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基于PLC的水稻插秧机转向控制系统设计OA

Design of steering control system for rice transplanter based on PLC

中文摘要英文摘要

为了提高水稻插秧的自动化水平,本文以水稻插秧机为研究对象,开展自动转向系统结构改装、控制器硬件设计、转向系统模型分析及模糊PID 控制算法设计,构建了一种基于PLC 的水稻插秧机自动转向控制系统.通过传感器实时获取插秧机的位置信息,PLC 控制系统根据控制算法进行运算,并输出相应的控制信号,通过驱动装置调整插秧机的转向角度.原地转向试验结果表明,从0°~10°的调节时间为0.9 s,最大稳态误差为0.7°;从-20°~20°的调节时间为3.1 s,稳态误差为1.1°,能满足水稻插秧机作业要求.路径跟踪试验结果表明,插秧机在直线跟踪时的响应时间为0.42 s,最大误差为3.09°,最大平均误差为0.62°,研究结果可以为插秧机无人驾驶控制系统设计提供参考.

In order to improve the automation level of rice transplanters,this paper takes rice transplanters as the re-search object,carries out structural modification of automatic steering system,hardware design of controller,analysis of steering system model,and design of fuzzy PID control algorithm.A PLC based automatic steering control system for rice transplanters is constructed.Real time position information of the rice transplanter is obtained through sensors,and the PLC control system performs calculations based on control algorithms and outputs corresponding control signals.The steering angle of the rice transplanter is adjusted through the driving device.The results of the in-situ turning test indi-cate that the adjustment time from 0° to 10° is 0.9 seconds,and the maximum steady-state error is 0.7°;The adjust-ment time from-20° to 20° is 3.1 seconds,with a steady-state error of 1.1°,which can meet the operational require-ments of rice transplanters.The path tracking test results show that the response time of the rice transplanter in linear tracking is0.42 seconds,with a maximum error of 3.09 ° and a maximum average error of 0.62°.The research results can provide reference for the design of unmanned driving control systems for rice transplanters.

魏学良

山西铁道职业技术学院,山西 太原 030013

农业科技

水稻插秧机自动转向PLC控制系统模糊PID路径跟踪

rice transplanterautomatic steeringPLC control systemfuzzy PIDpath tracking

《农机使用与维修》 2026 (8)

35-38,4

10.14031/j.cnki.njwx.2026.08.008

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