Ju Hunpyo, Park Hyeongoh, Kim Namyun, Lim Jeonggeun, Jung Dongwuk, Lee Jongho
School of Mechanical Engineering, Gwangju Institute of Science and Technology (GIST), Gwangju, Republic of Korea.
Department of Electrical and Computer Engineering, Seoul National University, Seoul, Republic of Korea.
Soft Robot. 2022 Aug;9(4):767-775. doi: 10.1089/soro.2021.0046. Epub 2021 Oct 25.
Actively reconfigurable flexible electronics enabled by robotic technologies would provide opportunities to extensively broaden the application areas of flexible electronics compared with their passively flexible counterparts. Diverse reconfigurable shapes can be enabled by localized control of the film-type electronics while keeping a thin form factor for flexible electronics. The flexible electronics are usually designed to be thin to lower mechanical stress or strain when bending. In this article, we present a locally actuatable film designed to control actuating regions, bending directions, and curvatures by the electrical inputs. The film is in a thin form factor with multichannels realized by the proposed method of crimping electrical wires over shape memory alloy wires. The industry standard process should be convenient in terms of scaling up, increasing channels, or adding reconfigurable shapes for new applications. We demonstrate shape-changeable displays, self-rollable photovoltaics, and light art to prove the feasibility of the concept.
与被动柔性电子器件相比,由机器人技术实现的主动可重构柔性电子器件将为广泛拓宽柔性电子器件的应用领域提供机会。通过对薄膜型电子器件进行局部控制,可以实现多种可重构形状,同时保持柔性电子器件的薄型外形。柔性电子器件通常设计得很薄,以降低弯曲时的机械应力或应变。在本文中,我们展示了一种局部可驱动薄膜,该薄膜旨在通过电输入来控制驱动区域、弯曲方向和曲率。该薄膜外形轻薄,通过将电线压接在形状记忆合金丝上的方法实现了多通道。就扩大规模、增加通道或为新应用添加可重构形状而言,行业标准工艺应该很方便。我们展示了可变形显示器、自卷式光伏器件和灯光艺术,以证明该概念的可行性。