Integration of optical microcavities

A. Matsko
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Abstract

In this chapter, we limit our consideration to integration of open-ring micro-cavities that are characterized with the highest achievable Q-factors among the variety of the optical microcavities. These microcavities lend themselves to the planar integration. The resonant PIC were improved tremendously during last few years. On the one hand, the Q-factors of the integrated microcavities were improved beyond 107. On the other hand, planar couplers were demonstrated for bulk resonators characterized with Q-factors exceeding 109. In this chapter, we review recent developments in the field that can be divided into two categories: (i) improvement of the quality of the planar microcavities integrated on a chip (Si [51], Si3N4 [52-63], SiO2 [64], LiNbO3 [65-70]) as well as the waveguide couplers for the planar microcavities [55,71] and (ii) integration of ultra-high-Q bulk resonators with planar waveguides to make practical PIC systems involving ultra-high-Q microcavities [72-75]. Either better manufacturing procedures or new materials were utilized to improve the microcavities. Optimally engineered waveguides were designed for bulk microcavities to enable their PIC integration. This task is espe-cially intricate for the integration of microcavities made out of low refractive index materials. The chapter is organized as follows. In Section 6.2, we present the basic terms for the description of the coupling efficiency for optical microresonators and describe the major types of the bulk evanescent field couplers. In Section 6.3, we discuss recent progress in the development of high-Q (>107) planar resonators integrated in PICs. In Section 6.4, we highlight recent results on integration of bulk microcavities with Q> 109. Section 6.5 concludes the chapter.
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光学微腔的集成
在本章中,我们将我们的考虑限制在各种光学微腔中具有最高可实现q因子的开环微腔的集成。这些微腔有利于平面集成。谐振式PIC在过去几年中有了很大的改进。一方面,集成微腔的q因子提高到107以上;另一方面,平面耦合器被证明适用于q因子超过109的体谐振腔。在本章中,我们回顾了该领域的最新进展,可分为两类:(i)集成在芯片上的平面微腔(Si [51], Si3N4 [52-63], SiO2 [64], LiNbO3[65-70])质量的改进以及用于平面微腔的波导耦合器[55,71];(ii)超高q体谐振器与平面波导的集成,使实际的PIC系统涉及超高q微腔[72-75]。采用更好的制造工艺或新材料来改善微腔。优化设计了用于体微腔的波导,以实现其PIC集成。这项任务对于由低折射率材料制成的微腔的集成来说尤其复杂。本章组织如下。在第6.2节中,我们给出了描述光学微谐振器耦合效率的基本术语,并描述了体倏逝场耦合器的主要类型。在第6.3节中,我们讨论了集成在pic中的高q(>107)平面谐振器的最新进展。在6.4节中,我们重点介绍了qbbb109集成体微腔的最新结果。第6.5节结束本章。
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