2014 · 11 citations · 8 references
EngineeringBiomedical EngineeringElectrical EngineeringMicrowave EngineeringPropagationWireless CommunicationsImplant TechnologyImplantable Biomedical DevicesImplantable MicrodevicesImplantable MicrosystemsWireless Channel ModelingWireless NetworksChannel CharacterizationPath LossPath Loss ModelingPropagation Channel CharacterizationPropagation Path LossRadio Wave Path LossWireless Communication ChannelsWireless Communication Systems
The wireless communication channel around/in the human body is a difficult propagation environment. This paper presents measurement and simulation results to characterize such a channel. A fluid human body model is employed to emulate the inside of a human body. The paper details the fluid human model and path loss model parameters at 400 MHz (MICS band). It is shown that the simulated and measured results are in a close agreement, for instance at a distance of 20 cm and a implant depth of 10 cm, the measurement results in a path loss of -42.1 dB and the simulation in -43.0 dB. The effect of human model shape on measured path loss is analyzed. Furthermore, simulations are employed to characterize this effect. Using the path loss model a top-level link budget is evaluated to determine the feasibility of a given implant device compliant to IEEE802.15.6-WBAN-400 MHz standard.
8
Antenna theory, analysis, and design
W. Croswell · IRE Transactions on Telemetry and Remote Control · 1982 · 8.6K citations
Niels Kuster, Veli Santomaa, A. Drossos · IEEE Transactions on Microwave Theory and Techniques · 2000 · 225 citations
Engineering, Biomedical Engineering, Electrical Engineering +17