催化作用
3D打印
3d打印
材料科学
纳米技术
制造工程
工艺工程
化学
机械工程
工程类
生物化学
作者
Xianhui Zhao,Canan Karakaya,Moriko Qian,Rongge Zou,Weijie Zhang,Zhou Lü,Debtanu Maiti,Avik Samanta,Weiming Wan,Xiangbei Liu,Anisia Tiplea,Yan Li,Shaoqing Cui,Chenxi Wang,Hanwu Lei,Sherith Bankston,Sefa Yilmaz,Jingguang G. Chen,Soydan Ozcan
标识
DOI:10.1016/j.mtsust.2024.100746
摘要
The catalyst industry generates approximately $20 billion every year globally and plays a major role in the energy production sector. Traditional industrial catalysts (e.g., pellets) typically have mass and heat transfer limitations, and cause a pressure drop in continuous-flow reactors, lowering the efficiency of the catalytic processes. 3D printing technology has evolved rapidly over the past decade, and the 3D printing of catalysts with desired geometries can address many of the above-stated challenges with traditional catalysts. However, challenges remain to be addressed and opportunities remain to be explored before the full potential in the design and 3D printing of novel catalysts can be realized. This article reviews the recent development in the 3D printing of catalysts. It summarizes the 3D printing design, dimension, property, and performance of 3D printed catalysts. The applications of 3D printed catalysts, such as reforming, wastewater treatment, and CO2 capture and removal, are discussed, with a techno-economic analysis and life cycle analysis. Future research directions and opportunities for 3D printing of catalysts are also highlighted.
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