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Study on Modified Graphene/Butyl Rubber Nanocomposites. I. Preparation and Characterization

机译:改性石墨烯/丁基橡胶纳米复合材料的研究。一,制备与表征

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摘要

Butyl rubber, IIR nanocomposites based on modified graphene sheets, were fabricated by solution processing followed by compression molding. MG was prepared from natural graphite, NG through graphite oxide route. X-ray diffraction showed that the exfoliated MG was homogeneously dispersed in the IIR matrix with doping levels of 1-10 wt% as evidenced by the lack of the characteristic graphite reflection in the composites. In contrast, the graphite retained its stacking order and showed the sharp characteristic peak in the NG-IIR composites. Scanning electron microscope images of the fracture surfaces of the IIR matrix showed that MG nanofillers exhibited better compatibility than NG did. The mechanical properties of the MG-IIR nanocomposites were significantly improved due to the efficient distribution of the large surface area MG sheet. The tensile modulus of nanocomposite with doping level of MG 10 wt% was 16 times that of the pure IIR. [PUBLICATION ABSTRACT]
机译:丁基橡胶,一种基于改性石墨烯片的IIR纳米复合材料,是通过固溶处理然后压缩成型制造的。 MG是由天然石墨,NG通过氧化石墨路线制备的。 X射线衍射表明,剥落的MG均匀地分散在IIR基质中,掺杂水平为1-10wt%,这由复合材料中缺乏特征性石墨反射所证明。相反,石墨在NG-IIR复合材料中保持其堆积顺序并显示出尖锐的特征峰。 IIR基质断裂表面的扫描电子显微镜图像显示,MG纳米填料表现出比NG更好的相容性。 MG-IIR纳米复合材料的机械性能由于大表面积MG片材的有效分布而得到显着改善。掺杂水平为MG 10 wt%的纳米复合材料的拉伸模量是纯IIR的16倍。 [出版物摘要]

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  • 来源
    《Polymer Engineering and Science》 |2011年第11期|p.2254-2260|共7页
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    Huiqin Lian,1,2'3 Shuxin Li,1 Kelong Liu,1 Liangrui Xu,1 Kuisheng Wang,2 Wenli Guo11 Department of Materials Science and Engineering, Beijing Institute of Petrochemical Technology,Beijing, China2 Department of Materials Science and Engineering, Beijing University of Chemical Technology, Beijing, China3 Department of Chemical Engineering, Yanbian University, Beijing, ChinaCorrespondence to: Wenli Guo, e-mail: vvlguo2008@gmail.comContract grant sponsor: Natural Science Foundation of China (NSFC), contract grant number: 51063009, contract grant sponsor: Beijing Natural Science Foundation of China, contract grant number: KZ200910017001.DOI 10.l002/pen.21997Published online in Wiley Online Library (wileyonlinelibrary.com).© 201 1 Society of Plastics Engineers,;

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