Abstract
We describe second harmonic generation in silica based optical fibers as a function of time and the preliminary explanations published so far in the literature. The latter deal essentially with the electromagnetic aspect of the phenomenon. By a different way of analysis (closer to material science), we emphasize on the structural defects active in this non-linear property.
Analyse
On presente les caracteristiques temporelles du doublage de frequence dans les fibres optiques en verre de silice dopee et les interpretations preliminaires qui en ont ete donnees. Celles-ci se limitent a I’heure actuelle aux caracteres electromagnetiques du pheno-mene. Par une analyse differente du phenomene, plus proche du materiau, les auteurs tentent de degager quelques caracteristiques des defauts de structure pouvant etre impliques.
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References
Sasaki (Y.), Ohmori (Y.). Phase-matched sum-frequency light generation in optical fibers.Appl. Phys. Lett. (1981),39, 466–468.
Gabriagues (J. M.), Fersing (L.). Second-harmonic generation in optical fibers, presented at the Thirteenth International Quantum Electronics Conference, Anaheim, California (June 1984), pp. 18–21.
Osterberg (U.), Margulis (W.). Dye laser pumped by Nd: yag laser pulses frequency doubled in a glass optical fiber.Opt. Lett. (1986),8, pp. 516–518.
Osterberg (U.), Margulis (W.). Experimental studies on efficient doubling in glass optical fibers.Opt. Lett. (1987),12, pp. 57–59.
Farries (M. C), Fermann (M. E.), St J. Russel (P.), Payne (D. N.). Tunable second-order susceptibility gratings for harmonic generation in optical fibers, presented at theOptical Fiber Communication Conference, New Orleans, Louisiana (1988), THE2.
Fevrier (H.), Gabriagues (J. M.). Investigation by Raman spectroscopy of highly non-linear optical fibers, presented atConference on lasers and electro-optics, Baltimore, Maryland (1987) THGG20.
Gabriagues (J. M.), Fevrier (H.). Analysis of frequency-doubling processes in optical fibers using Raman spectroscopy.Optics Letters (1987),12, n° 9, pp. 720–722.
Farries (M. C), Fermann (M. E.). Frequency doubling of 1.319 µm radiation in an optical fiber by optically written X2 grating.Electronics Letters (1988),24, n° 5, pp. 294–295.
Valk (B.), Kim (E. M.), Salour (M. M.). Second-harmonic generation in Ge-doped fibers with a mode-locked Kr+ laser.Appl. Phys. Lett. (1987),51, n° 10, pp. 722–724.
Farries (M. C.), St J. Russel (P.), Fermann (M. E.), Payne (D. N.). Second-harmonic generation in an optical fiber by self-written X2 grating.Electronics Letters (1987),23, n° 7, pp. 322–324.
Stolen (R. H.), Tom (H. W. K.). Self-organized phase-matched harmonic generation in optical fibers.Optics Letters (1987),12, n° 8, pp. 585–587.
Osterberg (U.), Margulis (W.). Experimental studies on efficient frequency doubling in glass optical fibers.Optics Letters (1987),12, pp. 57–59.
Payne (F. P.). Second-harmonic generation in singlemode optical fibers.Electronics Letters (1987),23, n° 23, pp. 1215–1216.
Mizrahi (V.), Osterberg (U.), Sipe (J. E.), Stegeman (G. I.). Test of a model of efficient second-harmonic generation in glass optical fibers.Optics Letters (1988),13, n° 4, pp. 279–281.
Mulder (C. A. M.). Defect structures in silica glass.J. of Non-Crystalline Solids (1987),95 and96, pp. 303–310.
Yuen (J.). Ultra-violet absorption studies of germanium silicate glasses.Applied Optics (1982),21, n° 1, 136 p.
Levy (N.). Ultraviolet analysis of graded-index light guide preform.Applied Optics (1981),20, 460 p.
Devine (R. A. B.), Fiori (C.). UV irradiation induced defect modification in implanted SiO2, in Induced defectsin insulators (5-8 June 1984), Strasbourg, Fr. (Ed. Edition de Physique), pp. 249–254.
Fermann (M. E.), Li (L.), Farries (M. C.), Payne (D. N.). Frequency-doubling by modal phase matching in poled optical fibers.Electronics Letters (1988),24, n° 14, 894 p.
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Poumellec, B., Gabriagues, JM. & Fevrier, H. Second harmonic generation in optical fibers. Ann. Télécommun. 44, 179–185 (1989). https://doi.org/10.1007/BF02997813
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DOI: https://doi.org/10.1007/BF02997813