Throughput Analysis over Power Line Communication Channel in an Electric Noisy Scenario

Powerline Communications –PLC– as an alternative method for broadband networking, has the advantage of transmitting over channels already used for electrical distribution or even transmission. But these channels have been not designed with usual wired channels requirements for broadband applications such as stable impedance or known attenuation, and the network have to reject noises caused by electrical appliances that share the same channel. Noise control standards are difficult to complain or simply do not exist on Latin-American environments. This paper analyzes PLC throughput for home connectivity by probing noisy channel scenarios in a PLC network and the statistical results are shown.




References:
[1] Lee, M.K.; Latchman, H.A.; Newman, R.E.; Katar, S.; Yonge,L.; "Field
Performance Comparison of IEEE 802.11b and HomePlug 1.0"
Proceedings. LCN 2002. 27th Annual IEEE Conference on Local
Computer Networks, 2002, pp: 598 - 599.
[2] M. K. Lee, R. Newman, H. A. Latchman, S. Katar, and L. Yonge,
"HomePlug 1.0 Powerline Communication LANs-Protocol Description
and Comparative Performance Results," International Journal on
Communication Systems on Powerline Communications, pp. 447-473,
2003.
[3] D. Webgner, O. Logvinov, "HomePlug Alliance position statement",
IEEE BoPL meeting, July 2004
[4] American National Standard Institute, ANSI. "TIA 1113: Medium-
Speed (up to 14 Mbps) Power Line Communications (PLC) Modems
using Windowed OFDM", Telecommunications Industry Association,
TIA, May 2008.
[5] Zimmermann, M.; Dostert, K.; "An Analysis of the Broadband Noise
Scenario in Powerline Networks," Proceedings of the 4th International
Symposium on Power-line Communications and its Applications.
Limerick (Ireland), vol. 138, 2000.
[6] Zimmermann, M.; Dostert, K.; "Analysis and modeling of impulsive
noise in broad-band powerline communications", IEEE Transactions on
Electromagnetic Compatibility, Volume 44, Issue 1, Feb. 2002, pp 249
- 258
[7] Li, Y.; Cimini, L.J., Jr.; Sollenberger, N.R.; "Robust Channel Estimation
for OFDM Systems with Rapid Dispersive Fading Channels", IEEE
Transactions on Communications, Volume 46, Issue 7, July 1998 pp
902 - 915.
[8] Hsu, C.; Neng Wang; Wai-Yip Chan; Jain, P.; "Improving HomePlug
Power Line Communications with LDPC Coded OFDM", 28th Annual
International Telecommunications Energy Conference, 2006. INTELEC
'06. Sept. 2006 pp 1 - 7
[9] H. Hrasnica, A. Haidine, and R. Lehnert, Broadband Powerline
Communications: Network Design: Wiley & Sons, 2004, pp. 52-55
[10] T. Sartenaer, Multiuser communications over frequency selective wired
channels and applications to the powerline access network. PhD Thesis,
Département d'électricité, Université Catholique de Louvain, Septembre,
2004
[11] R. Pighi and R. Raheli, "Linear Predictive Detection for Power Line
Communications Impaired by Colored Noise," EURASIP Journal on
Advances in Signal Processing, vol. 2007, pp. 1-12, 2007.
[12] P. Scherz, "Switching Regulator Supplies (Switches)," in Practical
Electronics for Inventors: McGraw-Hill/TAB Electronics, 2000, pp. 292-
293.
[13] M. Babic, M. Hagenau, K. Dostert, and J. Bausch, "Theoretical
postulation of PLC channel model," IST Integrated Project Deliverable
D4v2. 0, The OPERA Consortium, March, 2005
[14] R. Boden, "Realistic modeling spectral and amplitude distribution
characteristics of impulsive noise in ADSL broadband access networks,"
Proc. 10 thInternational OFDM Workshop, Hamburg, pp. 46-50, 2005
[15] D. Umehara, S. Hirata, S. Denno, and Y. Morihiro, "Modeling of
Impulse Noise for Indoor Broadband Power Line Communications,"
International Symposium of Information Theory and its Applications,
ISITA, (Seoul, Korea), 2006
[16] E. Griful and G. Ponsati, "Tasa de fallo no constante, el modelo de
Weibull y otros," in Fiabilidad industrial: Edicions UPC, 2003, pp. 41.