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Interface Modulation of Core-Shell Structured BaTiO3@polyaniline for Novel Dielectric Materials from Its Nanocomposite with Polyarylene Ether Nitrile

机译:新型介电材料的核壳结构BaTiO3 @聚苯胺与聚亚芳基醚腈的纳米复合材料的界面调节

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摘要

The core-shell structured polyaniline-functionalized-BaTiO3 (BT@PANI) nanoparticles with controllable shell layer thicknesses are developed via in-situ aniline polymerization technology and characterized in detail. The results prove that the PANI shell layer with the adjustable and controllable thicknesses of 3–10 nm are completely stabilized on the surface of the BaTiO3 core. In addition, the BT@PANI nanoparticles are regarded as the hybrid nanofillers to prepare PEN/BT@PANI nanocomposite films with a PEN matrix. The research results indicate that the surface functionalized nanoparticles facilitate the compatibility and dispersibility of them in the PEN matrix, which improves the properties of the PEN/BT@PANI nanocomposites. Specifically, the PEN/BT@PANI nanocomposites exhibit thermal stability, excellent permittivity-frequency, and dielectric properties-temperature stability. Most importantly, the energy density of nanocomposites is maintained at over 70% at 180 °C compared with that at 25 °C. All these results reveal that a new way to prepare the high-performance PEN-based nanocomposites is established to fabricate an energy storage component in a high temperature environment.
机译:通过原位苯胺聚合技术开发了具有可控壳层厚度的核-壳结构聚苯胺功能化BaTiO3(BT @ PANI)纳米颗粒,并对其进行了详细表征。结果证明,厚度为3–10 nm的PANI壳层在BaTiO3核的表面上完全稳定。此外,将BT @ PANI纳米粒子视为杂化纳米填料,以制备具有PEN基质的PEN / BT @ PANI纳米复合薄膜。研究结果表明,表面官能化的纳米颗粒促进了它们在PEN基质中的相容性和分散性,从而改善了PEN / BT @ PANI纳米复合材料的性能。具体地,PEN / BT @ PANI纳米复合材料表现出热稳定性,优异的介电常数-频率以及介电性质-温度稳定性。最重要的是,与25°C相比,180°C时纳米复合材料的能量密度保持在70%以上。所有这些结果表明,建立了制备高性能基于PEN的纳米复合材料的新方法,以在高温环境下制造储能组件。

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