Converting hcp Mg–Al–Zn alloy into bcc Mg–Li–Al–Zn alloy by electrolytic deposition and diffusion of reduced lithium atoms in a molten salt electrolyte LiCl–KCl
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Cited by (30)
Production of Al/Mg-Li composite by the accumulative roll bonding process
2020, Journal of Materials Research and TechnologyCitation Excerpt :This phenomenon is achieved by creating a dual-phase structure (BCC-HCP) in the weight percent range of 5.7 to 11 percent lithium [3–6]. According to previous researches, adding lithium into the magnesium alloys compositions, in addition to density reduction and dramatic ductility improvement, especially at ambient temperature, can cause strength loss and poor corrosion behavior [7]. Generally, there are various methods to improve mechanical properties such as alloying, cold work, and heat treatment.
Fabrication of high strength α, α+β, β phase containing Mg-Li alloys with 0.2%Y by extruding and annealing process
2016, Materials Science and Engineering: ACitation Excerpt :Many researchers have adopted some methods such as alloying strengthening [4–14], ageing strengthening [15] and solution strengthening [16] to handle this problem. Furthermore, these measures have accomplished some positive strengthening effects on mechanical properties [4–21]. The solid solubility of aluminum and zinc both are relatively high in the Mg alloys and they can enhance the strength of the alloys by solution strengthening and precipitation strengthening [5–22].
Oxidation Study of Mg-Li-Al based Alloy
2016, Materials Today: ProceedingsFabrication of AlLi and Al <inf>2</inf>Li <inf>3</inf>/Al <inf>4</inf>Li <inf>9</inf> intermetallic compounds by molten salt electrolysis and their application for hydrogen generation from water
2012, International Journal of Hydrogen EnergyCitation Excerpt :Molten LiCl–KCl salt was electrolyzed in air at 480 ± 25 °C in an electrolytic cell. The arrangement of the electrolytic cell was referred from previous studies by Smolinski [26] and Lin et al. [27,28]. The electrolyte contained a mixture of 45 wt.
Microstructure evolution and texture development in thermomechanically processed Mg-Li-Al based alloys
2012, Materials Science and Engineering: ACitation Excerpt :Addition of Sn also forms the high melting point (1043 K) Mg2Sn phase, and because of their relatively lower costs, Sn is a cost effective alternative as well when compared to RE additions. Although the Mg–Li–Al system has been studied in detail [3,9–13], several important issues still remain unanswered, namely (i) lithium distribution in the α and β phases, (ii) microstructural evolution due to thermo-mechanical (TM) processing, and (iii) the change in the lattice parameter of hcp and bcc phase due to the combined effect of alloying in the Mg–Li–Al based alloys. In this investigation, two alloys have been focused upon: (i) Mg–9 wt% Li–7 wt% Al–1 wt% Sn (LAT971) and (ii) Mg–9 wt% Li–5 wt% Al–3 wt% Sn–1 wt% Zn (LATZ9531).
The conversion of phase diagrams of solid solution type into electrochemical synthesis diagrams for binary metallic systems on inert cathodes
2012, Electrochimica ActaCitation Excerpt :However, due to the limiting factor of hydrogen evolution, mainly alloys [6–19] and semiconducting compounds [20–25] of electropositive metals are produced in this way. Alloys [26–37] and compounds [2,5,38–62] of more electronegative metals are usually produced from molten salts, without a limitation caused by hydrogen evolution. This method is perspective even in producing and refreshing wettable cathodes in aluminium electrolytic cells [63–66].