ETRI-Knowledge Sharing Plaform

KOREAN
논문 검색
Type SCI
Year ~ Keyword

Detail

Journal Article Dynamically reconfigurable shape-morphing and tactile display via hydraulically coupled mergeable and splittable PVC gel actuator
Cited 2 time in scopus Download 163 time Share share facebook twitter linkedin kakaostory
Authors
Seung-Yeon Jang, Minjae Cho, Hyunwoo Kim, Meejeong Choi, Seongcheol Mun, Jung-Hwan Youn, Jihwan Park, Geonwoo Hwang, Inwook Hwang, Sungryul Yun, Ki-Uk Kyung
Issue Date
2024-09
Citation
SCIENCE ADVANCES, v.10, no.39, pp.1-13
ISSN
2375-2548
Publisher
AMER ASSOC ADVANCEMENT SCIENCE
Language
English
Type
Journal Article
DOI
https://dx.doi.org/10.1126/sciadv.adq2024
Abstract
Shape-morphing displays alter their surface geometry to convey information through three-dimensional shapes. However, rapid transformation into seamless shapes with multimodal tactile sensations poses challenges. Here, we introduce a versatile soft shape-morphing and tactile display, using a novel actuator that combines a PVC gel composite, dielectric liquid, and an electrode array. Proposed device facilitates on-demand liquid flow control through electrohydraulic actuation. Liquid channels within the device can be dynamically reconfigured using localized electrostatic zipping, enabling swift shape morphing and reconfiguration into diverse seamless 3D shapes. Our device achieves a large deformation and high output force, in a slim and lightweight framework. It also offers various haptic feedback, including dynamic tactile patterns and vibrations for localizable surface textures on the morphed shape. Additionally, its potential in robotics was demonstrated through high-speed object manipulation, leveraging liquid flow-induced inertia. In summary, our innovative soft shape-morphing tactile display could open new ways that we interact with technology, offering a more immersive and intuitive experience.
KSP Keywords
3D shape, Dielectric liquid, Dynamically Reconfigurable, Electrode Array, Electrohydraulic actuation, Flow control, Flow-induced, Haptic Feedback, High Speed, Large Deformation, Lightweight framework
This work is distributed under the term of Creative Commons License (CCL)
(CC BY NC)
CC BY NC