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Recent developments in indoor optical wireless systems

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Green, Roger, 1951-, Joshi, H., Higgins, Matthew D. and Leeson, Mark S., 1963-. (2008) Recent developments in indoor optical wireless systems. IET Communications, Vol.2 (No.1). pp. 3-10. ISSN 1751-8628

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Official URL: http://dx.doi.org/10.1049/iet-com:20060475

Abstract

An overview of the developments in optical wireless systems viewed from the traditional communications viewpoint of transmitter, channel and receiver is presented. The trends in modulation formats that match information to the optical wireless channel are considered. This is followed by the discussion of recent transmitter and receiver innovations, particularly the utilisation of diversity transceivers. As a preliminary to the following treatment, the nature and modelling of the optical wireless channel are introduced, with particular emphasis on its unique features in terms of transmitted power constraints and non-negativity. From the examination of modulation formats, on-off-keying remains the format of choice for basic binary transmission, whereas pulse-position modulation and its derivatives are preferred for more sophisticated requirements. The recent introduction of techniques from radio systems employing subcarriers is seen to be the most promising development in modulation techniques at present. In receiver technology, quasi-diffuse systems employing multispot diffusion and angular diversity are significant developments. They offer lower path loss and less multipath dispersion, at a lower transmission power compared to 'conventional' wide-angle diffuse systems, while providing a high level of user mobility compared to line-of-sight transmission. These developments are helping optical wireless systems to fulfil their promise by adopting a philosophy inspired by the radio domain to accommodate operation within a hostile channel.

Item Type:	Journal Article
Subjects:	T Technology > TK Electrical engineering. Electronics Nuclear engineering
Divisions:	Faculty of Science > Engineering
Library of Congress Subject Headings (LCSH):	Wireless communication systems, Optical communications
Journal or Publication Title:	IET Communications
Publisher:	The Institution of Engineering and Technology
ISSN:	1751-8628
Date:	January 2008
Volume:	Vol.2
Number:	No.1
Number of Pages:	8
Page Range:	pp. 3-10
Identification Number:	10.1049/iet-com:20060475
Status:	Peer Reviewed
Publication Status:	Published
Access rights to Published version:	Restricted or Subscription Access
References:	[1] O’Brien, D.C., Katz, M., Wang, P., Kalliojarvi, K., Arnon, S., Matsumoto, M., Green, R.J., and Jivkova, S.: ‘Short–range optical wireless communications’ (Wireless World Research Forum, 2005) [2] BS EN 60825–1:1994: ‘Safety of laser products, equipment classification, requirements and user’s guide’, 1994 [3] Boucouvalas, A.C.: ‘Indoor ambient light noise and its effect on wireless optical links’, IEE Proc., Optoelectron., 1996, 143, pp. 334–338 [4] Moreira, A.J.C., Valadas, R.T.O., and Duarte, A.M.: ‘Performance of infrared transmission systems under ambient light interference’, IEE Proc., Optoelectron., 1996, 143, pp. 339–346 [5] Narasimhan, R., Audeh, M.D., and Kahn, J.M.: ‘Effect of electronic–ballast fluorescent lighting on wireless infrared links’, IEE Proc., Optoelectron., 1996, 143, pp. 347–354 [6] Barry, J.R.: ‘Wireless infrared communications’ (Kluwer Academic Press, 1994) [7] Lueftner, T., Kroepl, C., Huemer, M., Hausner, J., Hagelauer, R., andWeigel, R.: ‘Edge–position modulation for high–speed wireless infrared communications’, IEE Proc., Optoelectron., 2003, 150, pp. 427–437 [8] Korevaar, E.J.: ‘Optical Wireless Communications IV’, Proc. SPIE., 2001, 4530 [9] Korevaar, E.J.: ‘Optical Wireless Communications V’, Proc. SPIE., 2002, 4873 [10] Kahn, J.M., and Barry, J.R.: ‘Wireless infrared communications’, Proc. IEEE, 1997, 85, pp. 265–298 [11] Green, R.J., Sweet, C., and Idrus, S.M.: ‘Optical wireless links with enhanced linearity and selectivity [Invited]’, J. Opt. Netw., 2005, 4, pp. 671–684 [12] Abu Baker, Z.: ‘Infrared ad–hoc networking’, PhD thesis, University of Warwick, 2007 [13] Hirt,W., Hassner,M., and Heise, N.: ‘IrDA–VFIr (16 Mb/s):modulation code and system design’, IEEE Pers. Commun., 2001, 8, pp. 58–71 [14] Wong, K.K., O’Farrell, T., and Kiatweerasakul, M.: ‘The performance of optical wireless OOK, 2–PPM and spread spectrum under the effects of multipath dispersion and artificial light interference’, Int. J. Commun. Syst., 2000, 13, pp. 551–576 [15] Carruthers, J.B., and Kahn, J.M.: ‘Multiple–subcarrier modulation for nondirected wireless infrared communication’, IEEE J. Sel. Areas in Commun., 1996, 14, pp. 538–546 [16] Audeh, M.D., Kahn, J.M., and Barry, J.R.: ‘Performance of pulse–position modulation on measured non–directed indoor infrared channels’, IEEE Trans. Commun., 1996, 44, pp. 654–659 [17] You, R., and Kahn, J.M.: ‘Averagepower reduction techniques for multiple–subcarrier op- tical intensity modulation’, IEE Colloquium 99/ 128, ‘Optical Wireless Communications’, 22 June 1999, paper 6 [18] Teramoto, S., and Ohtsuki, T.: ‘Multiple–subcarrier optical communication system with peak reduction carriers’, Trans. IEICE, 2004, E87–B, pp. 3385–3388 [19] Hanzo, L., Munster, M., Choi, B.J., and Keller, T.: ‘OFDM and MC–CDMA for Broadband Multi–User Communications, WLANs, and Broadcasting’ (Wiley Press, 2003) [20] Shiu, D.S., and Kahn, J.M.: ‘Differential pulse–position modulation for power–efficient optical communication’, IEEE Trans. Commun., 1999, 47, pp. 1201–1210 [21] Lee, D.C.M., Kahn, J.M., and Audeh, M.D.: ‘Trellis–coded pulse–position modulation for indoor wireless infrared communications’, IEEE Trans. Commun., 1997, 45, pp. 1080–1087 [22] Diana, L., and Kahn, J.M.: ‘Rate–adaptive modulation techniques for infrared wireless communications’. IEEE Int. Conf. Commun. (ICC 1999), pp. 597–603 [23] Garcia–Zambrana, A., and Puerta–Notario, A.: ‘Novel approach for increasing the peak–to–average optical power ratio in rate–adaptive optical wireless communication systems’, IEE Proc., Opto- electron., 2003, 150, pp. 439–444 [24] IrDA: Advanced infrared physical layer specification, (AIrPHY)–Version 1.0, 1998 [25] Grubor, J., Jungnickel, V., and Langer, K.: ‘Rate–adaptive multiple sub–carrier–based transmission for broadband infrared wireless communication’. National Fiber Optic Engineers Conf., 2006, p. 10 [26] Grubor, J., Jungnickel, V., and Langer, K.: ‘Capacity analysis in indoor wireless infrared communication using adaptive multiple subcarrier transmission’. Proc. 7th Int. Conf. Trans- parent Optical Networks 2005 (ICTON 05), pp. 171–174 [27] Ghassemlooy, Z., Hayes, A.R., and Wilson, B.: ‘Reducing the effects of intersymbol inter- ference in diffuse DPIM optical wireless communications’, IEE Proc., Optoelectron., 2003, 150, pp. 445–452 [28] Carruthers, J.B., and Kahn, J.M.: ‘Modeling of nondirected wireless infrared channels’, IEEE Trans. Commun., 1997, 45, pp. 1260–1268 [29] Ramirez–Iniguez, R., and Green, R.J.: ‘Optical antenna design for indoor optical wireless communication systems’, Int. J. Commun. Syst., 2005, 18, pp. 229–245 [30] Street, A.M., Stavrinou, P.N., O’Brien, D.C., and Edwards, D.J.: ‘Indoor optical wireless systems a review’, Opt. Quant. Electron., 1997, 29, pp. 349–378 [31] Al–Ghamdi, A.G., and Elmirghani, J.M.H.: ‘Spot diffusing technique and angle diversity performance for high speed indoor diffuse infra–red wireless transmission’, IEE Proc., Optoelec- tron., 2004, 151, pp. 46–52 [32] Eardley, P.L., Wisely, D.R., Wood, D., and McKee, P.: ‘Holograms for optical wireless LANs’, IEE Proc., Optoelectron., 1996, 143, pp. 365–369 [33] O’Brien, D.C., Faulkner, G.E., Jim, K., Zyambo, E.B., Edwards, D.J., Whitehead, M., Stavrinou, P., Parry, G., Bellon, J., Sibley, M.J., Lalithambika, V.A., Joyner, V.M., Samsudin, R.J., Holburn, D.M., and Mears, R.J.: ‘High–speed integrated transceivers for optical wireless’, IEEE Commun. Mag., 2003, 41, pp. 58–62 [34] Savicki, J.P., and Morgan, S.P.: ‘Hemispherical concentrators and spectral filters for planar sensors in diffuse radiation fields’, Appl. Opt., 1994, 33, pp. 8057–8061 [35] Marhic, M.E., Kotzin, M.D., and van den Heuvel, A.P.: ‘Reflectors and immersion lenses for detectors of diffuse radiation’, J. Opt. Soc. Am., 1982, 72, pp. 352–355 [36] Kahn, J.M., Barry, J.R., Audeh, M.D., Carruthers, J.B., Krause, W.J., and Marsh, G.W.: ‘Non–directed infrared links for high–capacity wireless LANs’, IEEE Pers. Commun., 1994, 1, p. 12 [37] Barry, J.R., and Kahn, J.M.: ‘Link design for non directed wireless infrared communica- tions’, Appl. Opt., 1995, 34, pp. 3764–3776 [38] Ho, K., and Kahn, J.M.: ‘Compound parabolic concentrators for narrowband wireless infrared receivers’, Opt. Eng., 1995, 34, pp. 1385–1395 [39] Wasiczko, L.M., Smolyaninov, I.I., and Davis, C.C.: ‘Analysis of compound parabolic con- centrators and aperture averaging to mitigate fading on free–space optical links’, Free Space Laser Communication and Active Laser Illumination III (Eds. Voelz, D. G. and Ricklin, J. C.), Proc. SPIE, 2004, 5160, pp. 133–142 [40] Green, R.J.: ‘Polarising concentrator for IR wireless’. GB0308128.8, July 2003 [41] Kahn, J.M., You, R., Djahani, P., Weisbin, A.G., Teik, B.K., and Tang, A.: ‘Imaging diversity receivers for high–speed infrared wireless communication’, IEEE Commun. Mag., 1998, 36, pp. 88–94 [42] Carruthers, J.B., and Kahn, J.M.: ‘Angle diversity for nondirected wireless infrared com- munication’, IEEE Trans. Commun., 2000, 48, pp. 960–969 [43] Jungnickel, V., Forck, A., Haustein, T., Kruger, U., Pohl, V., and von Helmolt, C.: ‘Elec- tronic tracking for wireless infrared communications’, IEEE Trans. Wirel. Commun., 2003, 2, (5), pp. 989–999 [44] O’Brien, D.C., Faulkner, G.E., Zyambo, E.B., Jim, K., Edwards, D.J., Stavrinou, P., Parry, G., Bellon, J., Sibley, M.J., Lalithambika, V.A., Joyner, V.M., Samsudin, R.J., Holburn, D.M., and Mears, R.J.: ‘Integrated transceivers for optical wireless communications’, IEEE J. Sel. Top. Quantum Electron., 2005, 11, pp. 173–183 [45] Castillo–Vazquez, M., and Puerta–Notario, A.: ‘Single–channel imaging receiver for optical wireless communications’, IEEE Commun. Lett., 2005, 9, pp. 897–899
URI:	http://wrap.warwick.ac.uk/id/eprint/30508