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マニピュレーションarXiv:2502.00926

能動的に把持摩擦を調整できる構造化空気圧フィンガーパッド

Structured Pneumatic Fingerpads for Actively Tunable Grip Friction

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低コストで修理が容易な空気圧フィンガーパッドを開発し、表面形状の変化により把持摩擦を最大2.8倍調整できることを示した。

著者: Katherine Allison, Jonathan Kelly, Benjamin Hatton

分類: cs.RO

原文アブストラクト

Grip surfaces with tunable friction can actively modify contact conditions, enabling transitions between higher- and lower-friction states for grasp adjustment. Friction can be increased to grip securely and then decreased to gently release (e.g., for handovers) or manipulate in-hand. Recent friction-tuning surface designs using soft pneumatic chambers show good control over grip friction; however, most require complex fabrication processes and/or custom gripper hardware. We present a practical structured fingerpad design for friction tuning that uses less than $1 USD of materials, takes only seconds to repair, and is easily adapted to existing grippers. Our design uses surface morphology changes to tune friction. The fingerpad is actuated by pressurizing its internal chambers, thereby deflecting its flexible grip surface out from or into these chambers. We characterize the friction-tuning capabilities of our design by measuring the shear force required to pull an object from a gripper equipped with two independently actuated fingerpads. Our results show that varying actuation pressure and timing changes the magnitude of friction forces on a gripped object by up to a factor of 2.8. We demonstrate additional features including macro-scale interlocking behaviour and pressure-based object detection.

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