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El-Sayed: J.
Garcia, et al.: Particles 2008, Orlando, USA, (10-13 May 2008). ,[] O.
, [] G.Alekseev, et al.: Welding International, vol. 14, № 3, с.246–248 (2000). ] at atmosphere conditions.
Johno, Y.Takeda, et al.: J.
Kovachki, et al.: (Conference Proceedings Paper) Vol: Laser Radiation Photophysics, Bodil Braren; Mikhail N.

The Effect of the Input Parameters on the Melt-Pool Temperature This scenario was investigated by Obeidi et al. [7] during the melting of 3×3×4 mm nitinol (NiTi) testing cubes.
The latter result agrees well with that reported by Obeidi et al. [5].
[2] El Hassanin A., Ahmed Obeidi M., Scherillo F., Brabazon D., “CO2 laser polishing of laser-powder bed fusion produced AlSi10Mg parts”, Surface & Coatings Technology 419 (2021) 12729, doi.org/10.1016/j.surfcoat.2021.127291 [3] Salman, O.; Gammer, C.; Chaubey, A.K.; Echert, J.; Scudino, S.
Conway et al., “Comprehensive assessment of spatter material generated during selective laser melting of stainless steel,” Mater.
[12] Mahato V., et al., “Detecting voids in 3D printing using melt pool time series data”, Journal of Intelligent Manufacturing, https://doi.org/10.1007/s10845-020-01694-8

Wu Y.Y. et al. [2] added nanoparticles such as CuO, TiO2 into API-SF engine oil and reported that the nanoparticles, especially CuO particles, can improve the lubricity of the engine oil.
S. [5] et al also found that Al/Sn and Copper Borate nanoparticles could be used as additives to improve the lubricating property of base oils.
N., el al.
Enhancing AW/EP Property of Lubricant Oil by Adding Nano Al/Sn Particles[J].
L., et al.

Al, Cu-8%wt.
Al) with low SFE or medium SFE metals (Cu deformed at 77K) but all with the C(112)[111] initial orientation.
Al alloy and presented as a 'Kikuchi band contrast map'.
Macroscopic SB in Cu-8%Al alloy channel-die deformed 50%.
El-Danaf, S.R.

Ti-based bulk amorphous alloy systems, such as Ti-Ni-Cu[2], Ti-Ni-Cu-Al[3], Ti-Zr-Ni-Cu-Al[4], Ti-Ni-Cu-Sn[5,6], and Ti-Ni-Cu-Si-B[7] etc., have also been investigated due to their relatively lower density and/or higher specific strength.
Similar results have also been found in Fe-B[17], Fe-Ta[11], Zr-Ti-Al-Ni-Cu[10], and Ni-Zr-Ti-Si[15] systems.
Kim et. al.[6] have reported that the Ti-Cu-Ni-Sn amorphous alloys can be prepared by melt spinning technique.
The amorphous mechanically alloyed Ti50Cu35-xNi15Snx powders showed similar results as reported by Kim et. al. [6] Mechanically alloyed Ti50Cu35N15 powders, however, exhibited no glass transition behavior.
El-Eskandarany, K.

Zhang Tao et al.[5-6] reported Ni-promoted W2C catalysts for direct catalytic conversion of cellulose and polyols to lower alcohols.
Edman Tsang et al.[8-9] investigated the conversion of ethylene glycol or glycerol to methanol over a Pd/Fe2O3 co-precipitated catalyst.
Zhou Zhiming et al.[14] studied the kinetics of hydrogenolysis from glycerol to propylene glycol over a series of Cu-ZnO-Al2O3 catalysts.
To eliminate the internal diffusion influences, the Ni-Al alloy was milled and sieved to more than 200 mesh before preparation.
[2] E.L.

Yao, et al.: Appl.
Liu, et al.: J.
El-Sayed: Acc.
Zhao, et al.: Appl.
Wu, et al.: J.

Ajiwe et al. [8] and Melo et al. [9] carried out an assessment of particleboards manufactured from different proportions of wood and rice husk particles and reported that the particleboard had insufficient strength due to poor bonding within the admixture.
Physical and mechanical properties of particleboards manufactured with wood, rice husk and bamboo particles in different combinations were assessed by Melo et al. [12].
According to Odusote et al. [16], this may be due to poor water retention during faster rate drying process.
According to Ndazi et al. [3], for the minimum requirement to be met, the interfacial bond strength must be increased between the rice husk and the saw dust together with the adhesives used.
Editorial El Kultrún, Valdivia, Chile, (2001) p. 177

Yang et al. (1982) [3] explored the dewatering effect by drying process on the physical and mechanical properties of Guizhou red clay.
Wang et al. (2011) [5] found that the shear strength of the remolded red clay was also reduced when the water content increased.
Wildenschilds et al. (2001) [13] concluded different explanations for dynamic effects during the transient flow progress.
[8] Perrier, E., et al., Models of the water retention curve for soils with a fractal pore size distribution.
[16] Chen, H., Wei, C.F., Cao, H.F., Wu, E.L., Li, H., Dynamic capillary effect and its impact on the residual water content in unsaturated soils.

-initial anodizing in 7.5-10M HNO3, at 1-2 A/dm 2 for 5 minutes, at 25 oC Al/Ag a.c.
Correspondingly, the corrosion current for Al/Mo system is six times higher than that evaluated for Al/NiMo one.
Figure 13 - Corrosion evolution during continuous immersion in 0.5 M NaCl It may be noticed according to Fig.13 that the best corrosion protection is offered by Al/Ni a.c. system, followed by Al/PPy and Al/PPy-TEOS ones.
Also, for these coatings there have been 0 500 1000 1500 2000 2500 3000 3500 4000 4500 0 -200 -400 -600 -800 -1000 -1200 -1400 -1600 -1800 -Zim [Ohm] Zre [Ohm] Al/PPy-TEOS, 24 h Al/PPy, 24 h Al/PPy-TEOS, 240 h Al/PPy, 240 h 0 5 10 15 20 25 30 coating corrosion, % 24 48 72 144 168 192 240 336 408 immersion period, hours NiMo NiMo-TEOS Mo PPy PPy-TEOS Ag c.a.
[7] M.F.Shaffei, S.S.Abd El-Rehim, N.A.Shaaban, H.S.Hisen, Renewable Energy Vol. 23 (2001), p.489