Invasive brain–machine interfaces can restore motor, sensory and cognitive functions.
However, their clinical adoption has been hindered by the surgical risk of implantation and …

Implantable intracortical microelectrodes can record a neuron's rapidly changing action
potentials (spikes). In vivo neural activity recording methods often have either high temporal …

Brain-machine interfaces hold promise for the restoration of sensory and motor function and
the treatment of neurological disorders, but clinical brain-machine interfaces have not yet …

Implanted electrodes provide one of the most important neurotechniques for fundamental
and translational neurosciences by permitting time-resolved electrical detection of individual …

Over the last few years, organic bioelectronics has experienced an exponential growth with
applications encompassing platforms for tissue engineering, drug delivery systems …

Insertion of a microelectrode into the brain to record/stimulate neurons damages neural
tissue and blood vessels and initiates the brain's wound healing response. Due to the large …

Microelectrode arrays (MEAs) are devices that gather multiple microscopic electrodes in a
small area and are used to electrically record and/or stimulate the biological activity of cells …

The success of in vivo neural interfaces relies on their long-term stability and large scale in
interrogating and manipulating neural activity after implantation. Conventional neural …

Innovative neurotechnology must be leveraged to experimentally answer the multitude of
pressing questions in modern neuroscience. Driven by the desire to address the existing …

Sensor arrays used to detect electrophysiological signals from the brain are paramount in
neuroscience. However, the number of sensors that can be interfaced with macroscopic data …