The current social, economic and ecological trends of massive urbanization and climate changes impose painful changes to the healthcare landscape and further complicate the e-Health paradigm. The results show that we have achieved substantial power savings at various nodes attached to the human body.Įlectronic health (e-Health) and mobile health (m-Health) are increasingly considered to be key drivers for the progress of Internet of Things (IoT) based tele-health systems. Based on this we have proposed a dynamic power control algorithm that adapts the transmitting power according to the packet reception in an energy efficient manner. Therefore, this paper comprehensively evaluates and analyzes the impact of body movements, (a) to ensure transmission of data at different radio power levels and (b) its impact on the topology of the WBSN. Understanding the effect of body movements on wireless data transmission in WBSN is also of major importance.

Accordingly, we proposed and characterized the wireless DigiAID platform for wireless BSN (WBSN). It was found that the major hurdle was wires to be worn by the subjects. We showed the viability of DigiAID through extensive real measurements during daily activities by both male and females. In this paper, we first compared our novel off the shelf experimental wired Body Sensor Networks (BSN), that is, Digital First Aid (DigiAID) with the existing commercial product called as Hexoskin. Therefore, advanced electronic health systems are gaining momentum. Current medical facilities usually lead to a very high cost especially for developing countries, rural areas and mass casualty incidents.

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