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Multifunctionalized Self-supported (Nano) Membranes as Integrated Platform for Plasmonic Metamaterials

机译:多功能自支撑(纳米)膜作为等离子超材料的集成平台

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We considered the possibility to fabricate multifunctional nanocomposite membranes as a platform for plasmonic metamaterials, simultaneously incorporating pores, built-in functional groups and active nanoparticles. To this purpose we combined lamination and inclusion of nanofillers into the membrane host. For the basic material we chose macroporous crosslinked copolymers based on glycidyl methacrylate (GMA). The epoxy group present in GMA molecule is readily transformed into various functional groups that further serve as affinity enhancers, ensuring the usability of the membranes as pre-concentrators of selected agents in plasmonic sensors. To form GMA-based membranes we used a recently proposed method combining the traditional immersion precipitation with photopolymerization and crosslinking of functional monomers. Further functionalization is obtained by in-situ formation of noble metal nanoparticles directly within the GMA host. In this way membranes with simultaneous plasmonic, adsorbent and catalytic functionality are obtained. We considered the use of the our structures for plasmonic chemical sensors where separator, pre-concentrator and binding agent are integrated with the plasmonic crystal, as well as for plasmonic enhancement of photocatalytic reactions in microreactors. Our approach gives a highly tailorable element compatible with mi-croelectromechanical systems (MEMS) technologies and readily transferable across platforms.
机译:我们考虑了制造多功能纳米复合膜作为等离子超材料的平台的可能性,同时并入了孔,内置的官能团和活性纳米颗粒。为此,我们将层压和纳米填料的包容结合到了膜主体中。对于基础材料,我们选择了基于甲基丙烯酸缩水甘油酯(GMA)的大孔交联共聚物。 GMA分子中存在的环氧基容易转化为各种官能团,这些官能团还可以进一步用作亲和力增强剂,从而确保膜在等离子体传感器中作为选定试剂的预浓缩剂的可用性。为了形成基于GMA的膜,我们使用了一种最近提出的方法,该方法将传统的沉浸沉淀与功能单体的光聚合和交联相结合。通过直接在GMA主体内原位形成贵金属纳米颗粒,可以获得进一步的功能化。以这种方式,获得了同时具有等离子体,吸附和催化功能的膜。我们考虑将我们的结构用于等离子化学传感器,其中分离器,预浓缩器和结合剂与等离子晶体集成在一起,以及用于微反应器中光催化反应的等离子增强。我们的方法提供了与微机电系统(MEMS)技术兼容的高度可定制的元素,并且可以轻松跨平台转移。

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