Selenide Glass Optical Fiber Doped with $Pr^{3+}$ for U-Band Optical Amplifier

  • Received : 2005.01.31
  • Published : 2005.08.31

Abstract

$Pr^{3+}-doped$ selenide glass optical fiber, which guarantees single-mode propagation of above at least 1310 nm, has been successfully fabricated using a Ge-Ga-Sb-Se glass system. Thermal properties such as glass transition temperature and viscosity of the glasses have been analyzed to find optimum conditions for fiber drawing. Attenuation loss incorporating the effects of an electronic band gap transition, Rayleigh scattering, and multiphonon absorption has also been theoretically estimated for the Ge-Ga-Sb-Se fiber. A conventional double crucible technique has been applied to fabricate the selenide fiber. The background loss of the fiber was estimated to be approximately 0.64 dB/m at 1650 nm, which can be considered fairly good. When excited at approximately 1470 nm, $Pr^{3+}-doped$ selenide fiber resulted in amplified spontaneous emission and saturation behavior with increasing pump power in a U-band wavelength range of 1625 to 1675 nm.

Keywords

References

  1. Nature v.404 Towards the Clarity Limit in Optical Fibre Thomas, G.A.;Shraiman, B.I.;Glodis, P.F.;Stephen, M.J.
  2. Opt. Lett. v.16 $Pr^{3+}$ -Doped Fluoride Fiber Amplifier Operating at $1.31{\mu}m$ Ohishi, Y.;Kanamori, T.;Kitagawa, T.;Takahashi, S.
  3. J. Lightwave Tech. v.21 S-band Erbium Doped Fiber Amplifiers with a Multi Stage Configuration-Design, Characterization, and Gain Tilt Compensation Ono, H.;Yamada, M.;Shimizu, M.
  4. Erbium-Doped Fiber Amplifiers: Fundamentals and Technology Becker, P.C.;Olsson, N.A.;Simpson, J.R.
  5. ETRI J. v.25 no.6 Effect of Optical Delay on the Suppression of the Power Transient Excursion in a Combined Gain-Controlled Erbium-Doped Fiber Amplifier Chung, H.S.;Chang, S.H.;Park, H.;Lee, H.J.;Chu, M.J.
  6. J. Non-Cryst. Solids v.140 Recent Advances and Trends in Chalcogenide Glass Fiber Technology: a Review Nishii, J.;Morimoto, S.;Inagawa, I.;Iizuka, R.;Yamashita, T.;Yamagishi, T.
  7. J. Non-Cryst. Solids v.256;257 Active and Passive Chalcogenide Glass Optical Fibers for IR Applications: a Review Sanghera, J.S.;Aggarwal, I.D.
  8. J. Non-Cryst. Solids v.330 Optical Properties and Applications of Chalcogenide Glasses: a Review Zakery, A.;Elliott, S.R.
  9. J. Lightwave Technol. v.LT-2 no.5 Chalcogenide Glass Fibers for Mid-Infrared Transmission Kanamori, T.;Terunuma, Y.;Takahashi, S.;Miyashita, T.
  10. J. Am. Ceram. Soc. v.83 no.5 TEX>$Pr^{3+}/Er^{3+}$ Codoped Ge-As-Ga-S Glasses as Dual-Wavelength Fiber-Optic Amplifiers for 1.31 and $1.55{\mu}m$ Windows Park, S.H.;Lee, D.C.;Heo, J.;Kim, H.S.
  11. ETRI J. v.23 no.3 $Pr^{3+}/Er^{3+}$ Doped Selenide Glasses for Potential $1.6{\mu}m$ Optical Amplifier Materials Choi, Y.G.;Park, B.J.;Kim, K.H.;Heo, J.
  12. Appl. Phys. Lett. v.78 no.9 $1.6\;{\mu}m \; Emission \; Pr^{3+}:(^3F_3, \; ^3F_4) {\to} \; ^3H_4 \; Transition \; in \; Pr^{3+} \; and \; Pr^{3+}/Er^{3+}-doped$ Selenide Glasses Choi, Y.G.;Kim, K.H.;Park, B.J.;Heo, J.
  13. J. Non-Cryst. Solids v.284 Effects of Carbon, Hydrocarbon and Hydroxide Impurities on Praseodymium Doped Arsenic Sulfide Based Glasses Kobelke, J.;Kirchhof, J.;Schuster, K.;Schwuchow, A.
  14. J. Non-Cryst. Solids v.184 High-Purity Chalcogenide Glasses as Materials for Fiber Optics Churbanov, M.F.
  15. J. Non-Cryst. Solids v.256;257 Rare-Earth Doped Selenide Glasses and Fibers for Active Applications in the Near and Mid-IR Cole, B.;Shaw, L.B.;Pureza, P.C.;Mossadegh, R.;Sanghera, J.S.;Aggarwal, I.D.
  16. C. R. Chimie v.5 Applications of Chalcogenide Glass Optical Fibers Sanghera, J.S.;Shaw, L.B.;Aggarwal, I.D.
  17. Glassy Semiconductors Borisova, Z.U.
  18. Glass Tech. v.32 no.5 Penetration Viscometry Using a Thermal Mechanical Analyser Cardoso, A.V.;Seddon, A.B.
  19. Glasses for Infrared Optics Kokorima, V.F.
  20. Rev. Mod. Phys. v.51 no.2 Propagation in Glass Optical Waveguides Olshansky, R.
  21. J. Non-Cryst. Solids v.242 Minimum Loss Predictions and Measurements in Gallium Lanthanum Sulphide Based Glasses and Fibre Brady, D.J.;Schweizer, T.;Wang, J.;Hewak, D.W.
  22. J. Am. Ceram. Soc. Effects of the Weak Absorption Tail on the Transmission Loss of Ge-Sb-Se optical fibers Chung, W.J.
  23. Phys. Rev. B v.5 no.8 Weak Absorption Tails in Amorphous Semiconductors Wood, D.L.;Tauc, J.
  24. J. Non-Cryst. Solids v.256;257 Chalcogenide Glass Single Mode Fibres - Preparation and Properties Kobelke, J.;Kirchhof, J.;Scheffler, M.;Schwuchow, A.
  25. J. Mater. Sci. Lett. v.20 Core/clad Selenide Glass Fiber Doped with $Pr^{3+}$for Active Mid-IR Applications Cole, B.;Shaw, L.B.;Pureza, P.C.;Miklos, R.;Sanghera, J.S.;Aggarwal, I.D.
  26. Opt. Mater. v.25 Evaluations of Glass Fibers From The Ga-Ge-Sb-Se System For Infrared Applications Zhang, X.H.;Ma, H.;Lucas, J.