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Nanophotonics for integrated information systems

机译:综合信息系统的纳米光源

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Optical technology plays an increasingly important role in numerous information system applications, including optical communications, storage, signal processing, biology, medicine, and sensing. As optical technology develops, there is a growing need to develop scalable and reliable photonic integration technologies. These include the development of passive and active optical components that can be integrated into functional optical circuits and systems, including filters, electrically or optically controlled switching fabrics, optical sources, detectors, amplifiers, etc. We explore the unique capabilities and advantages of nanotechnology in developing next generation integrated photonic information systems. Our approach includes design, modeling and simulations of selected components and devices, their nanofabrication, followed by validation via characterization and testing of the fabricated devices. The latter exploits our recently constructed near field complex amplitude imaging tool. The understanding of near field interactions in nanophotonic devices and systems is a crucial step as these interactions provide a variety of functionalities useful for optical systems integration. Furthermore, near-field optical devices facilitate miniaturization, and simultaneously enhance multifunctionality, greatly increasing the functional complexity per unit volume of the photonic system. Since the optical properties of near-field materials are controlled by the geometry, there is flexibility in the choice of constituent materials, facilitating the implementation of a wide range of devices using compatible materials for ease of fabrication and integration.
机译:光学技术在许多信息系统应用中起着越来越重要的作用,包括光通信,存储,信号处理,生物学,医学和感应。随着光学技术的发展,越来越需要开发可扩展可靠的光子集成技术。这些包括开发可被集成到功能光电路和系统中的被动和有源光学元件,包括过滤器,电气或光控制的开关织物,光源,探测器,放大器等。我们探讨了纳米技术的独特功能和优势开发下一代集成光子信息系统。我们的方法包括所选择的组件和设备的设计,建模和模拟,其纳米制备,然后通过所制造的设备的表征和测试进行验证。后者利用我们最近构建的近场复杂幅度成像工具。由于这些相互作用提供了可用于光学系统集成的各种功能,了解纳米光电装置和系统近场交互的理解是一个重要的步骤。此外,近场光学器件有助于小型化,同时增强多功能性,大大增加了光子系统的每单位体积的功能复杂性。由于近场材料的光学性质由几何体控制,因此在选择组成材料的选择中存在灵活性,便于使用兼容材料的各种装置的实现,以便于制造和整合。

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