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Application‐driven power management for mobile communication

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Abstract

In mobile computing, power is a limited resource. Like other devices, communication devices need to be properly managed to conserve energy. In this paper, we present the design and implementation of an innovative transport level protocol capable of significantly reducing the power usage of the communication device. The protocol achieves power savings by selectively choosing short periods of time to suspend communications and shut down the communication device. It manages the important task of queuing data for future delivery during periods of communication suspension, and decides when to restart communication. We also address the tradeoff between reducing power consumption and reducing delay for incoming data. We present results from experiments using our implementation of the protocol. These experiments measure the energy consumption for three simulated communication patterns as well as three trace‐based communication patterns and compare the effects of different suspension strategies. Our results show up to 83% savings in the energy consumed by the communication. For a high‐end laptop, this can translate to 6–9% savings in the energy consumed by the entire mobile computer. This can represent savings of up to 40% for current hand‐held PCs. The resulting delay introduced is small (0.4–3.1 s depending on the power management level).

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Kravets, R., Krishnan, P. Application‐driven power management for mobile communication. Wireless Networks 6, 263–277 (2000). https://doi.org/10.1023/A:1019149900672

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