利用导电聚合物3D打印技术实现紧凑、低成本的介观XY定位系统

Benjamin Calmé, L. Rubbert, Y. Haddab
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引用次数: 1

摘要

增材制造技术的进步使得开发复合材料成为可能,例如碳掺杂长丝,可以合成具有定制特性的特定功能。碳纤维具有良好的导电性和导热性,在绝缘聚乳酸(PLA)基体中集成产生导电功能材料。这些特性允许制造介观电热执行器和包括它们在内的更复杂的整体结构。本文提出了一种紧凑、单片、内置v形执行器的3D可打印定位系统。在ANSYS中进行了多物理场耦合分析,验证了执行器和定位系统的预估性能。然后,基于打印原型的实验表征显示出接近估计的良好性能。原型尺寸为92mm×92mm×2mm,工作空间为10.75mm2。这些早期结果允许使用Smith预测器实现第一个闭环控制策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Towards a compact and low-cost mesoscopic XY positioning system using 3D printing of conductive polymers
Technological advances in additive manufacturing have made it possible to exploit composite materials, such as carbon-doped filaments, synthesised for specific function with tailored properties. The integration of carbon fibres, with good electrical and thermal conductivity, within an insulating polylactic acid (PLA) matrix produces a conductive functional material. These properties allow to manufacture mesoscopic electrothermal actuators and more complex monolithic structures including them.A compact and monolithic 3D printable positioning system with built-in V-shaped actuators is proposed in this paper. Multi-physics coupling analysis are performed in ANSYS to validate the estimated performances of the actuator and the positioning system. Then, an experimental characterisation based on printed prototypes showed good performances close to those estimated. The prototype measures 92mm×92mm×2mm and has a working space of 10.75mm2. These early results allowed the implementation of a first closed-loop control strategy using a Smith predictor.
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