Transformable Soft Gripper: Uniting Grasping and Suction for Amphibious Cross-Scale Objects Grasping.

Tianle Pan, Jianshu Zhou, Zihao Zhang, Huayu Zhang, Jinfei Hu, Jiajun An, Yunhui Liu, Xin Ma
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Abstract

Robotic grasping plays a pivotal role in real-world interactions for robots. Existing grippers often limit functionality to a single grasping mode-picking or suction. While picking handles smaller objects and suction adapts to larger ones, integrating these modes breaks scale boundaries, expanding the robot's potential in real applications. This article introduces grasping modes transformable soft gripper capable of achieving amphibious cross-scale objects grasping. Despite its compact and fully scalable design (20 mm in diameter prototype), it morphs into two configurations, gripping objects from 10% (2 mm) to over 1000% (200 mm) of its size, spanning a vast 100-fold range. To enhance its grasping efficacy, we derived theoretical analytical models for the two distinct grasping modes. Subsequently, we present a detailed illustration of the gripper's fabrication process. Experimental validation demonstrates the gripper's success in attaching or detaching everyday items and industrial products, achieving high success rates in both air and underwater scenarios. Amphibious grasping and card manipulation demonstrations underscore the practicality of this transformative soft robotics approach.

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可变形软抓手:将抓取和吸力结合起来,实现两栖跨尺度物体抓取。
机器人抓取在现实世界的机器人互动中起着举足轻重的作用。现有的抓取器通常将功能限制在单一的抓取模式--拾取或抽吸。拾取可处理较小的物体,而吸力可适应较大的物体,将这些模式整合在一起可打破尺度界限,扩大机器人在实际应用中的潜力。本文介绍了能够实现两栖跨尺度物体抓取的抓取模式可转换软抓手。尽管其设计紧凑且完全可扩展(原型直径为 20 毫米),但它可变形为两种配置,可抓取大小为其 10%(2 毫米)到 1000%(200 毫米)以上的物体,跨越了 100 倍的广阔范围。为了提高其抓取效率,我们推导出了两种不同抓取模式的理论分析模型。随后,我们详细介绍了该机械手的制造过程。实验验证表明,该机械手能够成功地吸附或分离日常用品和工业产品,在空中和水下场景中均实现了较高的成功率。两栖抓取和卡片操作演示强调了这种变革性软机器人方法的实用性。
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