Design of micro-fabricated thermal flow-rate sensor for water network monitoring

Ferdous Shaun, Hugo Regina, F. Marty, E. Nefzaoui, T. Bourouina, W. Cesar
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引用次数: 7

Abstract

We report on micro-machined flow-rate sensors as part of autonomous multi-parameter sensing devices for water network monitoring. Three different versions of the flow-rate sensors have been designed, fabricated and experimentally characterized. Those sensors are made of identical micrometric platinum resistors deposited on two different substrates-glass and silicon with and without insulation layer. The sensors were tested under the anemometric operating scheme. They were characterized under a water velocity range from 0 to 3.68 m/s. We highlight the fact that the glass substrate device is more sensitive and less power-consuming than the silicon one under the identical operating condition, which requires further design strategies when using silicon as the substrate material. Experimental results are analyzed with respect to CFD simulations with the Finite Element Method.
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用于水网监测的微加工热流量传感器设计
我们报告了微机械流量传感器作为自主多参数传感装置的一部分,用于水网监测。设计、制作了三种不同版本的流量传感器,并对其进行了实验表征。这些传感器是由相同的微米级铂电阻制成的,它们被放置在两种不同的基板上——有和没有绝缘层的玻璃和硅。在风速操作方案下对传感器进行了测试。它们在0 ~ 3.68 m/s的流速范围内进行了表征。我们强调,在相同的工作条件下,玻璃基板器件比硅基板器件更敏感,功耗更低,这需要在使用硅基板材料时进一步设计策略。用有限元方法对实验结果进行了CFD模拟分析。
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