• Chinese Optics Letters
  • Vol. 22, Issue 11, 110603 (2024)
Zhou He1,2, Hao Huang3, Peng Zhang4,5, Dongrong Ma1..., Binghua Shi1,2, Tong Wang1,2, Yuanyuan Huang1 and Jia Guo1,2,*|Show fewer author(s)
Author Affiliations
  • 1Hubei Key Laboratory of Digital Finance Innovation, Hubei University of Economics, Wuhan 430205, China
  • 2School of Information Engineering, Hubei University of Economics, Wuhan 430205, China
  • 3Wuhan Second Ship Design and Research Institute, Wuhan 430205, China
  • 4School of Electronic Information and Communications, Huazhong University of Science and Technology, Wuhan 430073, China
  • 5Wuhan Fiberhome Technical Services Co., Ltd., Wuhan 430073, China
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    DOI: 10.3788/COL202422.110603 Cite this Article Set citation alerts
    Zhou He, Hao Huang, Peng Zhang, Dongrong Ma, Binghua Shi, Tong Wang, Yuanyuan Huang, Jia Guo, "Advanced optical modulation for integrated computing and networking toward 6G requirement," Chin. Opt. Lett. 22, 110603 (2024) Copy Citation Text show less
    6G integrated computing and networking architecture. (a) Apol-CRZ-FSK signal transmitter. (b) Apol-CRZ-FSK signal receiver.
    Fig. 1. 6G integrated computing and networking architecture. (a) Apol-CRZ-FSK signal transmitter. (b) Apol-CRZ-FSK signal receiver.
    Performance of 100 Gbps Apol-CRZ-FSK signals for different compensation schemes. (a) Pre-compensation, (b) hybrid-compensation, (c) post-compensation.
    Fig. 2. Performance of 100 Gbps Apol-CRZ-FSK signals for different compensation schemes. (a) Pre-compensation, (b) hybrid-compensation, (c) post-compensation.
    Transmission performance of 100 Gbps Apol-CRZ-FSK signals at the longest single span distance of 175 km.
    Fig. 3. Transmission performance of 100 Gbps Apol-CRZ-FSK signals at the longest single span distance of 175 km.
    Performance of 100 Gbps CRZ-FSK signals under different compensation schemes. (a) Pre-compensation, (b) hybrid-compensation, (c) post-compensation.
    Fig. 4. Performance of 100 Gbps CRZ-FSK signals under different compensation schemes. (a) Pre-compensation, (b) hybrid-compensation, (c) post-compensation.
    Performance of 100 Gbps DQPSK signals under different compensation schemes. (a) Pre-compensation, (b) hybrid-compensation, (c) post-compensation.
    Fig. 5. Performance of 100 Gbps DQPSK signals under different compensation schemes. (a) Pre-compensation, (b) hybrid-compensation, (c) post-compensation.
    BER performance of 100 Gbps Apol-CRZ-FSK, CRZ-FSK, and DQPSK signals at 80 km transmission.
    Fig. 6. BER performance of 100 Gbps Apol-CRZ-FSK, CRZ-FSK, and DQPSK signals at 80 km transmission.
    Transmission performance of 100 Gbps Apol-CRZ-FSK, CRZ-FSK, and DQPSK signals at single-span distances of 80 km, 100 km, and 120 km.
    Fig. 7. Transmission performance of 100 Gbps Apol-CRZ-FSK, CRZ-FSK, and DQPSK signals at single-span distances of 80 km, 100 km, and 120 km.
    Performance of 100 Gbps Apol-CRZ-FSK signals over multi-span distances.
    Fig. 8. Performance of 100 Gbps Apol-CRZ-FSK signals over multi-span distances.
    SMFDCF
    Dispersion (ps nm−1 km−1)16−90
    Attenuation (dB/km)0.20.5
    Nonlinear index (m2/W)2.6 × 10−204 × 10−20
    Core area (m2)8.0 × 10−115.5 × 10−11
    Dispersion slope (ps nm−2 km−1)0.08−0.45
    PMD coefficient (ps/km)10−13/31.6210−13/31.62
    Table 1. Parameters of Transmission Line
    Zhou He, Hao Huang, Peng Zhang, Dongrong Ma, Binghua Shi, Tong Wang, Yuanyuan Huang, Jia Guo, "Advanced optical modulation for integrated computing and networking toward 6G requirement," Chin. Opt. Lett. 22, 110603 (2024)
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