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A number of scientific papers devoted to the issue of plastic electrodes and to the effects of blasting on the final quality of plastic electrodes over a period of 20 years is shown graphically in Figure 1.
The graph shows that the total number of papers dealing with the given topic is as follows: 78% deal with the plastic electrodes after blasting and 22% deal with identification of the surface quality of plastic electrodes after blasting.
Brown corundum F30 Maxi-Clean MC2 Black silicon carbide F22 Toughness [Mohs] 9 4 9.5 Density [kg/dm3] 1.7 0.85 1.41 Grain size [mm] 0.42-0.85 0.58-0.84 0.72-0.93 Results and discussion The plastic samples (electrodes) produced by multicomponent injection were measured by a contact profilometer Mitotuyo Surftest SJ 401 (Fig. 4a).

Fig. 1 Preparation process of sludge activated carbon Activation of Sludge Activated Carbon Preparation Process The purpose of activation is to make the specific surface area of adsorbent further increased and form a large number of pore structure, finally turn it into activated carbon which has large adsorption capacity and a large number of fine pore structure.
Ce doped could inhibit grain growth in TiO2.

The difference is caused by the impedance difference, such as a number of turns and stray capacitance between windings.
In relation to this, it is reported that when a number of H coil winding decreases the twist of BH loop disappears [10].
Tegopolos : Comparison of Iron losses in Multiple Grain Size Iron Laminations under Sinusoidal and SPWM Excitation , Applied Electromagnetic Engineering , Vol. 670 , pp. 74-81 (2011) [5]S.

In the experiment, the fiber volume content is 0.1%, by adding the early strength agent, retarder and fly ash and admixture, and cement sand ratio to make the cement matrix structure being close-grained, the early strength met the requirements.
Early strength mortar strength test results Serial number Cement sand ratio Fiber content (%) Cementitious materials Compressive strength (MPa) Flexural strength (MPa) Cement (%) Fly ash (%) 7d 28d 7d 28d 1 1 0 50 50 36.1 44.6 5.8 7.2 2 1 0.1 50 50 36.3 44.9 6.0 7.2 3 1 0.3 50 50 36.5 44.6 6.1 7.3 4 1 0.5 50 50 37.1 44.7 6.1 7.3 5 1 0.7 50 50 37.2 45.0 6.3 7.4 6 1 0.9 50 50 37.3 45.0 6.5 7.5 7 1 1.1 50 50 37.7 45.2 6.6 7.9 8 1 1.3 50 50 36.9 44.6 6.7 8.0 9 1 1.5 50 50 35.0 43.1 6.7 8.0 10 2 0 50 50 34.2 42.3 5.3 7.1 11 2 0.1 50 50 34.2 42.1 5.3 7.1 12 2 0.3 50 50 34.6 42.5 5.5 7.2 13 2 0.5 50 50 34.9 43.0 5.7 7.3 14 2 0.7 50 50 35.0 43.2 6.0 7.3 15 2 0.9 50 50 35.2 43.8 6.2 7.4 16 2 1.1 50 50 34.7 42.3 6.1 7.4 17 2 1.3 50 50 34.2 41.8 6.1 7.5 18 2 1.5 50 50 34.2 40.5 6.0 7.5 19 2.5 0 100 0 37.2 45.8 5.4 6.8 20 2.5 0.1 100 0 37.3 46.0 5.5 6.8 21 2.5 0.3 100 0 38.0 46.2 5.7 7.0 22 2.5 0.5 100 0 38.5 47.2 6.0 7.3 23 2.5 0.7 100 0 39.2 48.0 6.4 7.8 24 2.5 0.9 100 0 39.0 47.5 6.2 7.5 25 2.5
From the micro morphology of Figure 8, there were a small amount of Ca(OH)2 crystals, and a large number of hydrated calcium silicate gel flocculation.

The Knoop hardness numbers and the proportion of (gFe) to (aFe) in the subsurface layer were evaluated during preparation of the metallographic specimens on surfaces ground on SiC #220 paper and again after final polishing with 1 mm diamond (Table 3).
Table 3 Densities, Knoop Hardness Numbers and Volume Percentages of Austenite (3) Material Milling time [hours] Density [g/cm3] KH0.5 V(gFe) (4) as-polished condition as-ground condition as-polished condition as-ground condition Fe-Ni-8 8 7.90 ± 0.09 258 ± 36 305 ± 50 83 12 Fe-Ni-120 120 7.62 ± 0.10 440 ± 18 442 ± 54 27 10 Fe-Mn-8 8 7.75 ± 0.01 298 ± 17 359 ± 35 73 63 Fe-Mn-120 120 7.61 ± 0.08 363 ± 31 391 ± 52 96 98 (3) scatter intervals estimated at 90% confidence level (4) estimated assuming that V(aFe) + V(gFe) = 100% (no account taken of other phases) Table 4 Bending Properties and Abrasion Resistance Indices of the Experimental Alloys (5) Material Milling time [hours] 3-point bending test Ai [mm/20m] TRS [MPa] OYS [MPa] epl [%] Fe-Ni-8 8 1161 ± 277 775 ± 178 2.0 ± 1.0 22.0 ± 3.1 Fe-Ni-120 120 584 ± 247 - 0.1 ± 0.1 39.1 ± 6.5 Fe-Mn-8 8 1325 ± 228 866 ± 41 2.2 ± 1.4 23.2 ± 4.3 Fe-Mn-120 120 1421 ± 65 1351 ± 155 0.8 ± 1.3 28.4 ± 5.4 Co-20%WC - - - - 33.6 ± 8.2 (5) scatter
The metallographic observations (Figs 3-5) reveal marked differences in grain size and microstructural inhomogeneity of the tested specimens.

It makes the business model of MDA consist of the fine-grained basic service model.
The SOA services interoperability features make itself more favorable to be reused in a number of occasions.
ACKNOWLEDGMENT This work was supported by the Natural Science Foundation of Heilongjiang Province under grant number No.F201313.

Fractograms of samples of selected fraction 45 -160 µm a) initial; b) secondary There is a large number of facets with a fine-grained structure with traces of plastic deformation, which indicates the viscous nature of the fracture concerning samples made frominitial powder.
The regimes Zd.1.3-1.4 revealed low rates due to low power and a high number of defects.

Build in numerical integration is used to determine the maximum values of the magnetic flux density according to the equation: Bm= 1z2SFeu2dt (5) us – the instantaneous value of the secondary voltage, z2 – are numbers of turns of the secondary windings, SFe - the surface area of the cross section of the magnetic core, lFe - the average magnetic flux path in the core.
The maximum value of the magnetic field strength is determined form equation: Hm= i1z1lFe (6) i1 - the instantaneous value of the primary current, z1 – numbers of turns of the primary winding.
Hamzehbahmani, Inter-laminar fault analysis of magnetic cores with grain-oriented electrical steels under harmonic distortion magnetisations, IET Sci.

A number of industries are focusing on the development of this special Mg alloys including i. aerospace application in order to minimize emission reduction and fuel efficiency, ii. medical application due to its high biocompatibility and self-degradable in human body and iii. electronic application since it exhibits great improvement in strength, heat transfer, and ability to shield electromagnetic interference and radio frequency interference as compared with current plastic counterparts [2].
This indicated that the formation of fine crystallite which is due to the increasing number of collisions per unit time during milling process.
The reduction of pore size and its distribution at higher speed increased the contact area between grains leading to enhance densification effect, sinterability and its properties afterward.

The effect of the number of cycles of SILAR on the morphology and size of the quantum dots has been investigated.
The effect of SILAR cycles number on the QDs size and band gap was studied.
Repeating the number of cycles enables the particles grow in a controlled manner.
The images revealed that the surface consisted of spherical grains and it had a smooth appearance.
The intensity of the peak increased with the number of cycles increasing.