Micro-electrocorticographic (μECοG) electrode arrays provide a minimally invasive, high-
resolution neural interface with broad cortical coverage. Previously, we fabricated μECoG …

Micro-Electrocorticography (μECoG) offers a minimally invasive, high resolution interface
with large areas of cortex. A wide variety of μECoG designs have been developed and …

Electrocorticography (ECoG) recording is a non-penetrating electrophysiology technique
that achieves a good balance between spatial resolution, brain coverage and invasiveness …

Advancements in neural interfaces capable of neural stimulation have shown that neural
implants may potentially target the central nervous system to treat neurological disorders …

Substantial improvements in neural-implant longevity are needed to transition brain-
machine interface (BMI) systems from research labs to clinical practice. While action …

This article addresses a novel fabrication process for an electrocorticogram (ECoG)
electrode array. It consists of three regions: a flexible recording area, a flexible cable, and a …

Clinical applications of brain implantable devices for recording and interpreting electrical
signals from the cortex have grown rapidly in the last decade. For long-term cortical …

The pursuit of precisely recording and localizing neural activities in brain cortical regions
drives the development of advanced electrocorticography (ECoG) devices. Remarkable …

Simultaneous interrogation of electrical signals from wide areas of the brain is vital for
neuroscience research and can aid in understanding the mechanisms of brain function and …

Electrocorticography, thanks to its low degree of invasiveness, has received in recent years
an increasing attention for chronic brain-machine interface applications. To be up to the task …