© 2019 Elsevier Ltd Reliable single unit neuron recordings from chronically implanted microelectrode arrays (MEAs) are essential tools in the field of neural engineering. However, following implantation, MEAs undergo a foreign body response that functionally isolates them from the brain and reduces the useful longevity of the array. We tested a novel electrodeposited platinum-iridium coating (EPIC) on penetrating recording MEAs to determine if it improved recording performance. We chronically implanted the arrays in rats and used electrophysiological and histological measurements to compare quantitatively the single unit recording performance of coated vs. uncoated electrodes over a 12-week period. The coated electrodes had substantially lo...
Understanding how the brain works will require tools capable of measuring neuron elec-trical activit...
The ability of conducting polymers such as poly(3,4-ethylenedioxythiophene) (PEDOT) to store a drug ...
One of the significant challenges today in the brain–machine interfaces that use invasive methods is...
Conductive polymer coatings can be used to modify traditional electrode recording sites with the int...
Objective. Neural recording electrodes suffer from poor signal to noise ratio, charge density, biost...
The developing field of brain machine interface contains enormous potential for therapeutic benefit....
Neural recording and stimulation have great potential for clinical applications, such as treating ne...
The viability of surgical brain implants depend on high quality electrode development and constructi...
neural recordings. For microelectrode prosthetics, the ability to identify and track the activity of...
Several recent studies have reported improved histological and electrophysiological outcomes with so...
The design of novel bidirectional interfaces for in vivo and in vitro nervous systems is an importan...
Stable single-unit recordings from the nervous system using microelectrode arrays can have significa...
Fully comprehending brain function, as the scale of neural networks, will only be possi-ble with the...
For several decades, extracellular recording has been widely used as a significant tool to understan...
The design of novel bidirectional interfaces for in vivo and in vitro nervous systems is an importan...
Understanding how the brain works will require tools capable of measuring neuron elec-trical activit...
The ability of conducting polymers such as poly(3,4-ethylenedioxythiophene) (PEDOT) to store a drug ...
One of the significant challenges today in the brain–machine interfaces that use invasive methods is...
Conductive polymer coatings can be used to modify traditional electrode recording sites with the int...
Objective. Neural recording electrodes suffer from poor signal to noise ratio, charge density, biost...
The developing field of brain machine interface contains enormous potential for therapeutic benefit....
Neural recording and stimulation have great potential for clinical applications, such as treating ne...
The viability of surgical brain implants depend on high quality electrode development and constructi...
neural recordings. For microelectrode prosthetics, the ability to identify and track the activity of...
Several recent studies have reported improved histological and electrophysiological outcomes with so...
The design of novel bidirectional interfaces for in vivo and in vitro nervous systems is an importan...
Stable single-unit recordings from the nervous system using microelectrode arrays can have significa...
Fully comprehending brain function, as the scale of neural networks, will only be possi-ble with the...
For several decades, extracellular recording has been widely used as a significant tool to understan...
The design of novel bidirectional interfaces for in vivo and in vitro nervous systems is an importan...
Understanding how the brain works will require tools capable of measuring neuron elec-trical activit...
The ability of conducting polymers such as poly(3,4-ethylenedioxythiophene) (PEDOT) to store a drug ...
One of the significant challenges today in the brain–machine interfaces that use invasive methods is...