• Chinese Optics Letters
  • Vol. 15, Issue 3, 030601 (2017)
Mohammad Hadi*, Farokh Marvasti, and Mohammad Reza Pakravan
Author Affiliations
  • Electrical Engineering Department, Sharif University of Technology, Tehran 113658639, Iran
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    DOI: 10.3788/COL201715.030601 Cite this Article Set citation alerts
    Mohammad Hadi, Farokh Marvasti, Mohammad Reza Pakravan. Dispersion compensation using high-positive dispersive optical fibers[J]. Chinese Optics Letters, 2017, 15(3): 030601 Copy Citation Text show less
    Direct implementation of the iterative method, which is a cascaded repetition of the highlighted part. Each highlighted part is an error operator followed by an add operation.
    Fig. 1. Direct implementation of the iterative method, which is a cascaded repetition of the highlighted part. Each highlighted part is an error operator followed by an add operation.
    Feedback implementation of the iterative method, which is a closed-loop system constructed of the highlighted part of Fig. 1. The input signal should cycle K times in the feedback loop to provide an output equivalent to the output of the direct implementation, with K repetitions of the highlighted part.
    Fig. 2. Feedback implementation of the iterative method, which is a closed-loop system constructed of the highlighted part of Fig. 1. The input signal should cycle K times in the feedback loop to provide an output equivalent to the output of the direct implementation, with K repetitions of the highlighted part.
    Block diagram of the proposed dispersion compensating structure, including 2 cascaded sub-systems E.
    Fig. 3. Block diagram of the proposed dispersion compensating structure, including 2 cascaded sub-systems E.
    Two-dimensional region of transmission length z and bandwidth B values for which the proposed system can stably compensate for dispersion.
    Fig. 4. Two-dimensional region of transmission length z and bandwidth B values for which the proposed system can stably compensate for dispersion.
    Broadening factor for a sinc-shaped optical pulse conveyed by carrier wavelength λ0=1550 nm in terms of the number of cascaded sub-systems E in the compensating structure for various values of |β2FIB|z(2πB)2 and attenuation coefficient α.
    Fig. 5. Broadening factor for a sinc-shaped optical pulse conveyed by carrier wavelength λ0=1550nm in terms of the number of cascaded sub-systems E in the compensating structure for various values of |β2FIB|z(2πB)2 and attenuation coefficient α.
    Mohammad Hadi, Farokh Marvasti, Mohammad Reza Pakravan. Dispersion compensation using high-positive dispersive optical fibers[J]. Chinese Optics Letters, 2017, 15(3): 030601
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