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首页> 外文期刊>Analytical chemistry >Novel Gold-Capped Nanopillars Imprinted on a Polymer Film for Highly Sensitive Plasmonic Biosensing
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Novel Gold-Capped Nanopillars Imprinted on a Polymer Film for Highly Sensitive Plasmonic Biosensing

机译:新型金盖纳米柱压印在聚合物膜上,用于高度敏感的等离子体生物传感。

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Herein, a nanoporous alumina was fabricated to use as a mold in transforming nanopillar structures onto a thin film polymer by thermal nanoimprint lithography (NIL). The size of the pores was successfully controlled by varying the applied voltages and etching time. These nanoporous structures were transferred to the Cyclo-olefin polymer (COP) film surface from the porous mold by a thermal nanoimprinting process. A plasmonic substrate was fabricated by sputtering a thin layer of gold onto this nanopillar polymer structure, and the refractive index response in a variety of media was evaluated. Finally, the biosensing capacity of this novel plasmonic substrate was verified by analysis of Human immunoglobulin and achieved a minimum detection limit of 1.0 ng/mL. With the advantages of mass production with consistent reproducibility stemming from the nanoimprint fabrication process, our gold-capped polymeric pillars are ready for the transition from academic interest into commercialization systems for practical use in diagnostic applications.
机译:在此,制造纳米多孔氧化铝以用作通过热纳米压印光刻法(NIL)将纳米柱结构转变成薄膜聚合物的模具。通过改变施加的电压和蚀刻时间成功地控制了孔的尺寸。这些纳米多孔结构通过热纳米压印工艺从多孔模具转移到环烯烃聚合物(COP)薄膜表面。通过将金的薄层溅射到该纳米柱状聚合物结构上来制备等离激元基板,并评估在各种介质中的折射率响应。最后,通过人免疫球蛋白的分析验证了这种新型等离激元底物的生物传感能力,并达到了最低检测限1.0 ng / mL。凭借纳米压印制造工艺带来的批量生产和始终如一的可重复性优势,我们的金封端聚合物支柱已为从学术兴趣到商业化系统的过渡做好了实际准备,可用于诊断应用。

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