自主节能智能传感器平台

M. Merenda, C. Felini, F. D. Della Corte
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引用次数: 14

摘要

开发了一种与EPCglobal Class-1 Gen2读写器兼容的新型无线智能传感器平台。该平台由一个五级Dickson电压倍增器、一个动态阻抗匹配网络(DyIMN)、一个XLP微控制器(MCU)和一个带有嵌入式温度传感器的RFID标签IC组成。在距离射频源1.5米的距离内,设备范围操作已被评估,对应于最小射频输入功率为-10 dBm。固件优化导致睡眠模式下功耗降低到500nW以下,允许从射频源获得最佳的能量收集和存储。采集的功率使逻辑操作能够从MCU完成,从而使温度测量的传感和存储直接到RFID标签的用户存储器中。此外,能量采集器的效率是由MCU计算的,因此动态调整DyIMN以响应大范围的输入功率和负载阻抗。实验证明了该系统在标准RFID阅读器的读取范围内自主运行的可行性,该阅读器既是射频电源,又是存储在标签用户存储器中的数据的接收器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An autonomous and energy efficient Smart Sensor Platform
A novel Wireless Smart Sensor Platform compatible with EPCglobal Class-1 Gen2 readers was developed. The platform is comprised of a five stage Dickson voltage multiplier, a dynamic impedance matching network (DyIMN), an XLP microcontroller (MCU) and an RFID tag IC with an embedded temperature sensor. Device range operations have been assessed up to a distance of 1.5 m from the RF source, corresponding to a minimum RF input power of -10 dBm. Firmware optimization leads to a reduction of power dissipation below 500nW in sleep mode, allowing an optimal energy harvesting and storage from the RF source. The harvested power enable logical operations to be completed from MCU, thus enabling sensing and storing of temperature measurements directly into the user memory of an RFID tag. Also the efficiency of the energy harvester is calculated from the MCU, hence tuning the DyIMN dynamically to respond over a wide range of input power and load impedance. The experiments demonstrate the feasibility of the system to operate autonomously within the reading range of a standard RFID reader, that acts both as RF power source and receiver of the data stored in the tag user memory.
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