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Influence of carbon nanoparticles on the conductive properties of composite material for nerve conductors

Although human peripheral nerves are able to regenerate after trauma, this spontaneous process may not be enough to achieve proper functional recovery. This work focuses on the development of porous electroconductive conduits with carbon nanoparticles and conduits coated with PLA (polylactic acid) h...

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Main Authors: Sukhodub, Liudmyla, Kumeda, Mariia, Sukhodub, Leonid, Tsyndrenko, Oleksandr, Krmela, Jan, Krmelová, Vladimíra
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creator Sukhodub, Liudmyla
Kumeda, Mariia
Sukhodub, Leonid
Tsyndrenko, Oleksandr
Krmela, Jan
Krmelová, Vladimíra
description Although human peripheral nerves are able to regenerate after trauma, this spontaneous process may not be enough to achieve proper functional recovery. This work focuses on the development of porous electroconductive conduits with carbon nanoparticles and conduits coated with PLA (polylactic acid) hydrophobic layers. Those conduits are based on natural biopolymers and are considered suitable candidates for future implantation studies. The carbon nanoparticles represented by fullerene С60 and SWCNTs significantly reduce the degree of porosity of the synthesized materials and enhance their electroconductivity. An additional PLA surface layer reduces materials swelling.
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subjects Biopolymers
Composite materials
Nanoparticles
Peripheral nerves
Polylactic acid
Surface layers
title Influence of carbon nanoparticles on the conductive properties of composite material for nerve conductors
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