Simulation results of optical pulse propagation over irregular multimode optical fibers operating in a few-mode regime

V.A. Burdin; A.V. Bourdine

Simulation results of optical pulse propagation over irregular multimode optical fibers operating in a few-mode regime

research article Pages: 120-127

¹ Dr. Sc. (Eng.), Professor, Pro-rector, Volga State University of Telecommunications and Informatics (Samara)
² Dr. Sc. (Eng.), Professor, Volga State University of Telecommunications and Informatics (Samara)

Keywords: differential mode delay multimode optical fibers irregularity mode coupling few-mode regime laser-based data trans-mission over multimode optical fibers parabolic/triangular optical pulse

Abstract

This work presents results of simulation of Gaussian and non-Gaussian pulse propagation over irregular weakly guiding silica graded-index laser-optimized multimode optical fiber of ISO/IEC 11801 Cat. OM2+/OM3 operating in a few-mode regime under strong mode coupling and both centered and offset launch conditions. We utilized recently proposed model of irregular few-mode fiber optic link been introduced in the previous works, which is based on split-step method approach combined with piece-wise regular representation. Model takes into account launch conditions, differential mode delay, both lower- and higher-order mode chromatic dispersion, differential mode attenuation, mode mixing and power diffusion occurring due to real fiber irregularity and micro-/macro-bends. Parabolic and triangular as well as Gaussian and sech2-shape laser-excited optical pulse propagation over conventional silica laser-optimized multimode fiber under various launch conditions was simulated and researched. Some results of simulated pulse dynamics comparison analysis are represented.

How to cite

Бурдин В.А., Бурдин А.В. Результаты численного моделирования распространения оптических импульсов в нерегулярных многомодовых волоконных световодах, функционирующих в маломодовом режиме // Радиотехника. 2016. № 2. С. 120–127.

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Burdin A.V., JAblochkin K.A. Issledovanie defektov profilja pokazatelja prelomlenija mnogomodovykh opticheskikh volokon kabelejj svjazi // Infokommunikacionnye tekhnologii. 2010. № 2. S. 22−27.

[1] Finot Ch., Provost L., Petropoulos P., Richardson D.J. Parabolic pulse generation through passive nonlinear pulse reshaping in a normally dispersive two segment fiber device // Optics Express. 2007. 15(3). P. 852−864.

[2] Finot Ch., Barviau B., Millot G., Guryanov A., Sysoliatin A. Parabolic pulse generation with active or passive dispersion decreasing optical fibers // Optics Express. 2007. 15(24). P. 15824−15835.

[3] Finot Ch., Dudley J.M., Kibler B., Richardson D.J., Millot G. Optical parabolic pulse generation and its applications // IEEE Journal of Quantum Electronics. 2009. 45(11). P. 1482−1489.

[4] Wang H., Latkin A.I., Boscolo S., Harper P., Turitsyn S.K. Generation of triangular-shaped optical pulses in normally dispersive fibre // Journal of Optics. 2010. № 12. P. 035205-1−035205-5.

[5] Nguyen D., Piracha M.U., Mandridis D., Delfyett P.J. Dynamic parabolic pulse generation using temporal shaping of wavelength to time mapped pulses // Optics Express. 2011. 19(13). P. 12305−12311.

[6] Borisova K.V., Zolotovskijj I.O., Korobko D.A., Sysoljatin A.A. Generacija similjaritonnykh parabolicheskikh impulsov v volokonno-opticheskikh usiliteljakh s rastushhim profilem khromaticheskojj dispersii // Izvestija Samarskogo nauchnogo centra RAN. 2012. T. 14. № 4(4). S. 1074−1080.

[7] Boscolo S., Finot Ch. Nonlinear pulse shaping in fibres for pulse generation and optical processing // International Journal of Optics. 2012. P. 159057-1−159057-14.

[8] Wang Y., Pei L., Gao S., Hao J., Wenig S. Review on photonic method for generating optical triangular pulses // Frontiers of Optoelectronics. 2013. 6(2). P. 127−133.

[9] Iakushev S.O., Shulika O.V., Sukhoivanov I.A., Fesenko V.I., Andre M.V., Sayinc H. Formation of ultrashort triangular pulses in optical fibers // Optics Express. 2014. 22(23). P. 29119−29134.

[10] Zhang F., Wu J., Li Y., Lin J., Flat optical frequency comb generation and its application for optical waveform generation // Optics Communications. 2012. 290. P. 37−42.

[11] Raddatz L., White I.H., Cunningham D.G., Nowell M.C. An experimental and theoretical study of the offset launch technique for the enhancement of the bandwidth of multimode fiber links // IEEE Journal of Lightwave Technology. 1998. 16(3). P. 324−331.

[12] Pepeljugoski P., Golowich S.E., Ritger A.J., Kolesar P., Ristetski A. Modeling and simulation of next-generation multimode fiber links // IEEE Journal of Lightwave Technology. 2003. 21(5). P. 1242−1255.

[13] Bottacchi S. Multi-Gigabit transmission over multimode optical fibre. Theory and design methods for 10GbE systems. New York, NY, USA: John Wiley & Sons Ltd. 2006. 654 p.

[14] Gholami A., Molin D., Matthijsse P., Kuyt G., Sillard P.A. A complete physical model for Gigabit Ethernet optical communication systems // Proceedings of the 57th International Wire & Cable Symposium (IWCS). 2008. P. 289−294.

[15] Freund R.E., Bunge Ch.-A., Ledentsov N.N., Molin D., Caspar Ch. High-speed transmission in multimode fibers // IEEE Journal of Lightwave Technology. 2010. 28(4). P. 569−586.

[16] Gholami A., Molin D., Sillard P. Physical modeling of 10 GbE optical communication systems // IEEE Journal of Lightwave Technology. 2011. 29(1). P. 115−123.

[17] Bourdine A.V. Modeling and simulation of piecewise regular multimode fiber links operating in a few-mode regime // Advances in Optical Technologies. 2013. 469389-1−469389-18.

[18] Agraval G. Nelinejjnaja volokonnaja optika / Per. s angl. M.: Mir. 1996. 323 s.

[19] Lyytikainen K.J.Control of complex structural geometry in optical fibre drawing: a thesis submitted for the degree of Doctor of Philosophy. Sydney: School of Physics and Optical Fibre Technology Centre University of Sydney. 2004. 273 p.

[20] Adams M. Vvedenie v teoriju opticheskikh volnovodov / Per. s angl. M.: Mir. 1984. 512 s.

[21] Bourdine A.V. Method for chromatic dispersion estimation of high-order guided modes in graded index single-cladding fibers // Proceedings of SPIE. 2007. V. 6605. P. 660509-1−660509-13.

[22] Snajjder A., Lav Dzh. Teorija opticheskikh volnovodov / Per. s angl. M.: Radio i svjaz. 1987. 656 s.

[23] Burdin A.V., Delmukhametov O.R. Raschet parametrov peredachi napravljaemykh mod vysshikh porjadkov na osnove kombinacii modificirovannogo priblizhenija Gaussa i metoda konechnykh ehlementov // Telekommunikacii. 2010. № 9. S. 33−40.

[24] Yabre G. Comprehensive theory of dispersion in graded-index optical fibers // IEEE Journal of Lightwave Technology. 2000. V. 18(2). P. 166−177.

[25] Bourdine A.V. Mode coupling at the splice of diverse optical fibers // Proceedings of SPIE. 2012. V. 8787. P. 878706-1−878706-12.

[26] Burdin A.V., JAblochkin K.A. Issledovanie defektov profilja pokazatelja prelomlenija mnogomodovykh opticheskikh volokon kabelejj svjazi // Infokommunikacionnye tekhnologii. 2010. № 2. S. 22−27.

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