Additive manufacturing of bionic interfaces:From conceptual understanding to renewable energy applicationsOA
Bionic interfaces exhibit multiscale features with various functions that reduce energy consumption and produce renewable resources to support life,triggering them an emerging area of technological revolution in many disciplines.To improve the design and fabrication flexibility,additive manufacturing(AM)technology has been attempted to achieve multiscale structures and reconstruct biological functions at interfaces.Emerging AM of bionic interfaces has led to substantial advancements in renewable energy applications in recent years,but some challenges remain to be overcome.This review first presents a basic understanding of bionic mechanisms and typical manufacturing techniques especially AM.Subsequently,it emphasizes the latest progress of the bionic interfaces and AM on various renewable energy applications,such as those for wetting-controlled surfaces,energy harvesting,water treatment,batteries,and catalysts.Finally,it discusses some challenges and provides insights on how bionic interfaces and AM provide innovative solutions for next-generation renewable energy applications.
Xuliang Chen;Annan Chen;Lei Zhang;Hanyang Yu;Zhengyi Mao;Yuhan Chen;Jialun Gu;Chunze Yan;Jian Lu
City University of Hong Kong Matter Science Research Institute(Futian),Shenzhen,China Department of Mechanical Engineering,City University of Hong Kong,Hong Kong,China City University of Hong Kong Shenzhen Research Institute,Greater Bay Joint Division,Shenyang National Laboratory for Materials Science,Shenzhen,China Hong Kong Branch of National Precious Metals Material Engineering Research Center,City University of Hong Kong,Hong Kong,China Guangdong-Hong Kong Joint Laboratory of Modern Surface Engineering Technology,City University of Hong Kong,Hong Kong,ChinaCity University of Hong Kong Matter Science Research Institute(Futian),Shenzhen,China Department of Mechanical Engineering,City University of Hong Kong,Hong Kong,ChinaCity University of Hong Kong Matter Science Research Institute(Futian),Shenzhen,China Department of Mechanical Engineering,City University of Hong Kong,Hong Kong,China State Key Laboratory of Materials Processing and Die&Mould Technology,Huazhong University of Science and Technology,Wuhan,ChinaCity University of Hong Kong Matter Science Research Institute(Futian),Shenzhen,China Department of Mechanical Engineering,City University of Hong Kong,Hong Kong,ChinaCity University of Hong Kong Matter Science Research Institute(Futian),Shenzhen,China Department of Mechanical Engineering,City University of Hong Kong,Hong Kong,ChinaCity University of Hong Kong Matter Science Research Institute(Futian),Shenzhen,China Department of Mechanical Engineering,City University of Hong Kong,Hong Kong,ChinaDepartment of Mechanical Engineering,City University of Hong Kong,Hong Kong,ChinaState Key Laboratory of Materials Processing and Die&Mould Technology,Huazhong University of Science and Technology,Wuhan,ChinaCity University of Hong Kong Matter Science Research Institute(Futian),Shenzhen,China Department of Mechanical Engineering,City University of Hong Kong,Hong Kong,China City University of Hong Kong Shenzhen Research Institute,Greater Bay Joint Division,Shenyang National Laboratory for Materials Science,Shenzhen,China Hong Kong Branch of National Precious Metals Material Engineering Research Center,City University of Hong Kong,Hong Kong,China Guangdong-Hong Kong Joint Laboratory of Modern Surface Engineering Technology,City University of Hong Kong,Hong Kong,China
能源科技
Additive manufacturingBionicInterfaceRenewable energy
《Advanced Bionics》 2025 (1)
P.57-82,26
supported by the Guangdong Province Science and Technology Plan Project 2023B1212120008Shenzhen Science and Technology Program JCYJ20220818101204010RGC Theme-based Research Scheme AoE/M-402/20Hong Kong Innovation and Technology Commission via the Hong Kong Branch of National Precious Metals Materials Engineering Research Center.
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