2011
DOI: 10.1142/s1793292011002949
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Interfaces Features in Polymer Nanocomposites: A Review of Proposed Models

Abstract: Different properties and phenomena that polymer nanocomposites exhibit compared to the base polymers or conventional polymers (polymers with micron scale particles) are attributed to interfaces features. As a consequence, theories and models (such as Lewis' model, Tsagaropoulos' model and the multicore model proposed by Tanaka) have been proposed, primarily to interpret the physical, chemical and electrical structure of interfaces. Moreover, these models try to explain several different phenomena and propertie… Show more

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Cited by 102 publications
(63 citation statements)
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“…The use of inorganic filler has become ubiquitous in polymeric systems [2,3]. By scaling the particle size down to the nanometer scale, it has been shown that novel material properties can be obtained [1,4]. Basically, the nanoscale of dimensions is the transition zone between the macrolevel and the molecular level.…”
Section: Introductionmentioning
confidence: 99%
“…The use of inorganic filler has become ubiquitous in polymeric systems [2,3]. By scaling the particle size down to the nanometer scale, it has been shown that novel material properties can be obtained [1,4]. Basically, the nanoscale of dimensions is the transition zone between the macrolevel and the molecular level.…”
Section: Introductionmentioning
confidence: 99%
“…Similar explanations were also given with regard to electrical tree growth phenomena [35] and surface discharge phenomena [43] in nanodielectrics. Since the improvement of the degradation resistance at a high nanoparticle loading was attributed to the reduction of the loose polymer region and the increase of the immobile polymer region with respect to the loose polymer region, the innermost layer was therefore assumed to be more resistant to degradation when compared with the outer layer [44].…”
Section: Nanofiller/polymer Interfacesmentioning
confidence: 99%
“…Several models of nanoparticles are discussed in the literature [12]. The Tanaka Multicore 3-layer model consists of (1) a first layer on the nanoparticle surface only a few nm thick forming a region of chemical bonding that is ionic, covalent, hydrogen, or van der Waals' force; (2) a second layer corresponding to a region of some ordered polymer chains, which is some 10 nm in thickness; and (3) a third layer which is dominated by the far-distance force originating from the electric double layer (EDL) which is several 100 nm thick, corresponding to the Debye shielding length.…”
Section: Modeling Rationalementioning
confidence: 99%