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Challenges and Opportunities for Integrating Dealloying Methods into Additive Manufacturing

机译:将易用的方法集成到添加剂制造中的挑战和机遇

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摘要

The physical architecture of materials plays an integral role in determining material properties and functionality. While many processing techniques now exist for fabricating parts of any shape or size, a couple of techniques have emerged as facile and effective methods for creating unique structures: dealloying and additive manufacturing. This review discusses progress and challenges in the integration of dealloying techniques with the additive manufacturing (AM) platform to take advantage of the material processing capabilities established by each field. These methods are uniquely complementary: not only can we use AM to make nanoporous metals of complex, customized shapes—for instance, with applications in biomedical implants and microfluidics—but dealloying can occur simultaneously during AM to produce unique composite materials with nanoscale features of two interpenetrating phases. We discuss the experimental challenges of implementing these processing methods and how future efforts could be directed to address these difficulties. Our premise is that combining these synergistic techniques offers both new avenues for creating 3D functional materials and new functional materials that cannot be synthesized any other way. Dealloying and AM will continue to grow both independently and together as the materials community realizes the potential of this compelling combination.
机译:材料的物理架构在确定材料属性和功能方面发挥积分作用。虽然现在存在用于制造任何形状或尺寸的部件的许多处理技术,但是一些技术被出现为易于和有效的制造独特结构的有效方法:造成的易用和添加剂制造。本综述讨论了易于制造(AM)平台融合的进展和挑战,以利用每个领域建立的材料处理能力。这些方法是唯一的互补性:我们不仅可以使用AM来制作复杂的,定制形状的纳米多孔金属 - 例如,在生物医学植入物和微流体中的应用 - 但是在AM期间可以同时发生,以产生具有两个纳米级特征的独特复合材料渗透阶段。我们讨论了实施这些加工方法的实验挑战以及未来的努力如何解决这些困难。我们的前提是,结合这些协同技术提供了新的途径,用于创建3D功能材料和新功能材料,不能以任何其他方式合成。 Dealloying和AM将继续独立增长,因为材料界实现了这种引人注目的组合的潜力。

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