Frequency-octupled phase-coded signal generation based on carrier-suppressed high-order double sideband modulation
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李轩
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赵尚弘
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Information and Navigation College,Air Force Engineering UniversityInformation and Navigation College,Air Force Engineering University
赵尚弘
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朱子行
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Information and Navigation College,Air Force Engineering UniversityInformation and Navigation College,Air Force Engineering University
朱子行
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屈坤
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Information and Navigation College,Air Force Engineering UniversityInformation and Navigation College,Air Force Engineering University
屈坤
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林涛
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Information and Navigation College,Air Force Engineering UniversityInformation and Navigation College,Air Force Engineering University
林涛
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潘时龙
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Key Laboratory of Radar Imaging and Microwave Photonics,Ministry of Education,Nanjing University of Aeronautics and AstronauticsInformation and Navigation College,Air Force Engineering University
潘时龙
[2
]
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[1] Information and Navigation College,Air Force Engineering University
[2] Key Laboratory of Radar Imaging and Microwave Photonics,Ministry of Education,Nanjing University of Aeronautics and Astronautics
An approach for photonic generation of a frequency-octupled phase-coded signal based on carrier-suppressed high-order double sideband modulation is proposed and experimentally demonstrated. The key component of the scheme is an integrated dual-polarization quadrature phase shift keying modulator, which is used to achieve the carrier-suppressed high-order double sideband modulation. At the output of the modulator, two fourth-order optical sidebands are generated with the optical carrier suppressed. After that, a Sagnac loop incorporating a fiber Bragg grating and a phase modulator is employed to separate the two optical sidebands and phase modulate one sideband with a binary coding signal. The approach features large carrier frequency tuning range for the generated phase-coded signal from several megahertz to beyond the W-band. A proof-of-concept experiment is carried out. The 2 Gbit/s phase-coded signals with frequencies of 16.48, 21.92, and 29.76 GHz are generated.