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Fig. 1.
The D + D' peak at 2925cm-1 is due to the defect activated combination of phonons, and the 2D peak at 2658 cm-1 is the second order of the D peak.
Also, an intensive D-band at ~1336 cm-1 and a 2D- band at 2658 cm-1 while D+D’ at ~ 2925 cm-1 is visible.
Specimens ID Tc (ᵒC) Tm (ᵒC) ∆Hm J/g ∆T (ᵒC) Xc(%) PE PP PE PE PP PE PP PB PE 103±1 - 124±1 - 77 - 21 26 - - PEGO 107±1 - 123±1 - 68 - 16 23 - - PErGO 107±1 - 123±1 - 74 - 17 25 - - PEG 107±1 - 123±1 - 77 - 17 26 - - PP - 119±1 - 167±1 - 100 49 - 48 - PPGO - 119±1 - 166±1 - 76 47 - 37 - PPrGO - 121±1 - 165±1 - 78 44 - 38 - PPG - 123±1 - 163±1 - 80 40 - 39 - PB 109±1 115±1 123±1 166±1 15 46 - 5 22 27 PBGO 107±1 118±1 123±1 166±1 27 35 - 9 17 26 PBrGO 106±1 117±1 123±1 165±1 29 37 - 10 18 28 PBG n.d 115±1 121±1 165±1 22 40 - 8 19 27 PBC 106±1 114±1 122±1 164±1 23 33 - 4 23 27 PBCGO 108±1 117±1 123±1 166±1 28 36 - 10 17 27 PBCrGO 106±1 113±1 122±1 164±1 28 32 - 10 16 26 PBCG n.d 114±1 121±1 165±1 32 23 - 11 11 22 Thermal stability.
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Fig. 1.
С. 1-3
С. 1-5
С. 1-4
S. 1-11

The recorded coordinates are shown in Table 1 and the study area is shown in Fig. 1.
Table 1.
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Table 1.
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The Cast Structure A typical phase diagram associated with engineering titanium alloys is shown in Figure 1 along with a broad alloy classification.
Lath Figure 12: a) starting lamellar structure of IMI834 alloy deformed at 950C,10-2s-1 to a strain of 0.4 b) starting lamellar structure of IMI834 alloy deformed at 1000C,10-3s-1 to a strain of 0.4 [44].
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Gogia, Microstructure and texture of rolled and annealed b titanium alloy Ti–10V–4.5Fe–1.5Al, Mater.
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Scheme 1.
Fig. 1.
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Part 1, Trans.

Sani Kermani3, c 1 Ph.D.
Table 1.
Figure 1.
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Fig. 1 Proposed linkages between S-O modeling and SDGs.
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Muitani: Thermal Stability of Titanium Silicide thin films, Conference Proceedings - VLSI and Computers: First International Conference on Computer Technology Systems and Applications, IEEE (1987), pp. 470-479
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