>
Daniel McAdams - 'What I Learned from Ron Paul'
Can Trump Find a Way Out of the Box He Is in?
BREAKING: BlackRock continues dumping hundreds of millions of dollars worth of Bitcoin $BTC
Neuroscience just proved:Dolphins have more brain than humans in the areas that process...
NVIDIA just announced the T5000 robot brain microprocessor that can power TERMINATORS
Two-story family home was 3D-printed in just 18 hours
This Hypersonic Space Plane Will Fly From London to N.Y.C. in an Hour
Magnetic Fields Reshape the Movement of Sound Waves in a Stunning Discovery
There are studies that have shown that there is a peptide that can completely regenerate nerves
Swedish startup unveils Starlink alternative - that Musk can't switch off
Video Games At 30,000 Feet? Starlink's Airline Rollout Is Making It Reality
Automating Pregnancy through Robot Surrogates
Grok 4 Vending Machine Win, Stealth Grok 4 coding Leading to Possible AGI with Grok 5
An effective direct interfacing material is essential to communication between these devices and neural tissue, which includes nerves and the brain.
In recent years, a conjugated polymer known as PEDOT — widely used in applications such as energy conversion and storage, organic light-emitting diodes, electrochemical transistors, and sensing — has been investigated for its potential to serve as this interface.
In some cases, however, the low mechanical stability and relatively limited adhesion of conjugated polymers like PEDOT — short for poly (3,4-ethylene dioxythiophene) — on solid substrates can limit the lifetime and performance of these devices. Mechanical failure might also leave behind undesirable residue in the tissue.
A research team led by the University of Delaware's David Martin has reported the development of an electrografting approach to significantly enhance PEDOT adhesion on solid substrates.