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Simultaneous frequency transfer and time synchronization over a 430 km fiber backbone network using a cascaded system 被引量:6

Simultaneous frequency transfer and time synchronization over a 430 km fiber backbone network using a cascaded system
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摘要 Based on dense wavelength-division multiplexing technology, frequency transfer and time synchronization are simultaneously realized over a compensated cascaded fiber link of 430 km, which is a part of the Beijing- Shanghai optical fiber backbone network. The entire cascaded system consists of two stages with fiber links of 280 and 150 km, respectively. To keep high symmetry and low noise, specific bi-directional erbium-doped fiber amplifiers are used to compensate the large optical attenuation of each fiber link. When the compensation servo is active in every stage, the cascaded system achieves the stability of 1.94 × 10-13 at I s and 1.34 × 10-16 at 104 s, for frequency transfer. It is also verified that the actual results of the cascaded system are in good agreement with the theoretical ones calculated from error theory. Simultaneously, after calibration of each stage, time synchronization is also realized. The final accuracy of the whole system is within 94 ps. Based on dense wavelength-division multiplexing technology, frequency transfer and time synchronization are simultaneously realized over a compensated cascaded fiber link of 430 km, which is a part of the Beijing- Shanghai optical fiber backbone network. The entire cascaded system consists of two stages with fiber links of 280 and 150 km, respectively. To keep high symmetry and low noise, specific bi-directional erbium-doped fiber amplifiers are used to compensate the large optical attenuation of each fiber link. When the compensation servo is active in every stage, the cascaded system achieves the stability of 1.94 × 10-13 at I s and 1.34 × 10-16 at 104 s, for frequency transfer. It is also verified that the actual results of the cascaded system are in good agreement with the theoretical ones calculated from error theory. Simultaneously, after calibration of each stage, time synchronization is also realized. The final accuracy of the whole system is within 94 ps.
出处 《Chinese Optics Letters》 SCIE EI CAS CSCD 2016年第7期29-33,共5页 中国光学快报(英文版)
基金 supported in part by the National High-Tech R&D Program(863 Program)under Grant No.2013AA122901
关键词 Dense wavelength division multiplexing Fiber amplifiers Fibers Optical fibers Optical waveguides SYNCHRONIZATION Wavelength division multiplexing Dense wavelength division multiplexing Fiber amplifiers Fibers Optical fibers Optical waveguides Synchronization Wavelength division multiplexing
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