A Conducting polymer with enhanced electronic stability applied in cardiac models

A Conducting polymer with enhanced electronic stability applied in cardiac models

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Electrically active constructs can have a beneficial effect on electroresponsive tissues, such as the brain, heart, and nervous system. Conducting polymers (CPs) are being considered as components of these constructs because of their intrinsic electroactive and flexible nature. However, their clinic...

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Bibliographic Details
Main Authors: Bello, S.O (Author), Carrad, D.J (Author), Furman, J. (Author), Gooding, J.J (Author), Harding, S.E (Author), Lauto, A. (Author), Lyon, A.R (Author), Mahat, M.M (Author), Mansfield, C. (Author), Mawad, D. (Author), Micolich, A.P (Author), Nelson, G.W (Author), Payne, D.J (Author), Perbellini, F. (Author), Stevens, M.M (Author), Terracciano, C.M (Author), Tonkin, J. (Author)
Format: Article
Language:English
Published: American Association for the Advancement of Science 2016
Subjects:
Aniline Compounds
aniline derivative
animal
Animals
artificial membrane
cardiac muscle
chemistry
Chitin
chitosan
Chitosan
Clinical application
Conducting polymers
Conductive materials
Conductive systems
Doping (additives)
electric conductivity
Electric Conductivity
Electrically actives
Electronic properties
Electronic stability
Electrophysiology
Heart
Histology
Interfaces (materials)
In-vivo experiments
Membranes, Artificial
Myocardium
Neurology
Physiological medium
Physiology
phytic acid
Phytic Acid
polyaniline
Polyaniline
Polyanilines (PAni)
rat
Rats
Surface resistivity
Tissue
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