Time and frequency transfer and dissemination methods using optical fiber network

Masaki Amemiya, M. Imae, Yasuhisa Fujii, T. Suzuyama, Shin-ichi Ohshima, Shinichi Aoyagi, Yoshihiro Takigawa, Masami Kihara
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引用次数: 38

Abstract

In the time and frequency transfer and dissemination field, it is important to provide cost effective remote frequency calibration services with an uncertainty of around 10-12 for end users. It is also required to develop ultra precise transfer methods with an order of 10-15 or better uncertainty for the comparison between ultra stable frequency standards which are under developing. This study shows two methods using optical fiber networks to satisfy these demands. First, it is an economical remote calibration method using existing synchronous optical fiber communication networks. The measured frequency stability (the Allan deviation) of the transmission clock is 2times10-13 for an averaging time of one day. The result indicates the method is promising for the simple remote frequency calibration service. Second, it is an ultra precise two-way optical fiber time and frequency transfer method using a newly proposed bi-directional optical amplifier. In this method, wavelength division multiplexing (WDM) signals are transmitted along a single optical fiber. The preliminary measured frequency stability is less than 1015 (tau =104 s) for a 100-km-long fiber with the bi-directional amplifier. It suggests that the method has capability for improving TAI (International Atomic Time) and UTC (Coordinated Universal Time)
使用光纤网络的时间和频率传输和传播方法
在时间和频率传输和传播领域,为最终用户提供具有成本效益的远程频率校准服务非常重要,其不确定度约为10-12。还需要开发具有10-15数量级或更好的不确定度的超精密传递方法,用于正在开发的超稳定频率标准之间的比较。本研究提出了两种利用光纤网络来满足这些需求的方法。首先,它是一种经济的利用现有同步光纤通信网络的远程校准方法。传输时钟的测量频率稳定度(艾伦偏差)为2倍10-13,平均时间为一天。结果表明,该方法适用于简单的远程频率定标服务。其次,利用新提出的双向光放大器实现了超精密的双向光纤时频传输方法。在这种方法中,波分复用(WDM)信号沿着单个光纤传输。在带有双向放大器的100公里长光纤中,初步测量的频率稳定度小于1015 (tau =104 s)。表明该方法具有提高TAI(国际原子时)和UTC(协调世界时)的能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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