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首页> 外文期刊>Journal of Materials Chemistry, C. materials for optical and electronic devices >As good as gold and better: conducting metal oxide materials for mid-infrared plasmonic applications
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As good as gold and better: conducting metal oxide materials for mid-infrared plasmonic applications

机译:和金色和更好的一样:导电用于中红外等离子体应用的金属氧化物材料

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The field of infrared surface plasmon resonance (IR-SPR) spectroscopy has the potential to enable unique applications and technologies in chemical sensing, heat harvesting, and infrared detectors. Finding an ideal material that can support a surface plasmon in the IR region has been a challenge for more than a decade. High carrier mobility, mu 200 cm(2) V-1 s(-1), and tunable carrier concentration in the range 10(19) n 10(21) cm(3) are two necessary criteria for a spectrally narrow tunable plasmon resonance band in the IR. The ideal material would also be easy to prepare and robust in water and under ambient conditions. In this review, we highlight the development of the field over the last decade. We also provide a guide to explain the extension of visible plasmonics to the infrared region and the evolution of IR-SPR using conducting metal oxides (CMOs). CMOs are free electron conductors and most of them have no interfering electronic or vibrational transitions in the range of interest. Therefore, these materials also provide an excellent test of the fundamental physics of SPR, including the effects of surface fields, enhancement phenomena and the relationship between thin film epsilon near zero (ENZ) mode and the localized surface plasmon resonance (LSPR) in nanocrystals. In summary, we discuss the materials challenges and prospects for this field of research.
机译:红外表面等离子体谐振(IR-SPR)光谱技术有可能在化学传感,热收集和红外探测器中实现独特的应用和技术。找到一个可以支持IR地区的表面等离例的理想材料,这是十多年来的挑战。高载流动性,MU> 200厘米(2)V-1S(-1),并且在10(19)°(19)的可调谐载体浓度n&图10(21)cm(3)是IR中的光谱窄可调等离子体共振带的两个必要标准。理想的材料也很容易在水中和环境条件下制备和稳健。在这篇综述中,我们在过去十年中突出了该领域的发展。我们还提供了一种指导,用于解释用于红外区域的可见量子的扩展和使用导电金属氧化物(CMOS)的IR-SPR的演化。 CMOS是自由电子导体,并且大多数在感兴趣范围内没有干扰电子或振动过渡。因此,这些材料还提供了SPR的基本物理学的优异测试,包括表面场,增强现象和薄膜epsilon与零(ENZ)模式附近的薄膜epsilon之间的关系以及纳米晶体中的局部等离子体共振(LSPR)的影响。总之,我们讨论了这一研究领域的材料挑战和前景。

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