Table 2. A comparison between calculated and experimental positions of the invariant points on the liquidus surface. Reaction A) Liq+AI 13Fe 4=fcc+a Β) Uq+ß=fcc+oc C) Liq=ß+fcc+Si_F4 D) Liq+6=ß+Si_F4 E) Liq+AI 13Fe 4+7=a F) Liq+Y+a=ß G) Liq+y=6+ß H) Liq+AI 5Fe 4=bcc+AI 2Fe I) Liq+AI 2Fe=AI 5Fe 2+bcc J) L+AI 5Fe 2=AI, 3Fe 4+ τ 1 K) Liq+x_l=AI 13Fe 4+T_3 Temperature °C 632 620 629 629 630 632 621 615 612 611 613 578 577 577 576 578 573 608 595 600 596 597 600 749 ca. 710 855 710 855 715 675 703 700 700 700 1125 1120 1067 1041 1020 1020 975 wt%Fe 1.9 2.0 2,5 2.0 2.0 1,6 2,0 1,7 1.5 1,8 0,57 0,7 0,75 0,5 1,08 1,0 1,5 0.95 7,6 25.0 7,5 25,0 5.6 6,0 4.8 7.0 8.0 53.3 51,0 52,0 48,2 48,0 41.2 Liquid wt%Si 3.8 3,0 4,0 4,0 4,2 5,8 5.0 6,5 7,5 6,3 12,6 11,6 12.0 11,6 14,3 14,6 14,0 14,0 13,5 12,0 17,0 12,5 17,0 12.2 13,0 14.3 14.0 14,0 3,0 3.0 7,6 10.5 14,0 17,4 wt%Fe 39,1 0,0037 32,6 36.0 0.05 33,0 0,052 39,2 0.05 38,1 0,026 32,6 0,04 33,0 0,04 0,04 38,1 4.610 3 0,01 0,01 0,01 39,3 32,6 36,0 33,0 39,2 32,5 34,0 62,8 58,0 62,5 40.3 39,2 39,8 Solid phases wt%Si 0.27 0.45 6,2 0.1 0.6 7.0 0,64 0.8 0,64 15,9 0,7 7,2 1.1 7,0 1,0 1.0 15,9 1,8 1,6 1,65 1,7 1,6 7,9 0,2 7,0 0.8 8.3 7,0 1,8 14,0 5,3 2,1 0,8 4,1 phase Al 13 (ce α Al,3 (ce α Ice Alia fee α (cc α fee α fee fee α Ice fee fee fee Al, 3 α Al,3 α Al« α α bec bec bec Alis Al« Al,3 Cale Ref 81 Riv 76Mon 55Arm 59Phi 92Gho Cale 81 Riv 76Mon 59Phi 92Gho Cale 55Arm 81 Riv 76Mon 59Phi 92Gho Cale 55Arm 81 Riv 76Mon 59Phi 92Gho Cale 55Arm 81 Riv Mon 92Gho Cale 76Mon Cale 55Arm 76Mon 81 Riv 1 Cale 81 Riv 2 92Gho Cale Cale 81 Riv 92Gho Cale 1 For lhe reaction Liq+δ = α + β 2 For lhe reaclion Liq+AI^Fc 4 =bcc+Al5Fc2 170
L) Liq+bcc=FeSi+t_1 M) Liq+t 1=FeSi+x 3 N) Liq=FeSi+x_3+Si 0) Liq+T_3=Si_F4+8 P) Liq+t_3=Y+5 Q) Liq+AI 13Fe 4+T_3=y R) Liq+bcc=AI 5Fe 2+T_1 S) Liq+FeSi 2=FeSi+Si 940 1064 1050 1050 957 884 880 (885; 868 865 871 835 901 940 (855! 1048 1020 935 41,0 58,6 50,0 50,0 44,9 36,5 36,0 (38.0) 23,8 23,0 20,3 22,0 23,6 40 (25) 49,9 48,0 19,0 20,5 19.0 19,0 25,9 36,6 36,0 (36,0) 33,7 32,0 24,4 22,0 18,9 19(17) 9,7 14,0 66,9 63,0 61,2 58,0 16.5 11,0 8,3 14,0 bec bec bec bec 40Tak 3 Cale 81 Riv 4 92Gho Cale Cale 81 Riv 5 Cale 81 Riv Cale 81 Riv Cale 81 Riv 6 Cale 81 Riv 92Gho Cale 3 For lhe reaction Liq+t-l=AI,3Fe 4+Y For the corresponding peritectic reaction 5 For the reaction Liq+x_l=FeSi 2+T_3 or (numbers in parenthesis) Liq+FeSi 2=Si+x_3 6 For the reaction Liq+T_l+Al 13Fe 4=7or (numbers in parenthesis) Liq+Al 13Fc 4+y=a - 171
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European Commission COST European c
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European Commission COST European c
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Preface The Final Workshop of the C
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COST 507 STRUCTURE Measurement and
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GRl: Mirtee S.A., Volos Mr.P.Polati
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D9 Dll Fl GR2 II NI S3 SF1 "Thermop
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A Summary of the COST 507 Action an
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Aluminium-based systems Titanium-ba
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An Example using the COST 507 Datab
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Appendix COST 507: Some Key Meeting
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Al - 0.5 Fe, 1 Mg, 0.8 Mn, 0.2 Si (
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Fig 4 Aluminium beverage cans. The
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Fig 6 High pressure compressor vane
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INTRODUCTION All of us are aware of
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In the interaction with materials a
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There was a first warning more than
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Some time ago, the well-known physi
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Today there is a whole range of ins
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The dimension of this reservoir inc
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REFERENCES [ 1 ] G. Petzow, "Man, M
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Trends in Application of Materials
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Raw Materials The Cycle of Material
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i LÌ i.'»Af·· iù^ VV.V.X. iTTa
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1600 OJ 1200 .« 1100 d 1000 900 Si
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Al Phase Relations in the Aluminium
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oundaries of the single phase regio
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Table 1 : Crystallographic Data of
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order to facilitate the evaluation
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(especially around 33 at% Mg) in or
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3.System Ti-Sn-Al-N. The investigat
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6) N.Durlu, U.Gruber, M.Pietzka, H.
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Summary of final report Directional
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calculate the thermodynamic mixing
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Introduction It is the aim of this
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Thermodynamic evaluations for high
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Figure 5 presents the calculated li
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There is a complete lack in the lit
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a.B5 ø.ia 0.15 0.20 0.25 0.30 0.35
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700 [53Phi] 800 +[90Kuz21 ]iquld a
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Thermodynamic Assessments, Experime
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AIN and TiNi_ x is also given. Vari
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satisfied the three requirements of
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84Bey R. Beyers, R. Sinclair, and M
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Material and Methods 2.1 Fabricatio
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3.4 Electronmicroscopy (SEM) and X-
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Tab. 3: Density of the Ti20Albase
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Tab.5. continued TÌ20A1 5CulONi Ti
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Fig. 3: ESMA and Xray diffraction
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Fig.7: Wetting angle of Ti 15A1 lOC
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Thermophysical Properties of Light
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Tab.2 Chemical composition of terna
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700 (AI)+AIFeS¡«_600 KS1275.1 l
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4.2 Thermal conductivity of industr
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4.3 AlSiZn alloys Electrical re
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94Jar/Bra G.Jaroma-Weiland, R.Brand
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MgZn9 (C 14) and Mg2Zn u in the Al
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The three Laves phases were describ
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Fcc_Al aves_C15 ONU ΔΝ12 αΝ13
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2.2 Assessment The optimisation of
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0.50 0.45 CulOZr7/ 0. 40 Or ^ 0.3
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References [71Kri] Kripyakevich, P.
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Kejun Zeng and Marko Hämäläinen,
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for detennining phase boundary and
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Table 2 Al-Fe-Mn results wt%Fe 0.5
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•00 Γ Ι I I I ~ LIQUID S^ 7iO
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the observed A2-B2 ordering. This p
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1473K Ahmed & Flower [94 Ahmi] 0.2
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900K Paruchuri & Massalski [91Par]
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BCC_B2#2 TI3RL TIPL BCC B2#2 TIRL
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0.2 0.3 0.4 0.5 X(LIQ,V) Figure 15
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1 Introduction and Overview of the
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at least 95% by Fe, possibly 99%, a
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8 References 43Phi H W L Phillips,
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1050 1000 Isopleth, Al - Si - 4 wt
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Al-Mn-Si 873 K 0.90 Liquid 0.80 0.7
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A Thermochemical Assessment of Data
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certainly due to the appearance of
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Materials Science Centre, November
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1400 Al-Mn Fig 2 Calculated partial
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1000 ι AlMn I Ι 950 Liquid E ω
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Al-Fe-Mn 843 K 0.90 0.80 0.70 0.60
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AlFeMn section at 2 wt% Mn co
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0.50 0.45 0.40-1 LU £ 0.35 LU 0.30
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European Commission EUR 18171 —CO
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NOTICE TO THE READER Information on