Al–Cr system

289 accepted literature values from 9 paper(s) (experimental 149, model 117, DFT 21, unspecified 2); 11 calculated phase diagram(s). 39 further extracted value(s) not accepted by the reader-agreement checks are only in the JSON/CSV.

Data: JSON · CSV · interactive explorer · interactive phase diagram · phases (22) · papers (bibliography) · Markdown

Accepted values by evidence class
Evidence classValues
experimental149
model117
DFT21
unspecified2
Accepted values by property group
Property groupValues
invariant reaction185
phase transition4
formation33
mixing / partial16
activity / EMF / Gibbs energy5
crystal structure46

Calculated phase diagrams

Binary phase diagrams calculated with pycalphad 0.11.2 from the SGTE binary collection (Hallstedt 2025, CC BY 4.0). Evidence class: model.

Assessments with a calculated phase diagram
TDB fileAssessmentSHA-256Links
AlCr-07Tok.tdbT. Tokunaga, H. Ohtani, M. Hasebe, Mater. Sci. Forum, 539-543, 2407-12(2007).ee23e66a1bdea74d7241cc1274bad305f58f361b88e8267035cc122522793dc2viewer · TDB · JSON
AlCr-08Lia.tdbY. Liang, C. Guo, C. Li, Z. Du, J. Alloys Compd., 460, 314-19(2008). doi:10.1016/j.jallcom.2007.06.046cb95deff1d501921cbec1b1da3803440a7c0e77422c03efab30acfef6229386aviewer · TDB · JSON
AlCr-13Hu.tdbB. Hu, W.-W. Zhang, Y. Peng, Y. Du, S. Liu, Y. Zhang, Thermochim. Acta, 561, 77-90(2013). doi:10.1016/j.tca.2013.03.033400f33b0e0f11572303378a4d50c1a3f9a1fb209e3aa1845999894858ec55e4dviewer · TDB · JSON
AlCr-15Wit.tdbV. Witusiewicz, A.A. Bondar, U. Hecht, T.Ya. Velikanova, J. Alloys Compd., 644, 939-58(2015). doi:10.1016/j.jallcom.2015.04.231605a85f4e8820e101080dbfbbb7894a03270d5c231e1fb9a467e3ec52a381002viewer · TDB · JSON
AlCr-17Cui-incomplete.tdbS. Cui, I.-H. Jung, J. Kim, J. Xin, J. Alloys Compd., 698, 1038-57(2017). doi:10.1016/j.jallcom.2016.12.298d52e262fe5567200dacb15ecfb17c6f0502bd9156a81657b6e6a88d42158b85cviewer · TDB · JSON
AlCr-17Wan-mod.tdbS. Wang, Z. Li, Z. Qin, S. Wang, X. Lu, C. Li, TMS 2017 Proc., 443-54(2017).e21cb50e5c1e3c4e8379755682099d7fc121921414de6668fff1a842314e2ef6viewer · TDB · JSON
AlCr-17Wan.tdbS. Wang, Z. Li, Z. Qin, S. Wang, X. Lu, C. Li, TMS 2017 Proc., 443-54(2017).8e8c45374f1c712a18a2f24a15915a020e7ebe3d75edd5241c8615dceb96a307viewer · TDB · JSON
AlCr-86Sau.tdbN. Saunders, V.G. Rivlin, Mater. Sci. Technol., 2, 521-27(1986). doi:10.1179/mst.1986.2.6.520d8abfb6d55e4982f8edbc6c80112772fd8f6e363779defdd442d0a4961921ec9viewer · TDB · JSON
AlCr-87Sau.tdbN. Saunders, V.G. Rivlin, Z. Metallkd., 78, 795-801(1987). doi:10.1515/ijmr-1987-781107bf9d7ebfd1794ac492f5522e7984bf0090599017b0c871accc01c3b672903b91viewer · TDB · JSON
AlCr-98Mur.tdbJ.L. Murray, J. Phase Equilib., 19, 368-75(1998).9b6ae9c7e72be98b91371bf9f679af738f88c4b93420ae29a1ce4d160dd2e2beviewer · TDB · JSON
AlCr-98Sau-LB.tdbN. Saunders, COST 507, Final report round 2, 1998ee9e4a3b8087dbe94925564023076e584e98d711301e834d2ecdd9afd72458aaviewer · TDB · JSON
Calculated three-phase invariants (model, mole fraction of the second component)
TDB fileT (K)Phases at the invariant
AlCr-07Tok.tdb1583.7LIQUID (x(Cr) 0.37809) + AL8CR5 (x(Cr) 0.40378) + BCC_A2 (x(Cr) 0.53069)
AlCr-07Tok.tdb1309.7LIQUID (x(Cr) 0.13123) + AL4CR (x(Cr) 0.2) + AL8CR5 (x(Cr) 0.29972)
AlCr-07Tok.tdb1162.14LIQUID (x(Cr) 0.03841) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-07Tok.tdb1162.14LIQUID (x(Cr) 0.03833) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-07Tok.tdb1162.14LIQUID (x(Cr) 0.03846) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-07Tok.tdb1143.31AL8CR5 (x(Cr) 0.42506) + BCC_A2 (x(Cr) 0.63089) + ALCR2_C11B (x(Cr) 0.6647)
AlCr-07Tok.tdb1060.72LIQUID (x(Cr) 0.01115) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-07Tok.tdb1060.71LIQUID (x(Cr) 0.0111) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-07Tok.tdb1060.71LIQUID (x(Cr) 0.01108) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-07Tok.tdb934.79LIQUID (x(Cr) 0.00129) + FCC_A1 (x(Cr) 0.00322) + AL13CR2 (x(Cr) 0.13333)
AlCr-07Tok.tdb934.79LIQUID (x(Cr) 0.00127) + FCC_A1 (x(Cr) 0.00316) + AL13CR2 (x(Cr) 0.13333)
AlCr-08Lia.tdb1593.28LIQUID (x(Cr) 0.37922) + AL8CR5_D82 (x(Cr) 0.40637) + BCC_A2 (x(Cr) 0.52046)
AlCr-08Lia.tdb1412.79AL8CR5_D82 (x(Cr) 0.41857) + AL8CR5_D810 (x(Cr) 0.42031) + BCC_A2 (x(Cr) 0.55776)
AlCr-08Lia.tdb1333.09LIQUID (x(Cr) 0.15755) + AL8CR5_D82 (x(Cr) 0.27868) + AL8CR5_D810 (x(Cr) 0.3116)
AlCr-08Lia.tdb1313.13LIQUID (x(Cr) 0.14538) + AL4CR (x(Cr) 0.19911) + AL8CR5_D810 (x(Cr) 0.29367)
AlCr-08Lia.tdb1168.22LIQUID (x(Cr) 0.04645) + AL11CR2 (x(Cr) 0.14519) + AL4CR (x(Cr) 0.19331)
AlCr-08Lia.tdb1155.32AL8CR5_D810 (x(Cr) 0.43269) + BCC_A2 (x(Cr) 0.62908) + ALCR2_C11B (x(Cr) 0.65672)
AlCr-08Lia.tdb1072.24LIQUID (x(Cr) 0.01931) + AL7CR (x(Cr) 0.12124) + AL11CR2 (x(Cr) 0.14586)
AlCr-08Lia.tdb1058.38AL7CR (x(Cr) 0.12212) + AL11CR2 (x(Cr) 0.14838) + AL4CR (x(Cr) 0.18505)
AlCr-08Lia.tdb934.47LIQUID (x(Cr) 0.00167) + FCC_A1 (x(Cr) 0.00311) + AL7CR (x(Cr) 0.11098)
AlCr-13Hu.tdb1587.63LIQUID (x(Cr) 0.38416) + AL8CR5_D82 (x(Cr) 0.39252) + BCC_A2 (x(Cr) 0.49234)
AlCr-13Hu.tdb1587.63LIQUID (x(Cr) 0.38416) + AL8CR5_D82 (x(Cr) 0.39252) + B2_BCC (x(Cr) 0.49234)
AlCr-13Hu.tdb1415.11AL8CR5_D82 (x(Cr) 0.40182) + AL8CR5_D810 (x(Cr) 0.40931) + BCC_A2 (x(Cr) 0.5412)
AlCr-13Hu.tdb1415.11AL8CR5_D82 (x(Cr) 0.40182) + AL8CR5_D810 (x(Cr) 0.40931) + B2_BCC (x(Cr) 0.5412)
AlCr-13Hu.tdb1327.56LIQUID (x(Cr) 0.14044) + AL8CR5_D82 (x(Cr) 0.2982) + AL8CR5_D810 (x(Cr) 0.30405)
AlCr-13Hu.tdb1309.15LIQUID (x(Cr) 0.13112) + AL4CR (x(Cr) 0.21588) + AL8CR5_D810 (x(Cr) 0.30026)
AlCr-13Hu.tdb1174.85LIQUID (x(Cr) 0.05313) + AL5CR (x(Cr) 0.16667) + AL4CR (x(Cr) 0.20793)
AlCr-13Hu.tdb1148.58AL8CR5_D810 (x(Cr) 0.42383) + BCC_A2 (x(Cr) 0.61433) + ALCR2_C11B (x(Cr) 0.63861)
AlCr-13Hu.tdb1148.58AL8CR5_D810 (x(Cr) 0.42383) + B2_BCC (x(Cr) 0.61433) + ALCR2_C11B (x(Cr) 0.63861)
AlCr-13Hu.tdb1059.49LIQUID (x(Cr) 0.01462) + AL45CR7 (x(Cr) 0.13462) + AL5CR (x(Cr) 0.16667)
AlCr-13Hu.tdb1059.49LIQUID (x(Cr) 0.01468) + AL45CR7 (x(Cr) 0.13462) + AL5CR (x(Cr) 0.16667)
AlCr-13Hu.tdb1059.49LIQUID (x(Cr) 0.01456) + AL45CR7 (x(Cr) 0.13462) + AL5CR (x(Cr) 0.16667)
AlCr-13Hu.tdb1023.14AL4CR (x(Cr) 0.20822) + AL11CR4 (x(Cr) 0.26667) + AL8CR5_D810 (x(Cr) 0.29761)
AlCr-13Hu.tdb933.11FCC_A1 (x(Cr) 9.100e-4) + LIQUID (x(Cr) 0.00143) + AL45CR7 (x(Cr) 0.13462)
AlCr-15Wit.tdb1593.99LIQUID (x(Cr) 0.40218) + AL8CR5_D82 (x(Cr) 0.40639) + B2_BCC (x(Cr) 0.53637)
AlCr-15Wit.tdb1410.55AL8CR5_D82 (x(Cr) 0.40916) + AL8CR5_GAMMA (x(Cr) 0.40926) + B2_BCC (x(Cr) 0.56938)
AlCr-15Wit.tdb1373.12AL8CR5_GAMMA (x(Cr) 0.40973) + AL8CR5_D810 (x(Cr) 0.41189) + B2_BCC (x(Cr) 0.57607)
AlCr-15Wit.tdb1335.58LIQUID (x(Cr) 0.175) + AL8CR5_D82 (x(Cr) 0.32) + AL8CR5_GAMMA (x(Cr) 0.32051)
AlCr-15Wit.tdb1332.7LIQUID (x(Cr) 0.17372) + AL8CR5_GAMMA (x(Cr) 0.31984) + AL8CR5_D810 (x(Cr) 0.3259)
AlCr-15Wit.tdb1303.49LIQUID (x(Cr) 0.16044) + AL4CR (x(Cr) 0.19633) + AL8CR5_D810 (x(Cr) 0.3199)
AlCr-15Wit.tdb1214.35LIQUID (x(Cr) 0.08455) + AL5CR (x(Cr) 0.1402) + AL4CR (x(Cr) 0.18591)
AlCr-15Wit.tdb1147.06AL8CR5_D810 (x(Cr) 0.41716) + B2_BCC (x(Cr) 0.62415) + ALCR2_C11B (x(Cr) 0.64434)
AlCr-15Wit.tdb1108LIQUID (x(Cr) 0.03109) + AL7CR (x(Cr) 0.1245) + AL5CR (x(Cr) 0.12656)
AlCr-15Wit.tdb1101.29AL4CR (x(Cr) 0.19717) + AL11CR4 (x(Cr) 0.24526) + AL8CR5_D810 (x(Cr) 0.31894)
AlCr-15Wit.tdb1058.01AL7CR (x(Cr) 0.12758) + AL5CR (x(Cr) 0.13971) + AL4CR (x(Cr) 0.18174)
AlCr-15Wit.tdb935.01LIQUID (x(Cr) 0.00173) + FCC_A1 (x(Cr) 0.00391) + AL7CR (x(Cr) 0.12121)
AlCr-15Wit.tdb694.53ALCR2_C11B (x(Cr) 0.73095) + ALCR_X (x(Cr) 0.78208) + B2_BCC (x(Cr) 0.81825)
AlCr-15Wit.tdb694.53ALCR2_C11B (x(Cr) 0.73095) + ALCR_X (x(Cr) 0.78208) + BCC_A2 (x(Cr) 0.81825)
AlCr-17Cui-incomplete.tdb1579.26AL8CR5_D82 (x(Cr) 0.40499) + LIQUID (x(Cr) 0.43046) + BCC_A2 (x(Cr) 0.52718)
AlCr-17Cui-incomplete.tdb1412.92AL8CR5_D82 (x(Cr) 0.40907) + AL8CR5_D810 (x(Cr) 0.41901) + BCC_A2 (x(Cr) 0.56275)
AlCr-17Cui-incomplete.tdb1326.71LIQUID (x(Cr) 0.14188) + AL8CR5_D82 (x(Cr) 0.29858) + AL8CR5_D810 (x(Cr) 0.30417)
AlCr-17Cui-incomplete.tdb1315.79LIQUID (x(Cr) 0.13623) + AL4CR (x(Cr) 0.21646) + AL8CR5_D810 (x(Cr) 0.30188)
AlCr-17Cui-incomplete.tdb1175.48LIQUID (x(Cr) 0.05302) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.20793)
AlCr-17Cui-incomplete.tdb1175.48LIQUID (x(Cr) 0.05296) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.20792)
AlCr-17Cui-incomplete.tdb1126.49AL8CR5_D810 (x(Cr) 0.42962) + BCC_A2 (x(Cr) 0.62944) + ALCR2_C11B (x(Cr) 0.65617)
AlCr-17Cui-incomplete.tdb1077.24LIQUID (x(Cr) 0.01611) + AL7CR (x(Cr) 0.125) + AL11CR2 (x(Cr) 0.15385)
AlCr-17Cui-incomplete.tdb1077.24LIQUID (x(Cr) 0.01614) + AL7CR (x(Cr) 0.125) + AL11CR2 (x(Cr) 0.15385)
AlCr-17Cui-incomplete.tdb1077.24LIQUID (x(Cr) 0.01606) + AL7CR (x(Cr) 0.125) + AL11CR2 (x(Cr) 0.15385)
AlCr-17Cui-incomplete.tdb935.38LIQUID (x(Cr) 9.400e-4) + FCC_A1 (x(Cr) 0.0037) + AL7CR (x(Cr) 0.125)
AlCr-17Cui-incomplete.tdb935.38LIQUID (x(Cr) 9.300e-4) + FCC_A1 (x(Cr) 0.00365) + AL7CR (x(Cr) 0.125)
AlCr-17Wan-mod.tdb1582.93LIQUID (x(Cr) 0.3739) + AL8CR5_D82 (x(Cr) 0.38741) + BCC_A2 (x(Cr) 0.51913)
AlCr-17Wan-mod.tdb1382.35AL8CR5_D82 (x(Cr) 0.40006) + AL8CR5_D810 (x(Cr) 0.40093) + BCC_A2 (x(Cr) 0.55316)
AlCr-17Wan-mod.tdb1331.11LIQUID (x(Cr) 0.14474) + AL8CR5_D82 (x(Cr) 0.30128) + AL8CR5_D810 (x(Cr) 0.30938)
AlCr-17Wan-mod.tdb1308.57LIQUID (x(Cr) 0.1332) + AL4CR (x(Cr) 0.19789) + AL8CR5_D810 (x(Cr) 0.30434)
AlCr-17Wan-mod.tdb1192.36LIQUID (x(Cr) 0.05382) + AL11CR2 (x(Cr) 0.14576) + AL4CR (x(Cr) 0.19213)
AlCr-17Wan-mod.tdb1143.6AL8CR5_D810 (x(Cr) 0.42401) + BCC_A2 (x(Cr) 0.6212) + ALCR2_C11B (x(Cr) 0.65295)
AlCr-17Wan-mod.tdb1079.31LIQUID (x(Cr) 0.01919) + AL7CR (x(Cr) 0.12152) + AL11CR2 (x(Cr) 0.14636)
AlCr-17Wan-mod.tdb1059.21AL7CR (x(Cr) 0.12263) + AL11CR2 (x(Cr) 0.14929) + AL4CR (x(Cr) 0.18568)
AlCr-17Wan-mod.tdb935.02LIQUID (x(Cr) 0.00142) + FCC_A1 (x(Cr) 0.00363) + AL7CR (x(Cr) 0.11235)
AlCr-17Wan.tdb1582.93LIQUID (x(Cr) 0.3739) + AL8CR5_D82 (x(Cr) 0.38741) + BCC_A2 (x(Cr) 0.51913)
AlCr-17Wan.tdb1381.94AL8CR5_D82 (x(Cr) 0.40009) + AL8CR5_D810 (x(Cr) 0.40409) + BCC_A2 (x(Cr) 0.55324)
AlCr-17Wan.tdb1331.37LIQUID (x(Cr) 0.14485) + AL8CR5_D82 (x(Cr) 0.30132) + AL8CR5_D810 (x(Cr) 0.31257)
AlCr-17Wan.tdb1309.45LIQUID (x(Cr) 0.13437) + AL4CR (x(Cr) 0.19793) + AL8CR5_D810 (x(Cr) 0.308)
AlCr-17Wan.tdb1192.36LIQUID (x(Cr) 0.05382) + AL11CR2 (x(Cr) 0.14576) + AL4CR (x(Cr) 0.19213)
AlCr-17Wan.tdb1174.58AL8CR5_D810 (x(Cr) 0.41244) + BCC_A2 (x(Cr) 0.60151) + ALCR2_C11B (x(Cr) 0.64327)
AlCr-17Wan.tdb1079.31LIQUID (x(Cr) 0.01919) + AL7CR (x(Cr) 0.12152) + AL11CR2 (x(Cr) 0.14636)
AlCr-17Wan.tdb1059.21AL7CR (x(Cr) 0.12263) + AL11CR2 (x(Cr) 0.14929) + AL4CR (x(Cr) 0.18568)
AlCr-17Wan.tdb932.69FCC_A1 (x(Cr) 2.100e-4) + LIQUID (x(Cr) 0.00135) + AL7CR (x(Cr) 0.11211)
AlCr-86Sau.tdb1609.98AL8CR5_D810 (x(Cr) 0.38462) + LIQUID (x(Cr) 0.38546) + BCC_A2 (x(Cr) 0.49815)
AlCr-86Sau.tdb1609.98AL8CR5_D810 (x(Cr) 0.38462) + LIQUID (x(Cr) 0.38558) + BCC_A2 (x(Cr) 0.49826)
AlCr-86Sau.tdb1417.36LIQUID (x(Cr) 0.21029) + AL9CR4_H (x(Cr) 0.30769) + AL8CR5_D810 (x(Cr) 0.38462)
AlCr-86Sau.tdb1417.36LIQUID (x(Cr) 0.21037) + AL9CR4_H (x(Cr) 0.30769) + AL8CR5_D810 (x(Cr) 0.38462)
AlCr-86Sau.tdb1332.65AL9CR4_L (x(Cr) 0.30769) + AL9CR4_H (x(Cr) 0.30769) + AL8CR5_D810 (x(Cr) 0.38462)
AlCr-86Sau.tdb1332.65LIQUID (x(Cr) 0.1644) + AL9CR4_H (x(Cr) 0.30769) + AL9CR4_L (x(Cr) 0.30769)
AlCr-86Sau.tdb1332.65LIQUID (x(Cr) 0.16448) + AL9CR4_L (x(Cr) 0.30769) + AL9CR4_H (x(Cr) 0.30769)
AlCr-86Sau.tdb1312.11LIQUID (x(Cr) 0.15437) + AL4CR (x(Cr) 0.2) + AL9CR4_L (x(Cr) 0.30769)
AlCr-86Sau.tdb1312.11LIQUID (x(Cr) 0.1546) + AL4CR (x(Cr) 0.2) + AL9CR4_L (x(Cr) 0.30769)
AlCr-86Sau.tdb1312.11LIQUID (x(Cr) 0.1543) + AL4CR (x(Cr) 0.2) + AL9CR4_L (x(Cr) 0.30769)
AlCr-86Sau.tdb1211.1LIQUID (x(Cr) 0.07592) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-86Sau.tdb1211.1LIQUID (x(Cr) 0.07586) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-86Sau.tdb1144.73AL8CR5_D810 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.59355) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-86Sau.tdb1144.73AL8CR5_D810 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.5935) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-86Sau.tdb1144.73AL8CR5_D810 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.5936) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-86Sau.tdb1036.12LIQUID (x(Cr) 0.01169) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-86Sau.tdb1036.12LIQUID (x(Cr) 0.01167) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-86Sau.tdb934.87LIQUID (x(Cr) 0.00173) + FCC_A1 (x(Cr) 0.00359) + AL13CR2 (x(Cr) 0.13333)
AlCr-86Sau.tdb934.87LIQUID (x(Cr) 0.00171) + FCC_A1 (x(Cr) 0.00353) + AL13CR2 (x(Cr) 0.13333)
AlCr-86Sau.tdb396.54FCC_A1 (x(Cr) 0) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-86Sau.tdb396.54FCC_A1 (x(Cr) 0) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-86Sau.tdb393.55AL4CR (x(Cr) 0.2) + AL9CR4_L (x(Cr) 0.30769) + AL8CR5_D810 (x(Cr) 0.38462)
AlCr-87Sau.tdb1609.1AL8CR5_D810 (x(Cr) 0.38462) + LIQUID (x(Cr) 0.38498) + BCC_A2 (x(Cr) 0.49838)
AlCr-87Sau.tdb1609.1AL8CR5_D810 (x(Cr) 0.38462) + LIQUID (x(Cr) 0.38508) + BCC_A2 (x(Cr) 0.49847)
AlCr-87Sau.tdb1419.64LIQUID (x(Cr) 0.21041) + AL9CR4_H (x(Cr) 0.30769) + AL8CR5_D810 (x(Cr) 0.38462)
AlCr-87Sau.tdb1419.64LIQUID (x(Cr) 0.21072) + AL9CR4_H (x(Cr) 0.30769) + AL8CR5_D810 (x(Cr) 0.38462)
AlCr-87Sau.tdb1332.65AL9CR4_L (x(Cr) 0.30769) + AL9CR4_H (x(Cr) 0.30769) + AL8CR5_D810 (x(Cr) 0.38462)
AlCr-87Sau.tdb1332.65LIQUID (x(Cr) 0.163) + AL9CR4_H (x(Cr) 0.30769) + AL9CR4_L (x(Cr) 0.30769)
AlCr-87Sau.tdb1332.65LIQUID (x(Cr) 0.16322) + AL9CR4_L (x(Cr) 0.30769) + AL9CR4_H (x(Cr) 0.30769)
AlCr-87Sau.tdb1314.1LIQUID (x(Cr) 0.15404) + AL4CR (x(Cr) 0.2) + AL9CR4_L (x(Cr) 0.30769)
AlCr-87Sau.tdb1314.1LIQUID (x(Cr) 0.15428) + AL4CR (x(Cr) 0.2) + AL9CR4_L (x(Cr) 0.30769)
AlCr-87Sau.tdb1314.1LIQUID (x(Cr) 0.15394) + AL4CR (x(Cr) 0.2) + AL9CR4_L (x(Cr) 0.30769)
AlCr-87Sau.tdb1213.28LIQUID (x(Cr) 0.07595) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-87Sau.tdb1213.28LIQUID (x(Cr) 0.07616) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-87Sau.tdb1213.28LIQUID (x(Cr) 0.07589) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-87Sau.tdb1144.73AL8CR5_D810 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.59355) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-87Sau.tdb1144.73AL8CR5_D810 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.5935) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-87Sau.tdb1037.2LIQUID (x(Cr) 0.01153) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-87Sau.tdb1037.2LIQUID (x(Cr) 0.01147) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-87Sau.tdb1037.2LIQUID (x(Cr) 0.01151) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-87Sau.tdb934.94LIQUID (x(Cr) 0.00165) + FCC_A1 (x(Cr) 0.00359) + AL13CR2 (x(Cr) 0.13333)
AlCr-87Sau.tdb934.94LIQUID (x(Cr) 0.00162) + FCC_A1 (x(Cr) 0.00354) + AL13CR2 (x(Cr) 0.13333)
AlCr-87Sau.tdb396.54FCC_A1 (x(Cr) 0) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-87Sau.tdb396.54FCC_A1 (x(Cr) 0) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-87Sau.tdb393.55AL4CR (x(Cr) 0.2) + AL9CR4_L (x(Cr) 0.30769) + AL8CR5_D810 (x(Cr) 0.38462)
AlCr-98Mur.tdb1626.16AL8CR5 (x(Cr) 0.38462) + LIQUID (x(Cr) 0.47222) + BCC_A2 (x(Cr) 0.51965)
AlCr-98Mur.tdb1626.16AL8CR5 (x(Cr) 0.38462) + LIQUID (x(Cr) 0.47235) + BCC_A2 (x(Cr) 0.51975)
AlCr-98Mur.tdb1475.65LIQUID (x(Cr) 0.20679) + AL9CR4 (x(Cr) 0.30769) + AL8CR5 (x(Cr) 0.38462)
AlCr-98Mur.tdb1475.65LIQUID (x(Cr) 0.20702) + AL9CR4 (x(Cr) 0.30769) + AL8CR5 (x(Cr) 0.38462)
AlCr-98Mur.tdb1348.96LIQUID (x(Cr) 0.135) + AL4CR (x(Cr) 0.2) + AL9CR4 (x(Cr) 0.30769)
AlCr-98Mur.tdb1348.96LIQUID (x(Cr) 0.13489) + AL4CR (x(Cr) 0.2) + AL9CR4 (x(Cr) 0.30769)
AlCr-98Mur.tdb1348.96LIQUID (x(Cr) 0.13504) + AL4CR (x(Cr) 0.2) + AL9CR4 (x(Cr) 0.30769)
AlCr-98Mur.tdb1254.78LIQUID (x(Cr) 0.06314) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-98Mur.tdb1254.78LIQUID (x(Cr) 0.06313) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-98Mur.tdb1254.78LIQUID (x(Cr) 0.06317) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-98Mur.tdb1149.46AL8CR5 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.61734) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-98Mur.tdb1149.46AL8CR5 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.61761) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-98Mur.tdb1149.46AL8CR5 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.61749) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-98Mur.tdb1149.46AL8CR5 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.61767) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-98Mur.tdb1100.92LIQUID (x(Cr) 0.01399) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-98Mur.tdb1100.92LIQUID (x(Cr) 0.01399) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-98Mur.tdb1100.92LIQUID (x(Cr) 0.01398) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-98Mur.tdb936.25LIQUID (x(Cr) 0.00161) + FCC_A1 (x(Cr) 0.00547) + AL13CR2 (x(Cr) 0.13333)
AlCr-98Mur.tdb936.25LIQUID (x(Cr) 0.00161) + FCC_A1 (x(Cr) 0.00546) + AL13CR2 (x(Cr) 0.13333)
AlCr-98Sau-LB.tdb1597.04LIQUID (x(Cr) 0.38317) + AL8CR5_D82 (x(Cr) 0.38462) + B2_BCC (x(Cr) 0.55756)
AlCr-98Sau-LB.tdb1597.04LIQUID (x(Cr) 0.38317) + AL8CR5_D82 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.55756)
AlCr-98Sau-LB.tdb1443.12LIQUID (x(Cr) 0.22474) + AL9CR4_H (x(Cr) 0.30769) + AL8CR5_D82 (x(Cr) 0.38462)
AlCr-98Sau-LB.tdb1443.12LIQUID (x(Cr) 0.22489) + AL9CR4_H (x(Cr) 0.30769) + AL8CR5_D82 (x(Cr) 0.38462)
AlCr-98Sau-LB.tdb1443.12LIQUID (x(Cr) 0.22466) + AL9CR4_H (x(Cr) 0.30769) + AL8CR5_D82 (x(Cr) 0.38462)
AlCr-98Sau-LB.tdb1398AL8CR5_D810 (x(Cr) 0.38462) + AL8CR5_D82 (x(Cr) 0.38462) + B2_BCC (x(Cr) 0.57316)
AlCr-98Sau-LB.tdb1398AL9CR4_H (x(Cr) 0.30769) + AL8CR5_D82 (x(Cr) 0.38462) + AL8CR5_D810 (x(Cr) 0.38462)
AlCr-98Sau-LB.tdb1398AL8CR5_D82 (x(Cr) 0.38462) + AL8CR5_D810 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.57323)
AlCr-98Sau-LB.tdb1333.03AL9CR4_H (x(Cr) 0.30769) + AL9CR4_L (x(Cr) 0.30769) + AL8CR5_D810 (x(Cr) 0.38462)
AlCr-98Sau-LB.tdb1333.03LIQUID (x(Cr) 0.15767) + AL9CR4_L (x(Cr) 0.30769) + AL9CR4_H (x(Cr) 0.30769)
AlCr-98Sau-LB.tdb1333.03LIQUID (x(Cr) 0.1576) + AL9CR4_H (x(Cr) 0.30769) + AL9CR4_L (x(Cr) 0.30769)
AlCr-98Sau-LB.tdb1298.07LIQUID (x(Cr) 0.13684) + AL4CR (x(Cr) 0.2) + AL9CR4_L (x(Cr) 0.30769)
AlCr-98Sau-LB.tdb1298.07LIQUID (x(Cr) 0.13691) + AL4CR (x(Cr) 0.2) + AL9CR4_L (x(Cr) 0.30769)
AlCr-98Sau-LB.tdb1214.55LIQUID (x(Cr) 0.06582) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-98Sau-LB.tdb1214.55LIQUID (x(Cr) 0.0658) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-98Sau-LB.tdb1214.55LIQUID (x(Cr) 0.0659) + AL11CR2 (x(Cr) 0.15385) + AL4CR (x(Cr) 0.2)
AlCr-98Sau-LB.tdb1139.34AL8CR5_D810 (x(Cr) 0.38462) + B2_BCC (x(Cr) 0.63282) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-98Sau-LB.tdb1139.34AL8CR5_D810 (x(Cr) 0.38462) + BCC_A2 (x(Cr) 0.63286) + ALCR2_C11B (x(Cr) 0.66667)
AlCr-98Sau-LB.tdb1042.89LIQUID (x(Cr) 0.00935) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-98Sau-LB.tdb1042.89LIQUID (x(Cr) 0.0093) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-98Sau-LB.tdb1042.89LIQUID (x(Cr) 0.00932) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)
AlCr-98Sau-LB.tdb934.82LIQUID (x(Cr) 0.00153) + FCC_A1 (x(Cr) 0.0035) + AL13CR2 (x(Cr) 0.13333)
AlCr-98Sau-LB.tdb934.82LIQUID (x(Cr) 0.00151) + FCC_A1 (x(Cr) 0.00345) + AL13CR2 (x(Cr) 0.13333)
AlCr-98Sau-LB.tdb303.74FCC_A1 (x(Cr) 0) + AL13CR2 (x(Cr) 0.13333) + AL11CR2 (x(Cr) 0.15385)

Convex hulls: Materials Project DFT hull · OQMD DFT hull · CALPHAD hull AlCr-07Tok · CALPHAD hull AlCr-08Lia · CALPHAD hull AlCr-13Hu · CALPHAD hull AlCr-15Wit · CALPHAD hull AlCr-17Wan-mod · CALPHAD hull AlCr-17Wan · CALPHAD hull AlCr-86Sau · CALPHAD hull AlCr-87Sau · CALPHAD hull AlCr-98Mur · CALPHAD hull AlCr-98Sau-LB

Invariant reactions (literature)

Invariant reactions reported in the literature for the Al–Cr system (185)
T (K)Reaction / phasesCompositions (mole fraction)ClassSourceLocationQuote
1623.15peritectic: Liquid + bcc_A2 = γ_Hγ_H: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Kster 1963
Table 1, p. 3, row 34
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1597eutectic: Liquid -> Al8Cr5-H + bcc-A2L: Cr 0.385; Al8Cr5-H: Cr 0.383; bcc-A2: Cr 0.558model[2] (ed.) 1998Table I, p. 42, row 7
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1594.15peritectic: Liquid + bcc_A2 = γ_Hγ_H: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Stein 2014 doi
Table 1, p. 3, row 38
report
1594peritectic: L + A2 ⇄ αCr5Al8L: Cr 0.402; A2: Cr 0.536; αCr5Al8: Cr 0.406model[3] Witusiewicz 2015Table 3, p. 8, row 6
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1594peritectic: L + A2 ⇄ αCr5Al8experimental[3] Witusiewicz 2015
cites Stein 2014 doi
Table 3, p. 8, row 2
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1593.15peritectic: Liquid + bcc_A2 = γ_Hγ_H: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Chen 2008
Table 1, p. 3, row 37
report
1593.15other: L + (Cr) -> γ-HL: Cr 0.3958; γ-H: Cr 0.4186experimental[4] Hu 2013
cites Chen 2008
Table 5, p. 6, row 11
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1593.15peritectic: Liquid + bcc_A2 = γ_Hγ_H: Al 0.615385, Cr 0.384615experimental[1] Cui 2017Table 1, p. 3, row 39
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1593.15peritectic: Liquid + bcc_A2 = γ_Hγ_H: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Grushko 2005 doi
Table 1, p. 3, row 36
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1593liq. + bcc(Cr) -> βAl8Cr5bL: Cr 0.3792; bcc(Cr): Cr 0.5205; βAl8Cr5: Cr 0.4064model[5] Liang 2008Table 2, p. 5, row 17
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1593peritectic: L + A2 ⇄ αCr5Al8L: Cr 0.39; αCr5Al8: Cr 0.412experimental[3] Witusiewicz 2015
cites Okamoto 2008 doi
Table 3, p. 8, row 1
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1593liq. + bcc(Cr) -> βAl8Cr5bL: Cr 0.39; bcc(Cr): Cr 0.54; βAl8Cr5: Cr 0.412model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 18
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1593peritectic: L + A2 ⇄ αCr5Al8L: Cr 0.379; A2: Cr 0.521; αCr5Al8: Cr 0.406model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 3
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1589peritectic: L + A2 ⇄ αCr5Al8L: Cr 0.373; A2: Cr 0.513; αCr5Al8: Cr 0.402model[3] Witusiewicz 2015
cites Chen 2009 doi
Table 3, p. 8, row 4
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1588.15peritectic: Liquid + bcc_A2 = γ_Hγ_H: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Costa 1992 doi
Table 1, p. 3, row 35
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1584.15other: L + (Cr) -> γ-HL: Cr 0.382; (Cr): Cr 0.4904; γ-H: Cr 0.3971model[4] Hu 2013Table 5, p. 6, row 12
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1584peritectic: L + A2 ⇄ αCr5Al8L: Cr 0.382; A2: Cr 0.49; αCr5Al8: Cr 0.397model[3] Witusiewicz 2015
cites Hu 2013 doi
Table 3, p. 8, row 5
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1443.15metatectic/catatectic: γ_H = Liquid + γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Kster 1963
Table 1, p. 3, row 29
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1443.1peritectic: Liquid + Al8Cr5-H -> Al9Cr4-HL: Cr 0.225; Al8Cr5-H: Cr 0.385; Al9Cr4-H: Cr 0.307model[2] (ed.) 1998Table I, p. 42, row 6
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1437.15metatectic/catatectic: γ_H = Liquid + γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Costa 1992 doi
Table 1, p. 3, row 30
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1416.15peritectoid: (Cr) + γ-H -> γ-L(Cr): Cr 0.5408; γ-H: Cr 0.4067; γ-L: Cr 0.4103model[4] Hu 2013Table 5, p. 6, row 14
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1416peritectoid: A2 + βCr5Al8 ⇄ αCr5Al8A2: Cr 0.541; βCr5Al8: Cr 0.407; αCr5Al8: Cr 0.41model[3] Witusiewicz 2015
cites Hu 2013 doi
Table 3, p. 8, row 11
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1413.15peritectoid: bcc_A2 + γ_H = γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017Table 1, p. 3, row 45
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1413.15peritectoid: bcc_A2 + γ_H = γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Chen 2008
Table 1, p. 3, row 43
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1413.15peritectoid: bcc_A2 + γ_H = γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Grushko 2005 doi
Table 1, p. 3, row 42
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1413.15peritectoid: (Cr) + γ-H -> γ-Lγ-H: Cr 0.4194; γ-L: Cr 0.42experimental[4] Hu 2013
cites Chen 2008
Table 5, p. 6, row 13
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1413peritectoid: A2 + βCr5Al8 ⇄ αCr5Al8βCr5Al8: Cr 0.42; αCr5Al8: Cr 0.42experimental[3] Witusiewicz 2015
cites Okamoto 2008 doi
Table 3, p. 8, row 7
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1413peritectoid: A2 + βCr5Al8 ⇄ αCr5Al8A2: Cr 0.558; βCr5Al8: Cr 0.419; αCr5Al8: Cr 0.42model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 9
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1413βAl8Cr5 + bcc(Cr) -> αAl8Cr5bβAl8Cr5: Cr 0.41; bcc(Cr): Cr 0.56; αAl8Cr5: Cr 0.42model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 16
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1413βAl8Cr5 + bcc(Cr) -> αAl8Cr5bβAl8Cr5: Cr 0.4186; bcc(Cr): Cr 0.5578; αAl8Cr5: Cr 0.4203model[5] Liang 2008Table 2, p. 5, row 15
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1412peritectoid: A2 + βCr5Al8 ⇄ αCr5Al8A2: Cr 0.553; βCr5Al8: Cr 0.411; αCr5Al8: Cr 0.42model[3] Witusiewicz 2015
cites Chen 2009 doi
Table 3, p. 8, row 10
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1411.15peritectoid: bcc_A2 + γ_H = γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Stein 2014 doi
Table 1, p. 3, row 44
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1411A2 + βCr5Al8 ⇄ γCr5Al8A2: Cr 0.569; βCr5Al8: Cr 0.408; γCr5Al8: Cr 0.409model[3] Witusiewicz 2015Table 3, p. 8, row 12
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1411peritectoid: A2 + βCr5Al8 ⇄ αCr5Al8βCr5Al8: Al 0.615385, Cr 0.384615experimental[3] Witusiewicz 2015
cites Stein 2014 doi
Table 3, p. 8, row 8
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1398.15peritectoid: bcc_A2 + γ_H = γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Kster 1963
Table 1, p. 3, row 40
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1398polymorphic: Al8Cr5-H -> Al8Cr5-LAl8Cr5-H: Cr 0.385; Al8Cr5-L: Cr 0.385model[2] (ed.) 1998Table I, p. 42, row 8
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1388.15peritectoid: bcc_A2 + γ_H = γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Costa 1992 doi
Table 1, p. 3, row 41
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1373peritectoid: A2 + γCr5Al8 ⇄ α Cr5AlγCr5Al8: Al 0.615385, Cr 0.384615experimental[3] Witusiewicz 2015
cites Stein 2014 doi
Table 3, p. 8, row 15
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1373peritectoid: A2 + γCr5Al8 ⇄ α Cr5AlA2: Cr 0.576; γCr5Al8: Cr 0.41; α Cr5Al: Cr 0.412model[3] Witusiewicz 2015Table 3, p. 8, row 16
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1372peritectoid: A2 + γCr5Al8 ⇄ α Cr5AlγCr5Al8: Al 0.615385, Cr 0.384615experimental[3] Witusiewicz 2015
cites Grushko 2005 doi
Table 3, p. 8, row 13
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1364peritectoid: A2 + γCr5Al8 ⇄ α Cr5AlγCr5Al8: Al 0.615385, Cr 0.384615experimental[3] Witusiewicz 2015
cites Khvan 2013
Table 3, p. 8, row 14
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1336βCr5Al8 ⇄ L + γCr5Al8βCr5Al8: Cr 0.32; L: Cr 0.175; γCr5Al8: Cr 0.321model[3] Witusiewicz 2015Table 3, p. 8, row 21
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1333.15metatectic/catatectic: γ_H = Liquid + γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Chen 2008
Table 1, p. 3, row 31
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1333.15metatectic/catatectic: γ-H -> L + γ-Lγ-H: Cr 0.2981; L: Cr 0.149; γ-L: Cr 0.299experimental[4] Hu 2013
cites Chen 2008
Table 5, p. 6, row 9
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1333.15metatectic/catatectic: γ_H = Liquid + γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017Table 1, p. 3, row 33
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1333.15metatectic/catatectic: γ_H = Liquid + γ_Lγ_H: Al 0.615385, Cr 0.384615; γ_L: Al 0.615385, Cr 0.384615experimental[1] Cui 2017
cites Grushko 2005 doi
Table 1, p. 3, row 32
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1333metatectic/catatectic: βCr5Al8 ⇄ L + αCr5Al8βCr5Al8: Cr 0.3; αCr5Al8: Cr 0.3experimental[3] Witusiewicz 2015
cites Mahdouk 2000 doi
Table 3, p. 8, row 17
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1333metatectic/catatectic: βCr5Al8 ⇄ L + αCr5Al8βCr5Al8: Cr 0.279; L: Cr 0.158; αCr5Al8: Cr 0.312model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 18
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1333metatectic/catatectic: βCr5Al8 ⇄ L + αCr5Al8βCr5Al8: Cr 0.311; L: Cr 0.138; αCr5Al8: Cr 0.31model[3] Witusiewicz 2015
cites Chen 2009 doi
Table 3, p. 8, row 19
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1333βAl8Cr5 -> liq. + αAl8Cr5bβAl8Cr5: Cr 0.2787; L: Cr 0.1576; αAl8Cr5: Cr 0.3116model[5] Liang 2008Table 2, p. 5, row 13
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1333quasi-peritectic: βCr5Al8 + γCr5Al8 -> L + αCr5Al8βCr5Al8: Al 0.681, Cr 0.319; γCr5Al8: Al 0.68, Cr 0.32; L: Al 0.826, Cr 0.174; αCr5Al8: Al 0.674, Cr 0.326model[3] Witusiewicz 2015Table 4, p. 13, row 9
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1333polymorphic: Al9Cr4-H -> Al9Cr4-LAl9Cr4-H: Cr 0.158; Al9Cr4-L: Cr 0.158model[2] (ed.) 1998Table I, p. 42, row 5
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1333βAl8Cr5 -> liq. + αAl8Cr5bβAl8Cr5: Cr 0.29; L: Cr 0.17; αAl8Cr5: Cr 0.3model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 14
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1332.7metatectic/catatectic: γCr5Al8 ⇄ L + αCr5Al8γCr5Al8: Cr 0.32; L: Cr 0.173; αCr5Al8: Cr 0.326model[3] Witusiewicz 2015Table 3, p. 8, row 22
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1330.15metatectic/catatectic: γ-H -> L + γ-Lγ-H: Cr 0.3015; L: Cr 0.1415; γ-L: Cr 0.3047model[4] Hu 2013Table 5, p. 6, row 10
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1330metatectic/catatectic: βCr5Al8 ⇄ L + αCr5Al8βCr5Al8: Cr 0.302; L: Cr 0.142; αCr5Al8: Cr 0.305model[3] Witusiewicz 2015
cites Hu 2013 doi
Table 3, p. 8, row 20
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1313.15peritectic: Liquid + γ_L = Al4Crγ_L: Al 0.615385, Cr 0.384615; Al4Cr: Al 0.8, Cr 0.2experimental[1] Cui 2017
cites Grushko 2005 doi
Table 1, p. 3, row 27
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1313peritectic: L + αCr5Al8 ⇄ CrAl4L: Cr 0.136; CrAl4: Al 0.8, Cr 0.2experimental[3] Witusiewicz 2015
cites Mahdouk 2000 doi
Table 3, p. 8, row 24
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1313liq. + αAl8Cr5 -> Al4CrbL: Cr 0.1454; αAl8Cr5: Cr 0.2937; Al4Cr: Cr 0.1991model[5] Liang 2008Table 2, p. 5, row 11
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1313liq. + αAl8Cr5 -> Al4CrbL: Cr 0.14; αAl8Cr5: Cr 0.3; Al4Cr: Cr 0.2model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 12
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1313peritectic: L + αCr5Al8 ⇄ CrAl4L: Cr 0.145; αCr5Al8: Cr 0.293; CrAl4: Cr 0.199model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 25
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1310.15peritectic: L + γ-L -> Al4CrL: Cr 0.1388; γ-L: Cr 0.2981; Al4Cr: Cr 0.2226experimental[4] Hu 2013
cites Chen 2008
Table 5, p. 6, row 7
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1310.15peritectic: Liquid + γ_L = Al4Crγ_L: Al 0.615385, Cr 0.384615; Al4Cr: Al 0.8, Cr 0.2experimental[1] Cui 2017
cites Chen 2008
Table 1, p. 3, row 25
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1310.15peritectic: Liquid + γ_L = Al4Crγ_L: Al 0.615385, Cr 0.384615; Al4Cr: Al 0.8, Cr 0.2experimental[1] Cui 2017
cites Mahdouk 2001
Table 1, p. 3, row 26
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1308.15peritectic: L + γ-L -> Al4CrL: Cr 0.1306; γ-L: Cr 0.3002; Al4Cr: Cr 0.2158model[4] Hu 2013Table 5, p. 6, row 8
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1308.15peritectic: Liquid + γ_L = Al4Crγ_L: Al 0.615385, Cr 0.384615; Al4Cr: Al 0.8, Cr 0.2experimental[1] Cui 2017
cites Costa 1992 doi
Table 1, p. 3, row 24
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1308peritectic: L + αCr5Al8 ⇄ CrAl4L: Cr 0.131; αCr5Al8: Cr 0.3; CrAl4: Cr 0.216model[3] Witusiewicz 2015
cites Hu 2013 doi
Table 3, p. 8, row 27
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1307peritectic: L + αCr5Al8 ⇄ CrAl4L: Cr 0.13; αCr5Al8: Cr 0.304; CrAl4: Cr 0.198model[3] Witusiewicz 2015
cites Chen 2009 doi
Table 3, p. 8, row 26
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1306quasi-peritectic: L + βCr5Al8 -> αCr5Al8 + CrAl4L: Al 0.837, Cr 0.161; βCr5Al8: Al 0.688, Cr 0.307; αCr5Al8: Al 0.679, Cr 0.319; CrAl4: Al 0.803, Cr 0.192model[3] Witusiewicz 2015Table 4, p. 13, row 11
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1303.15peritectic: Liquid + γ_L = Al4Crγ_L: Al 0.615385, Cr 0.384615; Al4Cr: Al 0.8, Cr 0.2experimental[1] Cui 2017
cites Kster 1963
Table 1, p. 3, row 23
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1303.15peritectic: Liquid + γ_L = Al4Crγ_L: Al 0.615385, Cr 0.384615; Al4Cr: Al 0.8, Cr 0.2experimental[1] Cui 2017Table 1, p. 3, row 28
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1303peritectic: L + αCr5Al8 ⇄ CrAl4CrAl4: Al 0.8, Cr 0.2experimental[3] Witusiewicz 2015
cites Koster 1963
Table 3, p. 8, row 23
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1303peritectic: L + αCr5Al8 ⇄ CrAl4L: Cr 0.16; αCr5Al8: Cr 0.32; CrAl4: Cr 0.196model[3] Witusiewicz 2015Table 3, p. 8, row 28
report
1298.1peritectic: Liquid + Al9Cr4-L -> Al4CrL: Cr 0.137; Al9Cr4-L: Cr 0.308; Al4Cr: Cr 0.2model[2] (ed.) 1998Table I, p. 42, row 4
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1284.15peritectic: Liquid + Al4Cr = Al11Cr2Al4Cr: Al 0.8, Cr 0.2; Al11Cr2: Al 0.846154, Cr 0.153846experimental[1] Cui 2017
cites Goto 1927
Table 1, p. 3, row 16
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1217.15peritectic: Liquid + Al4Cr = Al11Cr2Al4Cr: Al 0.8, Cr 0.2; Al11Cr2: Al 0.846154, Cr 0.153846experimental[1] Cui 2017
cites Du 2005 doi
Table 1, p. 3, row 19
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1214.6peritectic: Liquid + Al4Cr -> Al11Cr2L: Cr 0.066; Al4Cr: Cr 0.2; Al11Cr2: Cr 0.154model[2] (ed.) 1998Table I, p. 42, row 3
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1214peritectic: L + CrAl4 ⇄ Cr2Al11L: Cr 0.085; CrAl4: Cr 0.186; Cr2Al11: Cr 0.14model[3] Witusiewicz 2015Table 3, p. 8, row 34
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1213.15peritectic: Liquid + Al4Cr = Al11Cr2Al4Cr: Al 0.8, Cr 0.2; Al11Cr2: Al 0.846154, Cr 0.153846experimental[1] Cui 2017
cites Kster 1963
Table 1, p. 3, row 17
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1213peritectic: L + CrAl4 ⇄ Cr2Al11CrAl4: Al 0.8, Cr 0.2; Cr2Al11: Al 0.846154, Cr 0.153846experimental[3] Witusiewicz 2015
cites Murray 1998 doi
Table 3, p. 8, row 29
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1207congruent transformation: A2 ⇄ Cr2AlA2: Cr 0.682; Cr2Al: Cr 0.682model[3] Witusiewicz 2015
cites Chen 2009 doi
Table 3, p. 8, row 38
report
1204peritectic: L + CrAl4 ⇄ Cr2Al11L: Cr 0.057; CrAl4: Cr 0.194; Cr2Al11: Cr 0.148model[3] Witusiewicz 2015
cites Chen 2009 doi
Table 3, p. 8, row 32
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1198peritectoid: A2 + αCr5Al8 -> B2A2: Cr 0.61; αCr5Al8: Al 0.615385, Cr 0.384615; B2: Cr 0.61experimental[3] Witusiewicz 2015
cites Helander 1999 doi
Table 3, p. 9, row 3
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1195peritectoid: A2 + αCr5Al8 -> B2A2: Cr 0.615; αCr5Al8: Cr 0.415; B2: Cr 0.615model[3] Witusiewicz 2015Table 3, p. 9, row 4
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1186.15congruent transformation: bcc_A2 = AlCr2bcc_A2: Al 0.333333, Cr 0.666667; AlCr2: Al 0.333333, Cr 0.666667experimental[1] Cui 2017Table 1, p. 3, row 53
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1183.15congruent transformation: (Cr) -> AlCr2(Cr): Cr 0.6667; AlCr2: Cr 0.6667experimental[4] Hu 2013
cites Koster 1963
Table 5, p. 6, row 17
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1183.15congruent transformation: bcc_A2 = AlCr2bcc_A2: Al 0.333333, Cr 0.666667; AlCr2: Al 0.333333, Cr 0.666667experimental[1] Cui 2017
cites Kster 1963
Table 1, p. 3, row 52
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1183congruent transformation: A2 ⇄ Cr2AlA2: Cr 0.681; Cr2Al: Cr 0.681model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 37
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1183congruent transformation: A2 ⇄ Cr2AlA2: Cr 0.667; Cr2Al: Cr 0.667experimental[3] Witusiewicz 2015
cites Okamoto 2008 doi
Table 3, p. 8, row 35
report
1181congruent transformation: AlCr2 -> bcc-A2AlCr2: Cr 0.667; bcc-A2: Cr 0.667model[2] (ed.) 1998Table I, p. 42, row 10
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1179.15congruent transformation: (Cr) -> AlCr2(Cr): Cr 0.6641; AlCr2: Cr 0.6641model[4] Hu 2013Table 5, p. 6, row 18
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1179.15peritectic: Liquid + Al4Cr = Al11Cr2Al4Cr: Al 0.8, Cr 0.2; Al11Cr2: Al 0.846154, Cr 0.153846experimental[1] Cui 2017
cites Mahdouk 2001
Table 1, p. 3, row 18
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1179congruent transformation: A2 ⇄ Cr2AlA2: Cr 0.664; Cr2Al: Cr 0.664model[3] Witusiewicz 2015
cites Hu 2013 doi
Table 3, p. 8, row 39
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1177.15peritectic: Liquid + Al4Cr = Al11Cr2Al4Cr: Al 0.8, Cr 0.2; Al11Cr2: Al 0.846154, Cr 0.153846experimental[1] Cui 2017Table 1, p. 3, row 20
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1176.15peritectic: L + Al4Cr -> Al5CrL: Cr 0.05; Al4Cr: Cr 0.185; Al5Cr: Cr 0.154experimental[4] Hu 2013
cites Mahdouk 2000 doi
Table 5, p. 6, row 5
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1176peritectic: L + CrAl4 ⇄ Cr2Al11L: Cr 0.05; CrAl4: Cr 0.185; Cr2Al11: Cr 0.154experimental[3] Witusiewicz 2015
cites Mahdouk 2000 doi
Table 3, p. 8, row 30
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1175.15peritectic: L + Al4Cr -> Al5CrL: Cr 0.0531; Al4Cr: Cr 0.2079; Al5Cr: Cr 0.1667model[4] Hu 2013Table 5, p. 6, row 6
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1175peritectic: L + CrAl4 ⇄ Cr2Al11L: Cr 0.053; CrAl4: Cr 0.208; Cr2Al11: Cr 0.167model[3] Witusiewicz 2015
cites Hu 2013 doi
Table 3, p. 8, row 33
report
1173congruent transformation: A2 ⇄ Cr2AlA2: Cr 0.669; Cr2Al: Cr 0.669model[3] Witusiewicz 2015Table 3, p. 8, row 40
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1168liq. + Al4Cr -> Al11Cr2L: Cr 0.05; Al4Cr: Cr 0.185; Al11Cr2: Cr 0.154model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 10
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1168peritectic: L + CrAl4 ⇄ Cr2Al11L: Cr 0.047; CrAl4: Cr 0.193; Cr2Al11: Cr 0.145model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 31
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1168eutectoid: A2 -> B2 + Cr2AlA2: Cr 0.64; B2: Cr 0.64; Cr2Al: Al 0.333333, Cr 0.666667experimental[3] Witusiewicz 2015
cites Helander 1999 doi
Table 3, p. 9, row 5
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1168liq. + Al4Cr -> Al11Cr2L: Cr 0.0465; Al4Cr: Cr 0.1933; Al11Cr2: Cr 0.1452model[5] Liang 2008Table 2, p. 5, row 9
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1163congruent transformation: A2 ⇄ Cr2AlA2: Cr 0.667; Cr2Al: Cr 0.667experimental[3] Witusiewicz 2015
cites Semukhin 1988
Table 3, p. 8, row 36
report
1161eutectoid: A2 -> B2 + Cr2AlA2: Cr 0.638; B2: Cr 0.638; Cr2Al: Cr 0.652model[3] Witusiewicz 2015Table 3, p. 9, row 6
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1155.15eutectoid: (Cr) -> γ-L + AlCr2γ-L: Cr 0.42; AlCr2: Al 0.333333, Cr 0.666667experimental[4] Hu 2013
cites Chen 2008
Table 5, p. 6, row 15
report
1155.15eutectoid: bcc_A2 = γ_L + AlCr2γ_L: Al 0.615385, Cr 0.384615; AlCr2: Al 0.333333, Cr 0.666667experimental[1] Cui 2017
cites Grushko 2005 doi
Table 1, p. 3, row 48
report
1155.15eutectoid: bcc_A2 = γ_L + AlCr2γ_L: Al 0.615385, Cr 0.384615; AlCr2: Al 0.333333, Cr 0.666667experimental[1] Cui 2017
cites Chen 2008
Table 1, p. 3, row 49
report
1155eutectoid: A2 ⇄ αCr5Al + Cr2AlαCr5Al: Cr 0.42; Cr2Al: Al 0.333333, Cr 0.666667experimental[3] Witusiewicz 2015
cites Okamoto 2008 doi
Table 3, p. 8, row 41
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1155bcc(Cr) -> αAl8Cr5 + AlCr2bbcc(Cr): Cr 0.6291; αAl8Cr5: Cr 0.4327; AlCr2: Cr 0.6567model[5] Liang 2008Table 2, p. 5, row 21
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1155eutectoid: A2 ⇄ αCr5Al + Cr2AlA2: Cr 0.629; αCr5Al: Cr 0.432; Cr2Al: Cr 0.657model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 43
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1155bcc(Cr) -> αAl8Cr5 + AlCr2bbcc(Cr): Cr 0.61; αAl8Cr5: Cr 0.42; AlCr2: Cr 0.654model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 22
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1154eutectoid: A2 ⇄ αCr5Al + Cr2AlA2: Cr 0.61; αCr5Al: Cr 0.428; Cr2Al: Cr 0.648model[3] Witusiewicz 2015
cites Chen 2009 doi
Table 3, p. 8, row 44
report
1149.15eutectoid: bcc_A2 = γ_L + AlCr2γ_L: Al 0.615385, Cr 0.384615; AlCr2: Al 0.333333, Cr 0.666667experimental[1] Cui 2017
cites Stein 2014 doi
Table 1, p. 3, row 50
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1149eutectoid: A2 ⇄ αCr5Al + Cr2AlCr2Al: Al 0.333333, Cr 0.666667experimental[3] Witusiewicz 2015
cites Stein 2014 doi
Table 3, p. 8, row 42
report
1149eutectoid: A2 ⇄ αCr5Al + Cr2AlA2: Cr 0.624; αCr5Al: Cr 0.417; Cr2Al: Cr 0.644model[3] Witusiewicz 2015Table 3, p. 8, row 46
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1147.15eutectoid: (Cr) -> γ-L + AlCr2(Cr): Cr 0.6172; γ-L: Cr 0.425; AlCr2: Cr 0.6401model[4] Hu 2013Table 5, p. 6, row 16
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1147eutectoid: A2 ⇄ αCr5Al + Cr2AlA2: Cr 0.617; αCr5Al: Cr 0.425; Cr2Al: Cr 0.64model[3] Witusiewicz 2015
cites Hu 2013 doi
Table 3, p. 8, row 45
report
1145.15eutectoid: bcc_A2 = γ_L + AlCr2γ_L: Al 0.615385, Cr 0.384615; AlCr2: Al 0.333333, Cr 0.666667experimental[1] Cui 2017
cites Costa 1992 doi
Table 1, p. 3, row 47
report
1143.15eutectoid: bcc_A2 = γ_L + AlCr2γ_L: Al 0.615385, Cr 0.384615; AlCr2: Al 0.333333, Cr 0.666667experimental[1] Cui 2017
cites Kster 1963
Table 1, p. 3, row 46
report
1143.15eutectoid: bcc_A2 = γ_L + AlCr2γ_L: Al 0.615385, Cr 0.384615; AlCr2: Al 0.333333, Cr 0.666667experimental[1] Cui 2017Table 1, p. 3, row 51
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1139.3eutectoid: bcc-A2 -> Al8Cr5-L + AlCr2bcc-A2: Cr 0.633; Al8Cr5-L: Cr 0.385; AlCr2: Cr 0.667model[2] (ed.) 1998Table I, p. 42, row 9
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1108.15peritectic: Liquid + Al11Cr2 = Al7CrAl11Cr2: Al 0.846154, Cr 0.153846; Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Costa 1992 doi
Table 1, p. 3, row 11
report
1108.15peritectic: Liquid + Al11Cr2 = Al7CrAl11Cr2: Al 0.846154, Cr 0.153846; Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Du 2005 doi
Table 1, p. 3, row 14
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1108peritectic: L + Cr2Al11 ⇄ CrAl7L: Cr 0.031; Cr2Al11: Cr 0.127; CrAl7: Cr 0.124model[3] Witusiewicz 2015Table 3, p. 8, row 51
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1108peritectic: L + Cr2Al11 ⇄ CrAl7Cr2Al11: Al 0.846154, Cr 0.153846; CrAl7: Al 0.875, Cr 0.125experimental[3] Witusiewicz 2015
cites Hori 1935
Table 3, p. 8, row 47
report
1102.15peritectoid: Al11Cr4 = Al4Cr + γ_LAl4Cr: Cr 0.2; γ_L: Cr 0.384615experimental[1] Cui 2017
cites Wu 2014 doi
Table 1, p. 4, row 1
report
1102.15peritectoid: Al11Cr4 = Al4Cr + γ_LAl4Cr: Cr 0.2; γ_L: Cr 0.384615experimental[1] Cui 2017Table 1, p. 4, row 2
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1102peritectoid: CrAl4 + αCr5Al8 ⇄ Cr4Al11CrAl4: Al 0.8, Cr 0.2; Cr4Al11: Cr 0.245experimental[3] Witusiewicz 2015
cites Wu 2014 doi
Table 3, p. 8, row 53
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1101peritectoid: CrAl4 + αCr5Al8 ⇄ Cr4Al11CrAl4: Cr 0.197; αCr5Al8: Cr 0.319; Cr4Al11: Cr 0.245model[3] Witusiewicz 2015Table 3, p. 8, row 54
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1076peritectic: L + Cr2Al11 ⇄ CrAl7L: Cr 0.017; Cr2Al11: Cr 0.149; CrAl7: Cr 0.123model[3] Witusiewicz 2015
cites Chen 2009 doi
Table 3, p. 8, row 49
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1073peritectoid: CrAl4 + αCr5Al8 ⇄ Cr4Al11CrAl4: Al 0.8, Cr 0.2; Cr4Al11: Al 0.733333, Cr 0.266667experimental[3] Witusiewicz 2015
cites Grushko 2006 doi
Table 3, p. 8, row 52
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1072.15peritectic: Liquid + Al11Cr2 = Al7CrAl11Cr2: Al 0.846154, Cr 0.153846; Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Mahdouk 2001
Table 1, p. 3, row 13
report
1072.15peritectic: Liquid + Al11Cr2 = Al7CrAl11Cr2: Al 0.846154, Cr 0.153846; Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017Table 1, p. 3, row 15
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1072liq. + Al11Cr2 -> Al7CrL: Cr 0.0193; Al11Cr2: Cr 0.1459; Al7Cr: Cr 0.1212model[5] Liang 2008Table 2, p. 5, row 5
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1072liq. + Al11Cr2 -> Al7CrL: Cr 0.025; Al11Cr2: Cr 0.145; Al7Cr: Cr 0.125model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 6
report
1068.15peritectic: Liquid + Al11Cr2 = Al7CrAl11Cr2: Al 0.846154, Cr 0.153846; Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Chen 2008
Table 1, p. 3, row 12
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1068.15peritectic: L + Al5Cr -> Al45Cr7L: Cr 0.0155; Al5Cr: Cr 0.1667; Al45Cr7: Cr 0.1346experimental[4] Hu 2013
cites Chen 2008
Table 5, p. 6, row 3
report
1063.15peritectic: Liquid + Al11Cr2 = Al7CrAl11Cr2: Al 0.846154, Cr 0.153846; Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Kster 1963
Table 1, p. 3, row 10
report
1059.15peritectic: L + Al5Cr -> Al45Cr7L: Cr 0.0146; Al5Cr: Cr 0.1667; Al45Cr7: Cr 0.1346model[4] Hu 2013Table 5, p. 6, row 4
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1059peritectic: L + Cr2Al11 ⇄ CrAl7L: Cr 0.015; Cr2Al11: Cr 0.167; CrAl7: Cr 0.135model[3] Witusiewicz 2015
cites Hu 2013 doi
Table 3, p. 8, row 50
report
1058.15eutectoid: Al11Cr2 = Al7Cr + Al4CrAl11Cr2: Al 0.846154, Cr 0.153846; Al7Cr: Al 0.875, Cr 0.125; Al4Cr: Al 0.8, Cr 0.2experimental[1] Cui 2017
cites Mahdouk 2001
Table 1, p. 3, row 21
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1058eutectoid: Cr2Al11 ⇄ CrAl7 + CrAl4Cr2Al11: Al 0.846154, Cr 0.153846; CrAl7: Al 0.875, Cr 0.125; CrAl4: Al 0.8, Cr 0.2experimental[3] Witusiewicz 2015
cites Mahdouk 2000 doi
Table 3, p. 8, row 55
report
1058Al11Cr2 -> Al7Cr + Al4CrAl11Cr2: Cr 0.1484; Al7Cr: Cr 0.1221; Al4Cr: Cr 0.1851model[5] Liang 2008Table 2, p. 5, row 7
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1058Al11Cr2 -> Al7Cr + Al4CrAl11Cr2: Cr 0.154; Al7Cr: Cr 0.125; Al4Cr: Cr 0.185model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 8
report
1058peritectic: L + Cr2Al11 ⇄ CrAl7L: Cr 0.015; Cr2Al11: Cr 0.122; CrAl7: Cr 0.185model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 48
report
1058eutectoid: Cr2Al11 ⇄ CrAl7 + CrAl4Cr2Al11: Cr 0.148; CrAl7: Cr 0.122; CrAl4: Cr 0.185model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 56
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1058eutectoid: Cr2Al11 ⇄ CrAl7 + CrAl4Cr2Al11: Cr 0.14; CrAl7: Cr 0.128; CrAl4: Cr 0.182model[3] Witusiewicz 2015Table 3, p. 8, row 58
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1056.15eutectoid: Al11Cr2 = Al7Cr + Al4CrAl11Cr2: Al 0.846154, Cr 0.153846; Al7Cr: Al 0.875, Cr 0.125; Al4Cr: Al 0.8, Cr 0.2experimental[1] Cui 2017Table 1, p. 3, row 22
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1046eutectoid: Cr2Al11 ⇄ CrAl7 + CrAl4Cr2Al11: Cr 0.152; CrAl7: Cr 0.124; CrAl4: Cr 0.189model[3] Witusiewicz 2015
cites Chen 2009 doi
Table 3, p. 8, row 57
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1042.9peritectic: Liquid + Al11Cr2 -> Al13Cr2L: Cr 0.009; Al11Cr2: Cr 0.154; Al13Cr2: Cr 0.133model[2] (ed.) 1998Table I, p. 42, row 2
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998.15peritectic: Liquid + Al11Cr2 = Al7CrAl11Cr2: Al 0.846154, Cr 0.153846; Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Goto 1927
Table 1, p. 3, row 9
report
935.15eutectic: Liquid = Al7Cr + fcc_A1Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017Table 1, p. 3, row 8
report
935peritectic: L + CrAl7 ⇄ (αAl)L: Cr 0.0017; CrAl7: Cr 0.121; (αAl): Cr 0.0039model[3] Witusiewicz 2015Table 3, p. 8, row 65
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934.8peritectic: Liquid + Al13Cr2 -> fcc-A1L: Cr 0.002; Al13Cr2: Cr 0.133; fcc-A1: Cr 0.003model[2] (ed.) 1998Table I, p. 42, row 1
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934.7peritectic: L + CrAl7 ⇄ (αAl)L: Cr 0.002; CrAl7: Cr 0.132; (αAl): Cr 0.0035experimental[3] Witusiewicz 2015
cites Murray 1998 doi
Table 3, p. 8, row 63
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934.65peritectic: liq. + Al7 Cr → fcc(Al)model[5] Liang 2008
cites Murray 1998 doi
p. 4
report
In addition, the invariant reaction in the Al-rich was reported a peritectic reaction, liq. + Al7 Cr → fcc(Al) at 661.5 ◦ C in the reviewed Al-Cr system [2].
934.55eutectic: Liquid = Al7Cr + fcc_A1Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Zoller 1960
Table 1, p. 3, row 3
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934.15eutectic: Liquid = Al7Cr + fcc_A1Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Kster 1963
Table 1, p. 3, row 4
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934peritectic: L + CrAl7 ⇄ (αAl)L: Cr 0.0017; CrAl7: Cr 0.111; (αAl): Cr 0.0031model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 64
report
934liq. + Al7Cr -> fcc(Al)aL: Cr 0.0017; Al7Cr: Cr 0.111; fcc(Al): Cr 0.0031model[5] Liang 2008Table 2, p. 5, row 3
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934liq. + Al7Cr -> fcc(Al)aL: Cr 0.002; Al7Cr: Cr 0.125; fcc(Al): Cr 0.0035model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 4
report
933.15eutectic: Liquid = Al7Cr + fcc_A1Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Fink 1933
Table 1, p. 3, row 2
report
933.15eutectic: L ↔ (Al) + Al45 Cr7model[4] Hu 2013p. 9
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The enlarged phase diagram at the Al-rich side along with experimental data [18-20,23-25,27,28] is presented in Fig. 4(b), which shows an enlarged eutectic reaction L ↔ (Al) + Al45 Cr7 at 660 ◦ C.
933.15eutectic: L -> (Al) + Al45Cr7L: Cr 0.0014; (Al): Cr 9.000e-4; Al45Cr7: Cr 0.1346model[4] Hu 2013Table 5, p. 6, row 2
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933eutectic: L ⇄ CrAl7 + (αAl)L: Cr 0.0013; CrAl7: Cr 0.118; (αAl): Cr 3.000e-4model[3] Witusiewicz 2015
cites Chen 2009 doi
Table 3, p. 8, row 62
report
933eutectic: L ⇄ CrAl7 + (αAl)L: Cr 0.0014; CrAl7: Cr 0.135; (αAl): Cr 9.000e-4model[3] Witusiewicz 2015
cites Hu 2013 doi
Table 3, p. 8, row 61
report
932.9eutectic: L ⇄ CrAl7 + (αAl)CrAl7: Cr 0.13; (αAl): Cr 0.0035experimental[3] Witusiewicz 2015
cites Du 2005 doi
Table 3, p. 8, row 59
report
932.85eutectic: L ↔ (Al) + Al45 Cr7experimental[4] Hu 2013
cites Du 2005 doi
p. 3
report
In the present work, the several factors including the purity of the starting materials, measurement methods and analysis of experimental results were taken into account, and the eutectic reaction L ↔ (Al) + Al45 Cr7 at 659.7 ◦ C reported by Du et al. [32] was adopted.
932.85eutectic: L -> (Al) + Al45Cr7(Al): Cr 0.0035; Al45Cr7: Cr 0.1305experimental[4] Hu 2013
cites Du 2005 doi
Table 5, p. 6, row 1
report
932.85eutectic: Liquid = Al7Cr + fcc_A1Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Du 2005 doi
Table 1, p. 3, row 7
report
932eutectic: liq. -> fcc(Al) + Al7CrL: Cr 0.0016; fcc(Al): Cr 3.000e-4; Al7Cr: Cr 0.1107model[5] Liang 2008Table 2, p. 5, row 1
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932eutectic: L ⇄ CrAl7 + (αAl)L: Cr 0.0016; CrAl7: Cr 0.111; (αAl): Cr 3.000e-4model[3] Witusiewicz 2015
cites Liang 2008 doi
Table 3, p. 8, row 60
report
930.15eutectic: Liquid = Al7Cr + fcc_A1Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Costa 1992 doi
Table 1, p. 3, row 5
report
929.15eutectic: Liquid = Al7Cr + fcc_A1Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Mahdouk 2001
Table 1, p. 3, row 6
report
929eutectic: liq. -> fcc(Al) + Al7CrL: Cr 0.002; fcc(Al): Cr 0.001; Al7Cr: Cr 0.125model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 2
report
927.15eutectic: Liquid = Al7Cr + fcc_A1Al7Cr: Al 0.875, Cr 0.125experimental[1] Cui 2017
cites Goto 1927
Table 1, p. 3, row 1
report
909peritectoid: A2 + Cr2Al -> A2amexperimental[3] Witusiewicz 2015
cites Koster 1963
Table 3, p. 9, row 7
report
908peritectoid: A2 + Cr2Al -> A2amA2: Cr 0.791; Cr2Al: Cr 0.727model[3] Witusiewicz 2015Table 3, p. 9, row 8
report
705peritectoid: A2am + Cr2Al -> Cr2AlamCr2Al: Cr 0.74experimental[3] Witusiewicz 2015
cites Koster 1963
Table 3, p. 9, row 9
report
702peritectoid: A2am + Cr2Al -> Cr2AlamA2am: Cr 0.823; Cr2Al: Cr 0.739model[3] Witusiewicz 2015Table 3, p. 9, row 10
report
673peritectoid: Cr2Alam + A2am -> XCr2Alam: Cr 0.743; A2am: Cr 0.828; X: Cr 0.785model[3] Witusiewicz 2015Table 3, p. 9, row 2
report
673peritectoid: Cr2Alam + A2am -> XCr2Alam: Cr 0.71; A2am: Cr 0.82; X: Cr 0.77experimental[3] Witusiewicz 2015
cites F 1981
Table 3, p. 9, row 1
report
627eutectoid: Cr2Al -> αCr5Al8 + Cr2AlamCr2Al: Cr 0.64; αCr5Al8: Al 0.615385, Cr 0.384615experimental[3] Witusiewicz 2015
cites Koster 1963
Table 3, p. 9, row 11
report
625eutectoid: Cr2Al -> αCr5Al8 + Cr2AlamCr2Al: Cr 0.646; αCr5Al8: Cr 0.407model[3] Witusiewicz 2015Table 3, p. 9, row 12
report

Formation enthalpies

Literature values in kJ/mol-atom where the per-atom basis is known. DFT columns: the lowest-energy entry at the same composition (Materials Project 2026.04.13, OQMD v1.8; different energy references, never averaged), from dft_parity.json.

Enthalpies of formation, Al–Cr system (27)
PhaseCompoundValueT (K)ClassMP DFT (kJ/mol-atom)OQMD DFT (kJ/mol-atom)SourceLocationQuote
Al11Cr2Al11Cr2-15.322 kJ/mol-atom1model10.793 (oqmd-1477065)[6] Saunders 1986Table 4, p. 8, row 2
report
Al11Cr2Al11Cr2-15.32 kJ/mol-atommodel10.793 (oqmd-1477065)[6] Saunders 1986Table 1, p. 4, row 4
report
Al11Cr2Al11Cr2-15.062 kJ/mol-atom298.15experimental10.793 (oqmd-1477065)[7] Murray 1998
cites ref. 60Kub
Table 4, p. 6, row 2
report
Al11Cr2Al11Cr2-15.06 kJ/mol-atom298.15experimental10.793 (oqmd-1477065)[6] Saunders 1986
cites ref. 35
Table 1, p. 4, row 3
report
Al13Cr2-13.9 kJ/mol-atom298.15experimental[6] Saunders 1986
cites ref. 35
Table 1, p. 4, row 1
report
Al13Cr2-13.172 kJ/mol-atom1model[6] Saunders 1986Table 4, p. 8, row 1
report
Al13Cr2-13.17 kJ/mol-atommodel[6] Saunders 1986Table 1, p. 4, row 2
report
Al4CrAl4Cr-17.68 kJ/mol-atom1273.15model-6.536 (oqmd-2163960)[6] Saunders 1986Table 1, p. 4, row 6
report
Al4CrAl4Cr-17.677 kJ/mol-atom1model-6.536 (oqmd-2163960)[6] Saunders 1986Table 4, p. 8, row 3
report
Al4CrAl4Cr-17.154 kJ/mol-atom298.15experimental-6.536 (oqmd-2163960)[7] Murray 1998
cites ref. 60Kub
Table 4, p. 6, row 3
report
Al4CrAl4Cr-17.15 kJ/mol-atom1273.15experimental-6.536 (oqmd-2163960)[6] Saunders 1986
cites ref. 35
Table 1, p. 4, row 5
report
Al7CrAl7Cr-13.389 kJ/mol-atom298.15experimental2.914 (oqmd-2166350)[7] Murray 1998
cites ref. 60Kub
Table 4, p. 6, row 1
report
Al8Cr5Al8Cr5-15.5 kJ/mol-atom1model-5.217 (mp-aaaabdnm)-9.087 (oqmd-684913)[6] Saunders 1986Table 4, p. 8, row 6
report
Al8Cr5Al8Cr5-15.5 kJ/mol-atom1273.15model-5.217 (mp-aaaabdnm)-9.087 (oqmd-684913)[6] Saunders 1986Table 1, p. 4, row 10
report
Al8Cr5Al8Cr5-15.062 kJ/mol-atom298.15experimental-5.217 (mp-aaaabdnm)-9.087 (oqmd-684913)[7] Murray 1998
cites ref. 60Kub
Table 4, p. 6, row 5
report
Al8Cr5Al8Cr5-15.06 kJ/mol-atom1273.15experimental-5.217 (mp-aaaabdnm)-9.087 (oqmd-684913)[6] Saunders 1986
cites ref. 35
Table 1, p. 4, row 9
report
Al9Cr4Al9Cr4-15.9 kJ/mol-atom298.15experimental11.421 (oqmd-1477118)[7] Murray 1998
cites ref. 60Kub
Table 4, p. 6, row 4
report
Al9Cr4 (h)Al9Cr4-12.903 kJ/mol-atom1model11.421 (oqmd-1477118)[6] Saunders 1986Table 4, p. 8, row 5
report
Al9Cr4 (l)-16.17 kJ/mol-atom1273.15model[6] Saunders 1986Table 1, p. 4, row 8
report
Al9Cr4 (l)-15.9 kJ/mol-atom1273.15experimental[6] Saunders 1986
cites ref. 35
Table 1, p. 4, row 7
report
AlCr2AlCr2-12.954 kJ/mol-atom1model-11.845 (mp-aaaaacnj)-13.209 (oqmd-10426)[6] Saunders 1986Table 4, p. 8, row 7
report
AlCr2AlCr2-10.878 kJ/mol-atom298.15experimental-11.845 (mp-aaaaacnj)-13.209 (oqmd-10426)[7] Murray 1998
cites ref. 60Kub
Table 4, p. 6, row 6
report
B2-β-7.96 kJ/mol-atom0DFT[8] Liu 2016
cites Al11Cr2
Table 6, p. 40, row 5
report
L12-γ’-19.04 kJ/mol-atom0DFT[8] Liu 2016Table 7, p. 41, row 4
report
L12-γ’-12.94 kJ/mol-atom0DFT[8] Liu 2016Table 7, p. 41, row 6
report
γ'-19.04 kJ/mol-atom0DFT[8] Liu 2016Table 7, p. 41, row 4
report
γ'-12.94 kJ/mol-atom0DFT[8] Liu 2016Table 7, p. 41, row 6
report

Other properties

Phase transition (4)

Phase transition, Al–Cr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase transition1058.15 K1058.15othermodel[1] Cui 2017p. 2
report
In his evaluation, the decomposition of Al11Cr2 phase occurred at 785 C and the phase regions related to a-Al9Cr4, b-Al9Cr4, g-Al9Cr4, aAl8Cr5, and b-Al8Cr5 in the assessment of Murray [15] were modified to a-Al8Cr5 and b-Al8Cr5 phase region.
Phase transition1102 K1102Cr4Al11 -> CrAl4 + aCr5Al8experimental[3] Witusiewicz 2015
cites Wu 2014 doi
p. 5
report
They concluded that the homogeneity range of Cr4Al11 extends from Al75.0Cr25.0 to Al76.0Cr24.0 and that the phase decomposes into CrAl4 and aCr5Al8 at 1102 K.
Phase transition1183 K1183bcc(Cr) -> AlCr2
bcc(Cr): Cr 0.667; AlCr2: Cr 0.667
model[5] Liang 2008
cites Mahdouk 2000 doi
Table 2, p. 5, row 20
report
Phase transition1183 K1183bcc(Cr) -> AlCr2
bcc(Cr): Cr 0.6807; AlCr2: Cr 0.6807
model[5] Liang 2008Table 2, p. 5, row 19
report

Formation (6)

Formation, Al–Cr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Entropy of formation
printed: ΔSf
-0.6 J/mol-atom/K1Al11Cr2
alloy: Cr 0.154
model[6] Saunders 1986Table 4, p. 8, row 2
report
Entropy of formation
printed: ΔSf
-0.25 J/mol-atom/K1Al13Cr2
alloy: Cr 0.133
model[6] Saunders 1986Table 4, p. 8, row 1
report
Entropy of formation
printed: ΔSf
-0.1 J/mol-atom/K1Al4Cr
alloy: Cr 0.2
model[6] Saunders 1986Table 4, p. 8, row 3
report
Entropy of formation
printed: ΔSf
6.83 J/mol-atom/K1Al8Cr5
alloy: Cr 0.4
model[6] Saunders 1986Table 4, p. 8, row 6
report
Entropy of formation
printed: ΔSf
7 J/mol-atom/K1Al9Cr4 (h)
alloy: Cr 0.308
model[6] Saunders 1986Table 4, p. 8, row 5
report
Entropy of formation
printed: ΔSf
5.53 J/mol-atom/K1AlCr2
alloy: Cr 0.655
model[6] Saunders 1986Table 4, p. 8, row 7
report

Mixing / partial (16)

Mixing / partial, Al–Cr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Enthalpy of mixing
printed: ΔHmix
0.93 kJ/mol-atom0A2
alloy: Al 0.75, Cr 0.25
DFT[8] Liu 2016
cites Al11Cr2
Table 6, p. 40, row 4
report
Enthalpy of mixing
printed: ΔHmix
1.41 kJ/mol-atom0A2
alloy: Al 0.5, Cr 0.5
DFT[8] Liu 2016
cites Al11Cr2
Table 6, p. 40, row 5
report
Enthalpy of mixing
printed: ΔHmix
1.44 kJ/mol-atom0A2
alloy: Al 0.5, Cr 0.5
DFT[9] Liu 2015Table 4, p. 13, row 8
report
Enthalpy of mixing
printed: ΔHmix
1.01 kJ/mol-atom0A2
alloy: Al 0.25, Cr 0.75
DFT[9] Liu 2015Table 4, p. 13, row 9
report
Enthalpy of mixing
printed: ΔHmix
1.42 kJ/mol-atom0A2
alloy: Al 0.25, Cr 0.75
DFT[8] Liu 2016
cites Al11Cr2
Table 6, p. 40, row 6
report
Enthalpy of mixing
printed: ΔHmix
2.45 kJ/mol-atom0A2
alloy: Al 0.75, Cr 0.25
DFT[9] Liu 2015Table 4, p. 13, row 7
report
Enthalpy of mixing
printed: ΔHmix
-7.96 kJ/mol-atom0B2
alloy: Al 0.5, Cr 0.5
DFT[9] Liu 2015Table 4, p. 13, row 22
report
Enthalpy of mixing
printed: ΔHmix
-7.96 kJ/mol-atom0B2
alloy: Al 0.5, Cr 0.5
DFT[8] Liu 2016
cites Al11Cr2
Table 8, p. 42, row 9
report
Enthalpy of mixing
printed: ΔHmix
-7.08 kJ/mol-atom0γ
alloy: Al 0.25, Cr 0.75
DFT[8] Liu 2016Table 7, p. 41, row 6
report
Enthalpy of mixing
printed: ΔHmix
-6.86 kJ/mol-atom0γ
alloy: Al 0.5, Cr 0.5
DFT[8] Liu 2016Table 7, p. 41, row 5
report
Enthalpy of mixing
printed: ΔHmix
-2.52 kJ/mol-atom0γ
alloy: Al 0.75, Cr 0.25
DFT[8] Liu 2016Table 7, p. 41, row 4
report
Enthalpy of mixing
printed: ΔHmix
-19.04 kJ/mol-atom0γ’
alloy: Al 0.75, Cr 0.25
DFT[8] Liu 2016Table 9, p. 43, row 7
report
Enthalpy of mixing
printed: ΔHmix
-12.94 kJ/mol-atom0γ’
alloy: Al 0.25, Cr 0.75
DFT[8] Liu 2016Table 9, p. 43, row 3
report
Gibbs energy of mixing
printed: ΔG^exp at 1000°C
-16.28 kJ/mol-atom1273.15Al4Cr
alloy: Al 0.8, Cr 0.2
experimental[6] Saunders 1986
cites ref. 35
Table 1, p. 4, row 5
report
Gibbs energy of mixing
printed: ΔGexp
-23.79 kJ/mol-atom1273.15Al8Cr5
alloy: Al 0.6, Cr 0.4
experimental[6] Saunders 1986
cites ref. 35
Table 1, p. 4, row 9
report
Gibbs energy of mixing
printed: ΔG^exp at 1000°C
-21.51 kJ/mol-atom1273.15Al9Cr4 (l)
alloy: Al 0.69, Cr 0.31
experimental[6] Saunders 1986
cites ref. 35
Table 1, p. 4, row 7
report

Activity / EMF / Gibbs energy (5)

Activity / EMF / Gibbs energy, Al–Cr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Gibbs energy
printed: ΔG^calc at 1000°C
-17.55 kJ mol−1 of atoms1273.15Al4Cr
alloy: Al 0.8, Cr 0.2
model[6] Saunders 1986Table 1, p. 4, row 6
report
Gibbs energy
printed: ΔGcalc
-17.55 kJ mol^-1 of atoms1273.15Al4Cr
alloy: Al 0.8, Cr 0.2
model[6] Saunders 1986Table 1, p. 4, row 6
report
Gibbs energy
printed: ΔGcalc
-24.19 kJ mol^-1 of atoms1273.15Al8Cr5
alloy: Al 0.6, Cr 0.4
model[6] Saunders 1986Table 1, p. 4, row 10
report
Gibbs energy
printed: ΔGcalc
-21.96 kJ mol^-1 of atoms1273.15Al9Cr4 (l)
alloy: Al 0.69, Cr 0.31
model[6] Saunders 1986Table 1, p. 4, row 8
report
Gibbs energy
printed: ΔG^calc at 1000°C
-21.96 kJ mol−1 of atoms1273.15Al9Cr4 (l)
alloy: Al 0.69, Cr 0.31
model[6] Saunders 1986Table 1, p. 4, row 8
report

Crystal structure (46)

Crystal structure, Al–Cr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Lattice a12.88 Å298.15Al11Cr2
Al11Cr2: Al 0.83, Cr 0.17
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 3
report
Lattice a12.88 Å298.15Al11Cr2
alloy: Cr 0.153846
experimental[1] Cui 2017
cites Ohnishi 1975
Table 2, p. 4, row 2
report
Lattice a25.196 Å298.15Al45Cr7
alloy: Cr 0.134615
experimental[4] Hu 2013
cites Murray 2013
Table 3, p. 4, row 13
report
Lattice a8.716 Å298.15Al4Cr
Al4Cr: Al 0.8, Cr 0.2
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 4
report
Lattice a19.98 Å298.15Al4Cr
alloy: Cr 0.2
experimental[4] Hu 2013
cites Murray 2013
Table 3, p. 4, row 11
report
Lattice a19.98 Å298.15Al4Cr
alloy: Cr 0.2
experimental[1] Cui 2017
cites Audier 1995 doi
Table 2, p. 4, row 3
report
Lattice a12.88 Å298.15Al5Cr
alloy: Cr 0.166667
experimental[4] Hu 2013
cites Murray 2013
Table 3, p. 4, row 12
report
Lattice a25.196 Å298.15Al7Cr
alloy: Cr 0.125
experimental[1] Cui 2017
cites Cooper 1960 doi
Table 2, p. 4, row 1
report
Lattice a25.196 Å298.15Al7Cr
Al7Cr: Al 0.863, Cr 0.137
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 2
report
Lattice a3.005 Å298.15AlCr2
alloy: Cr 0.666667
experimental[4] Hu 2013
cites Murray 2013
Table 3, p. 4, row 8
report
Lattice a3.0045 Å298.15AlCr2
AlCr2: Al 0.286, Cr 0.714
experimental[7] Murray 1998
cites Bradley 1937
Table 3, p. 5, row 7
report
Lattice a2.99984 Å298.15AlCr2
alloy: Cr 0.666667
experimental[1] Cui 2017
cites Bradley 1937
Table 2, p. 4, row 6
report
Lattice a7.8051 Å298.15αAl8Cr5
αAl8Cr5: Al 0.58, Cr 0.42
experimental[7] Murray 1998
cites Bradley 1937
Table 3, p. 5, row 6
report
Lattice a9.123 Å298.15αAl9Cr4
αAl9Cr4: Al 0.665, Cr 0.335
unspecified[7] Murray 1998
cites ref. 63Kos
Table 3, p. 5, row 5
report
Lattice a9.065 Å298.15γ_Hunspecified[1] Cui 2017
cites Ellner 1989
Table 2, p. 4, row 4
report
Lattice a12.719 Å298.15γ_Lexperimental[1] Cui 2017
cites Bradley 1937
Table 2, p. 4, row 5
report
Lattice b7.652 Å298.15Al11Cr2
Al11Cr2: Al 0.83, Cr 0.17
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 3
report
Lattice b7.652 Å298.15Al11Cr2
alloy: Cr 0.153846
experimental[1] Cui 2017
cites Ohnishi 1975
Table 2, p. 4, row 2
report
Lattice b7.574 Å298.15Al45Cr7
alloy: Cr 0.134615
experimental[4] Hu 2013
cites Murray 2013
Table 3, p. 4, row 13
report
Lattice b23.946 Å298.15Al4Cr
Al4Cr: Al 0.8, Cr 0.2
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 4
report
Lattice b7.652 Å298.15Al5Cr
alloy: Cr 0.166667
experimental[4] Hu 2013
cites Murray 2013
Table 3, p. 4, row 12
report
Lattice b7.574 Å298.15Al7Cr
alloy: Cr 0.125
experimental[1] Cui 2017
cites Cooper 1960 doi
Table 2, p. 4, row 1
report
Lattice b7.574 Å298.15Al7Cr
Al7Cr: Al 0.863, Cr 0.137
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 2
report
Lattice c10.639 Å298.15Al11Cr2
Al11Cr2: Al 0.83, Cr 0.17
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 3
report
Lattice c10.639 Å298.15Al11Cr2
alloy: Cr 0.153846
experimental[1] Cui 2017
cites Ohnishi 1975
Table 2, p. 4, row 2
report
Lattice c10.949 Å298.15Al45Cr7
alloy: Cr 0.134615
experimental[4] Hu 2013
cites Murray 2013
Table 3, p. 4, row 13
report
Lattice c16.386 Å298.15Al4Cr
Al4Cr: Al 0.8, Cr 0.2
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 4
report
Lattice c24.67 Å298.15Al4Cr
alloy: Cr 0.2
experimental[4] Hu 2013
cites Murray 2013
Table 3, p. 4, row 11
report
Lattice c24.67 Å298.15Al4Cr
alloy: Cr 0.2
experimental[1] Cui 2017
cites Audier 1995 doi
Table 2, p. 4, row 3
report
Lattice c10.639 Å298.15Al5Cr
alloy: Cr 0.166667
experimental[4] Hu 2013
cites Murray 2013
Table 3, p. 4, row 12
report
Lattice c10.949 Å298.15Al7Cr
alloy: Cr 0.125
experimental[1] Cui 2017
cites Cooper 1960 doi
Table 2, p. 4, row 1
report
Lattice c10.949 Å298.15Al7Cr
Al7Cr: Al 0.863, Cr 0.137
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 2
report
Lattice c8.645 Å298.15AlCr2
alloy: Cr 0.666667
experimental[4] Hu 2013
cites Murray 2013
Table 3, p. 4, row 8
report
Lattice c8.6477 Å298.15AlCr2
AlCr2: Al 0.286, Cr 0.714
experimental[7] Murray 1998
cites Bradley 1937
Table 3, p. 5, row 7
report
Lattice c8.6303 Å298.15AlCr2
alloy: Cr 0.666667
experimental[1] Cui 2017
cites Bradley 1937
Table 2, p. 4, row 6
report
Lattice c7.936 Å298.15γ_Lexperimental[1] Cui 2017
cites Bradley 1937
Table 2, p. 4, row 5
report
Molar volume
printed: V0
14.031 Å3/atom298.15B2 AlCr
alloy: Cr 0.5
DFT[8] Liu 2016Table 2, p. 36, row 4
report
Molar volume
printed: V0
14.838 Å3/atom298.15γ'-L12 Al3Cr
alloy: Cr 0.25
DFT[8] Liu 2016Table 2, p. 36, row 20
report
Molar volume
printed: V0
12.431 Å3/atom298.15γ'-L12 Cr3Al
alloy: Cr 0.75
DFT[8] Liu 2016Table 2, p. 36, row 21
report
lattice beta128.41 °298.15Al11Cr2
alloy: Cr 0.153846
experimental[1] Cui 2017
cites Ohnishi 1975
Table 2, p. 4, row 2
report
lattice beta119.33 °298.15Al4Cr
alloy: Cr 0.2
experimental[1] Cui 2017
cites Audier 1995 doi
Table 2, p. 4, row 3
report
lattice beta128.71 °298.15Al7Cr
alloy: Cr 0.125
experimental[1] Cui 2017
cites Cooper 1960 doi
Table 2, p. 4, row 1
report
lattice unspecified angle122.2 °298.15Al11Cr2
Al11Cr2: Al 0.83, Cr 0.17
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 3
report
lattice unspecified angle119.33 °298.15Al4Cr
Al4Cr: Al 0.8, Cr 0.2
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 4
report
lattice unspecified angle128.7 °298.15Al7Cr
Al7Cr: Al 0.863, Cr 0.137
experimental[7] Murray 1998
cites Ohnishi 1975
Table 3, p. 5, row 2
report
lattice unspecified angle109.217 °298.15αAl8Cr5
αAl8Cr5: Al 0.58, Cr 0.42
experimental[7] Murray 1998
cites Bradley 1937
Table 3, p. 5, row 6
report

Sources

Reporting papers the values were read from (a value cited from another work names that work in its row).

  1. Senlin Cui, In-Ho Jung, Junghwan Kim, Jinghua Xin, A coupled experimental and thermodynamic study of the Al-Cr and Al-Cr-Mg systems, Journal of Alloys and Compounds 698, 1038-1057 (2017). doi:10.1016/j.jallcom.2016.12.298
  2. I. Ansara, A. T. Dinsdale, M. H. Rand (eds.), COST 507: Thermochemical database for light metal alloys, Volume 2, EUR 18499 EN, Office for Official Publications of the European Communities, Luxembourg (1998), ISBN 92-828-3902-8.
  3. V.T. Witusiewicz, A.A. Bondar, U. Hecht, T.Ya. Velikanova, Thermodynamic re-modelling of the ternary Al–Cr–Ti system with refined Al–Cr description, Journal of Alloys and Compounds 644, 939-958 (2015). doi:10.1016/j.jallcom.2015.04.231
  4. Biao Hu, Wei-Wei Zhang, Yingbiao Peng, Yong Du, Shuhong Liu, Yuelan Zhang, Thermodynamic reassessment of the Al–Cr–Si system with the refined description of the Al–Cr system, Thermochimica Acta 561, 77-90 (2013). doi:10.1016/j.tca.2013.03.033
  5. Yu Liang, Cuiping Guo, Changrong Li, Zhenmin Du, Thermodynamic modeling of the Al–Cr system, Journal of Alloys and Compounds 460, 314-319 (2008). doi:10.1016/j.jallcom.2007.06.046
  6. N. Saunders, V. G. Rivlin, Thermodynamic characterization of Al–Cr, Al–Zr, and Al–Cr–Zr alloy systems, Materials Science and Technology 2, 520-527 (1986). doi:10.1179/mst.1986.2.6.520
  7. J. L. Murray, The Al-Cr (aluminum-chromium) system, JPE 19, 367-375 (1998). doi:10.1007/bf02735058
  8. Xuan L. Liu, Greta Lindwall, Thomas Gheno, Zi-Kui Liu, Thermodynamic modeling of Al–Co–Cr, Al–Co–Ni, Co–Cr–Ni ternary systems towards a description for Al–Co–Cr–Ni, Calphad 52, 125-142 (2016). doi:10.1016/j.calphad.2015.12.007
  9. Xuan L. Liu, Thomas Gheno, Bonnie B. Lindahl, Greta Lindwall, Brian Gleeson, Zi-Kui Liu, First-Principles Calculations, Experimental Study, and Thermodynamic Modeling of the Al-Co-Cr System, PLoS ONE 10, e0121386 (2015). doi:10.1371/journal.pone.0121386