Tactile Feedback
Tactile feedback research aims to equip robots with a sense of touch, enabling them to interact with their environment more dexterously and robustly. Current research focuses on developing advanced tactile sensors, integrating them with control algorithms (like reinforcement learning and active inference), and applying these systems to diverse manipulation tasks, including insertion, grasping, and object manipulation in unstructured environments. This work is significant because it bridges the gap between robotic manipulation and human-like dexterity, with potential applications in prosthetics, surgery, manufacturing, and human-robot collaboration. The use of deep learning models, particularly neural networks and transformers, is prominent in processing tactile data and learning control policies.
Papers
Vibrotactile Feedback for a Remote Operated Robot with Noise Subtraction Based on Perceived Intensity
Ryoma Yamawaki, Takeru Shimamura, Noel Alejandro Avila Campos, Masashi Konyo, Shotaro Kojima, Ranulfo Bezerra, Satoshi Tadokoro
EnchantedClothes: Visual and Tactile Feedback with an Abdomen-Attached Robot through Clothes
Takumi Yamamoto, Rin Yoshimura, Yuta Sugiura
Examining the physical and psychological effects of combining multimodal feedback with continuous control in prosthetic hands
Digby Chappell, Zeyu Yang, Angus B. Clark, Alexandre Berkovic, Colin Laganier, Weston Baxter, Fernando Bello, Petar Kormushev, Nicolas Rojas
Built Different: Tactile Perception to Overcome Cross-Embodiment Capability Differences in Collaborative Manipulation
William van den Bogert, Madhavan Iyengar, Nima Fazeli