一种用于超低功耗Wi-Fi地理定位系统的新型射频频谱监测架构

Naci Pekcokguler, M. Maman, A. Burg, C. Dehollain, D. Morche
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引用次数: 1

摘要

无线无线电在许多系统中消耗最高的功率,必须明智地激活以节省电力,特别是在电池供电的系统中。因此,对频谱活动的深入了解是控制无线无线电的必要条件。在这项工作中,经典的全波段快速傅立叶变换(FFT)和顺序数字频谱扫描系统具有高能耗和延迟的缺点。提出了一种环境感知、多层占空比、多通道、超低功耗的模拟频谱监控架构,以解决经典系统的缺点,重点是基于Wi-Fi信号检测的基于基本服务集标识符(BSSID)的地理定位货物跟踪应用。与传统的顺序频谱扫描相比,所提出的架构在检测方面节省了3个数量级以上的功率,同时在各种操作条件下保持完整的功能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Novel RF Spectrum Monitoring Architecture for an Ultra-Low-Power Wi-Fi Geopositioning System
Wireless radio consumes the highest power in many systems and must be activated wisely to save power especially in battery-powered systems. Hence, gathering insight into the spectrum activity is needed to control the wireless radio. In this work, classic full-band Fast Fourier Transform (FFT) and sequential digital spectrum scanning systems are presented with their high energy consumption and latency drawbacks. A context-aware, multi-layer-duty-cycled, multi-channel, ultra-low-power analog spectrum monitoring architecture is proposed as a solution to the drawbacks of the classic systems with the emphasis on Wi-Fi signal detection for a Basic Service Set Identifier (BSSID)-based geopositioning shipment tracking application. The proposed architecture provides more than 3 order of magnitude power saving in detection compared to the classic sequential spectrum scanning while maintaining the full functionality under vast variety of operating conditions.
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