Abstract
3D printing has been shown to offer greater geometrical accuracy and production efficiency
for textile and fabric-like structures. However, current 3D printed textiles have been exploring
3-dimensionality of lattice flexibility, mostly using petroleum-based material mixtures such as
PLA (polylactic acid). Natural earth- and bio-based materials are minimally processed and use
natural substances that may mitigate carbon intensities by reducing the amount of thermal
and chemical processing. Specifically, with earth-based materials as an emerging research
direction in additive manufacturing, deposited layers of material can create lattice objects.
This paper presents a novel development that uses earth-fiber mix designs to create digital
techniques for 3D printable flexible structures. Using a range of patterns and geometries, the
3D printed textiles were designed to exhibit a range of densities and patterns. Geometrical
tectonics were applied using the mechanism of weaving (wefting and warping) to the different
iterations that were created in this research. Material mix-designs were shown to heavily
influence the resulting performance of the fabric. The findings demonstrate the capability of
producing flexible soil-fiber flexible structures with characteristics akin to traditional knitted
textiles, emphasizing promising prospects for further advancement and practical application of
natural materials into architectural and wearable artifacts.
Supplementary materials
Title
Supporting Figures for Flexible Earth-Fiber Structures in 3D Printing
Description
Images and Figures used in the paper.
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