics are vital to neuroscience, neurological therapies, and brain-machine interfaces. They serve as indispensable interfaces that enable the communication between biological ...