• Acta Optica Sinica
  • Vol. 43, Issue 5, 0506005 (2023)
Wenhua Cao*
Author Affiliations
  • College of Electronics and Information Engineering, Shenzhen University, Shenzhen 518060, Guangdong, China
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    DOI: 10.3788/AOS221631 Cite this Article Set citation alerts
    Wenhua Cao. Intrachannel Four-Wave Mixing Compensation in Dispersion-Managed Transmission Links with Mid-Span Optical Phase Conjugation[J]. Acta Optica Sinica, 2023, 43(5): 0506005 Copy Citation Text show less
    Transmission schemes and OPC propagation symmetry analysis. (a) Schematic of the IDF-managed (top) and DCF-managed (bottom) links; (b) corresponding power varying with transmission distance in case of two-span transmission (N=1); (c) PADD
    Fig. 1. Transmission schemes and OPC propagation symmetry analysis. (a) Schematic of the IDF-managed (top) and DCF-managed (bottom) links; (b) corresponding power varying with transmission distance in case of two-span transmission (N=1); (c) PADD
    Comparison of compensation performance of two transmission schemes for different transmission distance. Output pulse shapes of (a) two-span transmission, (b) six-span transmission, and (c) ten-span transmission; corresponding output spectra of (d) two-span transmission, (e) six-span transmission, and (f) ten-span transmission
    Fig. 2. Comparison of compensation performance of two transmission schemes for different transmission distance. Output pulse shapes of (a) two-span transmission, (b) six-span transmission, and (c) ten-span transmission; corresponding output spectra of (d) two-span transmission, (e) six-span transmission, and (f) ten-span transmission
    Comparison of compensation performance of two compensation schemes. Variation of ΔPaver with input energy for (a) two-span transmission, (b) six-span transmission, and (c) ten-span transmission; variation of relative peak intensity of ghost pulse with input energy for (d) two-span transmission, (e) six-span transmission, and (f) ten-span transmission
    Fig. 3. Comparison of compensation performance of two compensation schemes. Variation of ΔPaver with input energy for (a) two-span transmission, (b) six-span transmission, and (c) ten-span transmission; variation of relative peak intensity of ghost pulse with input energy for (d) two-span transmission, (e) six-span transmission, and (f) ten-span transmission
    Scheme for asymmetric power (energy) transmission [scheme is identical to DCF-managed link shown in Fig. 1(a) added with VGA and VOA]
    Fig. 4. Scheme for asymmetric power (energy) transmission [scheme is identical to DCF-managed link shown in Fig. 1(a) added with VGA and VOA]
    Relationship between compensation effect and E1/E2 for DCF scheme under six-span transmission. (a) Variation of ΔPaver with E1/E2; (b) variation of relative peak intensity of ghost pulse with E1/E2
    Fig. 5. Relationship between compensation effect and E1/E2 for DCF scheme under six-span transmission. (a) Variation of ΔPaver with E1/E2; (b) variation of relative peak intensity of ghost pulse with E1/E2
    Comparison of output results of asymmetric energy transfer and symmetric energy transfer for DCF scheme. (a) Waveform comparison; (b) spectrum comparison
    Fig. 6. Comparison of output results of asymmetric energy transfer and symmetric energy transfer for DCF scheme. (a) Waveform comparison; (b) spectrum comparison
    Fiber typeSSMFIDFDCF
    Attenuation αdB /(dB·km-10.20.20.6
    Dispersion β2 /(ps2·km-1-2020160
    Nonlinearity γ /(W-1·km-11.31.33.9
    Table 1. Fiber parameters set for simulations
    Wenhua Cao. Intrachannel Four-Wave Mixing Compensation in Dispersion-Managed Transmission Links with Mid-Span Optical Phase Conjugation[J]. Acta Optica Sinica, 2023, 43(5): 0506005
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