Neural interfaces facilitating communication between the brain and machines must be
compatible with the soft, curvilinear, and elastic tissues of the brain and yet yield enough …

Neural interfacing probes are located between the nervous system and the implanted
electronic device in order to acquire information on the complex neuronal activity and to …

The treatment of disorders of the nervous system poses a major clinical challenge.
Development of neuromodulation (ie, interfacing electronics to nervous tissue to modulate …

A successful biomaterial–neural tissue interface should demonstrate biocompatibility,
cytocompatibility, the ability to integrate properly within neural tissues, and the prolonged …

Neuroscience is an essential field of investigation that reveals the identity of human beings,
with a comprehensive understanding of advanced mental activities, through the study of …

Advancements in neurotechnologies for electrophysiology, neurochemical sensing,
neuromodulation, and optogenetics are revolutionizing scientific understanding of the brain …

The recording of neural signals with microelectrodes that are implanted into the cortex of the
brain is potentially useful for a range of clinical applications. However, the widespread use …

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

Recent advances in bioelectronics, such as skin-mounted electroencephalography sensors,
multi-channel neural probes, and closed-loop deep brain stimulators, have enabled …

Neural electrical interfaces that accurately detect signals from active neurons with minimal
signal loss or biological damage are critical to advancing our understanding of …