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Photoprintable nanowire-polymer blends synthesized by dynamic emulsion polycondensation

机译:通过动态乳液缩聚合成的光印度纳米线 - 聚合物共混物

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摘要

In this article, we report a photoprintable nanocomposite synthesized at room temperature in less than 10 s by aggressive mixing of two monomer solutions. Polycondensation occurs in the dispersed phase of the dynamic emulsion, microdroplets, in which the nanofillers are suspended. Hence, the synthesized composite microparticles have a high dispersion and high loading of nanofillers. Specifically, silver nanowire (AgNW)-nylon 66 blends with various Ag weight fractions are synthesized and studied. The poly(vinyl pyrrolidone) (PVP)-functionalized AgNWs (by polyol synthesis) are singly dispersed and tethered to the nylon matrix by PVP with a slight depression of the glass-transition temperature. The Ag-nylon powder melts under low-intensity visible continuous wave laser radiation; this allows convenient photoprinting of the nanocomposite structures. Photoprinting is demonstrated at a radiation intensity of 0.3 kW/cm(2) (405 nm laser) and a scan rate of 5 mm/s for a 1.49 wt % Ag content. This enhanced photothermal characteristic of the nanocomposite, which allows printing at low radiation intensities, is attributed to the efficient coupling of light to the AgNW plasmon modes and the high dispersion of nanowires in the polymer. (c) 2019 Wiley Periodicals, Inc. J. Appl. Polym. Sci. 2019, 136, 47670.
机译:在本文中,我们通过两种单体溶液的侵蚀混合在室温下在室温下在室温下在室温下合成的光可防力量纳米复合材料。在动态乳液的分散相中发生缩聚,微型电池的分散相,其中纳米填料悬浮。因此,合成的复合材料微粒具有高分散体和高负荷的纳米填充物。具体地,合成并研究具有各种Ag重量级分的银纳米线(AgNW) - 荷隆66共混物。通过PVP通过PVP单独分散并将多元醇合成官能化AgNW(通过多元醇合成)通过PVP略微抑制玻璃化转变温度。 Ag-尼龙粉末在低强度可见连续波激光辐射下熔化;这允许方便的纳米复合结构的光选胶。以0.3kW / cm(2)(405nm激光)的辐射强度和1.49wt%Ag含量为5mm / s的扫描速率来证明光选胶。这种纳米复合材料的这种增强的光热特性,允许在低辐射强度下印刷,归因于光与AgNW等离子体模式的有效耦合和聚合物中纳米线的高分散体。 (c)2019 Wiley期刊,Inc.J.Phill。聚合物。 SCI。 2019,136,47670。

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