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Wireless body area networks: Energy-efficient, provably socially-efficient, transmit power control

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Yang, Yizhou
Smith, David

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Institute of Electrical and Electronics Engineers (IEEE Inc)

Abstract

Transmit power control is vital to wireless body area networks (BANs), where due to their prevalence many BANs may be required to coexist reliably, with a requirement for reduced power consumption to significantly increase sensor battery lifetime. In this paper, we propose a socially optimal finite repeated non-cooperative transmit power control game, in order to mitigate radio interference amongst coexisting BANs, improve throughput and reduce power consumption. The game is shown to have a unique Nash equilibrium. We also prove that the outcome of the game is socially efficient, given reasonable constraints, across all players at the unique Nash equilibrium. Using a realistic channel model, the game is shown to be very energy-efficient, significantly reducing power consumption and improving packet delivery ratio (PDR) with respect to other potential schemes, consuming 67% less circuit power than transmitting constantly at 0 dBm.

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IEEE ICC 2017 Communication and Information Systems Security Symposium

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Restricted until

2099-12-31