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Design and Experimental Validation of the Self-powered IoT for Indoor Temperature-Humidity Monitoring

机译:室内温度湿度监测自动IOT的设计与实验验证

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The Internet of Things (IoT) refers to electronic device communications, one of them is the wireless sensor network (WSN). Battery life is the main challenge for WSN. Battery life refers to the maximum time until one node not work. This study proposed to increase the battery life of WSN by applying solar energy harvesting technology. The system consists of several nodes equipped with solar cell and energy harvester. The system uses sleep mode with certain active intervals to save power. The active system interval determined based on the daily energy that can be harvested. Room temperature-humidity data displayed in graphical form via a smartphone application. The daily energy requirements of the system based on the energy consumption of the microcontroller, sensors, and energy loss due to the phenomenon of battery self-discharge. The energy harvester circuit tested with four configurations of the number of turns ratio and resistor values on the transistor base. Each configuration tested at a light intensity of 800-1000 lux. The highest output power produced by the energy harvester configuration is used to determine the daily energy that can be harvested. The results show the harvested daily energy still not sufficient for the system's energy requirements. In future studies, the system's energy requirement will be minimized and the harvested daily energy will be increased.
机译:事物互联网(IOT)是指电子设备​​通信,其中一个是无线传感器网络(WSN)。电池寿命是WSN的主要挑战。电池寿命指的是最长时间,直到一个节点不起作用。本研究提出通过应用太阳能收集技术来提高WSN的电池寿命。该系统由几个配备太阳能电池和能量收割机的节点组成。系统使用睡眠模式具有某些有效间隔以节省电量。基于可以收获的日常能量确定的主动系统间隔。室温湿度数据通过智能手机应用以图形形式显示。基于电池自放电现象,系统的每日能量要求基于微控制器,传感器和能量损失的能量消耗。能量收割机电路测试有四个配置的晶体管基座上的匝数比和电阻值的四个配置。每种配置都以800-1000勒克斯的光强度测试。通过能量收割机配置产生的最高输出功率用于确定可以收获的日常能量。结果表明,收获的日常能量仍然不足以实现系统的能源要求。在未来的研究中,系统的能源需求将最大限度地减少,并且收获的日常能量将增加。

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