Magnetic/thermo dual-sensitive hydrogel-based 3D Printable millirobots

Xingyue Hu, Mengyue Li, N. Jiao, Lianqing Liu
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Abstract

Creatures in nature complete deformation and movement through the anisotropic stretching of muscles. Soft materials for artificial muscles, such as hydrogels, need to be fabricated into anisotropic complex structures. 3D printing is an excellent manufacturing method. However, traditional hydrogels cannot be prepared by inkjet printing because of their physical properties. Here, a novel magnetic thermo-sensitive hydrogel and a non-thermo-sensitive hydrogel that can be 3D printed were synthesized. A bilayer beam as thermal deformation unit was formed by two types of hydrogels. 2D and 3D anisotropic deformable structures can be fabricated by 3D printing. In addition, we navigate the hydrogel structure out of the maze through the magnetic field. Finally, the 3D-printed structures were shown to be magnetically actuated while having more flexible thermo-responsive deformations. Dual-sensitive hydrogels have the printability to produce more flexible, precise, and perfect multi-function robots in the future, and will promote the application in the fields of micromanipulation and medical treatment.
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基于磁/热双敏水凝胶的可3D打印微型机器人
自然界中的生物通过肌肉的各向异性拉伸来完成变形和运动。人造肌肉的软材料,如水凝胶,需要制造成各向异性的复杂结构。3D打印是一种优秀的制造方法。然而,传统的水凝胶由于其物理性质而无法通过喷墨打印制备。本文合成了一种新型的磁性热敏水凝胶和一种可3D打印的非热敏水凝胶。以两种水凝胶为热变形单元,形成了双层梁。利用3D打印技术可以制备二维和三维各向异性可变形结构。此外,我们通过磁场引导水凝胶结构走出迷宫。最后,3d打印结构被证明是磁驱动的,同时具有更灵活的热响应变形。双敏水凝胶具有可印刷性,未来可生产出更灵活、精确、完善的多功能机器人,并将促进其在显微操作和医疗领域的应用。
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