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利用激光通信中继演示地球静止轨道下行链路在桌山设施进行光学湍流剖面测量。

Optical turbulence profiling at the Table Mountain Facility with the Laser Communication Relay Demonstration GEO downlink.

作者信息

Birch Marcus, Piazzolla Sabino, Hooser Preston, Bennet Francis, Travouillon Tony, Buehlman William

出版信息

Opt Express. 2024 Jun 3;32(12):21962-21976. doi: 10.1364/OE.523103.

DOI:10.1364/OE.523103
PMID:38859537
Abstract

We report the first measurement of the atmospheric optical turbulence profile using the transmitted beam from a satellite laser communication terminal. A ring image next generation scintillation sensor (RINGSS) instrument for turbulence profiling, as described in Tokovinin [MNRAS502, 747 (2021)10.1093/mnras/staa4049], was deployed at the NASA/Jet Propulsion Laboratory's Table Mountain Facility (TMF) in California. The optical turbulence profile was measured with the downlink optical beam from the Laser Communication Relay Demonstration (LCRD) geostationary satellite. LCRD conducts links with the Optical Communication Telescope Laboratory ground station and the RINGSS instrument was co-located at TMF to conduct measurements. Turbulence profiles were measured at day and night and atmospheric coherence lengths were compared with other turbulence monitors such as a solar scintillometer and Polaris motion monitor. RINGSS sensitivity to boundary layer turbulence, a feature not provided by many profilers, is also shown to agree with a boundary layer scintillometer at TMF (R = 0.85). Diurnal evolution of optical turbulence and measured profiles are presented. The correlation of RINGSS with other turbulence monitors (R = 0.75 - 0.86) demonstrates the concept of free-space optical communications turbulence profiling, which could be adopted as a way to support optical ground stations in a future Geostationary feeder link network. These results also provide further evidence that RINGSS, a relatively new instrument concept, correlates well with other instruments in daytime and nighttime turbulence.

摘要

我们报告了首次使用卫星激光通信终端的发射光束对大气光学湍流剖面进行的测量。如托科维宁[《皇家天文学会月刊》502, 747 (2021)10.1093/mnras/staa4049]中所述,用于湍流剖面测量的环形图像下一代闪烁传感器(RINGSS)仪器被部署在加利福尼亚州美国国家航空航天局/喷气推进实验室的桌山设施(TMF)。利用来自激光通信中继演示(LCRD)地球静止卫星的下行光光束测量了光学湍流剖面。LCRD与光通信望远镜实验室地面站进行链路连接,并且RINGSS仪器与TMF位于同一地点以进行测量。在白天和夜晚测量了湍流剖面,并将大气相干长度与其他湍流监测器(如太阳闪烁仪和北极星运动监测器)进行了比较。RINGSS对边界层湍流的敏感性(这是许多剖面仪所不具备的特性)也被证明与TMF的边界层闪烁仪一致(R = 0.85)。给出了光学湍流的日变化和测量剖面。RINGSS与其他湍流监测器的相关性(R = 0.75 - 0.86)证明了自由空间光通信湍流剖面测量的概念,这可以作为一种在未来地球静止馈线链路网络中支持光学地面站的方法。这些结果还进一步证明,相对较新的仪器概念RINGSS在白天和夜晚的湍流中与其他仪器具有良好的相关性。

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