Realizing a robust optical pulse compressor operating at 850 nm using a photonic crystal fiber

Samuel Olupitan, K. Senthilnathan, P. Ramesh Babu, R. Vasantha Jayakantha Raja, Sumeet S. Aphale, K. Nakeeran

Research output: Contribution to journalArticle

10 Citations (Scopus)

Abstract

This work stems from the motivation of a recent investigation on single- and pulse-train compression schemes using solid core as well as chloroform-filled photonic crystal fiber (PCF), with both hyperbolic secant and raised-cosine pulse profiles. To study the robustness of the proposed optical pulse compressor, we perturb the loss coefficient and study the deviations in the pedestal energy and compression factor for both pulse profiles. To this end, we perturb the loss coefficient of the solid core PCF over a range of +/- 1000% and, in a similar way, we carry out this study for the chloroform-filled PCF, but with the perturbation restricted to a lower level, i.e. over a range of +/- 300 % due to the higher value of the nonlinear growth rate. We compare the intensity profiles of the perturbed compressed pulses with that of an unperturbed pulse. Although the self-similar analysis essentially demands that the loss coefficient matches the nonlinear growth rate for the realization of ideal pulse compressors, based on the numerical results we confirm that the proposed compressor is capable of producing good quality short pulses with negligible amount of pedestals and high compression factor even if there is a deviation of admissible level from the above mentioned condition. Consequently, we corroborate that the proposed compressor is very robust against perturbations.
Original languageEnglish
Pages (from-to)368-377
Number of pages10
JournalJournal of Modern Optics
Volume60
Issue number5
Early online date26 Mar 2013
DOIs
Publication statusPublished - 2013

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compressors
photonics
fibers
pulses
crystals
chloroform
coefficients
profiles
deviation
perturbation
pulse compression
stems

Keywords

  • nonlinear ultrafast optics
  • photonic crystal fiber
  • pulse compression
  • ultrashort pulse
  • stability analysis
  • soliton
  • raised-cosine pulses

Cite this

Realizing a robust optical pulse compressor operating at 850 nm using a photonic crystal fiber. / Olupitan, Samuel; Senthilnathan, K.; Ramesh Babu, P.; Vasantha Jayakantha Raja, R.; Aphale, Sumeet S.; Nakeeran, K. .

In: Journal of Modern Optics, Vol. 60, No. 5, 2013, p. 368-377.

Research output: Contribution to journalArticle

Olupitan, Samuel ; Senthilnathan, K. ; Ramesh Babu, P. ; Vasantha Jayakantha Raja, R. ; Aphale, Sumeet S. ; Nakeeran, K. . / Realizing a robust optical pulse compressor operating at 850 nm using a photonic crystal fiber. In: Journal of Modern Optics. 2013 ; Vol. 60, No. 5. pp. 368-377.
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AB - This work stems from the motivation of a recent investigation on single- and pulse-train compression schemes using solid core as well as chloroform-filled photonic crystal fiber (PCF), with both hyperbolic secant and raised-cosine pulse profiles. To study the robustness of the proposed optical pulse compressor, we perturb the loss coefficient and study the deviations in the pedestal energy and compression factor for both pulse profiles. To this end, we perturb the loss coefficient of the solid core PCF over a range of +/- 1000% and, in a similar way, we carry out this study for the chloroform-filled PCF, but with the perturbation restricted to a lower level, i.e. over a range of +/- 300 % due to the higher value of the nonlinear growth rate. We compare the intensity profiles of the perturbed compressed pulses with that of an unperturbed pulse. Although the self-similar analysis essentially demands that the loss coefficient matches the nonlinear growth rate for the realization of ideal pulse compressors, based on the numerical results we confirm that the proposed compressor is capable of producing good quality short pulses with negligible amount of pedestals and high compression factor even if there is a deviation of admissible level from the above mentioned condition. Consequently, we corroborate that the proposed compressor is very robust against perturbations.

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