Bioelectronic interfacing with the human body including electrical stimulation and recording
of neural activities is the basis of the rapidly growing field of neural science and engineering …

Neural prostheses have already a long history and yet the cochlear implant remains the only
success story about a longterm sensory function restoration. On the other hand, neural …

Stable interconnection to neurons in vivo over long time-periods is critical for the success of
future advanced neuroelectronic applications. The inevitable foreign body reaction towards …

Wireless, battery-free, and fully subdermally implantable optogenetic tools are poised to
transform neurobiological research in freely moving animals. Current-generation wireless …

Intracortical microelectrodes have become a useful tool in neuroprosthetic applications in
the clinic and to understand neurological disorders in basic neurosciences. Many of these …

Neural electrodes, as a bridge for bidirectional communication between the body and
external devices, are crucial means for detecting and controlling nerve activity. The …

Bioelectronic implantable devices are adept at facilitating continuous monitoring of health
and enabling the early detection of diseases, offering insights into the physiological …

Developments in neurotechnology are recently driven by newly national and international
brain research initiatives worldwide. The challenging goal of understanding how the human …

Optogenetics is an exciting new technology that allows targetable fast control and readout of
specific neural populations in complex brain circuits. With the rapid development of light …

Objective. Intracortical microelectrode arrays (MEA) can be used as part of a brain–machine
interface system to provide sensory feedback control of an artificial limb to assist persons …