@article{3036763, title = "Medical and safety monitoring system over an in-cabin optical wireless network", author = "Marinos, D. and Leonidas, F. and Vlissidis, N. and Giovanis, C. and Pagiatakis, G. and Aidinis, C. and Vassilopoulos, C. and Pistner, T. and Schmitt, N. and Klaue, J.", journal = "AEά - International Journal of Electronics and Communications", year = "2011", volume = "98", number = "2", pages = "223-233", issn = "1434-8411", doi = "10.1080/00207217.2010.506846", keywords = "Body temperature; Central servers; electrocardiograph; Flight safety; Health and safety; Health data; health monitoring; Human Machine Interface; In-cabin; Medical sensors; Optical wireless networks; Pulse oximetry; Real time; Safety monitoring system; wireless optical networks; Wireless-optical, Aircraft seats; Blood pressure; Cabins (aircraft); Fiber optic networks; Health; Man machine systems; Noninvasive medical procedures; Oximeters; Sensors; Wireless networks, Monitoring", abstract = "An integrated health and safety monitoring system for aircraft environments using commercially available medical sensor modules and custom made safety sensors in conjunction with an appropriate database supervised through a human-machine interface is implemented. The application described aims at preventing critical health- or safety-related situations during the flight. The health monitoring part of the system is capable of collecting all relevant data, essential in analysing a passenger's health profile. These data, comprising of body temperature, blood pressure, pulse oximetry and electrocardiogram, are throughput and transmitted over a wireless optical intra-cabin link to a server. Furthermore, and in order to reduce the cabin crew workload, along with the health data from a specific passenger group, seat-embedded safety sensors provide information for all passengers' flight safety parameters (such as table upright, seat-belt closed, etc.). The data gathered by the system in a central server can, in its entirety, be stored, processed or acted upon in real time. © 2011 Taylor & Francis." }