基于螺杆挤压的木材增材制造系统:硅酸钠热固性复合材料

Robert HR Carne, A. Alade, Berlinda O. Orji, Ahmed Ibrahim, Armando G McDonald, M. Maughan
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引用次数: 0

摘要

这项工作的目的是研究用于增材制造的高馏分木材和硅酸钠复合材料(WSSC)的可打印性,并开发一种基于螺杆挤压的工艺,以展示这种方法在建筑施工中的应用。我们制造了一个定制的增材制造系统,并对 40%-60% 的木纤维和 60%-40% 的硅酸钠混合物进行了打印。通过观察这些配方的粘度、挤出性、打印床和层间附着力以及固化特性,确定了它们的可打印性。纤维与树脂的比例为 45:55 至 50:50,最适合印刷。印刷适性还受到印刷温度和喷嘴移动速度的影响。印刷和固化 WSSC 的机械性能是通过三点弯曲、拉伸和压缩测试确定的。结果发现,拉伸强度、弯曲强度和弹性模量与文献报道的 3D 打印混凝土和其他木塑复合材料相当。WSSC 已成功打印成面板,表明有望用于增材制造。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A screw extrusion-based system for additive manufacturing of wood: Sodium silicate thermoset composites
The aims of this work were to investigate the printability of high-fraction wood and sodium-silicate composites (WSSC) for additive manufacturing and to develop a screw extrusion-based process to demonstrate this approach for building construction applications. A custom additive manufacturing system was fabricated, and mixtures of 40%–60% wood fiber and 60%–40% sodium silicate were printed. The printability of these formulations was determined by observing their viscosity, extrudability, print-bed and layer adhesion, and curing characteristics. Fiber to resin ratios of 45:55 to 50:50 were the most suitable for printing. The printability was also affected by printing temperature and nozzle travel speed. The mechanical properties of printed and cured WSSC, were determined by three-point bending, tensile, and compression testing. Tensile strength, bending strength, and elastic modulus were found to be comparable to those of 3D printed concrete and other wood-plastic composites reported in the literature. The WSSC was successfully printed into a panel indicating promise for use in additive manufacturing.
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