Designing bioelectronic devices that seamlessly integrate with the human body is a
technological pursuit of great importance. Bioelectronic medical devices that reliably and …

Chemical vapor deposition (CVD) polymerization utilizes the delivery of vapor‐phase
monomers to form chemically well‐defined polymeric films directly on the surface of a …

Implantable devices for the wireless modulation of neural tissue need to be designed for
reliability, safety and reduced invasiveness. Here we report chronic electrical stimulation of …

The maturation of nanotechnology has revealed it to be a unique and distinct discipline
rather than a specialization within a larger field. Its textbook cannot afford to be a chemistry …

This study investigated relationships between a microscale neural probe's size and shape
and its chronic reactive tissue response. Parylene-based probes were microfabricated with a …

Implantable neural interfaces for central nervous system research have been designed with
wire, polymer, or micromachining technologies over the past 70 years. Research on …

Parylene C is a promising material for constructing flexible, biocompatible and corrosion-
resistant microelectromechanical systems (MEMS) devices. Historically, Parylene C has …

The acquisition of high-fidelity, long-term neural recordings in vivo is critically important to
advance neuroscience and brain–machine interfaces. For decades, rigid materials such as …

Penetrating intracortical electrode arrays that record brain activity longitudinally are powerful
tools for basic neuroscience research and emerging clinical applications. However …

Recent advances in the micromachining of poly (p‐xylylenes), commercially known as
Parylenes, have enabled the development of novel structures and devices for …