立体光刻
熔融沉积模型
3D打印
材料科学
3d打印
热稳定性
ABS树脂
快速成型
聚酯纤维
聚合物
复合材料
沉积(地质)
纳米技术
化学工程
制造工程
沉积物
古生物学
工程类
生物
作者
Jan Lukas Storck,Guido Ehrmann,Jana Uthoff,Elise Diestelhorst,Tomasz Błachowicz,Andrea Ehrmann
出处
期刊:Materials futures
[IOP Publishing]
日期:2022-01-17
卷期号:1 (1): 015001-015001
被引量:21
标识
DOI:10.1088/2752-5724/ac4beb
摘要
Abstract 3D printing is nowadays used for many applications far beyond pure rapid prototyping. As tools to prepare custom-made objects which may be highly complex, different 3D printing techniques have emerged into areas of application where the mechanical, thermal, optical and other properties have to meet high requirements. Amongst them, applications for space, e.g. for microsatellites, make extreme demands regarding the stability under high temperatures. Nevertheless, polymeric 3D printed materials have several advantages for space application in comparison with metal objects. Here we thus investigate the impact of temperatures up to 85 °C and 185 °C, respectively, on typical 3D printing materials for fused deposition modeling or stereolithography (SLA) with inexpensive 3D printers. The materials are found to differ strongly in terms of mechanical properties and dimensional stability after the treatment at a higher temperature, with SLA resins and co-polyester showing the best dimensional stability, while acrylonitrile–butadiene–styrene and SLA resin after long UV post-treatment has the best mechanical properties.
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