4.8 Article

Bridging ultrahigh-Q devices and photonic circuits

Journal

NATURE PHOTONICS
Volume 12, Issue 5, Pages 297-+

Publisher

NATURE RESEARCH
DOI: 10.1038/s41566-018-0132-5

Keywords

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Funding

  1. Defense Advanced Research Projects Agency under the DODOS program [HR0011-15-C-0055, KK1540]
  2. Kavli Nanoscience Institute
  3. Defense Advanced Research Projects Agency under the PRIGM: AIMS program [N66001-16-1-4046]

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Optical microresonators are essential to a broad range of technologies and scientific disciplines. However, many of their applications rely on discrete devices to attain challenging combinations of ultra-low-loss performance (ultrahigh Q) and resonator design requirements. This prevents access to scalable fabrication methods for photonic integration and lithographic feature control. Indeed, finding a microfabrication bridge that connects ultrahigh-Q device functions with photonic circuits is a priority of the microcavity field. Here, an integrated resonator having a record Q factor over 200 million is presented. Its ultra-low-loss and flexible cavity design brings performance to integrated systems that has been the exclusive domain of discrete silica and crystalline microcavity devices. Two distinctly different devices are demonstrated: soliton sources with electronic repetition rates and high-coherence/low-threshold Brillouin lasers. This multi-device capability and performance from a single integrated cavity platform represents a critical advance for future photonic circuits and systems.

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