Abstract
Silica has been finding wide use for a long time owing to its unique mechanical, optical and thermal characteristics. However, only in the last few decades silica-based glasses became an attractive object for extensive fundamental research. There are several reasons to explain the growing interest in silica. One of them is due to the fact that purity of silica has been dramatically improved by orders of magnitude to meet the requirement of fiber-optic telecommunications. Optical loss in modern telecom silica fibers does not exceed 0.2 dB/km at the wavelength of 1.55 micrometers. Such a loss level is achievable in the so-called telecom spectral window, in which a compromise between the absorption tail of the infrared fundamental vibration of O-Si-0 and Rayleigh scattering takes place.
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References
Hunlich, Th., Bauch, H., Kersten, Th., Paquet, V., Weidmann, G. F. (1987) Fiber-Preform Fabrication Using Plasma Technology: A Review, J. Opt. Commun. 8,122–129.
Pavy, D., Moisan, M., Saada, S., Chollet, P., Leprince, P., Marrec, J. (1986) Fabrication of optical fiber preforms by a new surface-plasma CVD process, Proc. 12th European Conf. on Optical Commun., Barcelona, 19–22.
Gamero, A., Sola, A.., Cotrino, J., Colomer, V. (1989) Temporal evolution of the electric field intensity in pulsed surface-wave-produced plasmas, J.Phys.D.Appl.Phys, 22,1482–1486.
Dias, F.,M., Tatarova, E., Henriques, J., and Ferreira, C.,M. (1999) Experimental investigation of surface wave propagation in collisional plasma columns, J. Appl. Phys., 85,2528–2533.
Nagel, S.,R., MacChesney, J.,B., and Walker, K.,L. (1985) Modified Chemical Vapor Deposition, in Optical Fiber Communications, Tingy Li (ed.), Academic Press, Inc., London, pp. 1–59.
Golant, K. M., Dianov, E. M, Khrapko, R R., Nikolin, I.V., Tomashuk, A. L. (1998) Novel highly photosensitive silica fibers fabricated by plasmachemical technology, Proc. XVIII International Congress on Glass, 5-10 July 1998, San Francisco, 38–43.
Dianov, E. M.; Golant, K. M.; Karpov, V. I.; Khrapko, R. R.; Kurkov, A. S. Mashinsky, V. M, Protopopov, V. N. (1994) Fluorine-doped silica optical fibres fabricated using plasma chemical technologies, Proc. SPIE, 2425, 53–57.
Golant, K. M., Dianov, E. M. (1997) The potentialities of the plasmachemical technology for fabrication of silica-based photosensitive optical fibers, Proc. BGPP, October 26-28, Williamsburg Marriott, OSA Technical Digest Series, 17, 71–73.
Golant, K.M., Nikolin I.V., (1999) Separation of germanium and silicon oxides by plasma-chemical deposition of germanosilicate glass in a moving plasma column, Technical physics letters, 25, N.7, 530–534.
Nikolin, I. V., (1999) Photosensitive optical fibers made by plasma chemical deposition of germanosilicate glass (in Russian), Ph. D. Thesis, Moscow Institute for Physics and Engineering, Moscow.
Worhoff, K., Lambeck, P.V, Driessen, A. (1999) Design, tolerance analysis, and fabrication of silicon oxynitride based planar optical waveguides for communication devices, J. Lightwave Technol., 17 n. 8, 1401–1407.
Bogatyrjov, V.A., Dianov, E.M., Golant, K.M., Khrapko, R.R., Kurkov, A.S., Silica fibres with silicon oxynitride core fabricated by plasmachemical technology (1995) Proc. OFC’95, San Diego CA, Technical Digest, pp. 266–268
Dianov, E.M., Golant, K.M., Kurkov, A.S., Khrapko, R.R. Tomashuk, A.L (1995) Low-hydrogen silicon oxynitride optical fibres prepared by SPCVD, J. Lightwave Technol., 13, N7, 1471–1474.
Neustruev, V.B., Point defects in pure and germanium-doped silica glass and radiation resistance of optical fibers (1991) Sov. Lightwave Commun., 1, No. 3, 177–195.
Douay, M., Xie, W.,X., Fertein, E., Bernage, P., Niay P., (1993) Behaviors of spectral transmissions of photorefractive filters written on germania-doped fibers: writing and erasing experiments, Proc. SPIE, 2044, 88–112.
Bufetov, I.A., Grekov, M.V., Dianov, E.M., Golant, K.M., Khrapko, R.R., (1997) Ultraviolet-light generation in nitrogen-doped silica fibers, Optics Letters, 22, No. 18, 1394–1396.
Osterberg, U., Growth of third-harmonic signal in optical glass fiber, (1990) Electron. Lett., 26, No 2, 103–104.
Agrawal, G.P., (1989) Nonlinear fiber optics, Academic Press, Inc., Rochester, New York.
Dianov, E.M., Golant, K.M., Khrapko, R.R. Kurkov, A.S., Leconte, B., Douay, M., Bernage, P., Niay, P. (1997) Grating formation in a germanium free silicon oxynitride fibre”, Electron. Letters, 33, No 3, 236–238.
Leconte, B. Contribution a l’etude de la photosensibilite des fibres en silice sous I’effet d’une insolation par un laser a ArF (1998) Thesis, Lille University, (in French).
Dianov, E.M., Golant, K.M., Khrapko, R.R., Kurkov, A.S, Leconte, B., Douay, M, Niay, P., (1997) Strong Bragg gratings formation in germanium free nitrogen-doped silica fibers”, Proc. OFC’97, Dallas, USA, paper PD5.
Vasiliev, S.A., Dianov, E.M., Golant, K.M., Medvedkov, O.I., Tomashuk, A.L., Karpov, V.I., Grekov, M.V., Kurkov, A.S., Leconte, B., Niay P.,(1998) Performance of Bragg and long-period gratings written in N-and Ge-doped silica fibers under gamma-radiation, IEEE Transactions on Nuclear Science, 45, No 3, Part 3, 1580–1583.
Karpov,V.I. Grekov, M.V.,Dianov, E.M., Golant, K.M., Vasiliev, S.A., Medvedkov, O.I., Khrapko, R.R. (1997) Mode-field converters and long-period gratings fabricated by thermo-diffusion in nitrogen-doped silica-core fibers”, Proc. OFC’97, San Jose 22-27, February 1997, Technical Digest, Paper ThG4, pp.297–280.
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Golant, K.M. (2000). BULK SILICAS PREPARED BY LOW PRESSURE PLASMA CVD: FORMATION OF STRUCTURE AND POINT DEFECTS. In: Pacchioni, G., Skuja, L., Griscom, D.L. (eds) Defects in SiO2 and Related Dielectrics: Science and Technology. NATO Science Series, vol 2. Springer, Dordrecht. https://doi.org/10.1007/978-94-010-0944-7_15
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DOI: https://doi.org/10.1007/978-94-010-0944-7_15
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