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Yang et. al. [6] has done Tin and Antimony electrodeposition in 1-ethyl-3-methylinidazolium tetrafluoroborate, and N.
Tachikawa et. al. [7] has done electrodeposition of Tin (II) in a hydropbobic ionic liquid, 1-n-butyl-1-methylpyrrolidinium bis (trifluoromethylsulfonyl) imide.
Yang et. al. [6] used tetrafluoroborate, BF4- based ionic liquid, where the diffusion coefficient was higher than calculated from the chloroaluminate ionic liquid by Hussey.
Studies using trifluoromethylsulfonyl imide ionic liquids from Tachikawa et. al. [7] and this work using trifluoromethylsulfonate ionic liquid gave smaller diffusion coefficient for the Tin(II) species.
Zein El Abedin, E.M.

The remaining Al substrate was removed in a saturated CuCl2 solution.
[2] L.Gan, S.Liu, D.N.Li, et al.
H., et al.
Lin, et al, Synthesis and photophysical properties of a novel semiconducting polymer, Polym Adv Technol. 15(2004) 84-88
El-Sayed, Some interesting properties of metals confined in time and nanometer space of different shapes, Acc.

Park et al. [2] confirmed the presence of sigma phase in the stir zone of FS welded 304 stainless steel due to probable higher temperature, high strain rate and dynamic recrystallization [2].
Also, Chen et al [3] reported the formation of sigma phase during friction stir processing (FSP) of 316 L austenitic stainless steel and resulted depletion of chromium leads to degraded the corrosion resistance of the steel.
Miyano et al [4] investigated on FSW of High nitrogen austenitic stainless steel and reported that the selection of optimum FSW parameters could produce better mechanical and metallurgical properties by effectively retarding the grain growth and secondary phase formation.
Ishikawa et al [5] reported that FSW of 304 stainless steel at higher welding speed produced better joint strength than the base metal.
Park et al [2] also reported the formation of shear bands on the advancing side of the welded joint.

In 2004, Zhai et. al [4,5] fabricated the high purity bulk Ti3AlC2 using hot pressing method, and investigated its tribological properties.
El-Raghy:J.
Ai, et.al.: J.
Zhou, et.al.: Mater.
Guan, et.al.: Wear.

., et al.
El. 26 (2015) 59-65
Malyshev, A.L.
Al-Rawas, M.E.
[14] A.L.

Gordon, et al.,: Nuclear Engineering and Design Vol. 174 (1997), p. 313 [4] M.
Itow, et al.,: Proceedings of the 12th International Conference on Environmental Degradation of Materials in Nuclear Power System - Water Reactors - TSM (2005), p. 65 [5] M.
Jayaprakash, et al.,: International Journal of Fatigue Vol. 32 (2010), p. 1788 [6] M.
Itatani, et al.,: Journal of Pressure Vessel Technology Vol. 123 (2001), p. 166 [7] H.
Yamashita, el al.,: International Journal of Pressure Vessel and Piping Vol.85 (2008), p. 582

Nishimura et al. have been reported the sintering of silicon nitride ceramics at lower sintering temperatures and soaking times than conventional GPS or hot pressing methods.
Mechanical behaviour of composites sintered at 1500°C are in good agreement with work of Ceja-Cárdenas et al. [16].
Pasupuleti et al. also reported an increase in KIC from 4.8 to 6.6MPa.m1/2 with 1 wt.% of MWCNTs, but this increase may be as well due to the greater fraction of elongated Si3N4 grains in the composite producing the well known in situ toughening [20].
A.L.
[19] EL.

Previously, Liou et al [9] reported the optimum density of 2.46 g/cm3 for Ca3Co4O9 sintered at 900°C for 6 h while Tahashi et al [10] reported that, at the sintering condition of 800°C/24 h and 920°C/24 h, the CCO ceramics exhibited a single phase with density of around 2.7 g/cm3.
Moreover, Schulz et al. reported using sintering conditions ranging from 920°C to 1200°C for 6 h in order to obtain the phase purity [11].
This density value was close to that reported by Prasoetsopha et al [14].
It was similar to that reported by Singsoog et al [16].
Barbero, E.L.

This provided both an impetus and incentive for the selection and use of the lower alloyed versions of the Al-Mg alloy.
The commercial Al-Mg alloy of interest is 5083 [Al-4.7 Mg-0.7 Mn].
COLD ROLLING 0.2% YS (MPa) UTS (MPa) % EL Grain Size (nm) Dis.
E.L.
Ramesh, Strengthening mechanisms in an Al-Mg alloy.

The electrode materials correspond to more than 50% of the batteries weight and contain essentially nickel and rare earths (RE), and other secondary elements (Co, Mn, Al).
The cathode is essentially constituted by 6% metallic Ni, 66% Ni(OH)2, 4.3% Co(OH)2 and the anode consists mainly in 62% RENi5 and 17% of substitutes and/or additives such as Co, Mn and Al.
For cylindrical type, the battery contains approximately 32% Ni, 3.9% Co, 1.0% Mn, 0.9% Al, 4.7% La and 1.2% Ce.
For prismatic type, the resulting composition is 22% Ni, 3.1% Co, 1.2% Mn, 0.72% Al, 2.2% La and 2.6% Ce.
Abd-El Motaleb, Recovery of nickel, cobalt and some salts from spent Ni-MH batteries, Waste Manage. 28 (2008) 1159-1167