成型液晶弹性体的 4D 打印

Tongzhi Zang, Shuang Fu, Junpeng Cheng, Chun Zhang, Xili Lu*, Jianshe Hu*, Hesheng Xia* and Yue Zhao*, 
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引用次数: 0

摘要

在自然界中,生物系统能够感知环境变化,并实时改变其性能参数,以适应环境变化。受此启发,科学家们开发出了一系列新型形状变形材料。形状变构材料是一种 "智能 "材料,能以预先确定的方式对外部刺激做出反应,然后显示出预设的功能。液晶弹性体(LCE)就是形状变形材料的典型代表。4D 打印技术的出现,通过改变打印材料成分和打印条件,可以有效简化形状变构液晶弹性体的制备过程,实现形状变构模式的精确控制和宏观设计。同时,逐层堆叠的方法还能赋予形变 LCE 复杂的分层取向结构,为研究人员提供了极大的设计自由度。4D 打印极大地拓展了形变 LCE 作为软智能材料的应用范围。本综述系统地报道了3D/4D打印成型LCE的最新进展,讨论了各种4D打印技术、3D/4D打印LCE的合成方法和驱动模式,总结了3D/4D打印技术在制备成型LCE方面的机遇和挑战。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

4D Printing of Shape-Morphing Liquid Crystal Elastomers

4D Printing of Shape-Morphing Liquid Crystal Elastomers

In nature, biological systems can sense environmental changes and alter their performance parameters in real time to adapt to environmental changes. Inspired by these, scientists have developed a range of novel shape-morphing materials. Shape-morphing materials are a kind of “intelligent” materials that exhibit responses to external stimuli in a predetermined way and then display a preset function. Liquid crystal elastomer (LCE) is a typical representative example of shape-morphing materials. The emergence of 4D printing technology can effectively simplify the preparation process of shape-morphing LCEs, by changing the printing material compositions and printing conditions, enabling precise control and macroscopic design of the shape-morphing modes. At the same time, the layer-by-layer stacking method can also endow the shape-morphing LCEs with complex, hierarchical orientation structures, which gives researchers a great degree of design freedom. 4D printing has greatly expanded the application scope of shape-morphing LCEs as soft intelligent materials. This review systematically reports the recent progress of 3D/4D printing of shape-morphing LCEs, discusses various 4D printing technologies, synthesis methods and actuation modes of 3D/4D printed LCEs, and summarizes the opportunities and challenges of 3D/4D printing technologies in preparing shape-morphing LCEs.

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