Technology Challenges for Silicon Nanophotonics and Beyond

L. Wosinski, Liu Liu, M. Dainese, E. Berglind
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引用次数: 3

Abstract

The development of Si-based photonics has been far behind the development of electronics for long time. There are two reasons for that. As silicon is an indirect band gap semiconductor, achieving light emission and gain is quite difficult. On the other hand, for using silicon as a light guiding material for passive devices, the main constrains until recently were relatively high propagation losses and high fiber-to-waveguide incoupling losses. The general trend towards more compact photonic devices together with progress in fabrication techniques resulted in the development of two nano-photonic technologies for next generation optical devices: photonic crystals and nanowire waveguides-based devices. To drastically increase the integration density and achieve subwavelength confinement of light along the propagation direction, plasmonic waveguides have been proposed. Surface plasmons are electromagnetic modes constituted on the interface between a metal and a dielectric. The tradeoff between the light confinement and propagation loss has here a vital importance.
硅纳米光子学及其以后的技术挑战
长期以来,硅基光子学的发展远远落后于电子学的发展。这有两个原因。由于硅是一种间接带隙半导体,实现光发射和光增益是相当困难的。另一方面,对于使用硅作为无源器件的光导材料,直到最近的主要限制是相对较高的传播损耗和高光纤-波导耦合损耗。光子器件小型化的大趋势以及制造技术的进步导致了下一代光学器件的两种纳米光子技术的发展:光子晶体和基于纳米线波导的器件。为了大幅度提高集成密度并实现光沿传播方向的亚波长限制,人们提出了等离子体波导。表面等离子体是在金属和电介质之间的界面上形成的电磁模式。在光约束和传播损耗之间的权衡在这里是至关重要的。
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