Year 2015,
Volume: 1 Issue: 2, 70 - 76, 29.10.2015
Çağlar Duman
,
Bülent Çakmak
References
- Adams, M. J., Steventon, A. G., Delvin, W. J., Henning, I. D., 1987. Semiconductor Lasers for Long-Wavelength Optical-Fibre Communications Systems. Short Run Press Ltd., 123 p, England.
- Akbar, J., Strain, M.J., Hou, L., Haji, M., Marsh, J.H., Bryce, A.C. and Kelly, A.E., 2011. High peak power (550mW) 40GHz mode-locked DBR lasers with integrated optical amplifiers. IEEE Photonics 2011 Conference (IPC11), Arlington.
- Avrutin, E.A. and Portnoi, E.L., 2008. Suppression of Q-switching instabilities in broadened-waveguide monolithic mode-locked laser diodes. Optical and Quantum Electronics, 40 (9), 655-664.
- Avrutin, E.A., Marsh, J.H. and Portnoi, E.L., 2000. Monolithic and multi-gigahertz mode-locked semiconductor lasers: Constructions, experiments, models and applications. IEE Proceedinds-Optoelectronics, 147 (4), 251-278.
- Çakmak, B., 2006. Modelling of experimentally measured Q-switched pulsations in InGaAs/GaAs diode lasers. Optics Communications, 266 (2), 614-619.
- Fells, A.J., 1995. Negative Chirp Electroabsorption Modulators for Standard Fibre Transmission Systems. PhD Thesis, University of Bath, United Kingdom.
- Gray, G.R., 1994. Applications of Semiconductor Lasers. Semiconductor Lasers Past Present and Future, Goving P. Agrawal. American Institute of Physics, New York, 284-320.
- Hasler, K.H., Klehr, A., Wenzel, H. and Erbert, G., 2005.Simulation of high-power pulse generation due to modelocking in long multisection lasers. IEE Proceedings-Optoelectronics,152 (2), 77-85.
- Hou, L., Haji, M. and Marsh, J.H., 2013. Monolithic mode-locked laser with an integrated optical amplifier for low-noise and high-power operation. IEEE Journal of Selected Topics in Quantum Electronics, 19 (4), 1100808.
- Jones, D.J., Zhang, L.M., Carroll, J.E. and Marcenac, D.D., 1995. Dynamics of monolithic passivelly mode-locked semiconductor lasers. IEEE Journal of Quantum Electronics, 31 (6), 1051-1058.
- Karin, J.R., Helkey, R.J., Derickson, D.J., Nagarajan, R., Allin, D.S., Bowers, J.E. and Thornton, R.L., 1994. Ultrafast dynamics in fieldenhanced saturable absorbers. Applied Physics Letters, 64 (6), 676-678.
- Larson, D., Yvind, K. and Hvam J.M., 2007. Long all-active monolithic mode-locked lasers with surface-etched Bragg gratings. IEEE Photonics Technology, 19 (21), 1723-1725.
- Maldonado-Basilio, R.M., Latkowski, S., Surre, F. and Landais, P., 2010. Linewidth analysis of 40-GHz passively mode-locked multi-mode semiconductor lasers. Optics Communications , 283 (2), 299-303.
- Nakamura, T., Okuda, T., Kobayashi, R., Muroya, Y., Tsuruoka, K., Ohsawa, Y., Tsukuda, T., Ishikawa, S., 2005. 1.3µm AlGaInAs strain compensated MQW-buried-heterostructure lasers for uncooled 10 Gb/s operation. IEEE Selected Topics in Quantum Electronics, 11 (1), 141-148.
- Rablau, C., 2010. Applications of Photonics. Photonics and Fiber Optics Lab, Kettering University, http://www.kettering.edu/employers/research/labs/photonics/applications.jsp (15.11.2011).
- Schwertfeger, S., Klehr, A., Liero, A., Erbert, G. and Tränkle, G., 2007. High-power picosecond pulse generation due to mode-locking with a monolithic 10-mm-long four-section DBR laser at 920nm. IEEE Photonics Technology Letters, 19 (23), 1889-1891.
- Vasil’ev, P.P., 1995. Ultrafast Diode Lasers Fundamentals and Applications. Artech House, 271 p, London.
- Williams, K.A., Thompson, M.G. and White, I.H., 2004. Long-wavelength monolithic mode-locked diode lasers. New Journal of Physics, 6 (1), 1-30.
- Yu J. and Bimberg, D., 1995. Suppression of self-pulsation for tens of gigahertz optical pulses from passively mode-locked semiconductor lasers. Applied Physics Letters, 67 (22), 3245-3247.
- Zatni, A., Khatip, D., Bour, M., Bihan, J.L.B. and Elhaziti, M., 2004. Analysis of the spectral stability of the phase shift DFB laser (3PS-DFB). Annals of Telecommunications, 3 (9), 1031-1044.
- Zhang, L.M., Yu, S.F., Nowell, M.C., Marcenac, D.D., Carroll, J.E. and Plumb, R.G.S., 1994. Dynamic analysis of radiation and side-mode suppression in a second-order DFB laser using time-domain large-signal traveling wave model. IEEE Journal of Quantum Electronics, 30 (6), 1389-1395.
- -
- Zhu, B., White, I.H., Penty, A., Wonfor, A., Lach, E. And Summers, H.D., 1997. Theoreticalanalysis of timing jitter in monolithic multisection mode-locked DBR laser diodes. IEEE Journal of Quantum Electronics, 33 (7), 1216-1220.
Time Domain Dynamic Analysis of 1550nm Monolithic Two Sections Mode Locked MQW Laser
Year 2015,
Volume: 1 Issue: 2, 70 - 76, 29.10.2015
Çağlar Duman
,
Bülent Çakmak
Abstract
In this study, time domain dynamic model of a mode locked two sections DBR laser was obtained. Sort duration and high power optical pulse generation from a semiconductor laser was examined by using obtained model. For this aim, while one of the laser sections was thought as reverse biased and so acted as a saturable absorber, other section thought as forward biased with a DC current and so acted as a gain section. A semiconductor laser biased this way can produce mode locked pulses by suitable adjusting of reverse bias and forward bias values and this method known as passive mode locking.
References
- Adams, M. J., Steventon, A. G., Delvin, W. J., Henning, I. D., 1987. Semiconductor Lasers for Long-Wavelength Optical-Fibre Communications Systems. Short Run Press Ltd., 123 p, England.
- Akbar, J., Strain, M.J., Hou, L., Haji, M., Marsh, J.H., Bryce, A.C. and Kelly, A.E., 2011. High peak power (550mW) 40GHz mode-locked DBR lasers with integrated optical amplifiers. IEEE Photonics 2011 Conference (IPC11), Arlington.
- Avrutin, E.A. and Portnoi, E.L., 2008. Suppression of Q-switching instabilities in broadened-waveguide monolithic mode-locked laser diodes. Optical and Quantum Electronics, 40 (9), 655-664.
- Avrutin, E.A., Marsh, J.H. and Portnoi, E.L., 2000. Monolithic and multi-gigahertz mode-locked semiconductor lasers: Constructions, experiments, models and applications. IEE Proceedinds-Optoelectronics, 147 (4), 251-278.
- Çakmak, B., 2006. Modelling of experimentally measured Q-switched pulsations in InGaAs/GaAs diode lasers. Optics Communications, 266 (2), 614-619.
- Fells, A.J., 1995. Negative Chirp Electroabsorption Modulators for Standard Fibre Transmission Systems. PhD Thesis, University of Bath, United Kingdom.
- Gray, G.R., 1994. Applications of Semiconductor Lasers. Semiconductor Lasers Past Present and Future, Goving P. Agrawal. American Institute of Physics, New York, 284-320.
- Hasler, K.H., Klehr, A., Wenzel, H. and Erbert, G., 2005.Simulation of high-power pulse generation due to modelocking in long multisection lasers. IEE Proceedings-Optoelectronics,152 (2), 77-85.
- Hou, L., Haji, M. and Marsh, J.H., 2013. Monolithic mode-locked laser with an integrated optical amplifier for low-noise and high-power operation. IEEE Journal of Selected Topics in Quantum Electronics, 19 (4), 1100808.
- Jones, D.J., Zhang, L.M., Carroll, J.E. and Marcenac, D.D., 1995. Dynamics of monolithic passivelly mode-locked semiconductor lasers. IEEE Journal of Quantum Electronics, 31 (6), 1051-1058.
- Karin, J.R., Helkey, R.J., Derickson, D.J., Nagarajan, R., Allin, D.S., Bowers, J.E. and Thornton, R.L., 1994. Ultrafast dynamics in fieldenhanced saturable absorbers. Applied Physics Letters, 64 (6), 676-678.
- Larson, D., Yvind, K. and Hvam J.M., 2007. Long all-active monolithic mode-locked lasers with surface-etched Bragg gratings. IEEE Photonics Technology, 19 (21), 1723-1725.
- Maldonado-Basilio, R.M., Latkowski, S., Surre, F. and Landais, P., 2010. Linewidth analysis of 40-GHz passively mode-locked multi-mode semiconductor lasers. Optics Communications , 283 (2), 299-303.
- Nakamura, T., Okuda, T., Kobayashi, R., Muroya, Y., Tsuruoka, K., Ohsawa, Y., Tsukuda, T., Ishikawa, S., 2005. 1.3µm AlGaInAs strain compensated MQW-buried-heterostructure lasers for uncooled 10 Gb/s operation. IEEE Selected Topics in Quantum Electronics, 11 (1), 141-148.
- Rablau, C., 2010. Applications of Photonics. Photonics and Fiber Optics Lab, Kettering University, http://www.kettering.edu/employers/research/labs/photonics/applications.jsp (15.11.2011).
- Schwertfeger, S., Klehr, A., Liero, A., Erbert, G. and Tränkle, G., 2007. High-power picosecond pulse generation due to mode-locking with a monolithic 10-mm-long four-section DBR laser at 920nm. IEEE Photonics Technology Letters, 19 (23), 1889-1891.
- Vasil’ev, P.P., 1995. Ultrafast Diode Lasers Fundamentals and Applications. Artech House, 271 p, London.
- Williams, K.A., Thompson, M.G. and White, I.H., 2004. Long-wavelength monolithic mode-locked diode lasers. New Journal of Physics, 6 (1), 1-30.
- Yu J. and Bimberg, D., 1995. Suppression of self-pulsation for tens of gigahertz optical pulses from passively mode-locked semiconductor lasers. Applied Physics Letters, 67 (22), 3245-3247.
- Zatni, A., Khatip, D., Bour, M., Bihan, J.L.B. and Elhaziti, M., 2004. Analysis of the spectral stability of the phase shift DFB laser (3PS-DFB). Annals of Telecommunications, 3 (9), 1031-1044.
- Zhang, L.M., Yu, S.F., Nowell, M.C., Marcenac, D.D., Carroll, J.E. and Plumb, R.G.S., 1994. Dynamic analysis of radiation and side-mode suppression in a second-order DFB laser using time-domain large-signal traveling wave model. IEEE Journal of Quantum Electronics, 30 (6), 1389-1395.
- -
- Zhu, B., White, I.H., Penty, A., Wonfor, A., Lach, E. And Summers, H.D., 1997. Theoreticalanalysis of timing jitter in monolithic multisection mode-locked DBR laser diodes. IEEE Journal of Quantum Electronics, 33 (7), 1216-1220.