High-Temperature Wireless Sensor Platform Powered by Energy Scavenging

IF 7.9 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
Shane Winters;Nikung Thapa;Luke D. Doucette;Jonathan Kincaid;Qingsong Cui;Nuri W. Emanetoglu;Mauricio Pereira da Cunha
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Abstract

This article reports on the development of key components required for a self-powered oscillator unit designed to wirelessly transmit its signal under full insertion in high-temperature (HT) harsh-environments (HE), such as those present in power plants and industrial settings (metallurgic, oil extraction, molding, and aerospace). The oscillator employed a silicon carbide power transistor and HT passive components on a screen-printed alumina circuit board capable of operation beyond 300 °C. The HT oscillator circuit was powered solely by in-situ energy-scavenging thermoelectric generator (TEG) modules using passive cooling, eliminating the need for an external power supply or active cooling. In addition, a silicon-based external booster circuit was used to achieve the required TEG voltage regulation to test the TEG-powered HT oscillator circuit. The TEG-powered oscillator circuit was tested inside a nonmetallic furnace from room temperature to over 300 °C for transmission of a wireless signal, which was detected outside the furnace at 11 ft (3.4 m). Such a wireless transmitting system powered only by in-situ TEGs, with no requirement for external power or active cooling, is very attractive for flexible, mobile standalone control and sensor units targeted for operation in HT HE conditions found in power plants and industrial settings.
利用能量回收技术的高温无线传感器平台
本文报告了自供电振荡器所需的关键元件的开发情况,该振荡器可在高温(HT)恶劣环境(HE)(如发电厂和工业环境(冶金、石油开采、成型和航空航天)中完全插入的情况下无线传输信号)。振荡器采用碳化硅功率晶体管和高温无源元件,安装在丝网印刷的氧化铝电路板上,工作温度可超过 300 °C。热电振荡器电路完全由使用被动冷却的原位能量回收热电发生器(TEG)模块供电,无需外部电源或主动冷却。此外,还使用了硅基外部升压电路来实现所需的 TEG 电压调节,以测试由 TEG 供电的 HT 振荡电路。在非金属炉内对 TEG 供电振荡电路进行了从室温到超过 300 °C 的无线信号传输测试,该信号在炉外 11 英尺(3.4 米)处被检测到。这种无线传输系统仅由原位 TEG 供电,不需要外部电源或主动冷却,对于在发电厂和工业环境中的高温高压条件下运行的灵活、移动的独立控制和传感器装置非常有吸引力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
13.50
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0.00%
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