Non-intrusive Water Flow Rate Measurement: A TEG-powered Ultrasonic Sensing Approach

Domenico Balsamo, Oktay Cetinkaya, S. Mileiko
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Abstract

This paper proposes a thermoelectric generator (TEG)-powered ultrasonic sensing system for non-intrusive water flow rate measurement. The limited power provided by the TEGs is handled by a dedicated energy management unit (EMU), allowing reliable sensing, computation, and transmission tasks. First, we introduce the delta time-of-flight (ΔToF)-based ultrasonic sensing and thermoelectric energy generation theory. Then, the design is given, followed by the system evaluation under different harvesting conditions to show their impact on average sensing and transmission times. The results revealed that our method could achieve high measurement accuracy (±1.4%), comparable to intrusive and battery-powered counterparts, thereby offering a “plug&play+deploy&forget” hybrid solution.
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非侵入式水流速率测量:一种由teg驱动的超声波传感方法
本文提出了一种热电发生器(TEG)驱动的非侵入式水流量测量超声传感系统。teg提供的有限电力由专用的能源管理单元(EMU)处理,可实现可靠的传感、计算和传输任务。首先,我们介绍了基于delta飞行时间(ΔToF)的超声传感和热电发电理论。然后进行了系统设计,并对不同采集条件下的系统进行了评估,分析了不同采集条件对平均传感和传输时间的影响。结果表明,我们的方法可以达到很高的测量精度(±1.4%),与侵入式和电池供电的同类产品相当,从而提供了“即插即用+部署和遗忘”的混合解决方案。
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