Direct imaging of nanophotonic cavity modes using Li ion microscope

J. Zou, K. Twedt, M. Davanco, K. Srinivasan, J. McClelland, V. Aksyuk
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Abstract

Micrometer-scale photonic cavities with high quality factors (Q) enable on chip motion sensing with unparalleled precision and bandwidth. The optical mode shape is critical for the transducer performance, yet it is difficult to measure directly and noninvasively. Here we use a scanning lithium ion microscope to visualize the electric field energy density of a 10 um diameter, 245 nm thick, 60000 Q Si microdisk optical cavity and to identify the radial order of the mode. The technique utilizes a beam of Li ions as a high spatial resolution noncontact probe, minimally perturbing the measured cavity resonance.
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利用锂离子显微镜直接成像纳米光子腔模式
具有高品质因子(Q)的微米级光子腔使芯片上的运动传感具有无与伦比的精度和带宽。光学模形对换能器的性能至关重要,但它很难直接和无创地测量。本文利用扫描锂离子显微镜观察了直径10 um、厚度245 nm、60000 Q Si微盘光学腔的电场能量密度,并确定了模式的径向阶数。该技术利用一束锂离子作为高空间分辨率的非接触式探针,对被测腔谐振的干扰最小。
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