基于介电光学谐振腔的室温微光子测热计

T. Ioppolo, E. Rubino
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引用次数: 5

摘要

本文提出了一种基于介电谐振腔低语通道模式的室温微光子测热计。传感元件为空心微球光学聚合物谐振器。空心谐振腔内填充有热膨胀大的流体(气体或液体)。当入射辐射撞击谐振器时,被吸收流体吸收,导致微谐振器的热膨胀。热膨胀引起谐振腔形态(尺寸和折射率)的变化,进而导致光学共振(WGM)的移位。光学共振通常是用单模光纤激发的。初步分析表明,这些传感器可以测量0.1J/m2量级的能量。
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Room-temperature micro-photonic bolometer based on dielectric optical resonators
In this paper we present a room-temperature micro-photonic bolometer that is based on the whispering gallery mode of dielectric resonator (WGM). The sensing element is a hollow micro-spherical optical polymeric resonator. The hollow resonator is filled with a fluid (gas or liquid) that has a large thermal expansion. When an incoming radiation impinges on the resonator is absorbed by the absorbing fluid leading to a thermal expansion of the micro-resonator. The thermal expansion induces changes in the morphology of the resonator (size and index of refraction), that in turn lead to a shift of the optical resonances (WGM). The optical resonances are typically excited using a single mode optical fiber. The preliminary analysis presented in this paper, shows that these sensors can measure energies of the order of 0.1J/m2.
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