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Abd El-Ghany, “Optical spectroscopic analysis of Fe2O3 doped CuO containing phosphate glass”, Opt.
El-Egili, “Infrared spectra of sodium phosphate glasses”, J.
Al-Ani, I.H.O.
Al-Hassany and Z.T.
Al-Dahan, “The optical properties and a.c. conductivity of magnesium phosphate glasses”, J.

Evaluation of tool wear when milling SiCp/Al Composites S.T.
Milling is another important machining method for SiCp/Al composites, but there are few works related to the influence of milling characteristics of SiCp/Al composites, especially for the high volume fraction SiCp/Al composites.
The experimental material is CY1110 SiCp/Al composites.
Li et al. [9] and E.
El-Gallab and M.

Hierarchical Nitrogen Nanoporous Carbons by Surfactant-Assisted Synthesis of Zeolitic-Imidazolate Frameworks for High Performance Supercapacitor Aya Khalifa1,2,a, Shaker Ebrahim3,b, Ahmed El Said1,4,c and Mohamad M.
Ayad1,2,d* 1Institute of Basic and Applied Sciences, Egypt-Japan University of Science and Technology, Borg-El-Arab City, Alexandria 21934, Egypt 2Chemistry Department, Faculty of Science, Tanta University, Tanta 31527, Egypt 3Department of Materials Science, Institute of Graduate Studies and Research, Alexandria University, 163 Horrya Avenue, El-Shatby, Alexandria 21526, Egypt 4Mathematics and Engineering Physics Department, Faculty of Engineering, Mansoura University, PO 35516, Mansoura, Egypt aaya.khalifa@ejust.edu.eg, bshaker.ebrahim@alexu.edu.eg, cahmed.elsaid@ejust.edu.eg, dmohamad.ayad@ejust.edu.eg Keywords: Zeolitic imidazolate frameworks (ZIFs); Nitrogen-doped porous carbons (NPCs); Electrochemical energy storage; Supercapacitor Abstract.
Chmiola et al. found an irregular increase in specific capacitance when the electrode materials have a surface area and pore structure suitable to the ion diameter of the electrolyte [4].
Sulphoric acid (99%, EDWIC, El Nasr Pharmaceutical chemicals) was used as electrolyte.

All metallic sheet surfaces were pretreated with an AC-130 sol-gel post-treatment after corundum-blasting with 105 μm particles and then added to the laminate stacking within one hour, as described by Stefaniak et al. [2].
Xue et al. [9] is used for the present investigations.
The advantages of the bilinear model or MVF-approach (Metal-Volume-Fraction-approach) for preliminary investigation are simplicity and also its predictions of laminate stiffness EL and yield strength σL,y are quite accurate [4].
The laminate’s longitudinal stiffness EL and the thermal expansion coefficient in fiber direction αL can be predicted by the rule of mixture as a function of the metal volume fraction φm [11].
After the yield point of the steel is exceeded, the laminate´s longitudinal stiffness EL,pl decreases due to the change in rigidity of the metal.

Jiang et el. developed a new model considering fiber end effects using imaginary fiber technique [12].
Moshtaghin et el. within a micromechanical framework, derived the overall yield function of nanoporous materials.
[5] Wu, W., et al., An improved analysis of the stresses in a single-fibre fragmentation test: I.
Nutt, An analysis of residual stress formation in whisker-reinforced Al-SiC composites.
Arsenault, An FEM study of the plastic deformation process of whisker reinforced SiC/Al composites.

Recently, Huang et al. [4], El Fatmi [5], and Yiatros et al. [6] devoted themselves to studying the sandwich beam instabilities, by using the perturbation and finite element method, respectively.
The solution is based on the governing equations derived by Huang et al. [4].
El Fatmi: C.

Yue-Xin, et al: Chinese J.
Pinho, et al: Therm.Anal.
El-Shall , M.
El-Shall: Cryst.
S., Van Driessche, Juan Manuel García-Ruiz, et al.

For example, Ren et al. (2009) [7] found that the tensile strength and elongation at break of TPS (corn starch)/PBAT film (50:50) could be improved after adding anhydride functionalized polymer (1wt%) as a compatibilizer.
Abd El-Mohdy, E.
El-Nesr, and M.
El-Wahab, Synthesis, characterization and properties of radiation-induced Starch/(EG-co-MAA) hydrogels, Arabian Journal of Chemistry, 9 (2006) S1627–S1635
Winotapun et al., Development of multilayer films with improved aroma barrier properties for durian packaging application, Packaging Technology and Science, 32 (2019) 405–418

All organic layers were grown on the amorphous IZO and commercial ITO anode by thermal evaporation at 1×10 -7 Torr in the following order: hole transporting layer (HTL)/emission layer (EL)/hole blocking layer (HBL)/electron transporting layer (ETL)/electron injection layer (EIL) 40 nm-thick α-napthylphenlylbiphenyl (NPB) and 30 nm-thick 4,4'-bis(9-carbazolyl)-biphenyl (CBP) doped with 6 wt %[Ir(ppy)3] were used as the HTL and EL, respectively.
Subsequently, a 10 nm-thick 2,9-Dimethyl-4,7-diphenyl-1,10-phenanthroline (bathocuproine: BCP) layer was grown on the EL layer as a HBL layer.
Finally, a 100 nm-thick Al cathode layer was patterned using a shadow metal mask.
He et al., in an investigation of the p-i-n structure of an OLED, reported improved EQE (19.5%) when a double emission layer (TCTA/TAZ) doped with [Ir(ppy)3] was used, which led to an expanded exciton generation region [4].
Mark et al., in an investigation of the high work function transparent conducting oxide as an anode for an OLED, reported that an IZO film has higher work function (5.2eV) than a commercial ITO (4.7eV) [5].

The range of BX, BY and BZ is -0.048~0.145 T, -0.046~0.292 T and -0.183~0.196 T in the Al of the Al reduction cell, respectively.
Fig. 1 Schematic diagram of pre-bake anode Al reduction cell Fig. 2 FEM model of Al reduction cell Calculated Results and Analysis.
Fig. 3 X magnetic intensity of the Al of the Al reduction cell (Tesla) Fig. 4 Y magnetic intensity of the Al of the Al reduction cell (Tesla) Fig. 5 Z magnetic intensity of the Al of the Al reduction cell (Tesla) Fig. 6 Sum magnetic intensity vector of the Al of the Al reduction cell (Tesla) Fig. 7 X magnetic intensity of the electrolyte of the Al reduction cell (Tesla) Fig. 8 Y magnetic intensity of the electrolyte of the Al reduction cell (Tesla) Fig. 9 Z magnetic intensity of the electrolyte of the Al reduction cell (Tesla) Fig. 10 Sum magnetic intensity vector of electrolyte of the Al reduction cell (Tesla) Fig. 11 X magnetic intensity of the cell wall of the Al reduction cell (Tesla) Fig. 12 Y magnetic intensity of the cell wall of the Al reduction cell (Tesla) Fig. 13 Z magnetic intensity of the cell wall of the Al reduction cell (Tesla) Fig. 14 Sum magnetic intensity vector of the cell wall of the Al reduction cell (Tesla) Fig.12~Fig.15 are the X, Y, Z and the magnetic
The range of BX, BY and BZ is -0.048~0.145 T, -0.046~0.292 T and -0.183~0.196 T in the Al of the Al reduction cell, respectively.
Zhou: Journal of Central South University of Technology Vol. 15 (2008), p. 271-275 [8] S Molokov, G El, A Lukyanov: Theoretical and Computational Fluid Dynamics Vol. 25 (2011), p. 261-279 [9] Y.X.