On the co-integration of a thermo-resistive flow-rate sensor in a multi-parameter sensing chip for water network monitoring

Ferdous Shaun, E. Nefzaoui, Hugo Regina, W. Cesar, F. Marty, Martine Capochichi-Gnambodoe, P. Poulichet, P. Basset, Francesco Peressuti, Sreyash Sarkar, T. Bourouina
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引用次数: 2

Abstract

Motivated by the need for a multi-parameter sensing chip for water networks monitoring, we address here the specific case of a flow-rate sensor where the main challenge is the substrate material. Instead of using conventional low thermal conductivity materials such as glass, silicon has to be used. Indeed, a silicon substrate enables the co-integration of various kinds of sensors on the same chip as reported in this contribution. However, it increases the flow-rate sensor power consumption due to larger thermal leaks. We therefore design and study an optimized low power micro-machined thermal flow-rate sensor based on a silicon substrate and operating according to hot-wire anemometry. It can be considered as an alternative to other well established sensors for liquid flow-rate measurement when both the use of a silicon substrate and a low power consumption are needed.
热阻流量传感器在水网监测多参数传感芯片中的协整研究
由于需要用于水网监测的多参数传感芯片,我们在这里讨论流量传感器的具体情况,其中主要挑战是衬底材料。而不是使用传统的低导热材料,如玻璃,硅必须使用。事实上,硅衬底可以在同一芯片上实现各种传感器的协整。然而,由于较大的热泄漏,它增加了流量传感器的功耗。因此,我们设计和研究了一种优化的基于硅衬底的低功耗微机械热流率传感器,并根据热线风速法工作。当需要使用硅衬底和低功耗时,它可以被认为是其他成熟的液体流量测量传感器的替代方案。
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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