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采用熔融颗粒制造技术、使用回收塑料并进行连续供料的大型增材制造悬挂式打印机。

Hangprinter for large scale additive manufacturing using fused particle fabrication with recycled plastic and continuous feeding.

作者信息

Rattan Ravneet S, Nauta Nathan, Romani Alessia, Pearce Joshua M

机构信息

Department of Electrical & Computer Engineering, Western University, London, ON, Canada.

Department of Chemistry, Materials and Chemical Engineering (Giulio Natta), Politecnico di Milano, Milano, Italy.

出版信息

HardwareX. 2023 Feb 9;13:e00401. doi: 10.1016/j.ohx.2023.e00401. eCollection 2023 Mar.

DOI:10.1016/j.ohx.2023.e00401
PMID:36818952
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9930197/
Abstract

The life cycle of plastic is a key source of carbon emissions. Yet, global plastics production has quadrupled in 40 years and only 9 % has been recycled. If these trends continue, carbon emissions from plastic wastes would reach 15 % of global carbon budgets by 2050. An approach to reducing plastic waste is to use distributed recycling for additive manufacturing (DRAM) where virgin plastic products are replaced by locally manufactured recycled plastic products that have no transportation-related carbon emissions. Unfortunately, the design of most 3-D printers forces an increase in the machine cost to expand for recycling plastic at scale. Recently, a fused granular fabrication (FGF)/fused particle fabrication (FPF) large-scale printer was demonstrated with a GigabotX extruder based on the open source cable driven Hangprinter concept. To further improve that system, here a lower-cost recyclebot direct waste plastic extruder is demonstrated and the full designs, assembly and operation are detailed. The <$1,700 machine's accuracy and printing performance are quantified, and the printed parts mechanical strength is within the range of other systems. Along with support from the Hangprinter and DUET3 communities, open hardware developers have a rich ecosystem to modify in order to print directly from waste plastic for DRAM.

摘要

塑料的生命周期是碳排放的一个关键来源。然而,全球塑料产量在40年内增长了四倍,只有9%被回收利用。如果这些趋势持续下去,到2050年,塑料垃圾的碳排放量将达到全球碳预算的15%。减少塑料垃圾的一种方法是将分布式回收用于增材制造(DRAM),即用本地制造的无运输相关碳排放的再生塑料产品取代原生塑料产品。不幸的是,大多数3D打印机的设计使得为大规模回收塑料而扩大机器成本增加。最近,基于开源电缆驱动的Hangprinter概念,展示了一种配备GigabotX挤出机的熔融颗粒制造(FGF)/熔融颗粒制造(FPF)大型打印机。为了进一步改进该系统,这里展示了一种成本更低的回收机器人直接废塑料挤出机,并详细介绍了其完整设计、组装和操作。这台成本低于1700美元的机器的精度和打印性能得到了量化,打印部件的机械强度在其他系统的范围内。在Hangprinter和DUET3社区的支持下,开源硬件开发者拥有一个丰富的生态系统可供修改,以便直接用废塑料进行打印用于DRAM。

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