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Dynamic Power Management for Portable Systems (2000)

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by Tajana Simunic , Luca Benini , Peter Glynn , Giovanni De Micheli
Citations:162 - 11 self
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BibTeX

@INPROCEEDINGS{Simunic00dynamicpower,
    author = {Tajana Simunic and Luca Benini and Peter Glynn and Giovanni De Micheli},
    title = {Dynamic Power Management for Portable Systems},
    booktitle = {},
    year = {2000},
    pages = {11--19},
    publisher = {}
}

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Abstract

Portable systems require long battery lifetime while still delivering high performance. Dynamic power management (DPM) policies trade off the performance for the power consumption at the system level in portable devices. In this work we present the time-indexed SMDP model (TISMDP) that we use to derive optimal policy for DPM in portable systems. TISMDP model is needed to handle the nonexponential user request interarrival times we observed in practice. We use our policy to control power consumption on three different devices: the SmartBadge portable device [18], the SonyVaio laptop hard disk and WLAN card. Simulation results show large savings for all three devices when using our algorithm. In addition, we measured the power consumption and performance of our algorithm and compared it with other DPM algorithms for laptop hard disk and WLAN card. The algorithm based on our TISMDP model has 1.7 times less power consumption as compared to the default Windows timeout policy for the hard disk and three times less power consumption as compared to the default algorithm for the WLAN card.

Keyphrases

portable system    power consumption    dynamic power management    wlan card    tismdp model    nonexponential user request interarrival time    smartbadge portable device    laptop hard disk    optimal policy    default algorithm    system level    high performance    default window timeout policy    dpm algorithm    large saving    hard disk    different device    simulation result    sonyvaio laptop hard disk    long battery lifetime    time-indexed smdp model    portable device   

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