3D printing enhanced catalysis for energy conversion and environment treatment

Jipeng Chen , Penghui Wu , Fan Bu , Yong Gao , Xiangye Liu , Cao Guan
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引用次数: 4

Abstract

With the growth of energy and environment crisis, catalytic energy conversion and environment treatment have attracted tremendous attention among both scientific and industrial fields. Three-dimensional (3D) printing can construct various organic and inorganic materials into customized structures based on digitally designed 3D images models, which is a promising technology for manufacturing of high-performance materials for enhanced catalytic reactions. 3D printing has the advantages of free structure design, material saving and high manufacturing precision, and provides more possibilities for the design of materials and electrode structures in the field of catalysis. In this review, working principles of different 3D printing technologies are introduced, followed by the latest development of 3D printing applied for high-performance catalysis, including water-splitting and environment treatment reactions. Finally, the development prospects and challenges of combining 3D printing and catalytic technology are further discussed.

Abstract Image

3D打印增强了能量转换和环境处理的催化作用
随着能源和环境危机的加剧,催化能源转化和环境治理引起了科学界和工业界的极大关注。三维(3D)打印可以基于数字设计的3D图像模型将各种有机和无机材料构建成定制的结构,这是一种很有前途的制造用于增强催化反应的高性能材料的技术。3D打印具有结构设计自由、节省材料、制造精度高的优点,为催化领域的材料和电极结构设计提供了更多的可能性。在这篇综述中,介绍了不同3D打印技术的工作原理,以及3D打印应用于高性能催化的最新进展,包括水分解和环境处理反应。最后,进一步探讨了3D打印与催化技术相结合的发展前景和挑战。
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