释放多功能性:用于复杂表面处理的磁动可展开吸力夹具。

Soft robotics Pub Date : 2024-12-01 Epub Date: 2024-06-05 DOI:10.1089/soro.2023.0250
Vera G Kortman, Ellen de Vries, Jovana Jovanova, Aimée Sakes
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引用次数: 0

摘要

吸力机械手在处理各种物品方面具有明显的优势。然而,如何将这些机械手吸附到不规则和粗糙的表面上一直是个难题。为解决这一难题,本研究探讨了将磁智能集成到软吸力机械手设计中,从而实现快速外部磁驱动附着过程。此外,通过采用顺应式展开机制,还增强了微型化选项。最终的设计是首创的磁驱动可展开吸力抓手,其特点是在硅树脂基质中嵌入了由羰基铁颗粒组成的薄磁膜(直径 50 毫米)。该薄膜由超弹性镍钛诺丝制成的框架支撑,便于展开。在实验过程中,原理验证原型展示了在干燥和潮湿环境中成功附着在各种曲面上的效果。目前的机械手设计实现了 75% 的折叠率,使其能够装入直径为 12.5 毫米的管子中,并进入难以触及的区域,同时保持足够的表面积以实现附着力。所提出的原型是进一步研究开发可靠有效的各种配置磁动吸力夹具的基石。通过解决不规则表面附着的局限性以及探索微型化和精确控制的可能性,这项研究为吸力机械手在不同行业和场景中的实际应用开辟了新的途径。
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Unlocking Versatility: Magnetic-Actuated Deployable Suction Gripper for Complex Surface Handling.

Suction grippers offer a distinct advantage in their ability to handle a wide range of items. However, attaching these grippers to irregular and rough surfaces presents an ongoing challenge. To address this obstacle, this study explores the integration of magnetic intelligence into a soft suction gripper design, enabling fast external magnetic actuation of the attachment process. Additionally, miniaturization options are enhanced by implementing a compliant deploying mechanism. The resulting design is the first-of-its-kind magnetically-actuated deployable suction gripper featuring a thin magnetic membrane (Ø 50 mm) composed of carbonyl iron particles embedded in a silicone matrix. This membrane is supported by a frame made of superelastic nitinol wires that facilitate deployment. During experiments, the proof-of-principle prototype demonstrates successful attachment on a diverse range of curved surfaces in both dry and wet environments. The gripper achieves attachment on curved surfaces with radii of 50-75 mm, exerting a maximum attachment force of 2.89 ± 0.54 N. The current gripper design achieves a folding percentage of 75%, enabling it to fit into a Ø 12.5 mm tube and access hard-to-reach areas while maintaining sufficient surface area for attachment forces. The proposed prototype serves as a foundational steppingstone for further research in the development of reliable and effective magnetically-actuated suction grippers across various configurations. By addressing the limitations of attachment to irregular surfaces and exploring possibilities for miniaturization and precise control, this study opens new avenues for the practical application of suction grippers in diverse industries and scenarios.

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