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可编程且灵活的木质折纸电子器件。

Programmable and flexible wood-based origami electronics.

作者信息

Ma Huashuo, Liu Chaozheng, Yang Zhi, Wu Shuai, Jiao Yue, Feng Xinhao, Xu Bo, Ou Rongxian, Mei Changtong, Xu Zhaoyang, Lyu Jianxiong, Xie Yanjun, Fu Qiliang

机构信息

Co-Innovation Center of Efficient Processing and Utilization of Forest Resources, College of Materials Science and Engineering, Nanjing Forestry University, Nanjing, PR China.

College of Furnishings and Industrial Design, Nanjing Forestry University, Nanjing, PR China.

出版信息

Nat Commun. 2024 Oct 28;15(1):9272. doi: 10.1038/s41467-024-53708-1.

Abstract

Natural polymer substrates are gaining attention as substitutes for plastic substrates in electronics, aiming to combine high performance, intricate shape deformation, and environmental sustainability. Herein, natural wood veneer is converted into a transparent wood film (TWF) substrate. The combination of 3D printing and origami technique is established to create programmable wood-based origami electronics, which exhibit superior flexibility with high tensile strength (393 MPa) due to the highly aligned cellulose fibers and the formation of numerous intermolecular hydrogen bonds between them. Moreover, the flexible TWF electronics exhibit editable multiplexed configurations and maintain stable conductivity. This is attributed to the strong adhesion between the cellulose-based ink and TWF substrate by non-covalent bonds. Benefiting from its anisotropic structure, the programmability of TWF electronics is achieved through sequentially folding into predesigned shapes. This design not only promotes environmental sustainability but also introduces its customizable shapes with potential applications in sensors, microfluidics, and wearable electronics.

摘要

天然聚合物基材作为电子领域塑料基材的替代品正受到关注,旨在兼具高性能、复杂形状变形能力和环境可持续性。在此,天然木皮被转化为透明木膜(TWF)基材。建立了3D打印与折纸技术相结合的方法来制造可编程的木质折纸电子产品,由于纤维素纤维高度排列且它们之间形成了大量分子间氢键,这些产品具有卓越的柔韧性和高拉伸强度(393MPa)。此外,柔性TWF电子产品展现出可编辑的多重配置并保持稳定的导电性。这归因于基于纤维素的墨水与TWF基材之间通过非共价键形成的强粘附力。受益于其各向异性结构,TWF电子产品的可编程性通过依次折叠成预先设计的形状来实现。这种设计不仅促进了环境可持续性,还引入了可定制形状,在传感器、微流体和可穿戴电子产品中具有潜在应用。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/d106/11519615/4c975a876f7a/41467_2024_53708_Fig1_HTML.jpg

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