Land Division Method for Agricultural Machinery Operation Based on DBSCAN and BP_Adaboost

LI Yashuo, ZHAO Bo, WANG Changwei, XU Minghan, WEI Liguo, PANG Zaixi

Abstract

Agricultural machinery operates in multiple plots, and the cost and efficiency sometimes need to be counted according to the plots. The existing agricultural machinery monitoring system can only record the positioning information and operation status information of agricultural machinery, which is difficult to realize the automatic and accurate division of plots. By studying the attribute characteristics of track points, the uncertainty of the number of work plots and the distribution law of track points were analyzed, and the combination of density clustering method (density-based spatial clustering of applications with noise, DBSCAN) and weak classifier integration algorithm (BP_Adaboost) were used to divide the plots. According to the characteristics that DBSCAN method is effective for most agricultural machinery trajectory points and the recognition error is concentrated, combined with BP_Adaboost method to mine multi-dimensional information association, strong fault tolerance, good classification effect and other advantages. Firstly, DBSCAN was used to obtain the preliminary track point state category, and then the method of BP_Adaboost was used to establish a training model to accurately identify the track point state of agricultural machinery, and divide the land mass according to time series and category markers. The method not only solved the problem of inaccurate clustering only relying on threshold and longitude and latitude information, but also reduced a lot of sample labeling work. Using this method, the accuracy of track point state recognition was 96.75%, and the accuracy of plot division was 97.74%.


Keywords: agricultural machinery, operation track, parcel division, density clustering algorithm, classifier ensemble algorithm

 

Download Full Text:

PDF


References


ZHANG Fengzhao, LIU Ruihua, NI Yude, et al. Dynamic positioning accuracy test and analysis of BeiDou satellite navigation system [ J ]. Global Positioning System, 2018, 43 ( 1 ) : 43 -48. (in Chinese)

ZHENG Yili, ZHAO Yandong, LIU Weiping, et al. Forest microclimate monitoring system based on Beidou satellite [ J ]. Transactions of the Chinese Society for Agricultural Machinery, 2018, 49(2) : 217 -224. ( in Chinese)

LI Daoliang. Internet of things and intelligent agriculture [ J ]. Agricultural Engineering, 2012, 2( 1 ) ; 1 -7. (in Chinese)

CHEN Y F. Discussion on the relationship between intelligent controland agricultural internet of things in agricultural complex largesystem [ J ]. Agricultural Network Information, 2012,2:8-12.

LIU Hui, QIAO Yujie, ZHAO Guofa, et al. Agricultural machinery abnormal trajectory recognition[ J ]. International Journal of Machine Learning and Computing, 2021 , 1 1(4) : 291 -297.

LIU L X, SONG J T, GUAN B, et al. Tra — DBScanj a algorithm of clustering trajectories [ J ]. Applied Mechanics & Materials, 2012, 121 - 126 :4875 - 4879.

WU Di, DU Yunyan, YI Jiawei, et al. Density-based spatiotemporal clustering analysis of trajectories [ J ]. Journal of Geo- Information Science, 2015, 17(10); 1162-1171.

LIU Dayou, CHEN Huiling, QI Hong, et al. Advances in spatiotemporal data miningfj]. Journal of Computer Research and Development, 2013, 50(2) ; 225 -239. (in Chinese)

SHAW S, YU Hongbo, LEONARD S B. A space-time GIS approach to exploring large individual-based spatiotemporal datasets [J]. Transactions in GIS,2008,12(4) :425 -441.

WANG Pei, MENG Zhijun, YIN Yanxin, et al. Automatic recognition algorithm of field operation status based on spatial track of agricultural machinery and corresponding experiment [ J ]. Transactions of the CSAE, 2015, 31(3) :56 -61. (in Chinese)

JOKINEN J, RATY T, LINTONEN T. Clustering structure analysis in time-series data with density-based clusterability Measure [J]. Automatica Sinica, IEEE/C A A Journal of Automatica Sinica, 2019, 6(6) ; 1332 - 1343.

TURSUN Mamat, XIE Jianhua. Research on clustering of agricultural machinery operation trajectory based on DBSCAN algorithm [J]. Journal of Agricultural Mechanization Research, 2017,39(4) ;7 - 11. (in Chinese)

SCITO V К R, MAJSTOROVI S, SABO K. A combination of RANSAC and DBSCAN methods for solving the multiple geometrical object detection problem [J ]. Journal of Global Optimization, 2021 , 79(3) : 669 -686.

XUE X, HUANG S, XIE J, et al. Resolvable cluster target tracking based on the DBSCAN clustering algorithm and labeled RFS[ J]. IEEE Access, 2021 , 9: 43364 -43377.

ZHANG Tianyi, DING Lixin. A new resampling method based on SMOTE for imbalanced data set[J ]. Computer Applications and Software, 2021 , 38(9) :273 -279. (in Chinese)

LIU С L,HSIEH P Y. Model-based synthetic sampling for imbalanced data [ J ]. IEEE Transactions on Knowledge and Data Engineering,2020,32(8) : 1543 - 1556.

DOUZAS G, BACAO F,LAST F. Improving imbalanced learning through a heuristic oversampling method based on к-means and SMOTE[ J ]. Information Sciences,2018 ,465 :1 — 20

LI N, CHENG X, ZHANG S, et al. Recognizing human actions by BP — AdaBoost algorithm under a hierarchical recognition framework [ С ]//2013 IEEE International Conference on Acoustics Speech and Signal Processing, 2013 ; 3407 -3411.

LI Bei, ZHANG Xinggan, FANG Hui. An improved algorithm of BP - Adaboost and application of radar multi-target classification[ J ]. Journal of Nanjing University( Natural Science) , 2017, 53(5) ; 984 -989. ( in Chinese)

SHI Huixian, MENG Xiangzhen, YOU Yucheng, et al. Prediction and verification on heating load of source heat pump heating system based on BP neural network for plant facyory [j]. Transactions of the CSAE, 2019, 35(2) ; 196 -202. (in Chinese)


Refbacks

  • There are currently no refbacks.