Electrical and Optical Percolations of Polystyrene Latex-Multiwalled Carbon Nanotube Composites
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Date
2010
Authors
Kara, Selim
Arda, Ertan
Dolastir, Fahrettin
Pekcan, Önder
Journal Title
Journal ISSN
Volume Title
Publisher
Academic Press Inc Elsevier Science
Open Access Color
Green Open Access
Yes
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Publicly Funded
No
Abstract
Electrical conductivity and optical transmittance properties of polystyrene (PS)-multiwalled carbon nanotube (MWCNT) composite films were investigated. Composite films were prepared by mixing of various mass fractions of MWCNT in PS-water dispersions. After water evaporates powder composite films were annealed at 175 degrees C above the glass transition of PS for 20 min. Photon transmission and two point probe resistivity techniques were employed to determine the variations of the optical and the electrical properties of composites. Transmitted light intensity I(tr) and surface resistivity R(s) were monitored as a function of MWCNT mass fraction (M). It was observed that both the surface resistivity and the optical transparency were decreased by increasing the amount of MWCNT added to the polymeric system. Conductivity and optical results were interpreted according to the classical and site percolation theory respectively. The electrical (sigma) and the optical (op) percolation threshold values and critical exponents were calculated as M(sigma) = 1.8 wt.% M(op) = 0-0.13 wt.% and beta(sigma) = 2.25 beta(op) = 0.32 respectively. (C) 2010 Elsevier Inc. All rights reserved.
Description
Keywords
PS-MWCNT composite, Percolation threshold, Electrical conductivity, Percolation Threshold, Conductivity, Technology, Optics and Photonics, Polymer Nanocomposites, Nanotubes, Carbon, Surface Properties, Electric Conductivity, Mechanical-Properties, Membranes, Artificial, Photon Transmission, PS-MWCNT Composite, Electrical Conductivity, Particles, Cluster, Percolation threshold, Electrical conductivity, Polystyrenes, PS-MWCNT composite, Networks, Particle Size, Rheology, Film Formation
Turkish CoHE Thesis Center URL
Fields of Science
02 engineering and technology, 0210 nano-technology
Citation
WoS Q
Q1
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OpenCitations Citation Count
81
Source
Journal of Colloid and Interface Science
Volume
344
Issue
2
Start Page
395
End Page
401
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Citations
CrossRef : 85
Scopus : 89
PubMed : 12
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89
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85
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7
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357
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