Covid-19 Research

Research Article

OCLC Number/Unique Identifier: 9227632366

How to Guarantee Food Safety via Grain Storage? An Approach to Improve Management Effectiveness by Machine Learning Algorithms

General Science    Start Submission

Jin Wang, Youjun Jiang, Li Li, Chao Yang, Ke Li, Xueping Lan, Yuchong Zhang and Jinying Chen*

Volume2-Issue8
Dates: Received: 2021-08-12 | Accepted: 2021-08-17 | Published: 2021-08-18
Pages: 675-684

Abstract

The purpose of grain storage management is to dynamically analyze the quality change of the reserved grains, adopt scientific and effective management methods to delay the speed of the quality deterioration, and reduce the loss rate during storage. At present, the supervision of the grain quality in the reserve mainly depends on the periodic measurements of the quality of the grains and the milled products. The data obtained by the above approach is accurate and reliable, but the workload is too large while the frequency is high. The obtained conclusions are also limited to the studied area and not applicable to be extended into other scenarios. Therefore, there is an urgent need of a general method that can quickly predict the quality of grains given different species, regions and storage periods based on historical data. In this study, we introduced Back-Propagation (BP) neural network algorithm and support vector machine algorithm into the quality prediction of the reserved grains. We used quality index, temperature and humidity data to build both an intertemporal prediction model and a synchronous prediction model. The results show that the BP neural network based on the storage characters from the first three periods can accurately predict the key storage characters intertemporally. The support vector machine can provide precise predictions of the key storage characters synchronously. The average predictive error for each of wheat, rice and corn is less than 15%, while the one for soybean is about 20%, all of which can meet the practical demands. In conclusion, the machine learning algorithms are helpful to improve the management effectiveness of grain storage.

FullText HTML FullText PDF DOI: 10.37871/jbres1296


Certificate of Publication




Copyright

© 2021 Wang J, et al. Distributed under Creative Commons CC-BY 4.0

How to cite this article

Wang J, Jiang Y, Li L, Yang C, Li K, Lan X, Zhang Y, Chen J. How to Guarantee Food Safety via Grain Storage? An Approach to Improve Management Effectiveness by Machine Learning Algorithms. J Biomed Res Environ Sci. 2021 Aug 18; 2(8): 675-684. doi: 10.37871/jbres1296, Article ID: JBRES1296, Available at: https://www.jelsciences.com/articles/jbres1296.pdf


Subject area(s)

University/Institute

References


  1. Cheng Du. Study on the process of different grain storage ecological regions in China. Sichuan science and technology press. 2014.
  2. Hui L, Jianxin Z, Yong F, Yulong G, Weifen Q. Microorganism and quality changes during paddy storage. Journal of the Chinese Cereals and Oils Association. 2020;35:126-131.
  3. Wang RL, Li DL, Tian ZQ, Kong XG, Dong GY, Su K. Change rule of maize quality under controlled atmosphere storage. Journal of Henan University of Technology. 2011;32:1-5
  4. Chao ZMCKG. Quality change of early indica rice storage in guangdong. Grain Science and Technology and Economy. 2016;41:57-59
  5. Wei Z, Wang J, Li X, Li L. Study on Quality Changes of Harvested Wheat in Storage Process. Academic Periodical of Farm Products Processing. 2009;92-95
  6. Zhan Q. The development history and application prospect of machine learning. Public Communication of Science & Technology. 2018;10:138-139
  7. Hu L, Liu T, Li H, Cui y. Prospects for machine learning research and its application in agriculture. Agricultural Library and Information. 2019;31:12-22. https://tinyurl.com/43k3bhfr
  8. Ma D, Zhou T, Chen J, Qi S, Shahzad M, Xiao Z. Supercritical water heat transfer coefficient prediction analysis based on BP neural network. Nuclear Engineering and Design. 2017;320:400-408. https://tinyurl.com/2dyjd8ws
  9. Xu B, Dan HC, Li L. Temperature prediction model of asphalt pavement in cold regions based on an improved BP neural network. Applied Thermal Engineering. 2017;120:568-580. https://tinyurl.com/9zywxz4
  10. Yu S. Recognition of locomotion patterns based on BP neural network during different walking speeds. 2017 Chinese Automation Congress. 2017. https://tinyurl.com/43h6v7dc
  11. Tu W, Zhong S, Shen Y, Incecik A, Fu X. Neural network-based hybrid signal processing approach for resolving thin marine protective coating by terahertz pulsed imaging. Ocean Engineering. 2019;173:58-67. https://tinyurl.com/t6s63rue
  12. Jiang N, Gu Q, Yang H, Huang J. Machine learning algorithm under big date. Computer and Information Technology. 2019;27:30-33
  13. Mao Z, Sun Y. Study on a recognition algorithm of corn tassel image. Journal of Anhui Agricultural Sciences. 2018;46:193-195.
  14. Liu T, Wang T, Hu L. Rhizocotonia Solani Recognition algorithm based on convolutional neural network. Chinese Journal of Rice Science. 2019;33:90-94
  15. Gu Z, Zhang Z, Sun J, Li B. Robust image recognition by L1-norm twin-projection support vector machine. Neurocomputing. 2017;223:1-11. https://tinyurl.com/nsewzk7d
  16. Wasan S, Ahmed A, Ahmed A. Face Recognition Approach using an Enhanced Particle Swarm Optimization and Support Vector Machine. Journal of Engineering and Applied Sciences. 2019;14:2982-2987. https://tinyurl.com/846cbxzu
  17. Chandaka S, Chatterjee A, Munshi S. Support vector machines employing cross-correlation for emotional speech recognition. Measurement. 2009;42:611-618. https://tinyurl.com/5cht4rwb
  18. Vishal Naik, Online Handwritten Gujarati Numeral Recognition Using Support Vector Machine. International Journal of Computer Sciences and Engineering. 2018;6:416-420. https://tinyurl.com/4dy2txvx
  19. Lam L, Rajprasad R, Dino I. An enhanced Support Vector Machine classification framework by using Euclidean distance function for text document categorization. Applied Intelligence. 2011;37:80-99. https://tinyurl.com/yf7x5dms
  20. Noble WS. What is a support vector machine? Nature Biotechnology. 2006;24:1565-1567. https://tinyurl.com/hjruct7t
  21. Tripathy. Rice crop yield prediction in India using support vector machines in 2016. 13th International Joint Conference on Computer Science and Software Engineering (JCSSE). 2016. https://tinyurl.com/466xhr48
  22. Yi D, Wei C, Ping Z, Shu Z. Regression method based on SVM classification and its application in production forecast. Journal of Computer Applications. 2010;30:2310-2313. https://tinyurl.com/6h6srmxv
  23. Huang T, Yang R, Huang W, Huang Y, Qiao X. Detecting sugarcane borer diseases using support vector machine. Information Processing in Agriculture. 2018;5(1):74-82 https://tinyurl.com/x79jexs
  24. Singh K, Kumar S, Kaur P. Support vector machine classifier based detection of fungal rust disease in Pea Plant (Pisam sativam). International Journal of Information Technology. 2019;11:485-492. https://tinyurl.com/bs7cjya9
  25. Shang ZZ, Weimin. The application of data mining in grain storage. Microcomputer Information. 2006;22:192-194.
  26. Gnana K, Deepa SN. Neural network based hybrid computing model for wind speed prediction. Neurocomputing. 2013;122:425-429. https://tinyurl.com/2dvkyc89
  27. Ma CM, Yang WS, Cheng BW. How the Parameters of K-nearest Neighbor Algorithm Impact on the Best Classification Accuracy: In Case of Parkinson Dataset. Journal of Applied Sciences. 2014;14:171-176. https://tinyurl.com/38h4nwm2
  28. Wang X, Liu T, Zheng X, Peng H, Xin J, Zhang B. Short-term prediction of groundwater level using improved random forest regression with a combination of random features. Applied Water Science. 2018;8:125. https://tinyurl.com/3bvsjeaj
  29. Heydari M, Olyaie E, Mohebzadeh H, Kisi O. Development of a Neural Network Technique for Prediction of Water Quality Parameters in the Delaware River, Pennsylvania. 2013. https://tinyurl.com/5fr548jh


Comments


Swift, Reliable, and studious. We aim to cherish the world by publishing precise knowledge.

  • asd
  • Brown University Library
  • University of Glasgow Library
  • University of Pennsylvania, Penn Library
  • University of Amsterdam Library
  • The University of British Columbia Library
  • UC Berkeley’s Library
  • MIT Libraries
  • Kings College London University
  • University of Texas Libraries
  • UNSW Sidney Library
  • The University of Hong Kong Libraries
  • UC Santa Barbara Library
  • University of Toronto Libraries
  • University of Oxford Library
  • Australian National University
  • ScienceOpen
  • UIC Library
  • KAUST University Library
  • Cardiff University Library
  • Ball State University Library
  • Duke University Library
  • Rutgers University Library
  • Air University Library
  • UNT University of North Texas
  • Washington Research Library Consortium
  • Penn State University Library
  • Georgetown Library
  • Princeton University Library
  • Science Gate
  • Internet Archive
  • WashingTon State University Library
  • Dimensions
  • Zenodo
  • OpenAire
  • Index Copernicus International
  • icmje
  •  International Scientific Indexing (ISI)
  • Sherpa Romeo
  • ResearchGate
  • Universidad De Lima
  • WorldCat
  • JCU Discovery
  • McGill
  • National University of Singepore Libraries
  • SearchIT
  • Scilit
  • SemantiScholar
  • Base Search
  • VU
  • KB
  • Publons
  • oaji
  • Harvard University
  • sjsu-library
  • UWLSearch
  • Florida Institute of Technology
  • CrossRef
  • LUBsearch
  • Universitat de Paris
  • Technical University of Denmark
  • ResearchBIB
  • Google Scholar
  • Microsoft Academic Search