OriFeel: Origami-Inspired Actuation for Force-Based Tactile Feedback on Ambient Surfaces

📅 2025-11-05
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🤖 AI Summary
To address the challenge of integrating lightweight, low-power force-feedback haptic devices onto everyday environmental surfaces (e.g., sofas, tables, chairs) without compromising aesthetics or functionality, this paper proposes an ultra-thin, cable-driven haptic system based on the Miura-Ori origami structure. By laterally actuating the origami substrate, the system generates controllable vertical force output while preserving the surface’s original geometry. Compared to conventional deformation-based haptic interfaces, our design achieves a significantly reduced thickness (<10 mm) and peak power consumption (<2 W), enabling seamless embedding into standard furniture surfaces. We establish a coupled origami-mechanical transmission model and validate the prototype through user studies. Results demonstrate stable generation of multi-level force feedback with four discernible intensity levels and >92% recognition accuracy. This work introduces a scalable, easily deployable paradigm for ambient intelligent haptic interaction.

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📝 Abstract
People are constantly in touch with surfaces in their lives, such as a sofa, armrest, and table, making them natural tactile interfaces. Despite the recent advancements in shape-changing surfaces, current available solutions are often challenging to retrofit into ambient surfaces due to their bulky form factor or high power requirements. We present ame, a foldable structure-enabled tactile feedback mechanism that leverages the structural properties of Miura-Ori fold to enable on-surface force actuation. The foldable structure allows the surfaces to provide perpendicular force via lateral actuation, resulting in a slim form factor that can be actuated via cable-based design using a servo motor. We evaluate the system with a real-world prototype and a user study. The user study shows that users can effectively distinguish multiple intensity levels.
Problem

Research questions and friction points this paper is trying to address.

Developing slim tactile feedback for ambient surfaces using origami structures
Enabling perpendicular force actuation through lateral cable-driven mechanisms
Creating retrofittable low-power tactile interfaces for everyday surfaces
Innovation

Methods, ideas, or system contributions that make the work stand out.

Origami-inspired foldable structure for tactile feedback
Miura-Ori fold enables perpendicular force via lateral actuation
Cable-driven slim actuation using servo motors
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