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A Bayesian-Influence Model for Error Probability Analysis of Combine Operations in Harvesting
Author(s) -
Yu Du,
Michael C. Dorneich,
Brian L. Steward,
Cameron A. MacKenzie
Publication year - 2016
Publication title -
proceedings of the human factors and ergonomics society annual meeting
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.207
H-Index - 43
eISSN - 1541-9312
pISSN - 1071-1813
DOI - 10.1177/1541931213601325
Subject(s) - operator (biology) , bayesian probability , computer science , bayesian network , task (project management) , combine harvester , sensitivity (control systems) , human error , bayesian average , cropping , machine learning , artificial intelligence , agriculture , bayesian inference , mathematics , statistics , engineering , bayesian statistics , systems engineering , repressor , electronic engineering , ecology , chemistry , biology , biochemistry , transcription factor , mechanical engineering , gene
Harvesting is one of the most important agricultural operations because it captures the value from the entire cropping season. In modern agriculture, grain harvesting has been mechanized through the combine harvester. A combine harvester enables highly productive crop harvesting. Combine harvesting performance depends on the highly variable skill of combine operators and associated operator error. An approach was developed to analyze the risk of the combine harvesting operation as it relates to operator error. Specifically, a risk analysis model was built based on a task analysis from operator interviews and estimates of the probability of operator error. This paper employs a Bayesian approach to assess risks in combine operation. This approach applies a Bayesian Belief Network to agriculture operations, which represents a new application for this risk analysis tool. Sensitivity analysis of different errors and operator skill levels was also performed. The preliminary results indicate that a reduction of human operator action errors can substantially improve the outcomes of the human-machine interaction.

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