农机化研究
農機化研究
농궤화연구
Journal of Agricultural Mechanization Research
2016年
6期
21-25
,共5页
宣峰%朱清智%梁硕%汪小志
宣峰%硃清智%樑碩%汪小誌
선봉%주청지%량석%왕소지
施肥精度%PLC控制%激光扫描%反馈调节
施肥精度%PLC控製%激光掃描%反饋調節
시비정도%PLC공제%격광소묘%반궤조절
precision fertilization%PLC control%laser scanning%feedback control
为了提高施肥的精度,实现施肥过程的自动化,设计了一款新的激光扫描定位PLC 自动化控制的精密施肥机器人. 采用PID调节的方式设计了机器人的PLC控制闭环系统,以激光扫描得到的施肥深度为依据,通过逻辑判断调整变速器的传动比,实现不同深度的施肥效果,提高了施肥作业的智能化水平及施肥的精度. 为了验证装置的有效性和可靠性,在田间对精密施肥机器人进行了测试. 田间测试发现:对于施肥长度为50 m的作业,所设计的施肥机器人的施肥时间明显降低,大大提高了作业效率,施肥合格率明显高于传统的施肥机器人,可在精密化施肥和自动化农业生产中进行推广.
為瞭提高施肥的精度,實現施肥過程的自動化,設計瞭一款新的激光掃描定位PLC 自動化控製的精密施肥機器人. 採用PID調節的方式設計瞭機器人的PLC控製閉環繫統,以激光掃描得到的施肥深度為依據,通過邏輯判斷調整變速器的傳動比,實現不同深度的施肥效果,提高瞭施肥作業的智能化水平及施肥的精度. 為瞭驗證裝置的有效性和可靠性,在田間對精密施肥機器人進行瞭測試. 田間測試髮現:對于施肥長度為50 m的作業,所設計的施肥機器人的施肥時間明顯降低,大大提高瞭作業效率,施肥閤格率明顯高于傳統的施肥機器人,可在精密化施肥和自動化農業生產中進行推廣.
위료제고시비적정도,실현시비과정적자동화,설계료일관신적격광소묘정위PLC 자동화공제적정밀시비궤기인. 채용PID조절적방식설계료궤기인적PLC공제폐배계통,이격광소묘득도적시비심도위의거,통과라집판단조정변속기적전동비,실현불동심도적시비효과,제고료시비작업적지능화수평급시비적정도. 위료험증장치적유효성화가고성,재전간대정밀시비궤기인진행료측시. 전간측시발현:대우시비장도위50 m적작업,소설계적시비궤기인적시비시간명현강저,대대제고료작업효솔,시비합격솔명현고우전통적시비궤기인,가재정밀화시비화자동화농업생산중진행추엄.
In order to improve fertilizing precision , fertilization process automation , design a new laser scanning and po-sitioning of the PLC automatic control of precision fertilization robot .Using PID methods to adjust the design of the robot PLC closed-loop control system , the system of fertilization depth by laser scanning as the basis , determine the transmis-sion ratio through the transmission adjustment logic , achieve different depth of fertilization effect , improve the intelligent level of fertilization , the effectiveness of high precision fertilization device in order to verify in the field of precision and reliability, fertilization robot was tested by field test , found that, for the fertilization of length 50m fertilization, fertiliza-tion robot designed in this paper the fertilization time is significantly reduced , thereby greatly improving the work efficien-cy , the qualified rate of fertilization was higher than that of the traditional fertilization robot , thus greatly improve the qualified rate of fertilization , which can be used in precision fertilization and automation in agricultural production .