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[3] Chu, J., et al., Optimization of calcium-based bioclogging and biocementation of sand.
[15] Cheng, L., et al.
Mahboub, Spectroscopic Characterizations of Sand Dunes Minerals of El-Oued (Northeast Algerian Sahara) by FTIR, XRF and XRD Analyses.
[28] Mu, Z., et al., Pressure-driven fusion of amorphous particles into integrated monoliths.
[35] Nassif, N., et al., Amorphous Layer around Aragonite Platelets in Nacre.

Zhang, et al. proposed a 6-DOF device toprogram a robot[33].
El FallahSeghrouchni,J.
Park, et al.
Park, et al.
Zhang, et al.

Further, it was concluded by Yoda et al. [3] and Mirza et al. [4] that the use of steel fibres can improve the performance of composite beam.
Experimental set-up of steel fibre reinforced concrete slab done by Mpegetis et al. [5] Fig 4.
Source: Mpegetis et al. [5] Development of FE models and validation Fig 5.
Source: Vasdravellis et al. [1] Fig 11.
Uy, E.L.

F. et al, A new member of the immunoglobulin superfamily–CTLA-4.
[22] Huang, B., et al., Advances in Immunotherapy for Glioblastoma Multiforme.
[26] Sanlorenzo, M., et al., Melanoma immunotherapy.
[30] El-Khoueiry AB, S.B., Yau T, et al, Nivolumab in patients with advanced hepatocellular carcinoma (CheckMate 040): an open-label, non-comparative, phase 1/2 dose escalation and expansion trial.
[33] Hirsch FR, S.G., et al, Lung cancer: current therapies and new targeted treatments.

Al-Farhany, S.E.
Al-Rashed, A.
Al-Azzawi, A.K.
El-Maghlany, M.A.
Al-Farhany, O.

The experimental data on GB wetting phase transitions in the systems Al-Sn, Al-Ga, Al-Sn-Ga, Cu-In, Cu-Bi, Fe-Si-Zn, Mo-Ni, W-Ni, Zn-Sn and Zn-In are analysed.
Vol. 33 (1985), p. 1735 [10] E.L.
Massalski et al.
Pereiro-López et al. and O.
Lame et al. presented at this conference.

An example of the success of this latter approach is shown in Fig. 8 where data are given for a model Al-10.8% Ag alloy fabricated in the laboratory by melting high-purity Al and Ag and casting into an ingot [27].
Thus, the grains grow rapidly in pure Al and the Al-3% Mg solid solution alloy at temperatures in the vicinity of ~500 K [28] but small grain sizes are retained to high temperatures (>700 K) in an Al-3% Mg-0.2% Sc alloy fabricated in the laboratory [29] and a commercial Al-5.5% Mg-2.2% Li-0.12% Zr alloy [30].
The results presented in Fig. 9 suggest that it should be feasible to achieve good superplastic properties in the Al-Mg-Sc and the Al-Mg-Li-Zr alloys because of the retention of small grain sizes at high testing temperatures.
This prediction is confirmed in Fig. 10 for the Al-Mg-Li-Zr alloy where the elongations to failure are shown as a function of the testing strain rate at temperatures from 573 to 723 K for samples processed by ECAP (a) for 4 passes at 673 K and (b) for 8 passes at 673 K and an additional 4 passes at 473 K: the lower solid points shown in Figs 10(a) and (b) are Fig. 9 Grain size versus annealing temperature for four different materials after ECAP: pure Al [28], Al-3% Mg [28], Al-3% Mg0.2% Sc [29] and Al-5.5% Mg-2.2% Li-0.12% Zr [30].
El-Sherik, G.

Al-Kadi, M.
El-Sherbeny, and A.
El-Sayed, “Literature Review on EEG Preprocessing, Feature Extraction, and Classifications Techniques,” Menoufia J.
Bore et al., “Sparse EEG Source Localization Using LAPPS: Least Absolute l-P (0Mullen et al., “Real-time neuroimaging and cognitive monitoring using wearable dry EEG,” IEEE Trans.

Al-Qahtani [23], has investigated the wastes of some fruits, such as kiwi and tangerine peel, to remove toxic cadmium and other heavy elements, chromium and zinc ions in aqueous solution.
The bioadsorption capacity of fruit wastes from banana peel, lemon and orange peel was evaluated by Kelly-Vargas et al. [24] in some heavy metals.
As reported by Mohapatra et al. [34], banana peel is found as a good source of pectin (10-21%), lignin (6-12%), cellulose (7.6-9.6%), hemicelluloses (6.4-9, 4%) and galactouroninc acid.
[15] El-Asht oukhy E.
[16] Dabrowski A, Hubicki Z., Podkoscielny P. and Robens E., (2004), Select ive removal of t he heavy met al ions from wat ers and indust rial wastewaters by ion-exchange met hod‖, Chemosphere, Vol. 56, pp. 91-106

Note that the maximum ductility for Ti-Al-Cr alloys occurs at ~2 at. % Cr with 46 to 48 at.% Al [12]. 2.
Furthermore, Mabru et al. [26] suggested that the adsorption of oxygen is favored and the Al atoms are covered more readily with air than with moisture at higher temperatures.
Based on the EDS and XPS results, lots of oxides of Ti and Al were produced during the wear tests in the oxygen environment.
Huang, E.L.
Munroe, Dry sliding wear of eutectic Al–Si, Journal of Materials Science, 45 (2010) 969-978