4.8 Article

Improved Damping and High Strength of Graphene-Coated Nickel Hybrid Foams

Journal

ACS APPLIED MATERIALS & INTERFACES
Volume 11, Issue 45, Pages 42690-42696

Publisher

AMER CHEMICAL SOC
DOI: 10.1021/acsami.9b10382

Keywords

graphene; nickel foam; hybrid materials; damping properties; mechanical strength

Funding

  1. National Natural Science Foundation of China [51802317]
  2. Department of Science and Technology of Shenyang City [17-231-1-66]
  3. Shenyang National Laboratory for Materials Science [2017RP11]
  4. Liaoning Key Research & Development Project [2019JH2/10300045]
  5. Joint Fund for Advanced Equipment and Aerospace Science and Technology of China [6141B061306]

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Direct growth of graphene on the metal surface opens a door for obtaining high-performance composites in a simple way. In order to obtain both high strength and enhanced damping property of the porous metal, we prepared graphene-coated nickel hybrid foams by chemical vapor deposition technique and investigated the static and dynamic mechanical properties using a dynamic mechanical analyzer and vibration testing systems in detail. We found that the presence of graphene layers could greatly improve both mechanical strength and damping properties of nickel foams. The graphene-coated nickel hybrid foams exhibited high yield strength, compressive modulus, and damping ratio, increased by 46, 22, and 53% in comparison with those of nickel foams. Such significant graphene reinforcement in mechanical and damping properties is mainly attributed to the strong interfacial bonding, remarkable confinement effect, and rich interfaces in hybrid foams. By virtue of its high mechanical strength and enhanced damping properties, the graphene/nickel hybrid foams have great potential to be used as multifunctional composite materials in many fields.

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