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3D Printing of Electro Mechanical Systems

机译:机电系统的3D打印

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摘要

Recent research has focused on the fabrication freedom of 3D printing to not only create conceptual models but final end-use products as well. By democratizing the manufacturing process, products will inevitably be fabricated locally and with unit-level customization. For 3D printed end-use products to be profoundly meaningful, the fabrication technologies will be required to enhance the structures with additional features such as electromechanical content. In the last decade, several research groups have reported embedding electronic components and electrical interconnect into 3D printed structures during process interruptions. However, to date there appears to be an absence of fabricated devices with electromechanical functionality in which moving parts with electronic control have been created within a single Additive Manufacturing (AM) build sequence. Moreover, previously reported 3D printed electronics were limited by the use of conductive inks, which serve as electrical interconnect and are commonly known for inadequate conductivity. This paper describes the fabrication of a high current (>1 amp) electromechanical device through a single hybrid AM build sequence using a uPrint Plus, a relatively low cost 3D. Additionally, a novel integrated process for embedding high performance conductors directly into the thermoplastic FDM substrate is demonstrated. By avoiding low conductivity inks, high power electromechanical applications are enabled such as 3D printed robotics, UAVs and biomedical devices.
机译:最近的研究集中在3D打印的制造自由度上,不仅可以创建概念模型,还可以创建最终最终产品。通过使制造过程民主化,产品将不可避免地在本地制造并进行单位级别的定制。为了使3D打印最终用途产品具有深远的意义,将需要制造技术来增强具有机电特征等附加特征的结构。在过去的十年中,几个研究小组报告了在过程中断期间将电子组件和电气互连嵌入3D打印结构中。但是,迄今为止,似乎缺少具有机电功能的制造设备,在这些设备中,已经在单个增材制造(AM)制造序列中创建了带有电子控制的活动部件。此外,先前报道的3D打印电子设备受到导电墨水的限制,该墨水用作电互连,并且众所周知导电性不足。本文介绍了使用uPrint Plus(一种成本相对较低的3D)通过单个混合AM构建顺序来制造大电流(> 1安培)机电设备的方法。此外,展示了一种新颖的集成工艺,可将高性能导体直接嵌入到热塑性FDM基板中。通过避免使用低电导率墨水,可以实现大功率机电应用,例如3D打印机器人,无人机和生物医学设备。

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