Toward Multiscale, Multimaterial 3D Printing
Cheng Yan Zhu, Hawi B. Gemeda, Eric B. Duoss, Christopher M. Spadaccini
Lawrence Livermore National Laboratory
阅读操作
确认中在文库中上传 PDF 后可生成中文音频讲解。
摘要与影响
Biological materials and organisms possess the fundamental ability to self-organize, through which different components are assembled from the molecular level up to hierarchical structures with superior mechanical properties and multifunctionalities. These complex composites inspire material scientists to design new engineered materials by integrating multiple ingredients and structures over a wide range. Additive manufacturing, also known as 3D printing, has advantages with respect to fabricating multiscale and multi-material structures. The need for multifunctional materials is driving 3D printing techniques toward arbitrary 3D architectures with the next level of complexity. In this paper, the aim is to highlight key features of those 3D printing techniques that can produce either multiscale or multimaterial structures, including innovations in printing methods, materials processing approaches, and hardware improvements. Several issues and challenges related to current methods are discussed. Ultimately, the authors also provide their perspective on how to realize the combination of multiscale and multimaterial capabilities in 3D printing processes and future directions based on emerging research.
逐年被引趋势
关键指标
同类平均 = 1
同领域 · 同年份 · 同类型
Google Scholar 与 OpenAlex 的被引统计范围不同,数值存在差异属正常。
AI 辅助阅读
依据:摘要
可就本文提问;依据不足时会说明。
学术脉络
学科主题
工程Additive Manufacturing and 3D Printing Technologies
3D Printing in Biomedical Research · Cephalopods and Marine Biology
参考文献 135
此处列出前 3 条
引用本文 152
按被引量排序,此处列出前 3 条