基于人决策的果蔬采摘机器人对目标的识别与定位

Yu Chen, Binbin Chen, Haitao Li
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引用次数: 0

摘要

采摘机器人的关键是在果蔬采摘现场进行准确的识别和定位。本文提出了一种基于人的决策方法。人工决策可以克服光环境、叶片遮荫、果实成熟、果实重叠等带来的困难。首先,利用双目视觉系统获取果蔬采摘现场的近景图像;第二,人工决策选择采摘点;然后,基于极极几何在屏幕上点击拾取点对应的点;最后,利用坐标变换计算拾取点的空间值。室内黄瓜采摘模拟实验(4组,每组10个采摘点)显示,获得的最大误差在视觉深度方向为15.1mm,在水平方向为8.7mm。这两种错误都没有规则模式,这是由于研究人员点击拾取点时像素不准确造成的。同时,光照条件,无论是晴天还是阴天,对识别和定位的准确性影响不大。研究表明,该方法能够满足果蔬采摘机器人对采摘点的准确识别和定位需求,可应用于果蔬采摘机器人的设计中,在实践中提高了采摘机器人的简洁性和准确性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Object identification and location used by the fruit and vegetable picking robot based on human-decision making
The key to a picking robot is to identify and locate accurately in a fruit and vegetable picking site. This paper presented a method that was based on human-decision making. The human-decision making could overcome the difficulties brought by light environment, leaves shading, fruit ripening, fruit overlapping, etc. First, the binocular vision system was applied to obtain close-range pictures of the fruit and vegetable picking site; second, the picking points were chosen by human-decision making; then, the corresponding points of picking points were clicked on the screen based on epipolar geometry; finally, the coordinate transformation was used to calculate the spatial value of the picking points. The simulation experiment of cucumber picking (4 groups, 10 picking points in each group) in lab shown the maximum errors obtained were 15.1mm in vision depth direction and 8.7mm in horizontal direction. Both errors had no regular pattern, which was caused by inaccuracy in pixel when researchers click the picking points. Meanwhile, light condition, whether sunny or cloudy, had little effect on accuracy of identification and location. The research displays that this method can satisfy the need of accurate identification and location of picking points by the robot so it can be applied in design of the fruit and vegetable picking robot, improving the picking robot's quality of simplicity and accuracy in practice.
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