Multi channel performance of dual band low power wireless network. Yin, S., Gnawali, O., Sommer, P., & Kusy, B. In 2014 IEEE 11th International Conference on Mobile Ad Hoc and Sensor Systems, pages 345–353, October, 2014. doi abstract bibtex Wireless sensor network platforms share the wireless communication channels with Wi-Fi and Bluetooth based networks, resulting in heavy use of these bands. As a consequence, platforms in wireless sensor networks need to carefully consider external interference to achieve reliable communication. In this paper, we present an experimental analysis of wireless channels for wireless sensor network operating on dual frequency bands. Specifically, we designed a set of detailed experiments aiming to find out correlation patterns in 900 MHz and 2.4 GHz ISM bands. We conducted our experiments on two testbeds and investigated the band correlation between two distinctive radio transceivers in two different office-space environments. From our data samples, we quantified frequency channel and band correlations in parallel experiments that eliminate artifacts stemming from different external activity on the test site. We found that network formed in 900 MHz band has 15% more connectivity than network formed in 2.4 GHz band, even on radio channels that minimize overlap with Wi-Fi networks.
@inproceedings{yin2014Twonet,
title = {Multi channel performance of dual band low power wireless network},
doi = {10.1109/MASS.2014.120},
abstract = {Wireless sensor network platforms share the wireless communication channels with Wi-Fi and Bluetooth based networks, resulting in heavy use of these bands. As a consequence, platforms in wireless sensor networks need to carefully consider external interference to achieve reliable communication. In this paper, we present an experimental analysis of wireless channels for wireless sensor network operating on dual frequency bands. Specifically, we designed a set of detailed experiments aiming to find out correlation patterns in 900 MHz and 2.4 GHz ISM bands. We conducted our experiments on two testbeds and investigated the band correlation between two distinctive radio transceivers in two different office-space environments. From our data samples, we quantified frequency channel and band correlations in parallel experiments that eliminate artifacts stemming from different external activity on the test site. We found that network formed in 900 MHz band has 15\% more connectivity than network formed in 2.4 GHz band, even on radio channels that minimize overlap with Wi-Fi networks.},
booktitle = {2014 {IEEE} 11th {International} {Conference} on {Mobile} {Ad} {Hoc} and {Sensor} {Systems}},
author = {Yin, S. and Gnawali, O. and Sommer, P. and Kusy, B.},
month = oct,
year = {2014},
keywords = {Bluetooth, IEEE 802.11 Standards, ISM band correlation, Interference, Noise, Radio frequency, Transceivers, Wi-Fi network, Wireless communication, Wireless sensor networks, computer network reliability, correlation methods, dual band, dual band low power wireless sensor network multi channel performance, frequency 2.4 GHz, frequency 900 MHz, frequency channel, low power wireless network, radio transceivers, wireless LAN, wireless channel, wireless channels, wireless communication channel reliability, wireless sensor network, wireless sensor networks},
pages = {345--353}
}
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