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Bio-inspired multifunctional metallic foams through the fusion of different biological solutions
Australian Institute for Innovative Materials - Papers
  • Xu Jin, Beihang University
  • Bairu Shi, Research Institute of Petroleum
  • Lichen Zheng, Research Institute of Petroleum
  • Xiaohan Pei, Research Institute of Petroleum
  • Xiyao Zhang, Beihang University
  • Ziqi Sun, University of Wollongong
  • Yi Du, University of Wollongong
  • Jung Ho Kim, University of Wollongong
  • Xiaolin Wang, University of Wollongong
  • S X Dou, University of Wollongong
  • Kesong Liu, University of Wollongong
  • Lei Jiang, Chinese Academy of Sciences
RIS ID
90318
Publication Date
1-1-2014
Publication Details

Jin, X., Shi, B., Zheng, L., Pei, X., Zhang, X., Sun, Z., Du, Y., Kim, J. Ho., Wang, X., Dou, S., Liu, K. & Jiang, L. (2014). Bio-inspired multifunctional metallic foams through the fusion of different biological solutions. Advanced Functional Materials, 24 (18), 2721-2726.

Abstract
Nature is a school for scientists and engineers. Inherent multiscale structures of biological materials exhibit multifunctional integration. In nature, the lotus, the water strider, and the flying bird evolved different and optimized biological solutions to survive. In this contribution, inspired by the optimized solutions from the lotus leaf with superhydrophobic self-cleaning, the water strider leg with durable and robust superhydrophobicity, and the lightweight bird bone with hollow structures, multifunctional metallic foams with multiscale structures are fabricated, demonstrating low adhesive superhydrophobic ­self-cleaning, striking loading capacity, and superior repellency towards different corrosive solutions. This approach provides an effective avenue to the development of water strider robots and other aquatic smart devices floating on water. Furthermore, the resultant multifunctional metallic foam can be used to construct an oil/water separation apparatus, exhibiting a high separation efficiency and long-term repeatability. The presented approach should provide a promising solution for the design and construction of other multifunctional metallic foams in a large scale for practical applications in the petro-chemical field. Optimized biological solutions continue to inspire and to provide design idea for the construction of multiscale structures with multifunctional integration.
Grant Number
ARC/DP1096546
Grant Number
ARC/DP140102581
Citation Information
Xu Jin, Bairu Shi, Lichen Zheng, Xiaohan Pei, et al.. "Bio-inspired multifunctional metallic foams through the fusion of different biological solutions" (2014) p. 2721 - 2726
Available at: http://works.bepress.com/sxdou/618/