Study and realization of a fluidic thermal gyrometer

G. Kock, P. Combette, B. Chariot, A. Giani, Markus Schneider, C. Gauthier-Blum
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引用次数: 7

Abstract

This paper presents the study, manufacturing and characterization of a single-axis jet flow gyrometer. The operating principle of the device is based on the deflection of a laminar gas stream due to the Coriolis effect; it is then a gyrometer with no solid proof mass. A warm gas jet is generated by a micropump through a microfluidic channel opening into a cavity. Two temperature detectors are placed symmetrically with respect to the axis of the flow and their differential temperature is measured. The latter is a function of the rotational velocity applied to the system. The influence of flow velocity on the sensitivity was studied. In addition, the simulation allowed us to determine an optimum detectors geometry in order to find the best sensitivity. The numerical study also made it possible to determine an optimum detectors position (1000 μm) in order to define a compromise between high sensitivity and large measuring range.
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流体热陀螺仪的研究与实现
本文介绍了单轴射流陀螺仪的研究、制造和性能表征。该装置的工作原理是基于层流气流由于科里奥利效应的偏转;它是一个没有坚固质量的陀螺仪。热气体射流由微泵通过微流体通道进入空腔产生。两个温度探测器相对于气流轴对称放置,测量它们的温差。后者是作用于系统的旋转速度的函数。研究了流速对灵敏度的影响。此外,模拟使我们能够确定最佳的探测器几何形状,以找到最佳的灵敏度。数值研究还使确定最佳探测器位置(1000 μm)成为可能,以确定高灵敏度和大测量范围之间的折衷。
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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