DocumentCode :
84056
Title :
Validation of Statistical Channel Models for 60 GHz Radio Systems in Hospital Environments
Author :
Kyro, M. ; Takizawa, Kenichi ; Haneda, Katsuyuki ; Vainikainen, Pertti
Author_Institution :
Sch. of Electr. Eng., SMARAD Centre of Excellence, Aalto Univ., Espoo, Finland
Volume :
60
Issue :
5
fYear :
2013
fDate :
May-13
Firstpage :
1458
Lastpage :
1462
Abstract :
Statistical channel models for 60 GHz communications systems in hospital environments are validated using channel capacity and throughput of a physical layer as figures of merit. The channel models are validated by comparing the performance figures with channels from the measurements and the channel models. The throughput evaluation is based on system specifications given by the IEEE 802.15.3 c standard for high data rate wireless personal area networks, namely orthogonal frequency division multiplexing and single carrier transmissions. The channel capacity serves as a metric of the potential of the two transmission schemes since it defines the upper bound of the throughput. The capacity is derived based on the signal formats of the transmission schemes. The capacity shows that 97 % of the measurement results are within 2σ range of the modeled results. The throughput shows that the channel models predict the maximum achievable throughput of the measured channels precisely, while the mean throughput in some cases shows difference because of the interpolation effect of the small-scale fading in the statistical channel models. Due to the interpolation effect, the channel model is more suitable for a precise analysis of the outage performance than the measurements where the number of channel samples is limited and the worst faded channels are not necessarily included.
Keywords :
biomedical communication; frequency division multiplexing; hospitals; personal area networks; radiocommunication; IEEE 802.15.3 c standard; channel capacity; communications systems; frequency 60 GHz; high data rate wireless personal area networks; hospital environments; interpolation effect; orthogonal frequency division multiplexing; physical layer; radio systems; signal formats; single carrier transmissions; small-scale fading; statistical channel models; transmission schemes; validation; Acoustics; Angiography; Channel capacity; Channel models; OFDM; Throughput; Ultrasonic variables measurement; 60 GHz communications; channel capacity; hospital environment; power delay profile; radio channel modeling; throughput; Angiography; Computer Communication Networks; Hospitals; Humans; Radio Waves; Ultrasonography; Wireless Technology;
fLanguage :
English
Journal_Title :
Biomedical Engineering, IEEE Transactions on
Publisher :
ieee
ISSN :
0018-9294
Type :
jour
DOI :
10.1109/TBME.2012.2231771
Filename :
6374240
Link To Document :
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