M. Paramsothy, S. F. Hassan, N. Srikanth and M. Gupta, “Adding Carbon Nanotubes and Integrating with AA5052 Aluminium Alloy Core to Simultaneously Enhance Stiffness, Strength and Failure Strain of AZ31 Magnesium Alloy,” Composites Part A, Vol. 40, 2009, pp. 1490-1500. doi:10.1016/j.compositesa.2009.06.007

has been cited by the following article:

• TITLE: Carbon Nanotube Addition to Simultaneously Enhance Strength and Ductility of Hybrid AZ31/AA5083 Alloy

  AUTHORS: Muralidharan Paramsothy, Manoj Gupta, Jimmy Chan, Richard Kwok

  KEYWORDS: AZ31/AA5083 Hybrid Alloy, Carbon Nanotube Nanocomposite, Microstructure, Mechanical Properties

  JOURNAL NAME: Materials Sciences and Applications, Vol.2 No.1, January 25, 2011

  ABSTRACT: AZ31/AA5083 hybrid alloy nanocomposite containing CNT nanoparticle reinforcement was fabricated using solidification processing followed by hot extrusion. The AZ31/AA5083 hybrid alloy nanocomposite exhibited similar grain size to monolithic AZ31/AA5083 hybrid alloy, reasonable CNT nanoparticle distribution, non-dominant (0 0 0 2) texture in the longitudinal direction, and 20% higher hardness than monolithic AZ31/AA5083 hybrid alloy. Compared to monolithic AZ31/AA5083 hybrid alloy (in tension), the AZ31/AA5083 hybrid alloy nanocomposite exhibited higher 0.2% TYS, UTS, failure strain and work of fracture (WOF) (+ 9%, + 4%, + 38% and + 44%, respectively). Also, compared to monolithic AZ31/AA5083 hybrid alloy (in compression), the AZ31/AA5083 hybrid alloy nanocomposite exhibited similar 0.2% CYS (+ 1%), and higher UCS, failure strain and WOF (+ 7%, + 23% and + 23%, respectively). The effect of CNT nanoparticle addition on the enhanced tensile and compressive response of AZ31/AA5083 hybrid alloy is investigated in this paper.