Niemelä Ville, Hämäläinen Matti, Iinatti Jari
Annu Int Conf IEEE Eng Med Biol Soc. 2013;2013:1676-9. doi: 10.1109/EMBC.2013.6609840.
In 2002, Federal Communications Commission (FCC) was the first in defining regulations for ultra wideband (UWB) communications followed by Europe and Japan some years later. Focusing on impulse radio (IR) UWB, in 2007 was the time for the first published standard targeting in personal area networks, released by the IEEE. The second IEEE released standard including UWB definitions is targeted for wireless body area networks (WBAN) and was published in 2012. As the wireless communications has been and will be passing through almost any levels in society, the natural step with WBAN is using it in different medical, healthcare and wellbeing applications. The arguments for these are related to the modern lifestyle, in which people have increasingly more free time and are more interested in taking care of their health and wellbeing. Another challenge is the population composition, i.e., aging in developed countries which call for new solutions and procedures, particularly from cost wise. In this paper, we are evaluating UWB receivers based on the IEEE 802.15.6 physical layer definitions and capable of detecting differentially encoded modulation. The evaluation is performed using two different WBAN channel models.
2002年,美国联邦通信委员会(FCC)率先为超宽带(UWB)通信制定了相关规定,几年后欧洲和日本也相继出台。聚焦于脉冲无线电(IR)超宽带技术,2007年,IEEE发布了首个针对个人区域网络的公开标准。IEEE发布的第二个包含超宽带定义的标准针对无线体域网(WBAN),于2012年发布。由于无线通信一直并将继续深入到社会的各个层面,无线体域网自然会被应用于不同的医疗、保健和健康领域。支持这样做的理由与现代生活方式有关,在现代生活方式中,人们有越来越多的自由时间,并且对自身健康和幸福更加关注。另一个挑战是人口构成,即发达国家的老龄化问题,这需要新的解决方案和程序,尤其是从成本角度考虑。在本文中,我们基于IEEE 802.15.6物理层定义对超宽带接收器进行评估,这些接收器能够检测差分编码调制。评估使用了两种不同的无线体域网信道模型。