Combination and Processing Keratin with Lignin as Novel Biocomposite Materials for Additive Manufacturing Technology

W. Grigsby, Sonya M. Scott, Matthew I. Plowman-Holmes, P. Middlewood, Kimberly Recabar
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Abstract

Additive manufacturing using Nature's resources is a desirable goal. In this work we examine how the inherent macromolecular properties of keratin and lignin can be utilised and developed using green chemistry principles to form 4D functional materials. A new methodology utilising protein complexation by lignin was applied to form copolymers and reinforce keratin cross-linking networks on aqueous and solid state processing. Solubility, chemical and processing characteristics found a favoured 4:1 ratio of keratin to lignin was most desired for effective further processing as 3D printed forms. Thermally processing keratin-lignin with plasticisers and processing aids demonstrated extruded FDM filaments could be formed at temperatures >130˚C, but degradation of keratin-lignin materials was observed. Employing paste printing strategies, keratin-lignin hydrogels could successfully print 3D skirt outlines. This was achieved with aqueous hydrogels prepared at 30-40% solids content with and without plasticizers over a defined processing timeframe. Mechanical response to moisture stimuli was successfully demonstrated for the 4:1 keratin-lignin printed material on water soaking, realising the ability of these keratin-lignin biocomposite materials to introduce a 4th dimensional response after 3D printing.
角蛋白与木质素复合制备新型增材制造材料
利用自然资源的增材制造是一个理想的目标。在这项工作中,我们研究了如何利用角蛋白和木质素的固有大分子特性,并利用绿色化学原理开发形成4D功能材料。一种新的方法利用木质素的蛋白质络合,形成共聚物和加强角蛋白交联网络在水和固体处理。溶解度、化学和加工特性发现,角蛋白与木质素的4:1比例是最理想的,可以作为3D打印形式进行有效的进一步加工。用增塑剂和加工助剂对角蛋白-木质素进行热处理,结果表明,在130℃的温度下可以形成挤出的FDM长丝,但角蛋白-木质素材料存在降解现象。采用粘贴打印策略,角蛋白-木质素水凝胶可以成功打印3D裙子轮廓。在规定的处理时间内,在有增塑剂和不含增塑剂的情况下,以30-40%固体含量制备的水凝胶可以实现这一目标。在水浸泡条件下,成功展示了4:1角蛋白-木质素打印材料对水分刺激的机械响应,实现了这些角蛋白-木质素生物复合材料在3D打印后引入第四维响应的能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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