Object recognition using tactile sensing in a robotic gripper

V. Riffo, C. Pieringer, S. Flores, C. Carrasco
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引用次数: 2

Abstract

Object recognition using the tactile sense is one of the leading human capacities. This capability is not as developed in robotics as other sensory abilities, for example visual recognition. In addition to a robot's ability to grasp objects without damaging them, it is also helpful to provide these machines with the ability to recognise objects while gently manipulating them, as humans do in the absence of or complementary to other senses. Advances in sensory technology have allowed for the accurate detection of different types of environment; however, the challenge of being able to efficiently represent sensory information persists. In this paper, a sensory system is proposed that allows a robotic gripper armed with pressure sensors to recognise objects through tactile manipulation. A pressure descriptor is designed to characterise the voltage magnitudes across different objects and, finally, machine learning algorithms are used to recognise each object category. The results show that the pressure descriptor characterises the different classes of objects in this experimental set-up. This system can complement other sensory data to perform different tasks in a robotic environment and future research areas are proposed to handle problems with tactile manipulation.
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在机器人抓取器中使用触觉感知的物体识别
利用触觉识别物体是人类的主要能力之一。这种能力在机器人技术中并不像其他感官能力(例如视觉识别)那样发达。除了让机器人能够在不损坏物体的情况下抓住物体之外,让这些机器在轻轻操纵物体的同时识别物体的能力也很有帮助,就像人类在缺乏或补充其他感官时所做的那样。感官技术的进步使人们能够准确地探测不同类型的环境;然而,如何有效地表达感官信息的挑战依然存在。在本文中,提出了一种感官系统,允许配备压力传感器的机器人抓手通过触觉操作识别物体。设计一个压力描述符来描述不同物体之间的电压大小,最后,使用机器学习算法来识别每个物体类别。结果表明,在这个实验装置中,压力描述符表征了不同类别的物体。该系统可以补充其他感官数据,在机器人环境中执行不同的任务,并提出了未来的研究领域,以解决触觉操作问题。
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