The development of implantable neuroelectrodes is advancing rapidly as these tools are
becoming increasingly ubiquitous in clinical practice, especially for the treatment of …

Objective. Our objective was to determine how readily disruption of the blood–brain barrier
(BBB) occurred as a result of bone drilling during a craniotomy to implant microelectrodes in …

Abstract Microelectrode Arrays (MEAs) are popular tools for in vitro extracellular recording.
They are often optimized by surface engineering to improve affinity with neurons and …

Poly (ethylene glycol)(PEG) is a frequently used polymer for neural implants due to its
biocompatible property. As a follow-up to our recent study that used PEG for stiffening …

The capacity to predict in vivo responses to medical devices in humans currently relies
greatly on implantation in animal models. Researchers have been striving to develop in vitro …

Brain-implanted devices have a number of applications with significant potential.
Widespread adoption hinges on the ability to produce an interface that can engage with …

Objective. The recording instability of neural implants due to neuroinflammation at the
device-tissue interface is a primary roadblock to broad adoption of brain-machine interfaces …

Intracortical electrodes for brain–machine interfaces rely on intimate contact with tissues for
recording signals and stimulating neurons. However, the long-term viability of intracortical …

Salivary gland bioengineering requires understanding the interaction between salivary
epithelium and surrounding tissues. An important component of salivary glands is the …

The failure of neurally implanted microelectrode arrays has been highly correlated with the
foreign body response (FBR). In order to maintain high fidelity signaling across the brain …