Development of Inductive Sensor for Control Gate Opening of an Agricultural Irrigation System

Daniel A. Basterrechea, Javier Rocher, L. Parra, Jaime Lloret
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Abstract

The monitoring of water level in the agriculture irrigation channels is essential to control the opening gates of these channels. In this way, WSNs (Wireless Sensor Networks) have high relevance to obtain this kind of data. In this paper, we propose a sensor to measure the depth changes in irrigation channels to control the gates opening. It is connected to an Adafruit Feather HUZZAH based on ESP8266, which allows us to build a mobile edge computing system. The developed sensor is based on two coils. Sinus-wave powers the first one, and the second is induced. The coils are winding over a polyvinyl chloride (PVC) that has high resistance for corrosion and low price. Besides, we use copper wire as a conductive metal. We test two different configurations of coils. P1 has five spires for the powered coil (PC) and ten spires for the induced coil (IC). On the other hand, P2 has 40 spires for the PC and 80 spires for the IC. The two prototypes were coiled in one layer. Then, both sensors are tested using a glass bottle where the water column increased with the target to obtain the information of the depth. In both prototypes, the difference of voltage between the maximum and minimum studied depths is more or less the same, 4.46V for P1 and 4.44V for P2. Nevertheless, during the stabilization test, the P1 showed better adaptation for the turbulences than the P2. The P1 shows an oscillation of 0.48V, where the P2 has a maximum fluctuation of 3.2V.
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农业灌溉系统闸门开启控制电感式传感器的研制
农业灌渠水位监测是控制农业灌渠开闸的重要手段。因此,无线传感器网络(WSNs)对获取此类数据具有很高的相关性。在本文中,我们提出了一种传感器来测量灌溉渠的深度变化,以控制闸门的开启。它连接到一个基于ESP8266的Adafruit Feather HUZZAH,使我们能够构建一个移动边缘计算系统。所开发的传感器是基于两个线圈。正弦波驱动第一个,第二个是诱导的。线圈缠绕在聚氯乙烯(PVC)上,具有高耐腐蚀性和低价格。此外,我们使用铜线作为导电金属。我们测试了两种不同配置的线圈。P1有五个尖塔用于供电线圈(PC)和十个尖塔用于感应线圈(IC)。另一方面,P2有40个尖塔用于PC, 80个尖塔用于IC。两个原型卷成一层。然后,用玻璃瓶测试两个传感器,其中水柱随着目标的增加而增加,以获得深度信息。在两个原型中,最大和最小研究深度之间的电压差大致相同,P1为4.46V, P2为4.44V。然而,在稳定试验中,P1对湍流的适应性优于P2。P1的振荡为0.48V, P2的最大波动为3.2V。
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