基于采集感知的环境监测无线传感器网络能量管理

J. Rodway, P. Musílek
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引用次数: 76

摘要

提出了一种智能能量控制器,用于控制无线传感器节点的能量采集。能量控制器使用Takagi-Sugeno模糊逻辑,并具有能量缓冲状态的输入和可用于收获的太阳能的预测。使用理想预测和基于压力的预测,研究了当前和次日两种不同的预测范围。采用差分进化方法对控制器进行优化。为了验证改进后的控制器,利用现场采集的真实环境数据对无线传感器网络进行了仿真。优化的目标是在保留备用能源储备的同时,最好地利用可用于收获的太阳能。在保持能源储备不变的情况下执行尽可能多的操作,增加了部署时间和可靠性。使用当前和第二天能量预测的控制器更好地利用了可用能量,适应度函数较低。然而,虽然与仅使用当前预测的控制器相比,它需要更多的测量,但它也使用了更多的储备能量,而仍然只占总可用储备的一小部分。与理想的能源预测相比,使用基于压力的预测在两个预测范围内的储备能源使用都更高,这表明可以进一步改进性能以实现更准确的预测。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Harvesting-aware energy management for environmental monitoring WSN
An intelligent energy controller is proposed to manage operation of wireless sensor nodes equipped with energy harvesting devices. The energy controller uses Takagi-Sugeno fuzzy logic and has inputs for the state of the energy buffer and forecasts of solar energy available for harvest. Two different forecasting horizons were investigated, current and next-day, using ideal and pressure-based forecasts. Differential evolution is used to optimize the controller. To validate the evolved controller, a wireless sensor network is simulated using real field-collected environmental data. The optimization goal is to best utilize the solar energy available for harvest while preserving a backup energy reserve. Performing the highest number of operations possible while leaving the energy reserve intact increases deployment time and reliability. The controller using current and next-day energy forecasts made better use of the available energy, indicated by a lower fitness function. However, while it took more measurements when compared to the controller only using the current-day forecast, it also used more reserve energy while still remaining at only a small fraction of the total available reserve. Reserve energy usage using the pressure-based forecast was higher for both forecasting horizons compared to the ideal energy forecast, pointing to further performance improvements possible for a more accurate forecast.
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