Understanding the dynamics of neuronal communication is crucial for advancing neuroscience research and developing effective therapies for neurological disorders. Neuronal network models have been ...

Deep brain stimulation research published in Nature confirms for first time in human tissue that electrical pulses strengthen ...

A research team has developed a nanocomposite-modified microelectrode array (MEA) that enables long-term, high-sensitivity monitoring of neuronal activity during hibernation. Their findings were ...

Neurons from living human brain tissue have helped researchers trace how electrical stimulation reshapes brain cell communication and gene activity—work that could guide more precise neuromodulation ...

Deep brain stimulation researchers at UCLA and UT Southwestern published a Nature study mapping, for the first time in living ...

Carnegie Mellon University researchers have pioneered the CMU Array—a new type of microelectrode array for brain computer interface platforms. It holds the potential to transform how doctors are able ...

Microelectrode arrays (MEAs) are widely used for recording brain activity and stimulating neural tissues. However, conventional MEAs are typically flat, limiting their ability to conform to the ...

Carnegie Mellon University researchers have pioneered the CMU Array - a new type of microelectrode array for brain computer interface platforms. It holds the potential to transform how doctors are ...

Technological advances have led to an array of medical monitoring tools that people can use without the aid of medical professionals, like smartwatches, glucose monitors, and health tracking apps.

Researchers have pioneered the CMU Array -- a customizable, 3D nano-printed, ultra-high-density microelectrode array platform for next generation brain-computer interfaces. This technology can ...