Development of a flexible electronic control unit for seamless integration of machine vision to CAN-enabled boom sprayers for spot application technology

IF 6.3 Q1 AGRICULTURAL ENGINEERING Smart agricultural technology Pub Date : 2024-10-26 DOI:10.1016/j.atech.2024.100618
Mozammel Bin Motalab, Ahmad Al-Mallahi
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Abstract

This research work aimed to develop an Electronic Control Unit (ECU) to establish a flexible bridge between machine vision and boom sprayer to control nozzles individually for pesticide spot application based on the Controller Area Network (CAN). The ECU consisted of two electronic entities. The first used UART protocol to parse machine vision messages, detect pest areas, and convert them into binary arrays for nozzle activation. The second received these arrays and generated nozzle controller CAN frames which were broadcast to control the sprayer nozzles on the implement bus. The ECU was tested in four scenarios involving combinations of three machine vision systems and two nozzle systems. The lab tests confirmed, assuming accurate detections, the ECU successfully sent spray commands to all targets across various camera-nozzle ratios. However, at specific ratios (1:3 and 1:6), some nozzles opened in unintended patterns. In the fourth scenario conducted in the field at a 1:2 ratio, all targets were sprayed regardless of their dimensions and distribution in the field. In this scenario, the sprayer operated at speeds of 3.22 km/h, 6.44 km/h, and 9.66 km/h, demonstrating real-time spraying with 55° angled nozzles, where the ECU sent CAN messages every 10ms and issued 400 ms spray commands upon detection, achieving a minimum spray length of 345 mm per detection.
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开发灵活的电子控制装置,将机器视觉无缝集成到支持 CAN 的臂式喷雾器中,用于点喷技术
这项研究工作旨在开发一种电子控制单元(ECU),以便在机器视觉和臂式喷洒器之间建立一座灵活的桥梁,从而基于控制器局域网(CAN)控制喷嘴单独进行杀虫剂定点喷洒。ECU 由两个电子实体组成。第一个电子实体使用 UART 协议解析机器视觉信息,检测害虫区域,并将其转换为二进制数组,用于激活喷嘴。第二个电子实体接收这些数组,并生成喷嘴控制器 CAN 框架,通过广播控制机具总线上的喷雾器喷嘴。ECU 在四种情况下进行了测试,涉及三个机器视觉系统和两个喷嘴系统的组合。实验室测试证实,假定检测准确,ECU 在不同的摄像头-喷嘴比例下都能成功地向所有目标发送喷洒指令。然而,在特定比例(1:3 和 1:6)下,一些喷嘴以非预期模式打开。在田间以 1:2 的比例进行的第四种情景中,所有目标都被喷洒,而不管它们的尺寸和在田间的分布情况如何。在这一场景中,喷雾器的运行速度分别为 3.22 公里/小时、6.44 公里/小时和 9.66 公里/小时,演示了使用 55° 角喷嘴进行实时喷雾的情况,其中 ECU 每 10 毫秒发送一次 CAN 信息,并在检测到目标时发出 400 毫秒的喷雾指令,实现了每次检测的最小喷雾长度为 345 毫米。
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