Hot carrier devices using novel alloys and substrates

J. Munday
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Abstract

High conductivity metals have long been the material of choice for traditional electronics, and over the past two decades low-loss metals have led to many novel optical devices and structures as a result of plasmonic confinement. As these fields merge, metal optoelectronics using hot carrier effects may pave the way for new device architectures with improved flexibility, frequency response, and ultrafast time-dynamics. In this presentation, we will discuss our recent work building hot electron photodetectors for NIR detection using Si and metal oxides, improved response using nanoscale metal alloys, and time-resolved ultrafast detection via pump-probe techniques exploiting surface plasmon excitation. Further, we will show how the incorporation of index near zero (INZ) substrates can lead to nearly 100% absorption in thin metal films, providing a new platform for hot electron devices. We will conclude with an outlook and discuss future possibilities with these novel material systems.
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采用新型合金和衬底的热载流子器件
高导电性金属长期以来一直是传统电子产品的首选材料,在过去的二十年中,由于等离子体约束,低损耗金属导致了许多新型光学器件和结构。随着这些领域的融合,利用热载子效应的金属光电子技术可能为具有更高灵活性、频率响应和超快时间动力学的新器件架构铺平道路。在这次演讲中,我们将讨论我们最近的工作,利用硅和金属氧化物构建用于近红外探测的热电子光电探测器,使用纳米级金属合金改善响应,以及通过利用表面等离子激元激发的泵浦探针技术进行时间分辨超快探测。此外,我们将展示如何结合指数接近零(INZ)衬底可以导致近100%的金属薄膜吸收,为热电子器件提供一个新的平台。最后,我们将展望并讨论这些新型材料系统的未来可能性。
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