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A biopolymer-like metal enabled hybrid material with exceptional mechanical prowess

  • Junsong Zhang
  • , Lishan Cui*
  • , Daqiang Jiang
  • , Yinong Liu
  • , Shijie Hao
  • , Yang Ren
  • , Xiaodong Han
  • , Zhenyang Liu
  • , Yunzhi Wang
  • , Cun Yu
  • , Yong Huan
  • , Xinqing Zhao
  • , Yanjun Zheng
  • , Huibin Xu
  • , Xiaobing Ren
  • , Xiaodong Li
  • *Corresponding author for this work
  • Department of Materials Science and Engineering
  • China University of Petroleum - Beijing
  • School of Mechanical and Chemical Engineering
  • University of Western Australia
  • X-ray Science Division
  • Argonne National Laboratory
  • Beijing Key Lab of Microstructure and Property of Advanced Materials
  • Beijing University of Technology
  • State Key Laboratory for Mechanical Behavior of Materials
  • Frontier Institute of Science and Technology
  • Ohio State University
  • State Key Laboratory of Nonlinear Mechanics (LNM)
  • CAS - Institute of Mechanics
  • University of Virginia

Research output: Contribution to journal › Article › peer-review

Abstract

The design principles for naturally occurring biological materials have inspired us to develop next-generation engineering materials with remarkable performance. Nacre, commonly referred to as nature's armor, is renowned for its unusual combination of strength and toughness. Nature's wisdom in nacre resides in its elaborate structural design and the judicious placement of a unique organic biopolymer with intelligent deformation features. However, up to now, it is still a challenge to transcribe the biopolymer's deformation attributes into a stronger substitute in the design of new materials. In this study, we propose a new design strategy that employs shape memory alloy to transcribe the "J-curve" mechanical response and uniform molecular/atomic level deformation of the organic biopolymer in the design of high-performance hybrid materials. This design strategy is verified in a TiNi-Ti 3 Sn model material system. The model material demonstrates an exceptional combination of mechanical properties that are superior to other high-performance metal-based lamellar composites known to date. Our design strategy creates new opportunities for the development of high-performance bio-inspired materials.

Original languageEnglish
Article number8357
JournalScientific Reports
Volume5
DOIs
StatePublished - 10 Feb 2015

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