Xia Li, P. Baltus, D. Milosevic, P. van Zeijl, A. V. van Roermund
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引用次数: 11
摘要
这项工作提出了一种超低功耗占空比唤醒无线电系统,用于高数据速率、短距离毫米波WPAN应用。提出并优化了异步占空比唤醒电源管理方法,以降低平均功耗。以60ghz无线通信系统为例,讨论了该系统由四路相控阵收发器、占空比唤醒接收机和数字控制电路组成。并对最小平均功率下的最优占空比进行了理论分析。给出了仿真结果,整个无线电的平均功耗为230 μ W,这导致1.5 v 1000 mah可充电电池的工作时间约为4000小时。
This work presents an ultra low-power duty-cycled wake-up radio system for high-data-rate, short-range millimeter-wave WPAN applications. The asynchronous duty-cycled wake-up power management method is proposed and optimized to reduce the average power consumption. As the design example, a 60 GHz radio system is discussed, which consists of a 4-path phase-array transceiver, a duty-cycled wake-up receiver and the digital control circuits. Theoretical analyses of the optimum duty-cycle factor towards minimum average power are shown accordingly. Simulation results are given and a 230 µW average power consumption is achieved for the entire radio, which leads to about 4000-hour operation time for a 1.5-V 1000-mAh re-chargeable battery.