热塑性塑料增材制造高温FDM机的开发与实现

C. Billings, M. Saha, Yingtao Liu
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引用次数: 0

摘要

近年来,增材制造入门成本的降低使得全球研发方法的范式转变成为可能。该技术明确关注基于fdm的制造及其在电子设计过程中的作用,与传统制造相比,该技术大大缩短了从概念到市场的时间框架。然而,这种变化的最大缺点是,这些技术目前仅限于基于许多FDM机器的材料能力的低负载和热静态应用。这条规则的例外是少数机器能够打印材料,如ULTEM和PEEK与热控制室,以解决上述问题。不幸的是,由于它们的成本和专有材料和软件,这些机器通常对大多数人来说是遥不可及的。这篇论文将概述一个打印机的开发和建设能够工作的材料在500摄氏度,利用水冷双挤出系统。该系统将在一个能够保持100摄氏度恒定温度的封闭腔内运行。整个系统的制造成本仅为当前市场产品的4%。该打印机基于市场上可用的平台,该平台已升级为包括直接驱动水冷双挤出头。室内加热由一个110伏的平台处理,该平台与二次加热器配对,以控制室内温度。整个运动系统是封闭的,以控制热波动,所有电子设备都安装在外部,并基于云进行监控和操作。此外,这款打印机还可以制造出强度高达六倍、耐热性高三倍、吸水率低三倍的零件。使用工程级热塑性塑料的入门成本降低,将大大提高小型企业和设计商店对增材制造的采用率。
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Development and Implementation of a High-Temperature FDM Machine for Additive Manufacturing of Thermoplastics
In recent years, the reduction in the entry cost of additive manufacturing has allowed for a paradigm shift in research and development methodologies worldwide. Explicitly focusing on FDM-based manufacturing and its role in the e-design process, this technology has dramatically reduced the idea to market timeframe compared to traditional manufacturing. However, the most significant drawback to this change is that these technologies are currently limited to low load and thermally static applications based on the material capabilities of many FDM machines. The exception to this rule is the few machines capable of printing with materials such as ULTEM and PEEK with thermally controlled chambers to address the above problems. Unfortunately, these machines are generally out of reach for most due to their cost and proprietary materials and software. This paper will outline the development and construction of a printer capable of working with materials at 500 degrees centigrade by utilizing a water-cooled dual extrusion system. This system will be operating inside a closed chamber capable of holding temperatures constant at 100 degrees centigrade. The entire system was manufactured for only 4% of the cost of current market offerings. The printer is based on a market available platform that has been upgraded to include a direct drive water-cooled dual extrusion head. The chamber heating is handled by a 110-volt platform that pairs with secondary heaters to control the interior temperature. The entire motion system is enclosed to control thermal swings, and all electronics are exterior mounted and cloud-based for monitoring and operation. In addition, this printer allows the fabrication of designs that produce parts that are up to six times stronger, three times more heat resilient, and three times less water absorbent. The reduction in entry cost to work with engineering-grade thermoplastics will significantly increase the adoption rate of additive manufacturing in small businesses and design shops.
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