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Design, Development and Practical Realization of a VLC Supportive Indoor Lighting System. L&E 28 (3) 2020

Light & Engineering 28 (3)

Volume 28
Date of publication 06/01/2020
Pages 87–97

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Design, Development and Practical Realization of a VLC Supportive Indoor Lighting System. L&E 28 (3) 2020
Articles authors:
Sourish Chatterjee, Biswanath Roy

Sourish Chatterjee is pursuing his research study in the area of VLC at the Electrical Engineering Department of Jadavpur University. He completed the graduation course in Electronics and Communication Engineering from The Institution of Engineers (India) in 2008 followed by post-graduation course in Illumination Engineering from the Electrical Engineering Department of Jadavpur University in 2011. He has about eight years of teaching experience in the field of Electronics and Communication engineering. He is a Member of the IEI – The Institution of Engineers (India)

Biswanath Roy is associated with the Electrical Engineering Department of Jadavpur University since 2000 as at faculty of Illumination Engineering. He completed Ph.D. (Engg.) in the field of Daylighting in 1999 from the Jadavpur University after having M. Sc. (Tech.) in Optics and Optoelectronics from the Department of Applied Physics in 1993 and B. Sc. (Hons.) in Physics in 1989, both from the University of Calcutta. He is a Life Fellow of Indian Society of Lighting Engineers (ISLE), a Life Member of the IEI – The Institution of Engineers (India)

In an office space, an LED-based lighting system allows you to perform the function of a data transmitter. This article discusses the cost-effective design and development of a data-enabled LED driver that can transmit data along with its receiving part. In addition, this paper clearly outlines the application of the proposed VLC system in an office environment where ambient light interference is a severe issue of concern. The result shows satisfactory lighting characteristics in general for this area in terms of average horizontal illuminance and illuminance uniformity. At the same time, to evaluate real-time and static communication performance, Arduino interfaced MATLAB Simulink model is developed, which shows good communication performance in terms of BER (10–7) even in presence of ambient light noise with 6 dB signal to interference plus noise ratio. Our designed system is also flexible to work as a standalone lighting system, whenever data communication is not required.
1. Narendran N., Gu Y. Life of LED-based white light sources. Journal of display technology, 2005. #1(1), 167 p.
2. Kocaman B., Rüstemli S. Comparison of LED and HPS luminaires in terms of energy savings at tunnel illumination. Light & Engineering, 2019. V27, #1, pp. 67–74.
3. Amelkina S.A., Zheleznikova O.E., Sinitsyna L.V. On the efficiency of lighting by LEDs in visual work. Light & Engineering, 2018. V26, #3, pp. 81–87.
4. Green R. J., Joshi H., Higgins M.D., Leeson M.S. Recent developments in indoor optical wireless systems. IET communications, 2008. V2, #1, pp. 3–10.
5. Gancarz J., Elgala H., Little TD. Impact of lighting requirements on VLC systems. IEEE Communications Magazine, 2013. V19, #51(12), pp. 34–41.
6. Chatterjee S., Sabui D. Daylight integrated indoor VLC architecture: An energy-efficient solution. Trans Emerging Tel Tech. 2019, e3800.
7. Markov M., Grigoriev Y.G. WI-FI technology–an uncontrolled global experiment on the health of mankind. Electromagnetic biology and medicine, 2013. V32, #2, pp. 200–208.
8. Miyahara S., Aono S., Matsumoto Y. Preproduction of LED driver for visible light communications and evaluation of response performance of visible LED. Technical report of IEICE, ICD2005–44, 2005. pp. 25–30.
9. O’Brien D. C., Faulkner G., Le Minh H., Bouchet O., El Tabach M., Wolf M., Langer K.D. Home access networks using optical wireless transmission. In 2008 IEEE19th International Symposium on Personal, Indoor and Mobile Radio Communications, IEEE, 2008, pp. 1–5.
10. Vučić J., Kottke C., Nerreter S., Langer K.D., Walewski J.W. 513 Mbit/s visible light communications link based on DMT-modulation of a white LED. Journal of lightwave technology, 2010. V28, #24, pp. 3512–3518.
11. McKendry J.J., Massoubre D., Zhang S., Rae B.R., Green R.P., Gu E., Dawson M.D. Visible-light communications using a CMOS-controlled micro-light-emittingdiode array. Journal of lightwave technology, 2011.V30, #1, pp. 61–67.
12. Elgala H., Mesleh R., Haas H. Indoor optical wireless communication: potential and state-of-the-art. IEEE Communications Magazine, 2011. V49, #9, pp. 56–62.
13. Sindhubala K., Vijayalakshmi B. Survey on noise sources and restrain techniques in visible-light communication. Light & Engineering, 2016. V24, #2, pp. 107–117.
14. Sindhubala K., Vijayalakshmi B. Design and implementation of optical receiver for visible light communication to reduce ambient light noise. Light & Engineering, 2017. V25, #2, pp. 139–146.
15. Din I., Kim H. Energy-efficient optical power control for data rate and illuminance provision in visible light communication. Light & Engineering, 2016. V24, #2, pp. 89–95.
16. Ho S. W., Duan J., Chen, C.S. Location‐based information transmission systems using visible light communications. Transactions on Emerging Telecommunications Technologies, 2017. V28, #1, e2922.
17. ISO-8995–1:2002 (CIE-S008/E:2001) Lighting of work places – Part 1: Indoor
18. Kahn J. M., Barry J.R. Wireless infrared communications. Proceedings of the IEEE, 1997. V85, #2, pp. 265–298.
19. Chen Y., Sung C.W., Ho S.W., Wong W.S. BER analysis and power control for interfering visible light communication systems. Optik, 2017. V151, pp. 98–109.
20. Afgani M. Z., Haas H., Elgala H., Knipp D. Visible light communication using OFDM. In 2nd International Conference on Testbeds and Research Infrastructures for the Development of Networks and Communities, TRIDENTCOM, IEEE, 2006. 6 p.
21. Gfeller F. R., Bapst U. Wireless in-house data communication via diffuse infrared radiation. Proceedings of the IEEE, 1979. V67, #11, pp. 1474–1486.
22. Komine T., Nakagawa M. Fundamental analysis for visible-light communication system using LED lights. IEEE transactions on Consumer Electronics, 2004. V50, #1, pp. 100–107.
23. Texas Instruments, “60-W Common Anode-Capable Constant Current Buck LED Driver”, LM3414, LM3414HV datasheet, June 2010 [Revised November 2015].
24. Moreira A.J., Valadas R.T., de Oliveira Duarte A.M. Optical interference produced by artificial light. Wireless Networks, 1997. V3, #2, pp. 131–40.
25. Keiser G. Optical fiber communications. Wiley Encyclopedia of Telecommunications, 2003. Apr. 15.


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