Cu–Zr system

674 accepted literature values from 7 paper(s) (experimental 344, model 314, DFT 15, unspecified 1); 11 calculated phase diagram(s). 9 further extracted value(s) not accepted by the reader-agreement checks are only in the JSON/CSV.

Data: JSON part 1 · JSON part 2 · CSV · interactive explorer · interactive phase diagram · phases (22) · papers (bibliography) · Markdown

Accepted values by evidence class
Evidence classValues
experimental344
model314
DFT15
unspecified1
Accepted values by property group
Property groupValues
invariant reaction418
phase transition43
phase equilibrium29
formation81
heat capacity / entropy / enthalpy6
activity / EMF / Gibbs energy84
crystal structure13

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
CuZr-06Abe.tdbT. Abe, M. Shimono, M. Ode, H. Onodera, Acta Mater., 54, 909-15(2006). doi:10.1016/j.actamat.2005.10.019e2697dff02826d36559d03f5f1bc5364842978de3a6488e81a92963853d2c547viewer · TDB · JSON
CuZr-06He.tdbX.C. He, H. Wang, H.S. Liu, Z.P. Jin, Calphad, 30, 367-74(2006). doi:10.1016/j.calphad.2006.09.001bd6094ea31a9fc31490ac05fac5ceaacf9313a3c2a3d5c3409a9f0a4e6f0be30viewer · TDB · JSON
CuZr-06Wan.tdbN. Wang, C. Li, Z. Du, F. Wang, W. Zhang, Calphad, 30, 461-69(2006). doi:10.1016/j.calphad.2006.06.0020b76f1913f8d39fa69f11add8eae6284fd94558fd75693cfa7835c75204896d4viewer · TDB · JSON
CuZr-08Tur.tdbM.A. Turchanin, P.G. Agraval, A.R. Abdulov, Powder Met. Met. Ceram., 47, 428-46(2008). doi:10.1007/s11106-008-9039-x799997b40952ad1681f7d16b2caa00b3527482981d9d5f934b73468107a1b9c3viewer · TDB · JSON
CuZr-10Zho.tdbS.H. Zhou, R.E. Napolitano, Acta Mater., 58, 2186-96(2010). doi:10.1016/j.actamat.2009.12.0047409ad2b74dca4d8bbaae79fb1bb34ccd7b157eef6c337c8e70602c1d9b5b878viewer · TDB · JSON
CuZr-11Gie.tdbW. Gierlotka, K.-C. Zhang, Y.-P. Chang, J. Alloys Compd., 509, 8313-18(2011). doi:10.1016/j.jallcom.2011.04.14101a7f13067505d6c4f48f9aab2d996c2a08ec4ecb82f1ecf2f807333a43a3cb4viewer · TDB · JSON
CuZr-16Hsi.tdbH.-S. Hsiao, S.-M. Liang, R. Schmid-Fetzer, Y. Yen, Calphad, 55, 77-87(2016). doi:10.1016/j.calphad.2016.08.00151c8fe3ff316bda5554f4cbcb907a37cfbc63d6c11cde120685673720f5f419dviewer · TDB · JSON
CuZr-17Liu.tdbY. Liu, S. Liu, C. Zhang, Y. Du, J. Wang, Y. Li, J. Phase Equilib. Diffus., 38, 121-34(2017). doi:10.1007/s11669-017-0522-2a20ea8e5cf71f4585391417f83fd390890bdd9d9967f4c33645976e0b8571f8dviewer · TDB · JSON
CuZr-22Zho.tdbC. Zhou, H. Jin, H. Yang, J. Liu, H. Wang, B. Yang, J. Non-Cryst. Solids, 588, 121615(2022). doi:10.1016/j.jnoncrysol.2022.1216157239bcd57a75ba472018f47d3a9166fc4997234325d38eee333d01c2143d7331viewer · TDB · JSON
CuZr-85Sau.tdbN. Saunders, Calphad, 9, 297-309(1985). doi:10.1016/0364-5916(85)90001-X0777f6451f7bea94535c0ad513c8fb43cf1670b372be48f60782b8c18b598440viewer · TDB · JSON
CuZr-94Zen-LB.tdbK.-J. Zeng, M. Hamalainen, H.L. Lukas, J. Phase Equilib., 15, 577-83(1994). doi:10.1007/BF026476184cce85fd056a6fced1c8270faca7a1d811d2f8227b305f70e0a221925bd07f69viewer · TDB · JSON
Calculated three-phase invariants (model, mole fraction of the second component)
TDB fileT (K)Phases at the invariant
CuZr-06Abe.tdb1286.69CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.69411) + BCC_A2 (x(Zr) 0.9371)
CuZr-06Abe.tdb1259LIQUID (x(Zr) 0.57983) + CU5ZR8 (x(Zr) 0.61538) + CUZR2 (x(Zr) 0.66667)
CuZr-06Abe.tdb1258.56CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.31384)
CuZr-06Abe.tdb1253.71LIQUID (x(Zr) 0.12139) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-06Abe.tdb1229.3CU8ZR3 (x(Zr) 0.27273) + CU2ZR (x(Zr) 0.33333) + LIQUID (x(Zr) 0.34409)
CuZr-06Abe.tdb1221.82CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.51892) + CU5ZR8 (x(Zr) 0.61538)
CuZr-06Abe.tdb1216.05FCC_A1 (x(Zr) 0.00271) + LIQUID (x(Zr) 0.09643) + CU9ZR2_C15B (x(Zr) 0.18182)
CuZr-06Abe.tdb1177.85CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.4166) + CUZR_B2 (x(Zr) 0.5)
CuZr-06Abe.tdb1177.55CU2ZR (x(Zr) 0.33333) + LIQUID (x(Zr) 0.40278) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06Abe.tdb1116.44CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97341) + HCP_A3 (x(Zr) 0.98174)
CuZr-06Abe.tdb1116.44CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.9735) + HCP_A3 (x(Zr) 0.9818)
CuZr-06Abe.tdb1104.3CU8ZR3 (x(Zr) 0.27273) + CU2ZR (x(Zr) 0.33333) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06Abe.tdb987.3CU10ZR7 (x(Zr) 0.41176) + CUZR_B2 (x(Zr) 0.5) + CU5ZR8 (x(Zr) 0.61538)
CuZr-06Abe.tdb977.67CU10ZR7 (x(Zr) 0.41176) + CU5ZR8 (x(Zr) 0.61538) + CUZR2 (x(Zr) 0.66667)
CuZr-06Abe.tdb886.3CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06Abe.tdb535.52CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06He.tdb1287.55LIQUID (x(Zr) 0.1075) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-06He.tdb1287.54LIQUID (x(Zr) 0.10725) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-06He.tdb1287.54LIQUID (x(Zr) 0.1072) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-06He.tdb1269.51CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.69992) + BCC_A2 (x(Zr) 0.94738)
CuZr-06He.tdb1269.51CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.69996) + BCC_A2 (x(Zr) 0.94739)
CuZr-06He.tdb1240.79FCC_A1 (x(Zr) 0.00108) + LIQUID (x(Zr) 0.07697) + CU5ZR_C15B (x(Zr) 0.16667)
CuZr-06He.tdb1240.79FCC_A1 (x(Zr) 0.00108) + LIQUID (x(Zr) 0.07684) + CU5ZR_C15B (x(Zr) 0.16667)
CuZr-06He.tdb1196.79CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.5385) + CUZR2 (x(Zr) 0.66667)
CuZr-06He.tdb1196.79CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.53875) + CUZR2 (x(Zr) 0.66667)
CuZr-06He.tdb1195.28CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.38773)
CuZr-06He.tdb1195.28CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.38764)
CuZr-06He.tdb1164.25CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.40825) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06He.tdb1164.25CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.40833) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06He.tdb1164.25CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.40782) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06He.tdb1163.29CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.42511) + CUZR_B2 (x(Zr) 0.5)
CuZr-06He.tdb1088.76CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97603) + HCP_A3 (x(Zr) 0.9961)
CuZr-06He.tdb1088.76CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.9761) + HCP_A3 (x(Zr) 0.99612)
CuZr-06He.tdb972.23CU10ZR7 (x(Zr) 0.41176) + CUZR_B2 (x(Zr) 0.5) + CUZR2 (x(Zr) 0.66667)
CuZr-06Wan.tdb1289.64CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.3243)
CuZr-06Wan.tdb1289.64CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.32431)
CuZr-06Wan.tdb1289.64CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.32419)
CuZr-06Wan.tdb1283.52CUZR2_HT (x(Zr) 0.66667) + LIQUID (x(Zr) 0.68435) + BCC_A2 (x(Zr) 0.95214)
CuZr-06Wan.tdb1283.52CUZR2_HT (x(Zr) 0.66667) + LIQUID (x(Zr) 0.68436) + BCC_A2 (x(Zr) 0.95214)
CuZr-06Wan.tdb1279.73LIQUID (x(Zr) 0.08813) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-06Wan.tdb1279.73LIQUID (x(Zr) 0.08828) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-06Wan.tdb1270.72FCC_A1 (x(Zr) 0.00126) + LIQUID (x(Zr) 0.08169) + CU9ZR2_C15B (x(Zr) 0.18182)
CuZr-06Wan.tdb1270.71FCC_A1 (x(Zr) 0.00125) + LIQUID (x(Zr) 0.08149) + CU9ZR2_C15B (x(Zr) 0.18182)
CuZr-06Wan.tdb1267.82CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.34312) + CU24ZR13 (x(Zr) 0.35)
CuZr-06Wan.tdb1267.82CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.34305) + CU24ZR13 (x(Zr) 0.35)
CuZr-06Wan.tdb1267.82CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.34296) + CU24ZR13 (x(Zr) 0.35)
CuZr-06Wan.tdb1221.44CU8ZR3 (x(Zr) 0.27273) + CU2ZR (x(Zr) 0.33333) + CU24ZR13 (x(Zr) 0.35)
CuZr-06Wan.tdb1219.86LIQUID (x(Zr) 0.56653) + CU5ZR8 (x(Zr) 0.61538) + CUZR2_HT (x(Zr) 0.66667)
CuZr-06Wan.tdb1219.86LIQUID (x(Zr) 0.56679) + CU5ZR8 (x(Zr) 0.61538) + CUZR2_HT (x(Zr) 0.66667)
CuZr-06Wan.tdb1200.09CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.54455) + CU5ZR8 (x(Zr) 0.61538)
CuZr-06Wan.tdb1200.09CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.5444) + CU5ZR8 (x(Zr) 0.61538)
CuZr-06Wan.tdb1200.09CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.54471) + CU5ZR8 (x(Zr) 0.61538)
CuZr-06Wan.tdb1200.02CUZR2_HT (x(Zr) 0.66667) + CUZR2_LT (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.96378)
CuZr-06Wan.tdb1200.02CUZR2_LT (x(Zr) 0.66667) + CUZR2_HT (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.96374)
CuZr-06Wan.tdb1200.02CU5ZR8 (x(Zr) 0.61538) + CUZR2_HT (x(Zr) 0.66667) + CUZR2_LT (x(Zr) 0.66667)
CuZr-06Wan.tdb1197.12CU24ZR13 (x(Zr) 0.35) + LIQUID (x(Zr) 0.39942) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06Wan.tdb1197.12CU24ZR13 (x(Zr) 0.35) + LIQUID (x(Zr) 0.39958) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06Wan.tdb1192.06CU2ZR (x(Zr) 0.33333) + CU24ZR13 (x(Zr) 0.35) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06Wan.tdb1188.49CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.44655) + CUZR_B2 (x(Zr) 0.5)
CuZr-06Wan.tdb1151.94CU8ZR3 (x(Zr) 0.27273) + CU2ZR (x(Zr) 0.33333) + CU10ZR7 (x(Zr) 0.41176)
CuZr-06Wan.tdb1090.42CUZR2_LT (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97757) + HCP_A3 (x(Zr) 0.99667)
CuZr-06Wan.tdb1090.42CUZR2_LT (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97766) + HCP_A3 (x(Zr) 0.99668)
CuZr-06Wan.tdb1004.35CU10ZR7 (x(Zr) 0.41176) + CUZR_B2 (x(Zr) 0.5) + CU5ZR8 (x(Zr) 0.61538)
CuZr-06Wan.tdb984.51CU10ZR7 (x(Zr) 0.41176) + CU5ZR8 (x(Zr) 0.61538) + CUZR2_LT (x(Zr) 0.66667)
CuZr-06Wan.tdb911.19CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + CU10ZR7 (x(Zr) 0.41176)
CuZr-08Tur.tdb1277.23LIQUID (x(Zr) 0.10606) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-08Tur.tdb1270.75CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.70863) + BCC_A2 (x(Zr) 0.94989)
CuZr-08Tur.tdb1250.22FCC_A1 (x(Zr) 0.00132) + LIQUID (x(Zr) 0.08356) + CU5ZR_C15B (x(Zr) 0.16667)
CuZr-08Tur.tdb1235.54CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.3421)
CuZr-08Tur.tdb1190.45CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.53553) + CUZR2 (x(Zr) 0.66667)
CuZr-08Tur.tdb1153.67CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.43428) + CUZR_B2 (x(Zr) 0.5)
CuZr-08Tur.tdb1153.37CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.38893) + CU10ZR7 (x(Zr) 0.41176)
CuZr-08Tur.tdb1096.98CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.98296) + HCP_A3 (x(Zr) 0.99965)
CuZr-08Tur.tdb1096.98CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.983) + HCP_A3 (x(Zr) 0.99965)
CuZr-08Tur.tdb985.77CU10ZR7 (x(Zr) 0.41176) + CUZR_B2 (x(Zr) 0.5) + CUZR2 (x(Zr) 0.66667)
CuZr-10Zho.tdb1293.08LIQUID (x(Zr) 0.10192) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-10Zho.tdb1267.34CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.70181) + BCC_A2 (x(Zr) 0.9464)
CuZr-10Zho.tdb1267.32CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.35645)
CuZr-10Zho.tdb1252.67FCC_A1 (x(Zr) 0.00142) + LIQUID (x(Zr) 0.07164) + CU5ZR_C15B (x(Zr) 0.16667)
CuZr-10Zho.tdb1209.75CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.40455) + CU10ZR7 (x(Zr) 0.41176)
CuZr-10Zho.tdb1196.24CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.46046) + CUZR_B2 (x(Zr) 0.5)
CuZr-10Zho.tdb1194.97CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.5431) + CUZR2 (x(Zr) 0.66667)
CuZr-10Zho.tdb1119.06CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.96933) + HCP_A3 (x(Zr) 0.97638)
CuZr-10Zho.tdb1119.05CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.96956) + HCP_A3 (x(Zr) 0.97656)
CuZr-10Zho.tdb989.48CU10ZR7 (x(Zr) 0.41176) + CUZR_B2 (x(Zr) 0.5) + CUZR2 (x(Zr) 0.66667)
CuZr-10Zho.tdb957.67CU8ZR3 (x(Zr) 0.27273) + CU2ZR (x(Zr) 0.33333) + CU10ZR7 (x(Zr) 0.41176)
CuZr-10Zho.tdb845.87CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + CU2ZR (x(Zr) 0.33333)
CuZr-10Zho.tdb804.48CU51ZR14 (x(Zr) 0.21538) + CU2ZR (x(Zr) 0.33333) + CU10ZR7 (x(Zr) 0.41176)
CuZr-10Zho.tdb758.9FCC_A1 (x(Zr) 0) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-10Zho.tdb758.9FCC_A1 (x(Zr) 0) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-10Zho.tdb453.19CU51ZR14 (x(Zr) 0.21538) + CU10ZR7 (x(Zr) 0.41176) + CUZR2 (x(Zr) 0.66667)
CuZr-11Gie.tdb1314.81LIQUID (x(Zr) 0.12365) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-11Gie.tdb1314.81LIQUID (x(Zr) 0.12358) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-11Gie.tdb1314.81LIQUID (x(Zr) 0.12357) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-11Gie.tdb1286.93CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.32575)
CuZr-11Gie.tdb1286.93CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.32568)
CuZr-11Gie.tdb1283.17CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.69813) + BCC_A2 (x(Zr) 0.93177)
CuZr-11Gie.tdb1253.95CU8ZR3 (x(Zr) 0.27273) + CU2ZR (x(Zr) 0.33333) + LIQUID (x(Zr) 0.354)
CuZr-11Gie.tdb1253.94CU8ZR3 (x(Zr) 0.27273) + CU2ZR (x(Zr) 0.33333) + LIQUID (x(Zr) 0.35434)
CuZr-11Gie.tdb1253.94CU8ZR3 (x(Zr) 0.27273) + CU2ZR (x(Zr) 0.33333) + LIQUID (x(Zr) 0.35429)
CuZr-11Gie.tdb1252.02FCC_A1 (x(Zr) 0.0013) + LIQUID (x(Zr) 0.08343) + CU9ZR2_C15B (x(Zr) 0.18182)
CuZr-11Gie.tdb1252.02FCC_A1 (x(Zr) 0.00129) + LIQUID (x(Zr) 0.08324) + CU9ZR2_C15B (x(Zr) 0.18182)
CuZr-11Gie.tdb1240.23LIQUID (x(Zr) 0.56397) + CU5ZR7 (x(Zr) 0.58333) + CUZR2 (x(Zr) 0.66667)
CuZr-11Gie.tdb1240.23LIQUID (x(Zr) 0.56421) + CU5ZR7 (x(Zr) 0.58333) + CUZR2 (x(Zr) 0.66667)
CuZr-11Gie.tdb1221.31CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.52482) + CU5ZR7 (x(Zr) 0.58333)
CuZr-11Gie.tdb1221.3CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.5243) + CU5ZR7 (x(Zr) 0.58333)
CuZr-11Gie.tdb1221.3CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.52445) + CU5ZR7 (x(Zr) 0.58333)
CuZr-11Gie.tdb1181.89CU2ZR (x(Zr) 0.33333) + CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.41795)
CuZr-11Gie.tdb1181.89CU2ZR (x(Zr) 0.33333) + CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.41819)
CuZr-11Gie.tdb1181.89CU2ZR (x(Zr) 0.33333) + CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.41824)
CuZr-11Gie.tdb1181.27CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.42447) + CUZR_B2 (x(Zr) 0.5)
CuZr-11Gie.tdb1181.27CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.42471) + CUZR_B2 (x(Zr) 0.5)
CuZr-11Gie.tdb1113.23CU8ZR3 (x(Zr) 0.27273) + CU2ZR (x(Zr) 0.33333) + CU10ZR7 (x(Zr) 0.41176)
CuZr-11Gie.tdb1086.36CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97767) + HCP_A3 (x(Zr) 0.999)
CuZr-11Gie.tdb1086.36CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97771) + HCP_A3 (x(Zr) 0.999)
CuZr-11Gie.tdb994.45CU10ZR7 (x(Zr) 0.41176) + CUZR_B2 (x(Zr) 0.5) + CU5ZR7 (x(Zr) 0.58333)
CuZr-11Gie.tdb991.21CU10ZR7 (x(Zr) 0.41176) + CU5ZR7 (x(Zr) 0.58333) + CUZR2 (x(Zr) 0.66667)
CuZr-11Gie.tdb881.25CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + CU10ZR7 (x(Zr) 0.41176)
CuZr-11Gie.tdb546.83CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538) + CU10ZR7 (x(Zr) 0.41176)
CuZr-16Hsi.tdb1291.42LIQUID (x(Zr) 0.11094) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-16Hsi.tdb1291.42LIQUID (x(Zr) 0.11071) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-16Hsi.tdb1291.42LIQUID (x(Zr) 0.1107) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-16Hsi.tdb1268.27CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.70116) + BCC_A2 (x(Zr) 0.95649)
CuZr-16Hsi.tdb1268.27CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.7012) + BCC_A2 (x(Zr) 0.95649)
CuZr-16Hsi.tdb1243.97CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.36013)
CuZr-16Hsi.tdb1243.97CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.35987)
CuZr-16Hsi.tdb1235.9FCC_A1 (x(Zr) 0.00123) + LIQUID (x(Zr) 0.08116) + CU9ZR2_C15B (x(Zr) 0.18182)
CuZr-16Hsi.tdb1235.9FCC_A1 (x(Zr) 0.00123) + LIQUID (x(Zr) 0.08111) + CU9ZR2_C15B (x(Zr) 0.18182)
CuZr-16Hsi.tdb1194.91CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.54985) + CUZR2 (x(Zr) 0.66667)
CuZr-16Hsi.tdb1194.91CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.54992) + CUZR2 (x(Zr) 0.66667)
CuZr-16Hsi.tdb1167.66CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.41175) + CU10ZR7 (x(Zr) 0.41176)
CuZr-16Hsi.tdb1167.66CU8ZR3 (x(Zr) 0.27273) + CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.41191)
CuZr-16Hsi.tdb1167.66CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.41129) + CU10ZR7 (x(Zr) 0.41176)
CuZr-16Hsi.tdb1166.26CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.42744) + CUZR_B2 (x(Zr) 0.5)
CuZr-16Hsi.tdb1166.26CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.42788) + CUZR_B2 (x(Zr) 0.5)
CuZr-16Hsi.tdb1166.26CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.42764) + CUZR_B2 (x(Zr) 0.5)
CuZr-16Hsi.tdb1093.36CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97871) + HCP_A3 (x(Zr) 0.99714)
CuZr-16Hsi.tdb1093.36CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97884) + HCP_A3 (x(Zr) 0.99715)
CuZr-16Hsi.tdb988.36CU10ZR7 (x(Zr) 0.41176) + CUZR_B2 (x(Zr) 0.5) + CUZR2 (x(Zr) 0.66667)
CuZr-16Hsi.tdb865.9FCC_A1 (x(Zr) 8.000e-5) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-16Hsi.tdb865.9FCC_A1 (x(Zr) 8.000e-5) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-16Hsi.tdb865.9FCC_A1 (x(Zr) 8.000e-5) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-16Hsi.tdb865.9FCC_A1 (x(Zr) 8.000e-5) + CU9ZR2_C15B (x(Zr) 0.18182) + CU51ZR14 (x(Zr) 0.21538)
CuZr-17Liu.tdb1288.96LIQUID (x(Zr) 0.11131) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-17Liu.tdb1288.96LIQUID (x(Zr) 0.11095) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-17Liu.tdb1288.96LIQUID (x(Zr) 0.11088) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-17Liu.tdb1245.11CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.73357) + BCC_A2 (x(Zr) 0.947)
CuZr-17Liu.tdb1245.11CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.73358) + BCC_A2 (x(Zr) 0.947)
CuZr-17Liu.tdb1243.82FCC_A1 (x(Zr) 0.00122) + LIQUID (x(Zr) 0.07868) + CU5ZR_C15B (x(Zr) 0.16667)
CuZr-17Liu.tdb1243.82FCC_A1 (x(Zr) 0.00122) + LIQUID (x(Zr) 0.07866) + CU5ZR_C15B (x(Zr) 0.16667)
CuZr-17Liu.tdb1241.12CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.36551)
CuZr-17Liu.tdb1210.37CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.55461) + CUZR2 (x(Zr) 0.66667)
CuZr-17Liu.tdb1210.37CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.55501) + CUZR2 (x(Zr) 0.66667)
CuZr-17Liu.tdb1186.13CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.41198) + CUZR_B2 (x(Zr) 0.5)
CuZr-17Liu.tdb1186.13CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.41101) + CU10ZR7 (x(Zr) 0.41176)
CuZr-17Liu.tdb1094.73CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97815) + HCP_A3 (x(Zr) 0.99567)
CuZr-17Liu.tdb1094.73CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97816) + HCP_A3 (x(Zr) 0.99567)
CuZr-17Liu.tdb990.29CU10ZR7 (x(Zr) 0.41176) + CUZR_B2 (x(Zr) 0.5) + CUZR2 (x(Zr) 0.66667)
CuZr-17Liu.tdb874CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + CU10ZR7 (x(Zr) 0.41176)
CuZr-17Liu.tdb495.72CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538) + CU10ZR7 (x(Zr) 0.41176)
CuZr-22Zho.tdb1284.98LIQUID (x(Zr) 0.10843) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-22Zho.tdb1284.98LIQUID (x(Zr) 0.10833) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-22Zho.tdb1284.98LIQUID (x(Zr) 0.10832) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-22Zho.tdb1245.11CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.73357) + BCC_A2 (x(Zr) 0.947)
CuZr-22Zho.tdb1245.11CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.73358) + B2_BCC (x(Zr) 0.947)
CuZr-22Zho.tdb1245.11CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.73358) + BCC_A2 (x(Zr) 0.947)
CuZr-22Zho.tdb1243.17FCC_A1 (x(Zr) 0.00122) + LIQUID (x(Zr) 0.07903) + CU5ZR_C15B (x(Zr) 0.16667)
CuZr-22Zho.tdb1243.17FCC_A1 (x(Zr) 0.00122) + LIQUID (x(Zr) 0.07902) + CU5ZR_C15B (x(Zr) 0.16667)
CuZr-22Zho.tdb1239.5CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.36715)
CuZr-22Zho.tdb1239.5CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.36709)
CuZr-22Zho.tdb1211.46B2_BCC (x(Zr) 0.50643) + LIQUID (x(Zr) 0.55612) + CUZR2 (x(Zr) 0.66667)
CuZr-22Zho.tdb1211.45B2_BCC (x(Zr) 0.50639) + LIQUID (x(Zr) 0.55566) + CUZR2 (x(Zr) 0.66667)
CuZr-22Zho.tdb1186.13LIQUID (x(Zr) 0.41101) + CU10ZR7 (x(Zr) 0.41176) + B2_BCC (x(Zr) 0.49582)
CuZr-22Zho.tdb1186.13CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.41101) + CU10ZR7 (x(Zr) 0.41176)
CuZr-22Zho.tdb1139HCP_A3 (x(Zr) 1) + BCC_A2 (x(Zr) 1) + B2_BCC (x(Zr) 1)
CuZr-22Zho.tdb1094.73CUZR2 (x(Zr) 0.66667) + B2_BCC (x(Zr) 0.97815) + HCP_A3 (x(Zr) 0.99567)
CuZr-22Zho.tdb1094.73CUZR2 (x(Zr) 0.66667) + B2_BCC (x(Zr) 0.97816) + HCP_A3 (x(Zr) 0.99567)
CuZr-22Zho.tdb1094.73CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97816) + HCP_A3 (x(Zr) 0.99567)
CuZr-22Zho.tdb990.68CU10ZR7 (x(Zr) 0.41176) + B2_BCC (x(Zr) 0.50061) + CUZR2 (x(Zr) 0.66667)
CuZr-22Zho.tdb884.96CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + CU10ZR7 (x(Zr) 0.41176)
CuZr-22Zho.tdb483.91CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538) + CU10ZR7 (x(Zr) 0.41176)
CuZr-85Sau.tdb1317.07CU4ZR (x(Zr) 0.2) + CU5ZR2 (x(Zr) 0.28571) + LIQUID (x(Zr) 0.2967)
CuZr-85Sau.tdb1317.07CU4ZR (x(Zr) 0.2) + CU5ZR2 (x(Zr) 0.28571) + LIQUID (x(Zr) 0.29671)
CuZr-85Sau.tdb1317.07CU4ZR (x(Zr) 0.2) + CU5ZR2 (x(Zr) 0.28571) + LIQUID (x(Zr) 0.29651)
CuZr-85Sau.tdb1261.83CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.72936) + BCC_A2 (x(Zr) 0.94775)
CuZr-85Sau.tdb1261.83CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.72941) + BCC_A2 (x(Zr) 0.94777)
CuZr-85Sau.tdb1235.83FCC_A1 (x(Zr) 0.00147) + LIQUID (x(Zr) 0.07794) + CU4ZR (x(Zr) 0.2)
CuZr-85Sau.tdb1235.83FCC_A1 (x(Zr) 0.00147) + LIQUID (x(Zr) 0.07789) + CU4ZR (x(Zr) 0.2)
CuZr-85Sau.tdb1194.78CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.53761) + CUZR2 (x(Zr) 0.66667)
CuZr-85Sau.tdb1194.78CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.53802) + CUZR2 (x(Zr) 0.66667)
CuZr-85Sau.tdb1188.6CU5ZR2 (x(Zr) 0.28571) + CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.42718)
CuZr-85Sau.tdb1188.6CU5ZR2 (x(Zr) 0.28571) + CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.42716)
CuZr-85Sau.tdb1188.6CU5ZR2 (x(Zr) 0.28571) + CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.42728)
CuZr-85Sau.tdb1185.83CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.44042) + CUZR_B2 (x(Zr) 0.5)
CuZr-85Sau.tdb1185.83CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.44044) + CUZR_B2 (x(Zr) 0.5)
CuZr-85Sau.tdb1091.19CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97334) + HCP_A3 (x(Zr) 0.99144)
CuZr-85Sau.tdb1091.18CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97346) + HCP_A3 (x(Zr) 0.99149)
CuZr-94Zen-LB.tdb1287.55LIQUID (x(Zr) 0.1075) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-94Zen-LB.tdb1287.54LIQUID (x(Zr) 0.10725) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-94Zen-LB.tdb1287.54LIQUID (x(Zr) 0.1072) + CU5ZR_C15B (x(Zr) 0.16667) + CU51ZR14 (x(Zr) 0.21538)
CuZr-94Zen-LB.tdb1269.51CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.69992) + BCC_A2 (x(Zr) 0.94738)
CuZr-94Zen-LB.tdb1269.51CUZR2 (x(Zr) 0.66667) + LIQUID (x(Zr) 0.69996) + BCC_A2 (x(Zr) 0.94739)
CuZr-94Zen-LB.tdb1240.79FCC_A1 (x(Zr) 0.00108) + LIQUID (x(Zr) 0.07697) + CU5ZR_C15B (x(Zr) 0.16667)
CuZr-94Zen-LB.tdb1240.79FCC_A1 (x(Zr) 0.00108) + LIQUID (x(Zr) 0.07684) + CU5ZR_C15B (x(Zr) 0.16667)
CuZr-94Zen-LB.tdb1196.72CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.53844) + CUZR2 (x(Zr) 0.66667)
CuZr-94Zen-LB.tdb1196.72CUZR_B2 (x(Zr) 0.5) + LIQUID (x(Zr) 0.53868) + CUZR2 (x(Zr) 0.66667)
CuZr-94Zen-LB.tdb1195.28CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.38773)
CuZr-94Zen-LB.tdb1195.28CU51ZR14 (x(Zr) 0.21538) + CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.38764)
CuZr-94Zen-LB.tdb1164.25CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.40825) + CU10ZR7 (x(Zr) 0.41176)
CuZr-94Zen-LB.tdb1164.25CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.40833) + CU10ZR7 (x(Zr) 0.41176)
CuZr-94Zen-LB.tdb1164.25CU8ZR3 (x(Zr) 0.27273) + LIQUID (x(Zr) 0.40783) + CU10ZR7 (x(Zr) 0.41176)
CuZr-94Zen-LB.tdb1163.24CU10ZR7 (x(Zr) 0.41176) + LIQUID (x(Zr) 0.42542) + CUZR_B2 (x(Zr) 0.5)
CuZr-94Zen-LB.tdb1088.76CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.97603) + HCP_A3 (x(Zr) 0.9961)
CuZr-94Zen-LB.tdb1088.76CUZR2 (x(Zr) 0.66667) + BCC_A2 (x(Zr) 0.9761) + HCP_A3 (x(Zr) 0.99612)
CuZr-94Zen-LB.tdb976.65CU10ZR7 (x(Zr) 0.41176) + CUZR_B2 (x(Zr) 0.5) + CUZR2 (x(Zr) 0.66667)

Convex hulls: Materials Project DFT hull · OQMD DFT hull · CALPHAD hull CuZr-06Abe · CALPHAD hull CuZr-06He · CALPHAD hull CuZr-06Wan · CALPHAD hull CuZr-08Tur · CALPHAD hull CuZr-10Zho · CALPHAD hull CuZr-11Gie · CALPHAD hull CuZr-16Hsi · CALPHAD hull CuZr-17Liu · CALPHAD hull CuZr-85Sau · CALPHAD hull CuZr-94Zen-LB

Invariant reactions (literature)

Invariant reactions reported in the literature for the Cu–Zr system (418)
T (K)Reaction / phasesCompositions (mole fraction)ClassSourceLocationQuote
1413congruent melting: Liquid <-> Cu51Zr14L: Zr 0.25; Cu51Zr14: Cu 0.784615, Zr 0.215385experimental[1] Liu 2017
cites Pogodin 1940		Table 5, p. 9, row 1
report
1411congruent melting: L <=> Cu51Zr14L: Zr 0.25; Cu51Zr14: Zr 0.25experimental[2] Turchanin 2008
cites ref. 3		Table 2, p. 5, row 16
report
1393congruent melting: Liquid <-> Cu51Zr14L: Zr 0.2154; Cu51Zr14: Cu 0.784615, Zr 0.215385experimental[1] Liu 2017
cites Yamaguchi 2008 doi		Table 5, p. 9, row 8
report
1393congruent melting: L <=> Cu51Zr14L: Zr 0.2154; Cu51Zr14: Zr 0.2154experimental[2] Turchanin 2008
cites ref. 27		Table 2, p. 5, row 23
report
1389congruent melting: L -> Cu51Zr14L: Zr 0.215; Cu51Zr14: Cu 0.784615, Zr 0.215385experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 4, row 8
report
1389congruent melting: Liquid <-> Cu51Zr14L: Zr 0.2154; Cu51Zr14: Cu 0.784615, Zr 0.215385experimental[1] Liu 2017
cites Braga 1998		Table 5, p. 9, row 7
report
1389congruent melting: L -> Cu51Zr14L: Zr 0.215; Cu51Zr14: Cu 0.784615, Zr 0.215385model[3] Wang 2006Table 1, p. 4, row 12
report
1389congruent melting: L <=> Cu51Zr14L: Zr 0.2154; Cu51Zr14: Zr 0.2154experimental[2] Turchanin 2008
cites ref. 25		Table 2, p. 5, row 22
report
1388congruent melting: Liquid <-> Cu51Zr14L: Zr 0.2154; Cu51Zr14: Cu 0.784615, Zr 0.215385experimental[1] Liu 2017
cites Glimois 1985 doi		Table 5, p. 9, row 6
report
1388congruent melting: L -> Cu51Zr14L: Zr 0.215; Cu51Zr14: Cu 0.784615, Zr 0.215385model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 4, row 11
report
1388congruent melting: L <=> Cu51Zr14L: Zr 0.2154; Cu51Zr14: Zr 0.2154experimental[2] Turchanin 2008
cites ref. 22		Table 2, p. 5, row 21
report
1388congruent melting: L -> Cu51Zr14L: Zr 0.215; Cu51Zr14: Cu 0.784615, Zr 0.215385model[3] Wang 2006
cites Arias 1990 doi		Table 1, p. 4, row 9
report
1386congruent melting: L <=> Cu51Zr14L: Zr 0.2; Cu51Zr14: Zr 0.2experimental[2] Turchanin 2008
cites ref. 15		Table 2, p. 5, row 19
report
1386congruent melting: Liquid <-> Cu51Zr14L: Zr 0.2; Cu51Zr14: Cu 0.784615, Zr 0.215385experimental[1] Liu 2017
cites Perry 1972		Table 5, p. 9, row 4
report
1386congruent melting: L -> Cu51Zr14L: Zr 0.215; Cu51Zr14: Cu 0.784615, Zr 0.215385model[3] Wang 2006
cites Zeng 1994 doi		Table 1, p. 4, row 10
report
1386congruent melting: Cu51Zr14 -> LiquidCu51Zr14: Zr 0.215; Liquid: Zr 0.215model[4] (ed.) 1998Table I, p. 210, row 3
report
1385congruent melting: Liquid <-> Cu51Zr14L: Zr 0.25; Cu51Zr14: Cu 0.784615, Zr 0.215385experimental[1] Liu 2017
cites Raub 1948		Table 5, p. 9, row 2
report
1383congruent melting: L <=> Cu51Zr14L: Zr 0.25; Cu51Zr14: Zr 0.25experimental[2] Turchanin 2008
cites ref. 4		Table 2, p. 5, row 17
report
1382congruent melting: L <=> Cu51Zr14L: Zr 0.2154; Cu51Zr14: Zr 0.2154model[2] Turchanin 2008Table 2, p. 5, row 24
report
1380.6congruent melting: Liquid <-> Cu51Zr14L: Zr 0.215; Cu51Zr14: Cu 0.784615, Zr 0.215385model[1] Liu 2017Table 5, p. 9, row 9
report
1377congruent melting: L <=> Cu51Zr14L: Zr 0.2222; Cu51Zr14: Zr 0.2222experimental[2] Turchanin 2008
cites ref. 20		Table 2, p. 5, row 20
report
1377congruent melting: Liquid <-> Cu51Zr14L: Zr 0.2222; Cu51Zr14: Cu 0.784615, Zr 0.215385experimental[1] Liu 2017
cites Kuznetsov 1978		Table 5, p. 9, row 5
report
1373congruent melting: L -> Cu51Zr14L: Zr 0.215; Cu51Zr14: Cu 0.784615, Zr 0.215385experimental[3] Wang 2006
cites Lundin 1953		Table 1, p. 4, row 7
report
1373congruent melting: Liquid <-> Cu51Zr14L: Zr 0.25; Cu51Zr14: Cu 0.784615, Zr 0.215385experimental[1] Liu 2017
cites Lundin 1953		Table 5, p. 9, row 3
report
1373congruent melting: L <=> Cu51Zr14L: Zr 0.25; Cu51Zr14: Zr 0.25experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 5, row 18
report
1343peritectic: L + Cu51Zr14 -> Cu8Zr3L: Zr 0.3081; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727experimental[3] Wang 2006
cites Lundin 1953		Table 1, p. 4, row 21
report
1343Liquid + Cu51Zr14 = Cu8Zr3Liquid: Zr 0.308; Cu51Zr14: Zr 0.215385; Cu8Zr3: Zr 0.272727experimental[5] Gierlotka 2011
cites Lundin 1953		Table 3, p. 5, row 18
report
1343Liq + β -> δL: Zr 0.308; δ: Zr 0.272727experimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 60
report
1343peritectic: Liquid + Cu51Zr14 <-> Cu8Zr3L: Zr 0.308; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727experimental[1] Liu 2017
cites Lundin 1953		Table 5, p. 9, row 40
report
1343L + Cu51Zr14 -> Cu8Zr3L: Zr 0.3081; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727experimental[7] Zeng 1994
cites Lundin 1953		Table 5, p. 4, row 17
report
1343L + Cu51Zr14 <=> Cu8Zr3L: Zr 0.31; Cu51Zr14: Zr 0.25; Cu8Zr3: Zr 0.29experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 5, row 25
report
1338congruent melting: L <=> CuZr2L: Zr 0.67; CuZr2: Zr 0.67experimental[2] Turchanin 2008
cites ref. 5		Table 2, p. 7, row 4
report
1311peritectic: L + Cu51Zr14 -> Cu9Zr2L: Zr 0.107; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu9Zr2: Cu 0.818182, Zr 0.181818model[3] Wang 2006Table 1, p. 4, row 19
report
1311Liquid + Cu51Zr14 = Cu9Zr2Liquid: Zr 0.107; Cu51Zr14: Zr 0.215385; Cu9Zr2: Zr 0.181818model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 14
report
1311peritectic: Liquid + Cu51Zr14 <-> Cu5ZrL: Zr 0.125; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Braga 1998		Table 5, p. 9, row 36
report
1311peritectic: L + Cu51Zr14 -> Cu9Zr2L: Zr 0.125; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu9Zr2: Cu 0.818182, Zr 0.181818experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 4, row 15
report
1311L + Cu51Zr14 <=> Cu5ZrL: Zr 0.125; Cu51Zr14: Zr 0.2154; Cu5Zr: Zr 0.1818experimental[2] Turchanin 2008
cites ref. 25		Table 2, p. 5, row 13
report
1311Liq + β -> C15bL: Zr 0.107; C15b: Zr 0.182model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 12
report
1311Liquid + Cu51Zr14 = Cu9Zr2Liquid: Zr 0.125; Cu51Zr14: Zr 0.215385; Cu9Zr2: Zr 0.181818experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 11
report
1309Liquid + Cu51Zr14 = Cu9Zr2Liquid: Zr 0.113; Cu51Zr14: Zr 0.215385; Cu9Zr2: Zr 0.181818model[5] Gierlotka 2011Table 3, p. 5, row 8
report
1305Liquid + Cu51Zr14 = Cu8Zr3Liquid: Zr 0.316; Cu51Zr14: Zr 0.215385; Cu8Zr3: Zr 0.272727model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 22
report
1305peritectic: Liquid + Cu51Zr14 <-> Cu8Zr3L: Zr 0.34; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727experimental[1] Liu 2017
cites Braga 1998		Table 5, p. 9, row 42
report
1305Liq + β -> δL: Zr 0.316; δ: Zr 0.272727model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 59
report
1305peritectic: L + Cu51Zr14 -> Cu8Zr3L: Zr 0.34; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 4, row 22
report
1305peritectic: L + Cu51Zr14 -> Cu8Zr3L: Zr 0.316; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727model[3] Wang 2006Table 1, p. 4, row 26
report
1305L + Cu51Zr14 <=> Cu8Zr3L: Zr 0.34; Cu51Zr14: Zr 0.2154; Cu8Zr3: Zr 0.2727experimental[2] Turchanin 2008
cites ref. 25		Table 2, p. 5, row 27
report
1305Liquid + Cu51Zr14 = Cu8Zr3Liquid: Zr 0.34; Cu51Zr14: Zr 0.215385; Cu8Zr3: Zr 0.272727experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 19
report
1293eutectic: L -> CuZr2-h + (βZr)CuZr2-h: Zr 0.666667experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 5, row 35
report
1293Liquid = CuZr2+BCC A2CuZr2: Zr 0.666667experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 31
report
1290Liquid + Cu51Zr14 = Cu9Zr2Liquid: Zr 0.182; Cu51Zr14: Zr 0.215385; Cu9Zr2: Zr 0.181818model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 15
report
1288L + Cu51Zr14 -> Cu5ZrL: Zr 0.107; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu5Zr: Cu 0.833333, Zr 0.166667model[7] Zeng 1994Table 5, p. 4, row 16
report
1288Liquid + Cu51Zr14 = Cu9Zr2Liquid: Zr 0.107; Cu51Zr14: Zr 0.215385; Cu9Zr2: Zr 0.181818model[5] Gierlotka 2011
cites Zeng 1994 doi		Table 3, p. 5, row 12
report
1288peritectic: L + Cu51Zr14 -> Cu9Zr2L: Zr 0.107; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu9Zr2: Cu 0.818182, Zr 0.181818model[3] Wang 2006
cites Zeng 1994 doi		Table 1, p. 4, row 17
report
1287.5peritectic: Liquid + Cu51Zr14 -> Cu5ZrCu51Zr14: Zr 0.215; Cu5Zr: Zr 0.167; Liquid: Zr 0.107model[4] (ed.) 1998Table I, p. 210, row 2
report
1287.5Liq + β -> C15bL: Zr 0.107; C15b: Zr 0.167model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 10
report
1287L + Cu51Zr14 -> Cu5ZrCu51Zr14: Cu 0.784615, Zr 0.215385; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Glimois 1985 doi		Table 5, p. 4, row 14
report
1287Liquid + Cu51Zr14 = Cu9Zr2Cu51Zr14: Zr 0.215385; Cu9Zr2: Zr 0.181818experimental[5] Gierlotka 2011
cites Glimois 1985 doi		Table 3, p. 5, row 10
report
1287peritectic: Liquid + Cu51Zr14 <-> Cu5ZrCu51Zr14: Cu 0.784615, Zr 0.215385; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Glimois 1985 doi		Table 5, p. 9, row 35
report
1287peritectic: L + Cu51Zr14 -> Cu9Zr2Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu9Zr2: Cu 0.818182, Zr 0.181818experimental[3] Wang 2006
cites Glimois 1985 doi		Table 1, p. 4, row 14
report
1287L + Cu51Zr14 <=> Cu5ZrCu51Zr14: Zr 0.2154; Cu5Zr: Zr 0.1667experimental[2] Turchanin 2008
cites ref. 22		Table 2, p. 5, row 12
report
1286Liq + β -> C15bL: Zr 0.098; C15b: Zr 0.167model[6] Zhou 2010Table 7, p. 9, row 9
report
1286eutectic: Liq -> C11b + bccC11b: Zr 0.666667experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 26
report
1285congruent melting: Liquid <-> CuZr2L: Zr 0.6667; CuZr2: Cu 0.333333, Zr 0.666667experimental[1] Liu 2017
cites Braga 1998		Table 5, p. 9, row 19
report
1285peritectic: L + Cu51Zr14 -> Cu9Zr2L: Zr 0.11; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu9Zr2: Cu 0.818182, Zr 0.181818model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 4, row 18
report
1285Liquid + Cu51Zr14 = Cu9Zr2Liquid: Zr 0.11; Cu51Zr14: Zr 0.215385; Cu9Zr2: Zr 0.181818model[5] Gierlotka 2011
cites Zaitsev 2003 doi		Table 3, p. 5, row 13
report
1285Liq + β -> C15bL: Zr 0.11; C15b: Zr 0.182model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 11
report
1285Liquid + Cu51Zr14 = Cu8Zr3Cu51Zr14: Zr 0.215385; Cu8Zr3: Zr 0.272727model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 23
report
1285peritectic: L + Cu51Zr14 -> Cu9Zr2L: Zr 0.115; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu9Zr2: Cu 0.818182, Zr 0.181818model[3] Wang 2006
cites Arias 1990 doi		Table 1, p. 4, row 16
report
1285congruent melting: L <=> CuZr2L: Zr 0.6667; CuZr2: Zr 0.6667experimental[2] Turchanin 2008
cites ref. 25		Table 2, p. 7, row 6
report
1285L + Cu51Zr14 -> Cu5ZrL: Zr 0.115; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu5Zr: Cu 0.833333, Zr 0.166667model[7] Zeng 1994
cites Arias 1990 doi		Table 5, p. 4, row 15
report
1284eutectic: L -> CuZr2-h + (βZr)L: Zr 0.685; CuZr2-h: Zr 0.666667model[3] Wang 2006Table 1, p. 5, row 37
report
1284peritectic: Liquid + Cu51Zr14 <-> Cu5ZrL: Zr 0.108; Cu51Zr14: Zr 0.215; Cu5Zr: Zr 0.167model[1] Liu 2017Table 5, p. 9, row 38
report
1284Liquid = CuZr2+BCC A2Liquid: Zr 0.685; CuZr2: Zr 0.666667model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 32
report
1284eutectic: Liq -> C11b + bccL: Zr 0.685; C11b: Zr 0.666667model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 24
report
1283peritectic: L + Cu51Zr14 -> Cu9Zr2L: Zr 0.107; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu9Zr2: Cu 0.818182, Zr 0.181818experimental[3] Wang 2006
cites Kuznetsov 1978		Table 1, p. 4, row 13
report
1283peritectic: Liquid + Cu51Zr14 <-> Cu5ZrL: Zr 0.107; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Pogodin 1940		Table 5, p. 9, row 33
report
1283peritectic: L + Cu51Zr14 -> Cu8Zr3L: Zr 0.326; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 4, row 25
report
1283Liquid + Cu51Zr14 = Cu9Zr2Liquid: Zr 0.107; Cu51Zr14: Zr 0.215385; Cu9Zr2: Zr 0.181818experimental[5] Gierlotka 2011
cites Pogodin 1940		Table 3, p. 5, row 9
report
1283Liq + β -> C15bC15b: Zr 0.166667experimental[6] Zhou 2010
cites Kuznetsov 1978		Table 7, p. 9, row 14
report
1283Liquid + Cu51Zr14 = Cu8Zr3Liquid: Zr 0.326; Cu51Zr14: Zr 0.215385; Cu8Zr3: Zr 0.272727model[5] Gierlotka 2011
cites Zaitsev 2003 doi		Table 3, p. 5, row 21
report
1283L + Cu51Zr14 -> Cu5ZrL: Zr 0.107; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Kuznetsov 1978		Table 5, p. 4, row 13
report
1283peritectic: Liquid + Cu51Zr14 <-> Cu5ZrL: Zr 0.105; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Kuznetsov 1978		Table 5, p. 9, row 34
report
1283Liq + β -> δL: Zr 0.326; δ: Zr 0.272727model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 58
report
1283eutectic: Liq -> fcc + C15bL: Zr 0.065; C15b: Zr 0.166667experimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 34
report
1283L + Cu51Zr14 <=> Cu5ZrL: Zr 0.105; Cu51Zr14: Zr 0.2222; Cu5Zr: Zr 0.1818experimental[2] Turchanin 2008
cites ref. 20		Table 2, p. 5, row 11
report
1282congruent melting: L <=> CuZr2L: Zr 0.6667; CuZr2: Zr 0.6667model[2] Turchanin 2008Table 2, p. 7, row 8
report
1281Liquid = CuZr2+BCC A2Liquid: Zr 0.697; CuZr2: Zr 0.666667model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 33
report
1280L + Cu51Zr14 <=> Cu5ZrL: Zr 0.103; Cu51Zr14: Zr 0.2154; Cu5Zr: Zr 0.1667model[2] Turchanin 2008Table 2, p. 5, row 15
report
1279congruent melting: L <=> CuZr2L: Zr 0.6667; CuZr2: Zr 0.6667experimental[2] Turchanin 2008
cites ref. 27		Table 2, p. 7, row 7
report
1279congruent melting: Liquid <-> CuZr2L: Zr 0.6667; CuZr2: Cu 0.333333, Zr 0.666667experimental[1] Liu 2017
cites Yamaguchi 2008 doi		Table 5, p. 9, row 20
report
1277peritectic: Liquid + Cu51Zr14 <-> Cu5ZrCu51Zr14: Cu 0.784615, Zr 0.215385; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Yamaguchi 2008 doi		Table 5, p. 9, row 37
report
1277L + Cu51Zr14 <=> Cu5ZrCu51Zr14: Zr 0.2154; Cu5Zr: Zr 0.1818experimental[2] Turchanin 2008
cites ref. 27		Table 2, p. 5, row 14
report
1276eutectic: L -> (Cu) + Cu9Zr2L: Zr 0.0773; Cu9Zr2: Cu 0.818182, Zr 0.181818model[3] Wang 2006Table 1, p. 4, row 6
report
1276Liquid = CuZr2+BCC A2Liquid: Zr 0.692; CuZr2: Zr 0.666667model[5] Gierlotka 2011Table 3, p. 5, row 29
report
1276eutectic: Liq -> fcc + C15bL: Zr 0.077; C15b: Zr 0.166667model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 33
report
1276Liquid = FCC_A1+Cu9Zr2Liquid: Zr 0.073; Cu9Zr2: Zr 0.181818model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 6
report
1275congruent melting: CuZr2 -> LiquidCuZr2: Zr 0.666; Liquid: Zr 0.666model[4] (ed.) 1998Table I, p. 210, row 12
report
1273Liq + β -> δL: Zr 0.353; δ: Zr 0.272727model[6] Zhou 2010Table 7, p. 9, row 56
report
1273congruent melting: L <=> CuZr2L: Zr 0.67; CuZr2: Zr 0.67experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 7, row 5
report
1273congruent melting: Liquid <-> CuZr2L: Zr 0.67; CuZr2: Cu 0.333333, Zr 0.666667experimental[1] Liu 2017
cites Lundin 1953		Table 5, p. 9, row 18
report
1271.4congruent melting: Liquid <-> CuZr2L: Zr 0.667; CuZr2: Cu 0.333333, Zr 0.666667model[1] Liu 2017Table 5, p. 9, row 21
report
1271L <=> CuZr2 + (βZr)L: Zr 0.74; CuZr2: Zr 0.67experimental[2] Turchanin 2008
cites ref. 5		Table 2, p. 7, row 9
report
1271eutectic: L -> (Cu) + Cu9Zr2L: Zr 0.106; Cu9Zr2: Cu 0.818182, Zr 0.181818experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 4, row 2
report
1271L <=> (Cu) + Cu5ZrL: Zr 0.106; Cu5Zr: Zr 0.1667experimental[2] Turchanin 2008
cites ref. 25		Table 2, p. 5, row 8
report
1271eutectic: L -> CuZr2 + (βZr)L: Zr 0.7395; CuZr2: Cu 0.333333, Zr 0.666667experimental[7] Zeng 1994
cites Auguston 1950		Table 5, p. 4, row 30
report
1271L <=> CuZr2 + (βZr)L: Zr 0.709; CuZr2: Zr 0.6667; (βZr): Zr 0.95model[2] Turchanin 2008Table 2, p. 7, row 11
report
1271Liquid = FCC_A1+Cu9Zr2Liquid: Zr 0.106; Cu9Zr2: Zr 0.181818experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 3
report
1270eutectic: Liq -> fcc + C15bC15b: Zr 0.166667experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 35
report
1270eutectic: L -> CuZr2 + (βZr)L: Zr 0.7; CuZr2: Cu 0.333333, Zr 0.666667model[7] Zeng 1994Table 5, p. 4, row 33
report
1270Liq + β -> δδ: Zr 0.272727experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 61
report
1269.5eutectic: Liq -> C11b + bccL: Zr 0.7; C11b: Zr 0.666667; bcc: Zr 0.947model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 23
report
1269.5eutectic: Liquid -> CuZr2 + bcc-A2CuZr2: Zr 0.666; bcc-A2: Zr 0.947; Liquid: Zr 0.7model[4] (ed.) 1998Table I, p. 210, row 11
report
1269eutectic: L -> Cu8Zr3 + Cu24Zr13L: Zr 0.347; Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu24Zr13: Cu 0.65, Zr 0.35model[3] Wang 2006Table 1, p. 4, row 28
report
1269Liq + δ -> μL: Zr 0.347; δ: Zr 0.272727; μ: Zr 0.411765model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 28
report
1269eutectic: L -> Cu8Zr3 + Cu24Zr13Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu24Zr13: Cu 0.65, Zr 0.35experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 4, row 27
report
1269Liquid + Cu8Zr3 = Cu2ZrCu8Zr3: Zr 0.272727; Cu2Zr: Zr 0.333333experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 35
report
1269Liquid + Cu8Zr3 = Cu2ZrLiquid: Zr 0.347; Cu8Zr3: Zr 0.272727; Cu2Zr: Zr 0.333333model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 36
report
1268Liquid = CuZr2+BCC A2Liquid: Zr 0.724; CuZr2: Zr 0.666667experimental[5] Gierlotka 2011
cites Lundin 1953		Table 3, p. 5, row 30
report
1268eutectic: L -> CuZr2 + (βZr)L: Zr 0.724; CuZr2: Cu 0.333333, Zr 0.666667model[7] Zeng 1994
cites Arias 1990 doi		Table 5, p. 4, row 32
report
1268eutectic: Liq -> C11b + bccL: Zr 0.702; C11b: Zr 0.666667; bcc: Zr 0.946model[6] Zhou 2010Table 7, p. 9, row 22
report
1268eutectic: L -> CuZr2 + (βZr)L: Zr 0.724; CuZr2: Cu 0.333333, Zr 0.666667experimental[7] Zeng 1994
cites Lundin 1953		Table 5, p. 4, row 31
report
1268eutectic: L -> CuZr2-h + (βZr)L: Zr 0.724; CuZr2-h: Zr 0.666667experimental[3] Wang 2006
cites Lundin 1953		Table 1, p. 5, row 34
report
1268L <=> CuZr2 + (βZr)L: Zr 0.72; CuZr2: Zr 0.67; (βZr): Zr 0.94experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 7, row 10
report
1268eutectic: L -> CuZr2-h + (βZr)L: Zr 0.724; CuZr2-h: Zr 0.666667model[3] Wang 2006
cites Arias 1990 doi		Table 1, p. 5, row 36
report
1268eutectic: Liq -> C11b + bccL: Zr 0.724; C11b: Zr 0.666667experimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 25
report
1258Liquid + Cu51Zr14 = Cu8Zr3Liquid: Zr 0.328; Cu51Zr14: Zr 0.215385; Cu8Zr3: Zr 0.272727model[5] Gierlotka 2011Table 3, p. 5, row 16
report
1256Liquid + Cu8Zr3 = Cu2ZrCu8Zr3: Zr 0.272727; Cu2Zr: Zr 0.333333model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 37
report
1253eutectic: Liquid <-> (Cu) + Cu5ZrL: Zr 0.09; (Cu): Zr 0.007; Cu5Zr: Zr 0.25experimental[1] Liu 2017
cites Pogodin 1940		Table 5, p. 9, row 22
report
1253Liquid = FCC_A1+Cu9Zr2Liquid: Zr 0.081; Cu9Zr2: Zr 0.181818model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 7
report
1253L <=> (Cu) + Cu5ZrL: Zr 0.09; (Cu): Zr 0.007; Cu5Zr: Zr 0.25experimental[2] Turchanin 2008
cites ref. 3		Table 2, p. 5, row 1
report
1253Liquid + Cu8Zr3 = Cu2ZrLiquid: Zr 0.354; Cu8Zr3: Zr 0.272727; Cu2Zr: Zr 0.333333model[5] Gierlotka 2011Table 3, p. 5, row 34
report
1253eutectic: Liquid <-> (Cu) + Cu5ZrL: Zr 0.094; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Braga 1998		Table 5, p. 9, row 30
report
1253eutectic: L -> (Cu) + Cu5ZrL: Zr 0.0935; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Pogodin 1940		Table 5, p. 4, row 1
report
1253eutectic: L -> (Cu) + Cu5ZrCu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Saarivirta 1960		Table 5, p. 4, row 5
report
1253eutectic: Liquid <-> (Cu) + Cu5ZrCu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Showak 1962		Table 5, p. 9, row 25
report
1253eutectic: L -> (Cu) + Cu5ZrCu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Showak 1962		Table 5, p. 4, row 6
report
1253L <=> (Cu) + Cu5ZrL: Zr 0.082; (Cu): Zr 0.0013; Cu5Zr: Zr 0.1667model[2] Turchanin 2008Table 2, p. 5, row 10
report
1252eutectic: Liq -> fcc + C15bL: Zr 0.072; fcc: Zr 0.001; C15b: Zr 0.166667model[6] Zhou 2010Table 7, p. 9, row 30
report
1251Liquid = FCC_A1+Cu9Zr2Liquid: Zr 0.081; Cu9Zr2: Zr 0.181818model[5] Gierlotka 2011Table 3, p. 5, row 1
report
1250eutectic: L -> (Cu) + Cu5ZrL: Zr 0.0995; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Raub 1948		Table 5, p. 4, row 2
report
1250eutectic: Liquid <-> (Cu) + Cu5ZrL: Zr 0.088; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Glimois 1985 doi		Table 5, p. 9, row 29
report
1250eutectic: Liq -> fcc + C15bC15b: Zr 0.166667experimental[6] Zhou 2010
cites Glimois 1985 doi		Table 7, p. 9, row 36
report
1250L <=> (Cu) + Cu5ZrL: Zr 0.088; Cu5Zr: Zr 0.1818experimental[2] Turchanin 2008
cites ref. 22		Table 2, p. 5, row 7
report
1250L <=> (Cu) + Cu5ZrL: Zr 0.1; Cu5Zr: Zr 0.25experimental[2] Turchanin 2008
cites ref. 4		Table 2, p. 5, row 2
report
1250eutectic: Liquid <-> (Cu) + Cu5ZrL: Zr 0.1; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Raub 1948		Table 5, p. 9, row 23
report
1250eutectic: L -> (Cu) + Cu5ZrL: Zr 0.088; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Glimois 1985 doi		Table 5, p. 4, row 10
report
1248peritectic: L + Cu51Zr14 -> Cu8Zr3Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727experimental[3] Wang 2006
cites Kuznetsov 1978		Table 1, p. 4, row 20
report
1248L + Cu51Zr14 -> Cu8Zr3Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727experimental[7] Zeng 1994
cites Kuznetsov 1978		Table 5, p. 4, row 18
report
1248peritectic: Liquid + Cu51Zr14 <-> Cu8Zr3Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727experimental[1] Liu 2017
cites Kuznetsov 1978		Table 5, p. 9, row 41
report
1248peritectic: Liquid + Cu51Zr14 <-> Cu8Zr3Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727experimental[1] Liu 2017
cites Pogodin 1940		Table 5, p. 9, row 39
report
1248L + Cu51Zr14 -> Cu8Zr3L: Zr 0.36; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727model[7] Zeng 1994
cites Arias 1990 doi		Table 5, p. 4, row 19
report
1248Liq + β -> δδ: Zr 0.272727experimental[6] Zhou 2010
cites Kuznetsov 1978		Table 7, p. 9, row 62
report
1248peritectic: L + Cu51Zr14 -> Cu8Zr3L: Zr 0.36; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727model[3] Wang 2006
cites Arias 1990 doi		Table 1, p. 4, row 23
report
1248Liquid + Cu51Zr14 = Cu8Zr3Cu51Zr14: Zr 0.215385; Cu8Zr3: Zr 0.272727experimental[5] Gierlotka 2011
cites Pogodin 1940		Table 3, p. 5, row 17
report
1248L + Cu51Zr14 <=> Cu8Zr3Cu51Zr14: Zr 0.2222; Cu8Zr3: Zr 0.2857experimental[2] Turchanin 2008
cites ref. 20		Table 2, p. 5, row 26
report
1245eutectic: L -> (Cu) + Cu9Zr2L: Zr 0.086; Cu9Zr2: Cu 0.818182, Zr 0.181818model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 4, row 5
report
1245eutectic: Liq -> fcc + C15bL: Zr 0.086; C15b: Zr 0.166667model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 32
report
1245eutectic: L -> (Cu) + Cu9Zr2L: Zr 0.086; Cu9Zr2: Cu 0.818182, Zr 0.181818model[3] Wang 2006
cites Arias 1990 doi		Table 1, p. 4, row 3
report
1245Liquid = FCC_A1+Cu9Zr2Liquid: Zr 0.086; Cu9Zr2: Zr 0.181818model[5] Gierlotka 2011
cites Zaitsev 2003 doi		Table 3, p. 5, row 5
report
1245eutectic: L -> (Cu) + Cu5ZrL: Zr 0.086; Cu5Zr: Cu 0.833333, Zr 0.166667model[7] Zeng 1994
cites Arias 1990 doi		Table 5, p. 4, row 11
report
1244L + Cu51Zr14 <=> Cu8Zr3L: Zr 0.343; Cu51Zr14: Zr 0.2154; Cu8Zr3: Zr 0.2727model[2] Turchanin 2008Table 2, p. 5, row 29
report
1244L <=> (Cu) + Cu5ZrCu5Zr: Zr 0.1818experimental[2] Turchanin 2008
cites ref. 27		Table 2, p. 5, row 9
report
1244L <=> (Cu) + Cu5ZrL: Zr 0.089; Cu5Zr: Zr 0.1667experimental[2] Turchanin 2008
cites ref. 15		Table 2, p. 5, row 5
report
1244eutectic: Liquid <-> (Cu) + Cu5ZrCu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Yamaguchi 2008 doi		Table 5, p. 9, row 31
report
1244eutectic: L -> (Cu) + Cu5ZrL: Zr 0.089; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Perry 1972		Table 5, p. 4, row 8
report
1244eutectic: Liquid <-> (Cu) + Cu5ZrL: Zr 0.089; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Perry 1972		Table 5, p. 9, row 27
report
1243eutectic: L -> (Cu) + Cu5ZrL: Zr 0.098; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Donachie 1964		Table 5, p. 4, row 7
report
1243L <=> (Cu) + Cu5ZrL: Zr 0.098; Cu5Zr: Zr 0.2experimental[2] Turchanin 2008
cites ref. 11		Table 2, p. 5, row 4
report
1243eutectic: Liquid <-> (Cu) + Cu5ZrL: Zr 0.079; (Cu): Zr 0.00122; Cu5Zr: Zr 0.167model[1] Liu 2017Table 5, p. 9, row 32
report
1243eutectic: Liquid <-> (Cu) + Cu5ZrL: Zr 0.098; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Donachie 1964		Table 5, p. 9, row 26
report
1243L + Cu51Zr14 <=> Cu8Zr3Cu51Zr14: Zr 0.2154; Cu8Zr3: Zr 0.2727experimental[2] Turchanin 2008
cites ref. 27		Table 2, p. 5, row 28
report
1242Liquid + CuZr2 = Cu5Zr7Liquid: Zr 0.574; CuZr2: Zr 0.666667; Cu5Zr7: Zr 0.583333model[5] Gierlotka 2011Table 3, p. 5, row 38
report
1241eutectic: L -> (Cu) + Cu9Zr2L: Zr 0.0769; Cu9Zr2: Cu 0.818182, Zr 0.181818model[3] Wang 2006
cites Zeng 1994 doi		Table 1, p. 4, row 4
report
1241eutectic: L -> (Cu) + Cu5ZrL: Zr 0.0769; Cu5Zr: Cu 0.833333, Zr 0.166667model[7] Zeng 1994Table 5, p. 4, row 12
report
1241Liquid = FCC_A1+Cu9Zr2Liquid: Zr 0.0769; Cu9Zr2: Zr 0.181818model[5] Gierlotka 2011
cites Zeng 1994 doi		Table 3, p. 5, row 4
report
1240.8eutectic: Liquid -> fcc-A1 + Cu5Zrfcc-A1: Zr 0.001; Cu5Zr: Zr 0.167; Liquid: Zr 0.078model[4] (ed.) 1998Table I, p. 210, row 1
report
1240.8eutectic: Liq -> fcc + C15bL: Zr 0.077; fcc: Zr 0.001; C15b: Zr 0.166667model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 31
report
1240L <=> (Cu) + Cu5ZrL: Zr 0.082; Cu5Zr: Zr 0.1818experimental[2] Turchanin 2008
cites ref. 20		Table 2, p. 5, row 6
report
1240eutectic: Liquid <-> (Cu) + Cu5ZrL: Zr 0.082; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Kuznetsov 1978		Table 5, p. 9, row 28
report
1240eutectic: Liq -> fcc + C15bC15b: Zr 0.166667experimental[6] Zhou 2010
cites Kuznetsov 1978		Table 7, p. 9, row 37
report
1240eutectic: L -> (Cu) + Cu5ZrL: Zr 0.082; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Kuznetsov 1978		Table 5, p. 4, row 9
report
1240peritectic: Liquid + Cu51Zr14 <-> Cu8Zr3Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727experimental[1] Liu 2017
cites Yamaguchi 2008 doi		Table 5, p. 9, row 43
report
1239.8peritectic: Liquid + Cu51Zr14 <-> Cu8Zr3L: Zr 0.367; Cu51Zr14: Zr 0.215; Cu8Zr3: Zr 0.273model[1] Liu 2017Table 5, p. 9, row 44
report
1238L <=> (Cu) + Cu5ZrL: Zr 0.07; Cu5Zr: Zr 0.25experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 5, row 3
report
1238Liquid = FCC_A1+Cu9Zr2Liquid: Zr 0.065; Cu9Zr2: Zr 0.181818experimental[5] Gierlotka 2011
cites Lundin 1953		Table 3, p. 5, row 2
report
1238eutectic: L -> (Cu) + Cu5ZrL: Zr 0.065; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Lundin 1953		Table 5, p. 4, row 4
report
1238peritectic: L + CuZr2-h -> Cu5Zr8CuZr2-h: Zr 0.666667; Cu5Zr8: Zr 0.615385experimental[3] Wang 2006
cites Kneller 1986 doi		Table 1, p. 5, row 23
report
1238eutectic: Liquid <-> (Cu) + Cu5ZrL: Zr 0.065; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[1] Liu 2017
cites Lundin 1953		Table 5, p. 9, row 24
report
1238eutectic: L -> (Cu) + Cu9Zr2L: Zr 0.065; Cu9Zr2: Cu 0.818182, Zr 0.181818experimental[3] Wang 2006
cites Lundin 1953		Table 1, p. 4, row 1
report
1238Liquid + CuZr2 = Cu5Zr7CuZr2: Zr 0.666667; Cu5Zr7: Zr 0.583333experimental[5] Gierlotka 2011
cites Kneller 1986 doi		Table 3, p. 5, row 39
report
1237eutectic: L -> (Cu) + Cu5ZrL: Zr 0.091; Cu5Zr: Cu 0.833333, Zr 0.166667experimental[7] Zeng 1994
cites Allibone 1928		Table 5, p. 4, row 3
report
1237peritectic: L + CuZr2-h -> Cu5Zr8L: Zr 0.576; CuZr2-h: Zr 0.666667; Cu5Zr8: Zr 0.615385model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 5, row 25
report
1237Liquid + CuZr2 = Cu5Zr7Liquid: Zr 0.576; CuZr2: Zr 0.666667; Cu5Zr7: Zr 0.583333model[5] Gierlotka 2011
cites Zaitsev 2003 doi		Table 3, p. 5, row 41
report
1237Liq + C11b -> Cu5Zr8L: Zr 0.576; C11b: Zr 0.666667model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 38
report
1234Liquid + Cu2Zr = Cu10Zr7Cu2Zr: Zr 0.333333; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 53
report
1233congruent melting: L <=> CuZrL: Zr 0.5; CuZr: Zr 0.5experimental[2] Turchanin 2008
cites ref. 25		Table 2, p. 6, row 16
report
1233congruent melting: Liquid <-> CuZrL: Zr 0.5; CuZr: Cu 0.5, Zr 0.5experimental[1] Liu 2017
cites Braga 1998		Table 5, p. 9, row 15
report
1227.1congruent melting: Liquid <-> CuZrL: Zr 0.5; CuZr: Cu 0.5, Zr 0.5model[1] Liu 2017Table 5, p. 9, row 17
report
1223Liq + β -> C15bC15b: Zr 0.166667experimental[6] Zhou 2010
cites Forey 1980		Table 7, p. 9, row 15
report
1223Liq + β -> C15bC15b: Zr 0.166667experimental[6] Zhou 2010
cites Glimois 1985 doi		Table 7, p. 9, row 13
report
1221Liquid = Cu5Zr7 + CuZrLiquid: Zr 0.528; Cu5Zr7: Zr 0.583333; CuZr: Zr 0.5model[5] Gierlotka 2011Table 3, p. 5, row 44
report
1220peritectic: L + CuZr2-h -> Cu5Zr8L: Zr 0.57; CuZr2-h: Zr 0.666667; Cu5Zr8: Zr 0.615385experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 5, row 24
report
1220Liquid + CuZr2 = Cu5Zr7Liquid: Zr 0.57; CuZr2: Zr 0.666667; Cu5Zr7: Zr 0.583333experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 40
report
1219eutectoid: Cu8Zr3 + Cu24Zr13 -> Cu2ZrCu8Zr3: Zr 0.27; Cu24Zr13: Cu 0.65, Zr 0.35; Cu2Zr: Cu 0.666667, Zr 0.333333model[3] Wang 2006Table 1, p. 4, row 31
report
1219δ + μ -> σδ: Zr 0.272727; σ: Zr 0.333333model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 41
report
1219eutectoid: Cu8Zr3 + Cu24Zr13 -> Cu2ZrCu8Zr3: Cu 0.727273, Zr 0.272727; Cu24Zr13: Cu 0.65, Zr 0.35; Cu2Zr: Cu 0.666667, Zr 0.333333experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 4, row 30
report
1218peritectic: L + CuZr2-h -> Cu5Zr8L: Zr 0.565; CuZr2-h: Zr 0.666667; Cu5Zr8: Zr 0.615385model[3] Wang 2006Table 1, p. 5, row 26
report
1218Liquid + CuZr2 = Cu5Zr7Liquid: Zr 0.565; CuZr2: Zr 0.666667; Cu5Zr7: Zr 0.583333model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 42
report
1218Liq + C11b -> Cu5Zr8L: Zr 0.565; C11b: Zr 0.666667model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 39
report
1213δ + μ -> σδ: Zr 0.272727; σ: Zr 0.333333experimental[6] Zhou 2010
cites Kneller 1986 doi		Table 7, p. 9, row 42
report
1213eutectoid: Cu8Zr3 + Cu24Zr13 -> Cu2ZrCu8Zr3: Zr 0.273; Cu24Zr13: Cu 0.65, Zr 0.35; Cu2Zr: Cu 0.666667, Zr 0.333333experimental[3] Wang 2006
cites Kneller 1986		Table 1, p. 4, row 29
report
1211congruent melting: L <=> CuZrL: Zr 0.5; CuZr: Zr 0.5model[2] Turchanin 2008Table 2, p. 6, row 18
report
1208.5congruent melting: CuZr -> LiquidCuZr: Zr 0.5; Liquid: Zr 0.5model[4] (ed.) 1998Table I, p. 210, row 10
report
1208congruent melting: Liquid <-> CuZrL: Zr 0.5; CuZr: Cu 0.5, Zr 0.5experimental[1] Liu 2017
cites Lundin 1953		Table 5, p. 9, row 14
report
1208congruent melting: L <=> CuZrL: Zr 0.5; CuZr: Zr 0.5experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 6, row 15
report
1207Liquid = Cu5Zr7 + CuZrCu5Zr7: Zr 0.583333; CuZr: Zr 0.5model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 48
report
1207Liquid = Cu10Zr7 + CuZrCu10Zr7: Zr 0.411765; CuZr: Zr 0.5model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 60
report
1206congruent melting: L <=> CuZrL: Zr 0.5; CuZr: Zr 0.5experimental[2] Turchanin 2008
cites ref. 27		Table 2, p. 6, row 17
report
1206congruent melting: Liquid <-> CuZrL: Zr 0.5; CuZr: Cu 0.5, Zr 0.5experimental[1] Liu 2017
cites Yamaguchi 2008 doi		Table 5, p. 9, row 16
report
1206Liq + δ -> μL: Zr 0.407; δ: Zr 0.272727; μ: Zr 0.411765model[6] Zhou 2010Table 7, p. 9, row 27
report
1204congruent melting: Liquid <-> Cu10Zr7L: Zr 0.4118; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[1] Liu 2017
cites Braga 1998		Table 5, p. 9, row 11
report
1203eutectic: Liq -> μ + φL: Zr 0.412; μ: Zr 0.351351; φ: Zr 0.411765model[6] Zhou 2010Table 7, p. 9, row 70
report
1202eutectic: Liq -> B2 + C11bB2: Zr 0.5; C11b: Zr 0.666667experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 55
report
1201eutectic: Liq -> δ + φδ: Zr 0.272727; φ: Zr 0.411765experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 78
report
1201eutectic: L -> CuZr + CuZr2L: Zr 0.543; CuZr: Cu 0.5, Zr 0.5; CuZr2: Cu 0.333333, Zr 0.666667experimental[7] Zeng 1994
cites Lundin 1953		Table 5, p. 4, row 27
report
1201L <=> CuZr + CuZr2L: Zr 0.54; CuZr: Zr 0.5; CuZr2: Zr 0.67experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 7, row 1
report
1201eutectic: L -> CuZr + CuZr2L: Zr 0.543; CuZr: Cu 0.5, Zr 0.5; CuZr2: Cu 0.333333, Zr 0.666667model[7] Zeng 1994
cites Arias 1990 doi		Table 5, p. 4, row 28
report
1201eutectic: Liquid <-> Cu8Zr3 + Cu10Zr7Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[1] Liu 2017
cites Braga 1998		Table 5, p. 9, row 48
report
1200eutectic: Liq -> B2 + Cu5Zr8L: Zr 0.545; B2: Zr 0.5; Cu5Zr8: Zr 0.615385model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 51
report
1200eutectic: Liq -> B2 + C11bL: Zr 0.54; B2: Zr 0.5; C11b: Zr 0.666667experimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 54
report
1200Liquid + Cu2Zr = Cu10Zr7Cu2Zr: Zr 0.333333; Cu10Zr7: Zr 0.411765experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 51
report
1200eutectic: Liq -> B2 + Cu5Zr8L: Zr 0.526; B2: Zr 0.5; Cu5Zr8: Zr 0.615385model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 50
report
1200congruent melting: L -> Cu10Zr7L: Zr 0.41; Cu10Zr7: Cu 0.588235, Zr 0.411765model[3] Wang 2006Table 1, p. 4, row 37
report
1200eutectic: L -> CuZr + Cu5Zr8L: Zr 0.526; CuZr: Zr 0.5; Cu5Zr8: Zr 0.615385model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 5, row 13
report
1200eutectic: L -> Cu10Zr7 + Cu24Zr13Cu10Zr7: Cu 0.588235, Zr 0.411765; Cu24Zr13: Cu 0.65, Zr 0.35experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 4, row 39
report
1200congruent melting: L -> Cu10Zr7L: Zr 0.412; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 4, row 33
report
1200Liquid = Cu5Zr7 + CuZrLiquid: Zr 0.545; Cu5Zr7: Zr 0.583333; CuZr: Zr 0.5model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 47
report
1200congruent melting: L <=> Cu10Zr7L: Zr 0.4118; Cu10Zr7: Zr 0.4118experimental[2] Turchanin 2008
cites ref. 25		Table 2, p. 6, row 7
report
1200eutectic: L -> CuZr + Cu5Zr8L: Zr 0.545; CuZr: Zr 0.5; Cu5Zr8: Zr 0.615385model[3] Wang 2006Table 1, p. 5, row 14
report
1200Liquid = Cu5Zr7 + CuZrLiquid: Zr 0.526; Cu5Zr7: Zr 0.583333; CuZr: Zr 0.5model[5] Gierlotka 2011
cites Zaitsev 2003 doi		Table 3, p. 5, row 46
report
1199eutectic: Liq -> μ + φL: Zr 0.399; μ: Zr 0.351351; φ: Zr 0.411765model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 71
report
1199eutectic: L -> Cu10Zr7 + Cu24Zr13L: Zr 0.399; Cu10Zr7: Cu 0.588235, Zr 0.411765; Cu24Zr13: Cu 0.65, Zr 0.35model[3] Wang 2006Table 1, p. 4, row 40
report
1199Liquid + Cu2Zr = Cu10Zr7Liquid: Zr 0.399; Cu2Zr: Zr 0.333333; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 52
report
1197eutectic: L -> CuZr + CuZr2L: Zr 0.538; CuZr: Cu 0.5, Zr 0.5; CuZr2: Cu 0.333333, Zr 0.666667model[7] Zeng 1994Table 5, p. 4, row 29
report
1196.7eutectic: Liquid -> CuZr + CuZr2CuZr: Zr 0.5; CuZr2: Zr 0.667; Liquid: Zr 0.538model[4] (ed.) 1998Table I, p. 210, row 9
report
1196eutectoid: Cu24Zr13 -> Cu2Zr + Cu10Zr7Cu24Zr13: Cu 0.65, Zr 0.35; Cu2Zr: Cu 0.666667, Zr 0.333333; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 4, row 42
report
1196Liq + δ -> μδ: Zr 0.272727; μ: Zr 0.411765experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 29
report
1196eutectic: Liq -> B2 + C11bL: Zr 0.538; B2: Zr 0.5; C11b: Zr 0.666667model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 53
report
1195.3Liq + β -> δL: Zr 0.388; δ: Zr 0.272727model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 57
report
1195.3peritectic: Liquid + Cu51Zr14 -> Cu8Zr3Cu51Zr14: Zr 0.273; Cu8Zr3: Zr 0.215; Liquid: Zr 0.388model[4] (ed.) 1998Table I, p. 210, row 4
report
1195Liquid + Cu51Zr14 = Cu8Zr3Liquid: Zr 0.388; Cu51Zr14: Zr 0.215385; Cu8Zr3: Zr 0.272727model[5] Gierlotka 2011
cites Kneller 1986 doi		Table 3, p. 5, row 20
report
1195peritecticmodel[7] Zeng 1994p. 8
report		The calculated peritectic temperature of equilibrium L + Cu 5iZrl4 +--)CuaZr 3, 1195 K, is much lower than the measured data.
1195peritectic: L + Cu51Zr14 -> Cu8Zr3L: Zr 0.388; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727model[3] Wang 2006
cites Zeng 1994 doi		Table 1, p. 4, row 24
report
1195L + Cu51Zr14 -> Cu8Zr3L: Zr 0.388; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu8Zr3: Cu 0.727273, Zr 0.272727model[7] Zeng 1994Table 5, p. 4, row 20
report
1195eutectic: Liq -> B2 + C11bL: Zr 0.543; B2: Zr 0.5; C11b: Zr 0.666667model[6] Zhou 2010Table 7, p. 9, row 52
report
1194L <=> CuZr + CuZr2L: Zr 0.541; CuZr: Zr 0.5; CuZr2: Zr 0.6667model[2] Turchanin 2008Table 2, p. 7, row 3
report
1194eutectoid: Cu24Zr13 -> Cu2Zr + Cu10Zr7Cu24Zr13: Zr 0.35; Cu2Zr: Cu 0.666667, Zr 0.333333; Cu10Zr7: Cu 0.588235, Zr 0.411765model[3] Wang 2006Table 1, p. 4, row 43
report
1194μ -> φ + σφ: Zr 0.411765; σ: Zr 0.333333model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 74
report
1193eutectic: Liq -> φ + B2L: Zr 0.456; φ: Zr 0.411765; B2: Zr 0.5model[6] Zhou 2010Table 7, p. 9, row 79
report
1189(βZr) -> CuZr2 + (αZr)(βZr): Zr 0.93; CuZr2: Cu 0.333333, Zr 0.666667experimental[7] Zeng 1994
cites Auguston 1950		Table 5, p. 4, row 34
report
1189Liquid = Cu10Zr7 + CuZrLiquid: Zr 0.447; Cu10Zr7: Zr 0.411765; CuZr: Zr 0.5model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 59
report
1189eutectic: L -> Cu10Zr7 + CuZrL: Zr 0.447; Cu10Zr7: Zr 0.411765; CuZr: Zr 0.5model[3] Wang 2006Table 1, p. 5, row 6
report
1189BCC_A2 = CuZr2 + HCP_A3CuZr2: Zr 0.666667experimental[5] Gierlotka 2011
cites Sommer 1989 doi		Table 3, p. 5, row 68
report
1189eutectoidexperimental[7] Zeng 1994
cites Auguston 1950		p. 4
report		The experimental w o r k o f A u g u s t o n 44 probably had a serious o x y g e n c o n t a m i n a t i o n p r o b l e m because his reported eutectoid temperature (1189 K) o f (~Zr) ~ C u Z r 2 + (c~Zr) is e v e n m u c h higher than the transformation temperature of (ccZr) ~ (~Zr).
1189eutectic: Liq -> φ + B2L: Zr 0.447; φ: Zr 0.411765; B2: Zr 0.5model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 82
report
1189(βZr) <=> CuZr2 + (αZr)(βZr): Zr 0.93; CuZr2: Zr 0.67experimental[2] Turchanin 2008
cites ref. 5		Table 2, p. 7, row 12
report
1186δ + μ -> σδ: Zr 0.272727; σ: Zr 0.333333model[6] Zhou 2010Table 7, p. 9, row 40
report
1186congruent melting: Liquid <-> Cu10Zr7L: Zr 0.412; Cu10Zr7: Cu 0.588235, Zr 0.411765model[1] Liu 2017Table 5, p. 9, row 13
report
1186Liquid = Cu5Zr7 + CuZrLiquid: Zr 0.56; Cu5Zr7: Zr 0.583333; CuZr: Zr 0.5experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 45
report
1186eutectic: L -> CuZr + Cu5Zr8L: Zr 0.56; CuZr: Zr 0.5; Cu5Zr8: Zr 0.615385experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 5, row 12
report
1185congruent melting: Liquid <-> Cu10Zr7L: Zr 0.4148; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[1] Liu 2017
cites Yamaguchi 2008 doi		Table 5, p. 9, row 12
report
1185congruent melting: L <=> Cu10Zr7L: Zr 0.4118; Cu10Zr7: Zr 0.4118experimental[2] Turchanin 2008
cites ref. 27		Table 2, p. 6, row 8
report
1184Cu2Zr = Cu8Zr3 + Cu10Zr7Cu2Zr: Zr 0.333333; Cu8Zr3: Zr 0.272727; Cu10Zr7: Zr 0.411765experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 63
report
1184δ + μ -> σδ: Zr 0.272727; σ: Zr 0.333333experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 43
report
1184Liquid + Cu2Zr = Cu10Zr7Liquid: Zr 0.424; Cu2Zr: Zr 0.333333; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011Table 3, p. 5, row 49
report
1184eutectoid: Cu2Zr -> Cu8Zr3 + Cu10Zr7Cu2Zr: Cu 0.666667, Zr 0.333333; Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 4, row 45
report
1182Liquid + CuZr2 = Cu5Zr7CuZr2: Zr 0.666667; Cu5Zr7: Zr 0.583333model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 43
report
1180Liquid = Cu10Zr7 + CuZrLiquid: Zr 0.428; Cu10Zr7: Zr 0.411765; CuZr: Zr 0.5model[5] Gierlotka 2011Table 3, p. 5, row 54
report
1178Liquid = Cu10Zr7 + CuZrCu10Zr7: Zr 0.411765; CuZr: Zr 0.5experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 57
report
1178eutectic: Liq -> φ + B2φ: Zr 0.411765; B2: Zr 0.5experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 85
report
1178L <=> Cu10Zr7 + CuZrCu10Zr7: Zr 0.4118; CuZr: Zr 0.5experimental[2] Turchanin 2008
cites ref. 25		Table 2, p. 6, row 12
report
1178eutectic: L -> Cu10Zr7 + CuZrCu10Zr7: Zr 0.411765; CuZr: Zr 0.5experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 5, row 3
report
1177eutectic: L -> Cu10Zr7 + Cu24Zr13L: Zr 0.355; Cu10Zr7: Cu 0.588235, Zr 0.411765; Cu24Zr13: Cu 0.65, Zr 0.35experimental[3] Wang 2006
cites Kneller 1986		Table 1, p. 4, row 38
report
1177eutectic: Liq -> μ + φμ: Zr 0.351351; φ: Zr 0.411765experimental[6] Zhou 2010
cites Kneller 1986 doi		Table 7, p. 9, row 72
report
1177eutectic: Liquid <-> Cu8Zr3 + Cu10Zr7Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[1] Liu 2017
cites Kneller 1986		Table 5, p. 9, row 47
report
1177Liquid + Cu2Zr = Cu10Zr7Liquid: Zr 0.355; Cu2Zr: Zr 0.333333; Cu10Zr7: Zr 0.411765experimental[5] Gierlotka 2011
cites Kneller 1986 doi		Table 3, p. 5, row 50
report
1177L <=> Cu8Zr3 + Cu10Zr7L: Zr 0.355; Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Zr 0.4118experimental[2] Turchanin 2008
cites ref. 23		Table 2, p. 6, row 3
report
1174μ -> φ + σφ: Zr 0.411765; σ: Zr 0.333333model[6] Zhou 2010Table 7, p. 9, row 73
report
1170eutectic: Liq -> σ + φL: Zr 0.409; σ: Zr 0.333333; φ: Zr 0.411765model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 63
report
1170congruent melting: L -> Cu10Zr7L: Zr 0.412; Cu10Zr7: Cu 0.588235, Zr 0.411765model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 4, row 36
report
1168eutectoid: Cu24Zr13 -> Cu2Zr + Cu10Zr7Cu24Zr13: Zr 0.352; Cu2Zr: Cu 0.666667, Zr 0.333333; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[3] Wang 2006
cites Kneller 1986		Table 1, p. 4, row 41
report
1168μ -> φ + σφ: Zr 0.411765; σ: Zr 0.333333experimental[6] Zhou 2010
cites Kneller 1986 doi		Table 7, p. 9, row 75
report
1168congruent melting: Liquid <-> Cu10Zr7L: Zr 0.4; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[1] Liu 2017
cites Lundin 1953		Table 5, p. 9, row 10
report
1168congruent melting: L -> Cu10Zr7L: Zr 0.413; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[3] Wang 2006
cites Lundin 1953		Table 1, p. 4, row 32
report
1168congruent melting: L <=> Cu10Zr7L: Zr 0.4; Cu10Zr7: Zr 0.4experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 6, row 6
report
1168congruent melting: L -> Cu10Zr7L: Zr 0.412; Cu10Zr7: Cu 0.588235, Zr 0.411765model[3] Wang 2006
cites Arias 1990 doi		Table 1, p. 4, row 34
report
1167eutectic: Liq -> φ + B2L: Zr 0.432; φ: Zr 0.411765; B2: Zr 0.5model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 81
report
1167eutectic: L -> Cu10Zr7 + CuZrL: Zr 0.432; Cu10Zr7: Zr 0.411765; CuZr: Zr 0.5model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 5, row 5
report
1167Liquid = Cu10Zr7 + CuZrLiquid: Zr 0.432; Cu10Zr7: Zr 0.411765; CuZr: Zr 0.5model[5] Gierlotka 2011
cites Zaitsev 2003 doi		Table 3, p. 5, row 58
report
1165congruent melting: L <=> Cu10Zr7L: Zr 0.4118; Cu10Zr7: Zr 0.4118model[2] Turchanin 2008Table 2, p. 6, row 9
report
1164.2eutectic: Liquid -> Cu8Zr3 + Cu10Zr7Cu8Zr3: Zr 0.273; Cu10Zr7: Zr 0.412; Liquid: Zr 0.408model[4] (ed.) 1998Table I, p. 210, row 5
report
1164.2congruent melting: Cu10Zr7 -> LiquidCu10Zr7: Zr 0.412; Liquid: Zr 0.412model[4] (ed.) 1998Table I, p. 210, row 6
report
1164.2eutectic: Liq -> δ + φL: Zr 0.408; δ: Zr 0.272727; φ: Zr 0.411765model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 76
report
1164Liquid = Cu10Zr7 + CuZrLiquid: Zr 0.44; Cu10Zr7: Zr 0.411765; CuZr: Zr 0.5experimental[5] Gierlotka 2011
cites Lundin 1953		Table 3, p. 5, row 55
report
1164congruent melting: L -> Cu10Zr7L: Zr 0.412; Cu10Zr7: Cu 0.588235, Zr 0.411765model[3] Wang 2006
cites Zeng 1994 doi		Table 1, p. 4, row 35
report
1164eutectic: L -> Cu8Zr3 + Cu10Zr7L: Zr 0.408; Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Cu 0.588235, Zr 0.411765model[7] Zeng 1994Table 5, p. 4, row 23
report
1163.2eutectic: Liquid -> Cu10Zr7 + CuZrCu10Zr7: Zr 0.412; CuZr: Zr 0.5; Liquid: Zr 0.425model[4] (ed.) 1998Table I, p. 210, row 7
report
1163.2eutectic: Liq -> φ + B2L: Zr 0.425; φ: Zr 0.411765; B2: Zr 0.5model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 80
report
1163eutectic: L -> Cu10Zr7 + CuZrL: Zr 0.425; Cu10Zr7: Cu 0.588235, Zr 0.411765; CuZr: Cu 0.5, Zr 0.5model[7] Zeng 1994Table 5, p. 4, row 26
report
1163eutectic: L -> Cu10Zr7 + CuZrL: Zr 0.44; Cu10Zr7: Cu 0.588235, Zr 0.411765; CuZr: Cu 0.5, Zr 0.5model[7] Zeng 1994
cites Arias 1990 doi		Table 5, p. 4, row 25
report
1163eutectic: L -> Cu10Zr7 + CuZrL: Zr 0.44; Cu10Zr7: Zr 0.411765; CuZr: Zr 0.5model[3] Wang 2006
cites Arias 1990 doi		Table 1, p. 5, row 4
report
1163Liquid = Cu10Zr7 + CuZrLiquid: Zr 0.475; Cu10Zr7: Zr 0.411765; CuZr: Zr 0.5experimental[5] Gierlotka 2011
cites Kneller 1986 doi		Table 3, p. 5, row 56
report
1163eutectic: L -> Cu10Zr7 + CuZrL: Zr 0.475; Cu10Zr7: Zr 0.411765; CuZr: Zr 0.5experimental[3] Wang 2006
cites Kneller 1986 doi		Table 1, p. 5, row 2
report
1163L <=> Cu10Zr7 + CuZrL: Zr 0.44; Cu10Zr7: Zr 0.4; CuZr: Zr 0.5experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 6, row 10
report
1163eutectic: Liq -> φ + B2L: Zr 0.44; φ: Zr 0.411765; B2: Zr 0.5experimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 83
report
1163eutectic: Liq -> φ + B2L: Zr 0.475; φ: Zr 0.411765; B2: Zr 0.5experimental[6] Zhou 2010
cites Kneller 1986 doi		Table 7, p. 9, row 84
report
1163eutectic: L -> Cu10Zr7 + CuZrL: Zr 0.44; Cu10Zr7: Zr 0.411765; CuZr: Zr 0.5experimental[3] Wang 2006
cites Lundin 1953		Table 1, p. 5, row 1
report
1163eutectic: L -> Cu10Zr7 + CuZrL: Zr 0.44; Cu10Zr7: Cu 0.588235, Zr 0.411765; CuZr: Cu 0.5, Zr 0.5experimental[7] Zeng 1994
cites Lundin 1953		Table 5, p. 4, row 24
report
1163L <=> Cu10Zr7 + CuZrL: Zr 0.475; Cu10Zr7: Zr 0.4118; CuZr: Zr 0.515experimental[2] Turchanin 2008
cites ref. 23		Table 2, p. 6, row 11
report
1161L <=> Cu8Zr3 + Cu10Zr7L: Zr 0.391; Cu8Zr3: Zr 0.2727; Cu10Zr7: Zr 0.4118model[2] Turchanin 2008Table 2, p. 6, row 5
report
1161L <=> Cu10Zr7 + CuZrL: Zr 0.433; Cu10Zr7: Zr 0.4118; CuZr: Zr 0.5model[2] Turchanin 2008Table 2, p. 6, row 14
report
1160eutectoid: Cu2Zr -> Cu8Zr3 + Cu10Zr7Cu2Zr: Zr 0.333; Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Cu 0.588235, Zr 0.411765model[3] Wang 2006Table 1, p. 4, row 47
report
1160eutectoid: Cu2Zr -> Cu8Zr3 + Cu10Zr7Cu2Zr: Zr 0.33; Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[3] Wang 2006
cites Kneller 1986		Table 1, p. 4, row 44
report
1160σ -> φ + δσ: Zr 0.333333; φ: Zr 0.411765; δ: Zr 0.272727experimental[6] Zhou 2010
cites Kneller 1986 doi		Table 7, p. 9, row 89
report
1160eutectic: Liq -> δ + φL: Zr 0.382; δ: Zr 0.272727; φ: Zr 0.411765experimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 77
report
1160Cu2Zr = Cu8Zr3 + Cu10Zr7Cu2Zr: Zr 0.333333; Cu8Zr3: Zr 0.272727; Cu10Zr7: Zr 0.411765experimental[5] Gierlotka 2011
cites Kneller 1986 doi		Table 3, p. 5, row 62
report
1160L <=> Cu8Zr3 + Cu10Zr7Cu8Zr3: Zr 0.2727; Cu10Zr7: Zr 0.4118experimental[2] Turchanin 2008
cites ref. 27		Table 2, p. 6, row 4
report
1160σ -> φ + δσ: Zr 0.333333; φ: Zr 0.411765; δ: Zr 0.272727model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 88
report
1160Cu2Zr = Cu8Zr3 + Cu10Zr7Cu2Zr: Zr 0.333333; Cu8Zr3: Zr 0.272727; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 65
report
1158eutectic: L -> Cu8Zr3 + Cu10Zr7L: Zr 0.382; Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Cu 0.588235, Zr 0.411765model[7] Zeng 1994
cites Arias 1990 doi		Table 5, p. 4, row 22
report
1158eutectic: L -> Cu8Zr3 + Cu10Zr7L: Zr 0.382; Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[7] Zeng 1994
cites Lundin 1953		Table 5, p. 4, row 21
report
1158L <=> Cu8Zr3 + Cu10Zr7L: Zr 0.382; Cu8Zr3: Zr 0.29; Cu10Zr7: Zr 0.4experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 6, row 2
report
1158eutectic: Liquid <-> Cu8Zr3 + Cu10Zr7L: Zr 0.382; Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[1] Liu 2017
cites Lundin 1953		Table 5, p. 9, row 46
report
1157σ -> φ + δσ: Zr 0.333333; φ: Zr 0.411765; δ: Zr 0.272727model[6] Zhou 2010Table 7, p. 9, row 86
report
1150L <=> Cu8Zr3 + Cu10Zr7L: Zr 0.42; Cu8Zr3: Zr 0.25; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[2] Turchanin 2008
cites ref. 4		Table 2, p. 6, row 1
report
1150eutectic: Liquid <-> Cu8Zr3 + Cu10Zr7L: Zr 0.42; Cu8Zr3: Zr 0.25; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[1] Liu 2017
cites Raub 1948		Table 5, p. 9, row 45
report
1145L <=> CuZr + CuZr2CuZr: Zr 0.5; CuZr2: Zr 0.6667experimental[2] Turchanin 2008
cites ref. 27		Table 2, p. 7, row 2
report
1143L <=> Cu10Zr7 + CuZrCu10Zr7: Zr 0.4118; CuZr: Zr 0.5experimental[2] Turchanin 2008
cites ref. 27		Table 2, p. 6, row 13
report
1124bcc -> C11b + hcpC11b: Zr 0.666667experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 94
report
1119bcc -> C11b + hcpbcc: Zr 0.969; C11b: Zr 0.666667; hcp: Zr 0.977model[6] Zhou 2010Table 7, p. 9, row 90
report
1114Cu2Zr = Cu8Zr3 + Cu10Zr7Cu2Zr: Zr 0.333333; Cu8Zr3: Zr 0.272727; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011Table 3, p. 5, row 61
report
1104σ -> φ + δσ: Zr 0.333333; φ: Zr 0.411765; δ: Zr 0.272727model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 87
report
1104Cu2Zr = Cu8Zr3 + Cu10Zr7Cu2Zr: Zr 0.333333; Cu8Zr3: Zr 0.272727; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 66
report
1104Cu2Zr = Cu8Zr3 + Cu10Zr7Cu2Zr: Zr 0.333333; Cu8Zr3: Zr 0.272727; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011
cites Zaitsev 2003 doi		Table 3, p. 5, row 64
report
1104eutectoid: Cu2Zr -> Cu8Zr3 + Cu10Zr7Cu2Zr: Zr 0.33; Cu8Zr3: Cu 0.727273, Zr 0.272727; Cu10Zr7: Cu 0.588235, Zr 0.411765model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 4, row 46
report
1099BCC_A2 = CuZr2 + HCP_A3CuZr2: Zr 0.666667model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 71
report
1097(βZr) <=> CuZr2 + (αZr)(βZr): Zr 0.983; CuZr2: Zr 0.6667; (αZr): Zr 0.9996model[2] Turchanin 2008Table 2, p. 7, row 14
report
1095.2eutectoid: bcc-A2 -> CuZr2 + hcp-A3bcc-A2: Zr 0.975; CuZr2: Zr 0.667; hcp-A3: Zr 0.992model[4] (ed.) 1998Table I, p. 210, row 13
report
1095(βZr) -> CuZr2 + (αZr)(βZr): Zr 0.978; CuZr2: Cu 0.333333, Zr 0.666667experimental[7] Zeng 1994
cites Lundin 1953		Table 5, p. 4, row 35
report
1095BCC_A2 = CuZr2 + HCP_A3CuZr2: Zr 0.666667experimental[5] Gierlotka 2011
cites Lundin 1953		Table 3, p. 5, row 69
report
1095eutectoid: (βZr) -> CuZr2-l + (αZr)(βZr): Zr 0.978; CuZr2-l: Zr 0.666667model[3] Wang 2006
cites Arias 1990 doi		Table 1, p. 5, row 39
report
1095bcc -> C11b + hcpbcc: Zr 0.978; C11b: Zr 0.666667experimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 93
report
1095(βZr) -> CuZr2 + (αZr)(βZr): Zr 0.978; CuZr2: Cu 0.333333, Zr 0.666667model[7] Zeng 1994
cites Arias 1990 doi		Table 5, p. 4, row 36
report
1095eutectoid: (βZr) -> CuZr2-l + (αZr)(βZr): Zr 0.978; CuZr2-l: Zr 0.666667experimental[3] Wang 2006
cites Lundin 1953		Table 1, p. 5, row 38
report
1095eutectoid: (βZr) → CuZr2 + (αZr)experimental[3] Wang 2006
cites Lundin 1953		p. 2
report		A temperature of 1095 K and a (βZr) composition of 97.8 at.% Zr for the eutectoid reaction (βZr) → CuZr2 + (αZr) were established.
1095(βZr) <=> CuZr2 + (αZr)(βZr): Zr 0.98; CuZr2: Zr 0.67experimental[2] Turchanin 2008
cites ref. 6		Table 2, p. 7, row 13
report
1091eutectoid: (βZr) -> CuZr2-l + (αZr)(βZr): Zr 0.978; CuZr2-l: Zr 0.666667model[3] Wang 2006Table 1, p. 5, row 40
report
1091BCC_A2 = CuZr2 + HCP_A3CuZr2: Zr 0.666667model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 70
report
1091bcc -> C11b + hcpC11b: Zr 0.666667model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 92
report
1089(βZr) -> CuZr2 + (αZr)(βZr): Zr 0.976; CuZr2: Cu 0.333333, Zr 0.666667model[7] Zeng 1994Table 5, p. 4, row 37
report
1088.8bcc -> C11b + hcpbcc: Zr 0.976; C11b: Zr 0.666667; hcp: Zr 0.996model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 91
report
1086BCC_A2 = CuZr2 + HCP_A3CuZr2: Zr 0.666667model[5] Gierlotka 2011Table 3, p. 5, row 67
report
1004CuZr = Cu10Zr7 + Cu5Zr7CuZr: Zr 0.5; Cu10Zr7: Zr 0.411765; Cu5Zr7: Zr 0.583333experimental[5] Gierlotka 2011
cites Braga 1988		Table 3, p. 5, row 74
report
1004eutectoid: CuZr -> Cu10Zr7 + Cu5Zr8CuZr: Zr 0.5; Cu10Zr7: Zr 0.411765; Cu5Zr8: Zr 0.615385experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 5, row 28
report
1003B2 -> φ + C11bB2: Zr 0.5; φ: Zr 0.411765; C11b: Zr 0.666667experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 100
report
1003CuZr = Cu10Zr7 + Cu5Zr7CuZr: Zr 0.5; Cu10Zr7: Zr 0.411765; Cu5Zr7: Zr 0.583333model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 76
report
1003B2 -> Cu5Zr8 + φB2: Zr 0.5; φ: Zr 0.411765model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 96
report
1003eutectoid: CuZr -> Cu10Zr7 + Cu5Zr8CuZr: Zr 0.5; Cu10Zr7: Zr 0.411765; Cu5Zr8: Zr 0.615385model[3] Wang 2006Table 1, p. 5, row 30
report
1002B2 -> φ + C11bB2: Zr 0.5; φ: Zr 0.411765; C11b: Zr 0.666667model[6] Zhou 2010Table 7, p. 9, row 98
report
995CuZr = Cu10Zr7 + Cu5Zr7CuZr: Zr 0.5; Cu10Zr7: Zr 0.411765; Cu5Zr7: Zr 0.583333model[5] Gierlotka 2011Table 3, p. 5, row 72
report
994CuZr = Cu10Zr7 + Cu5Zr7CuZr: Zr 0.5; Cu10Zr7: Zr 0.411765; Cu5Zr7: Zr 0.583333model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 77
report
988eutectoidexperimental[7] Zeng 1994
cites Carvalho 1980 doi		p. 5
report		Because the compound CuZr decomposes eutectoidly at 988 K, 48 its enthalpy data must be much smaller than that of a mixture of the produced phases CUloZr7 and CuZr 2.
988CuZr -> Cu10Zr7 + CuZr2CuZr: Zr 0.5; Cu10Zr7: Cu 0.588235, Zr 0.411765; CuZr2: Cu 0.333333, Zr 0.666667experimental[7] Zeng 1994
cites Carvalho 1980 doi		Table 5, p. 4, row 38
report
988CuZr -> Cu10Zr7 + CuZr2CuZr: Zr 0.5; Cu10Zr7: Cu 0.588235, Zr 0.411765; CuZr2: Cu 0.333333, Zr 0.666667model[7] Zeng 1994
cites Arias 1990 doi		Table 5, p. 4, row 39
report
987CuZr = Cu10Zr7 + Cu5Zr7CuZr: Zr 0.5; Cu10Zr7: Zr 0.411765; Cu5Zr7: Zr 0.583333model[5] Gierlotka 2011
cites Zaitsev 2003 doi		Table 3, p. 5, row 75
report
987eutectoid: CuZr -> Cu10Zr7 + Cu5Zr8CuZr: Zr 0.5; Cu10Zr7: Zr 0.411765; Cu5Zr8: Zr 0.615385model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 5, row 29
report
987B2 -> Cu5Zr8 + φB2: Zr 0.5; φ: Zr 0.411765model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 95
report
985CuZr <=> Cu10Zr7 + CuZr2CuZr: Zr 0.515; Cu10Zr7: Zr 0.4118; CuZr2: Zr 0.6667experimental[2] Turchanin 2008
cites ref. 23		Table 2, p. 6, row 20
report
985eutectoid: CuZr -> Cu10Zr7 + Cu5Zr8CuZr: Zr 0.5; Cu10Zr7: Zr 0.411765; Cu5Zr8: Zr 0.615385experimental[3] Wang 2006
cites Kneller 1986 doi		Table 1, p. 5, row 27
report
985CuZr = Cu10Zr7 + Cu5Zr7CuZr: Zr 0.5; Cu10Zr7: Zr 0.411765; Cu5Zr7: Zr 0.583333experimental[5] Gierlotka 2011
cites Kneller 1986 doi		Table 3, p. 5, row 73
report
985CuZr <=> Cu10Zr7 + CuZr2CuZr: Zr 0.5; Cu10Zr7: Zr 0.4118; CuZr2: Zr 0.6667experimental[2] Turchanin 2008
cites ref. 21		Table 2, p. 6, row 19
report
985eutectoid: Cu5Zr8 -> Cu10Zr7 + CuZr2-lCu5Zr8: Zr 0.615; Cu10Zr7: Zr 0.411765; CuZr2-l: Zr 0.666667model[3] Wang 2006Table 1, p. 5, row 33
report
985Cu5Zr7 = Cu10Zr7 + CuZr2Cu5Zr7: Zr 0.583333; Cu10Zr7: Zr 0.411765; CuZr2: Zr 0.666667model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 81
report
985CuZr <=> Cu10Zr7 + CuZr2CuZr: Zr 0.5; Cu10Zr7: Zr 0.4118; CuZr2: Zr 0.6667model[2] Turchanin 2008Table 2, p. 6, row 21
report
985B2 -> φ + C11bB2: Zr 0.5; φ: Zr 0.411765; C11b: Zr 0.666667experimental[6] Zhou 2010
cites Carvalho 1980 doi		Table 7, p. 9, row 101
report
985B2 -> Cu5Zr8 + φB2: Zr 0.5; φ: Zr 0.411765experimental[6] Zhou 2010
cites Kneller 1986 doi		Table 7, p. 9, row 97
report
985Cu5Zr8 -> φ + C11bφ: Zr 0.411765; C11b: Zr 0.666667model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 104
report
978Cu5Zr7 = Cu10Zr7 + CuZr2Cu5Zr7: Zr 0.583333; Cu10Zr7: Zr 0.411765; CuZr2: Zr 0.666667model[5] Gierlotka 2011Table 3, p. 5, row 78
report
977CuZr -> Cu10Zr7 + CuZr2CuZr: Zr 0.5; Cu10Zr7: Cu 0.588235, Zr 0.411765; CuZr2: Cu 0.333333, Zr 0.666667model[7] Zeng 1994Table 5, p. 4, row 40
report
976.7B2 -> φ + C11bB2: Zr 0.5; φ: Zr 0.411765; C11b: Zr 0.666667model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 99
report
976.7eutectoid: CuZr -> Cu10Zr7 + CuZr2CuZr: Zr 0.5; Cu10Zr7: Zr 0.412; CuZr2: Zr 0.667model[4] (ed.) 1998Table I, p. 210, row 8
report
972eutectoid: Cu5Zr8 -> Cu10Zr7 + CuZr2-lCu5Zr8: Zr 0.615; Cu10Zr7: Zr 0.411765; CuZr2-l: Zr 0.666667model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 5, row 32
report
972Cu5Zr8 -> φ + C11bφ: Zr 0.411765; C11b: Zr 0.666667model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 103
report
972Cu5Zr7 = Cu10Zr7 + CuZr2Cu5Zr7: Zr 0.583333; Cu10Zr7: Zr 0.411765; CuZr2: Zr 0.666667model[5] Gierlotka 2011
cites Zaitsev 2003 doi		Table 3, p. 5, row 80
report
970eutectoid: Cu5Zr8 -> Cu10Zr7 + CuZr2-lCu5Zr8: Zr 0.615; Cu10Zr7: Zr 0.411765; CuZr2-l: Zr 0.666667experimental[3] Wang 2006
cites Kneller 1986 doi		Table 1, p. 5, row 31
report
970Cu5Zr8 -> φ + C11bφ: Zr 0.411765; C11b: Zr 0.666667experimental[6] Zhou 2010
cites Kneller 1986 doi		Table 7, p. 9, row 105
report
970Cu5Zr7 = Cu10Zr7 + CuZr2Cu5Zr7: Zr 0.583333; Cu10Zr7: Zr 0.411765; CuZr2: Zr 0.666667experimental[5] Gierlotka 2011
cites Kneller 1986 doi		Table 3, p. 5, row 79
report
955B2 -> φ + C11bB2: Zr 0.5; φ: Zr 0.411765; C11b: Zr 0.666667experimental[6] Zhou 2010Table 7, p. 9, row 102
report
950Cu5Zr7 = Cu10Zr7 + CuZr2Cu5Zr7: Zr 0.583333; Cu10Zr7: Zr 0.411765; CuZr2: Zr 0.666667model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 82
report
888Cu8Zr3 = Cu51Zr14+Cu10Zr7Cu8Zr3: Zr 0.272727; Cu51Zr14: Zr 0.215385; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011Table 3, p. 5, row 24
report
887δ -> β + φδ: Zr 0.272727; φ: Zr 0.411765model[6] Zhou 2010Table 7, p. 9, row 106
report
886Cu8Zr3 = Cu51Zr14+Cu10Zr7Cu8Zr3: Zr 0.272727; Cu51Zr14: Zr 0.215385; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011
cites Wang 2006 doi		Table 3, p. 5, row 27
report
886eutectoid: Cu8Zr3 -> Cu51Zr14 + Cu10Zr7Cu8Zr3: Zr 0.27; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu10Zr7: Cu 0.588235, Zr 0.411765model[3] Wang 2006Table 1, p. 4, row 50
report
886Cu8Zr3 = Cu51Zr14+Cu10Zr7Cu8Zr3: Zr 0.272727; Cu51Zr14: Zr 0.215385; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011
cites Kang 2010 doi		Table 3, p. 5, row 28
report
886δ -> β + φδ: Zr 0.272727; φ: Zr 0.411765model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 108
report
885Cu8Zr3 = Cu51Zr14+Cu10Zr7Cu8Zr3: Zr 0.272727; Cu51Zr14: Zr 0.215385; Cu10Zr7: Zr 0.411765experimental[5] Gierlotka 2011
cites Kneller 1986 doi		Table 3, p. 5, row 25
report
885eutectoid: Cu8Zr3 -> Cu51Zr14 + Cu10Zr7Cu8Zr3: Zr 0.273; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu10Zr7: Cu 0.588235, Zr 0.411765experimental[3] Wang 2006
cites Kneller 1986		Table 1, p. 4, row 48
report
885δ -> β + φδ: Zr 0.272727; φ: Zr 0.411765experimental[6] Zhou 2010
cites Kneller 1986 doi		Table 7, p. 9, row 109
report
883eutectoid: Cu8Zr3 -> Cu51Zr14 + Cu10Zr7Cu8Zr3: Zr 0.27; Cu51Zr14: Cu 0.784615, Zr 0.215385; Cu10Zr7: Cu 0.588235, Zr 0.411765model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 4, row 49
report
883δ -> β + φδ: Zr 0.272727; φ: Zr 0.411765model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 107
report
883Cu8Zr3 = Cu51Zr14+Cu10Zr7Cu8Zr3: Zr 0.272727; Cu51Zr14: Zr 0.215385; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011
cites Zaitsev 2003 doi		Table 3, p. 5, row 26
report
864C15b -> fcc + βC15b: Zr 0.166667model[6] Zhou 2010Table 7, p. 9, row 110
report
802C15b -> fcc + βC15b: Zr 0.166667experimental[6] Zhou 2010Table 7, p. 9, row 111
report
534Cu51Zr14 = Cu9Zr2 + Cu10Zr7Cu51Zr14: Zr 0.215385; Cu9Zr2: Zr 0.181818; Cu10Zr7: Zr 0.411765model[5] Gierlotka 2011Table 3, p. 5, row 83
report
523polymorphic: B2 -> B33 or B19'B2: Zr 0.5; B33: Zr 0.5; B19': Zr 0.5model[6] Zhou 2010Table 7, p. 9, row 113
report
523polymorphic: B2 -> B33 or B19'B2: Zr 0.5; B33: Zr 0.5; B19': Zr 0.5experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 114
report
440polymorphic: B2 -> B33 or B19'B2: Zr 0.5; B33: Zr 0.5; B19': Zr 0.5experimental[6] Zhou 2010
cites Carvalho 1980 doi		Table 7, p. 9, row 115
report
409φ -> β + C11bφ: Zr 0.411765; C11b: Zr 0.666667model[6] Zhou 2010Table 7, p. 9, row 112
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, Cu–Zr system (69)
PhaseCompoundValueT (K)ClassMP DFT (kJ/mol-atom)OQMD DFT (kJ/mol-atom)SourceLocationQuote
Cu10Zr7Cu10Zr7-22.9 kJ/mol-atom298.15experimental-15.275 (mp-aaacppnh)-15.415 (oqmd-20874)[2] Turchanin 2008
cites Yamaguchi 2008 doi		Table 3, p. 10, row 14
report
Cu10Zr7Cu10Zr7-21.226 kJ/mol-atommodel-15.275 (mp-aaacppnh)-15.415 (oqmd-20874)[7] Zeng 1994
cites Saunders 1985 doi		Table 1, p. 1, row 10
report
Cu10Zr7Cu10Zr7-20.466 kJ/mol-atom1123model-15.275 (mp-aaacppnh)-15.415 (oqmd-20874)[2] Turchanin 2008Table 3, p. 10, row 15
report
Cu10Zr7Cu10Zr7-20.272 kJ/mol-atom ± 0.2591123experimental-15.275 (mp-aaacppnh)-15.415 (oqmd-20874)[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 13
report
Cu10Zr7Cu10Zr7-14.2206 kJ/mol-atommodel-15.275 (mp-aaacppnh)-15.415 (oqmd-20874)[7] Zeng 1994Table 1, p. 1, row 12
report
Cu10Zr7Cu10Zr7-12.31 kJ/mol-atom ± 0.24298.15experimental-15.275 (mp-aaacppnh)-15.415 (oqmd-20874)[2] Turchanin 2008
cites Kleppa 1982 doi		Table 3, p. 10, row 12
report
Cu10Zr7Cu10Zr7-12.31 kJ/mol-atom298.15experimental-15.275 (mp-aaacppnh)-15.415 (oqmd-20874)[7] Zeng 1994
cites Kleppa 1982 doi		Table 1, p. 1, row 13
report
Cu10Zr7Cu10Zr7-6.73512 kJ/mol-atommodel-15.275 (mp-aaacppnh)-15.415 (oqmd-20874)[7] Zeng 1994
cites Luoma 1991		Table 1, p. 1, row 11
report
Cu10Zr7-φ-18.75 kJ/mol-atom0DFT[6] Zhou 2010
cites Ghosh 2007		Table 2, p. 3, row 12
report
Cu10Zr7-φ-16.13 kJ/mol-atom0DFT[6] Zhou 2010Table 2, p. 3, row 11
report
Cu51Zr14Cu51Zr14-25.2 kJ/mol-atom298.15experimental-15.74 (mp-aaacrfmf)[2] Turchanin 2008
cites Yamaguchi 2008 doi		Table 3, p. 10, row 7
report
Cu51Zr14Cu51Zr14-14.07 kJ/mol-atom ± 1.24298.15experimental-15.74 (mp-aaacrfmf)[2] Turchanin 2008
cites Kleppa 1982 doi		Table 3, p. 10, row 5
report
Cu51Zr14Cu51Zr14-14.07 kJ/mol-atom298.15experimental-15.74 (mp-aaacrfmf)[7] Zeng 1994
cites Kleppa 1982 doi		Table 1, p. 1, row 6
report
Cu51Zr14Cu51Zr14-12.9756 kJ/mol-atommodel-15.74 (mp-aaacrfmf)[7] Zeng 1994Table 1, p. 1, row 5
report
Cu51Zr14Cu51Zr14-12.601 kJ/mol-atom1123model-15.74 (mp-aaacrfmf)[2] Turchanin 2008Table 3, p. 10, row 8
report
Cu51Zr14Cu51Zr14-11.23 kJ/mol-atommodel-15.74 (mp-aaacrfmf)[7] Zeng 1994
cites Saunders 1985 doi		Table 1, p. 1, row 3
report
Cu51Zr14Cu51Zr14-10.335 kJ/mol-atom ± 0.0761123experimental-15.74 (mp-aaacrfmf)[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 6
report
Cu51Zr14Cu51Zr14-2.90594 kJ/mol-atommodel-15.74 (mp-aaacrfmf)[7] Zeng 1994
cites Luoma 1991		Table 1, p. 1, row 4
report
Cu51Zr14-βCu51Zr14-24.3 kJ/mol-atom298.15experimental-15.74 (mp-aaacrfmf)[6] Zhou 2010
cites Meschel 2003		Table 2, p. 3, row 9
report
Cu51Zr14-β-20.24 kJ/mol-atom0DFT[6] Zhou 2010Table 2, p. 3, row 6
report
Cu51Zr14-βCu51Zr14-14.38 kJ/mol-atom298.15experimental-15.74 (mp-aaacrfmf)[6] Zhou 2010
cites Weihs 1996		Table 2, p. 3, row 8
report
Cu51Zr14-β-8.64 kJ/mol-atom0DFT[6] Zhou 2010
cites Ghosh 2007		Table 2, p. 3, row 7
report
Cu5ZrCu5Zr-23.8 kJ/mol-atom298.15experimental-11.236 (mp-aaaabthb)-11.305 (oqmd-17177)[2] Turchanin 2008
cites Yamaguchi 2008 doi		Table 3, p. 10, row 3
report
Cu5ZrCu5Zr-10.299 kJ/mol-atommodel-11.236 (mp-aaaabthb)-11.305 (oqmd-17177)[7] Zeng 1994Table 1, p. 1, row 2
report
Cu5ZrCu5Zr-10.286 kJ/mol-atom1123model-11.236 (mp-aaaabthb)-11.305 (oqmd-17177)[2] Turchanin 2008Table 3, p. 10, row 4
report
Cu5ZrCu5Zr-9.624 kJ/mol-atom ± 0.0771123experimental-11.236 (mp-aaaabthb)-11.305 (oqmd-17177)[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 2
report
Cu5ZrCu5Zr-8.7 kJ/mol-atom ± 1.9298.15experimental-11.236 (mp-aaaabthb)-11.305 (oqmd-17177)[2] Turchanin 2008
cites Sommer 1989 doi		Table 3, p. 10, row 1
report
Cu5ZrCu5Zr-2.20724 kJ/mol-atommodel-11.236 (mp-aaaabthb)-11.305 (oqmd-17177)[7] Zeng 1994
cites Luoma 1991		Table 1, p. 1, row 1
report
Cu5Zr-C15b-12.52 kJ/mol-atom0DFT[6] Zhou 2010
cites Ghosh 2007		Table 2, p. 3, row 5
report
Cu5Zr-C15b-11.37 kJ/mol-atom0DFT[6] Zhou 2010Table 2, p. 3, row 3
report
Cu5Zr-C15b-11.25 kJ/mol-atom0DFT[6] Zhou 2010
cites Ghosh 2007		Table 2, p. 3, row 4
report
Cu8Zr3Cu8Zr3-16.2 kJ/mol-atom298.15experimental-16.12 (mp-aaacqazd)-15.764 (oqmd-2052365)[2] Turchanin 2008
cites Yamaguchi 2008 doi		Table 3, p. 10, row 10
report
Cu8Zr3Cu8Zr3-15.816 kJ/mol-atommodel-16.12 (mp-aaacqazd)-15.764 (oqmd-2052365)[7] Zeng 1994
cites Saunders 1985 doi		Table 1, p. 1, row 7
report
Cu8Zr3Cu8Zr3-14.788 kJ/mol-atom1123model-16.12 (mp-aaacqazd)-15.764 (oqmd-2052365)[2] Turchanin 2008Table 3, p. 10, row 11
report
Cu8Zr3Cu8Zr3-13.4603 kJ/mol-atommodel-16.12 (mp-aaacqazd)-15.764 (oqmd-2052365)[7] Zeng 1994Table 1, p. 1, row 9
report
Cu8Zr3Cu8Zr3-11.982 kJ/mol-atom ± 0.0831123experimental-16.12 (mp-aaacqazd)-15.764 (oqmd-2052365)[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 9
report
Cu8Zr3Cu8Zr3-3.24593 kJ/mol-atommodel-16.12 (mp-aaacqazd)-15.764 (oqmd-2052365)[7] Zeng 1994
cites Luoma 1991		Table 1, p. 1, row 8
report
Cu8Zr3-δ-18.21 kJ/mol-atom0DFT[6] Zhou 2010
cites Ghosh 2007		Table 2, p. 3, row 10
report
CuZrCuZr-24.4 kJ/mol-atom ± 0.96298.15experimental-10.392 (mp-aaaaadha)-10.297 (oqmd-116222)[2] Turchanin 2008
cites Ansara 1982 doi		Table 3, p. 10, row 16
report
CuZrCuZr-24.4 kJ/mol-atom298.15experimental-12.296 (mp-aaacjlri)-12.626 (oqmd-756640)[7] Zeng 1994
cites Ansara 1982 doi		Table 1, p. 1, row 18
report
CuZrCuZr-24.012 kJ/mol-atommodel-12.296 (mp-aaacjlri)-12.626 (oqmd-756640)[7] Zeng 1994
cites Saunders 1985 doi		Table 1, p. 1, row 14
report
CuZrCuZr-24 kJ/mol-atom ± 2298.15experimental-10.392 (mp-aaaaadha)-10.297 (oqmd-116222)[2] Turchanin 2008
cites Sidorov 1989		Table 3, p. 10, row 17
report
CuZrCuZr-17.014 kJ/mol-atom1123model-10.392 (mp-aaaaadha)-10.297 (oqmd-116222)[2] Turchanin 2008Table 3, p. 10, row 20
report
CuZrCuZr-15.179 kJ/mol-atom ± 0.3091123experimental-10.392 (mp-aaaaadha)-10.297 (oqmd-116222)[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 19
report
CuZrCuZr-10.0521 kJ/mol-atommodel-12.296 (mp-aaacjlri)-12.626 (oqmd-756640)[7] Zeng 1994Table 1, p. 1, row 16
report
CuZrCuZr-9.05 kJ/mol-atom ± 1.18298.15experimental-10.392 (mp-aaaaadha)-10.297 (oqmd-116222)[2] Turchanin 2008
cites Kleppa 1982 doi		Table 3, p. 10, row 18
report
CuZrCuZr-9.05 kJ/mol-atom298.15experimental-12.296 (mp-aaacjlri)-12.626 (oqmd-756640)[7] Zeng 1994
cites Kleppa 1982 doi		Table 1, p. 1, row 17
report
CuZrCuZr-7.33717 kJ/mol-atommodel-12.296 (mp-aaacjlri)-12.626 (oqmd-756640)[7] Zeng 1994
cites Luoma 1991		Table 1, p. 1, row 15
report
CuZr-B19'-11.97 kJ/mol-atom0DFT[6] Zhou 2010
cites Zhou 2008		Table 2, p. 3, row 19
report
CuZr-B2CuZr-24.4 kJ/mol-atom298.15experimental-10.392 (mp-aaaaadha)-10.297 (oqmd-116222)[6] Zhou 2010
cites Ansara 1982		Table 2, p. 3, row 16
report
CuZr-B2-12.71 kJ/mol-atom0DFT[6] Zhou 2010
cites Ghosh 2007		Table 2, p. 3, row 15
report
CuZr-B2-10.58 kJ/mol-atom0DFT[6] Zhou 2010Table 2, p. 3, row 13
report
CuZr-B2-10.53 kJ/mol-atom0DFT[6] Zhou 2010
cites Ghosh 2007		Table 2, p. 3, row 14
report
CuZr-B2CuZr-9.05 kJ/mol-atom298.15experimental-10.392 (mp-aaaaadha)-10.297 (oqmd-116222)[6] Zhou 2010
cites Kleppa 1982		Table 2, p. 3, row 17
report
CuZr-B33-12.13 kJ/mol-atom0DFT[6] Zhou 2010
cites Zhou 2008		Table 2, p. 3, row 18
report
CuZr2CuZr2-23.635 kJ/mol-atom1123model-12.941 (mp-aaaaaahl)-13.274 (oqmd-1895393)[2] Turchanin 2008Table 3, p. 10, row 25
report
CuZr2CuZr2-17.3 kJ/mol-atom ± 0.84298.15experimental-12.941 (mp-aaaaaahl)-13.274 (oqmd-1895393)[2] Turchanin 2008
cites Ansara 1982 doi		Table 3, p. 10, row 21
report
CuZr2CuZr2-17.3 kJ/mol-atom298.15experimental-12.941 (mp-aaaaaahl)-13.274 (oqmd-1895393)[7] Zeng 1994
cites Ansara 1982 doi		Table 1, p. 1, row 23
report
CuZr2CuZr2-17.167 kJ/mol-atommodel-12.941 (mp-aaaaaahl)-13.274 (oqmd-1895393)[7] Zeng 1994
cites Saunders 1985 doi		Table 1, p. 1, row 19
report
CuZr2CuZr2-16.992 kJ/mol-atom ± 0.3571123experimental-12.941 (mp-aaaaaahl)-13.274 (oqmd-1895393)[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 23
report
CuZr2CuZr2-16.6 kJ/mol-atom298.15experimental-12.941 (mp-aaaaaahl)-13.274 (oqmd-1895393)[2] Turchanin 2008
cites Yamaguchi 2008 doi		Table 3, p. 10, row 24
report
CuZr2CuZr2-14.6347 kJ/mol-atommodel-12.941 (mp-aaaaaahl)-13.274 (oqmd-1895393)[7] Zeng 1994Table 1, p. 1, row 21
report
CuZr2CuZr2-12.7269 kJ/mol-atommodel-12.941 (mp-aaaaaahl)-13.274 (oqmd-1895393)[7] Zeng 1994
cites Luoma 1991		Table 1, p. 1, row 20
report
CuZr2CuZr2-10.95 kJ/mol-atom ± 0.69298.15experimental-12.941 (mp-aaaaaahl)-13.274 (oqmd-1895393)[2] Turchanin 2008
cites Kleppa 1982 doi		Table 3, p. 10, row 22
report
CuZr2CuZr2-10.95 kJ/mol-atom298.15experimental-12.941 (mp-aaaaaahl)-13.274 (oqmd-1895393)[7] Zeng 1994
cites Kleppa 1982 doi		Table 1, p. 1, row 22
report
CuZr2-C11bCuZr2-17.3 kJ/mol-atom298.15experimental-12.941 (mp-aaaaaahl)-13.184 (oqmd-19518)[6] Zhou 2010
cites Ansara 1982		Table 2, p. 3, row 22
report
CuZr2-C11b-14.52 kJ/mol-atom0DFT[6] Zhou 2010
cites Ghosh 2007		Table 2, p. 3, row 21
report
CuZr2-C11b-13.84 kJ/mol-atom0DFT[6] Zhou 2010Table 2, p. 3, row 20
report
CuZr2-C11bCuZr2-10.95 kJ/mol-atom298.15experimental-12.941 (mp-aaaaaahl)-13.184 (oqmd-19518)[6] Zhou 2010
cites Kleppa 1982		Table 2, p. 3, row 23
report

Other properties

Phase transition (43)

Phase transition, Cu–Zr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase transition1164.3 K1164.3Liq -> φ
L: Zr 0.411765; φ: Zr 0.411765		model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 65
report
Phase transition1165 K1165L + Cu10Zr7model[2] Turchanin 2008p. 14
report		Its melting temperature (1165 K) is only several Kelvin higher than that of the adjacent eutectic reactions L ⇔ Cu8Zr3 + Cu10Zr7 and L⇔ Cu10Zr7 + CuZr.
Phase transition1168 K1168Liq -> φ
L: Zr 0.411765; φ: Zr 0.411765		experimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 68
report
Phase transition1170 K1170Liq -> φ
L: Zr 0.411765; φ: Zr 0.411765		model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 66
report
Phase transition1189 K1189peritectic: Cu10Zr7
alloy: Zr 0.411765		model[7] Zeng 1994
cites Saunders 1985 doi		Table 6, p. 5, row 21
report
Phase transition1200 K1200CuZr2-h + CuZr2-lexperimental[3] Wang 2006p. 2
report		The high and the low temperature modifications of the phase CuZr2 were observed with a transition near 1200 K.
Phase transition1200 K1200Liq -> φ
L: Zr 0.411765; φ: Zr 0.411765		model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 67
report
Phase transition1200 K1200polymorphic: CuZr2-h -> CuZr2-l
CuZr2-h: Zr 0.667; CuZr2-l: Zr 0.666667		model[3] Wang 2006Table 1, p. 5, row 22
report
Phase transition1200 K1200polymorphic: CuZr2-h -> CuZr2-l
CuZr2-h: Zr 0.667; CuZr2-l: Zr 0.666667		experimental[3] Wang 2006
cites Kneller 1986 doi		Table 1, p. 5, row 20
report
Phase transition1204 K1204Liq -> φ
L: Zr 0.411765; φ: Zr 0.411765		model[6] Zhou 2010Table 7, p. 9, row 64
report
Phase transition1204 K1204Liq -> φ
L: Zr 0.411765; φ: Zr 0.411765		experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 69
report
Phase transition1206 K1206Liq -> B2
L: Zr 0.5; B2: Zr 0.5		model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 46
report
Phase transition1206 K1206congruent melting: L -> CuZr
L: Zr 0.5; CuZr: Zr 0.5		model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 5, row 10
report
Phase transition1208 K1208Liq -> B2
L: Zr 0.5; B2: Zr 0.5		experimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 48
report
Phase transition1208 K1208Liq -> B2
L: Zr 0.5; B2: Zr 0.5		model[6] Zhou 2010Table 7, p. 9, row 44
report
Phase transition1208 K1208congruent melting: L -> CuZr
L: Zr 0.5; CuZr: Zr 0.5		experimental[3] Wang 2006
cites Lundin 1953		Table 1, p. 5, row 7
report
Phase transition1208 K1208congruent melting: L -> CuZr
L: Zr 0.5; CuZr: Zr 0.5		model[3] Wang 2006
cites Arias 1990 doi		Table 1, p. 5, row 9
report
Phase transition1208.5 K1208.5Liq -> B2
L: Zr 0.5; B2: Zr 0.5		model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 45
report
Phase transition1218 K1218liquid $ CuZr ? CuZr2experimental[1] Liu 2017p. 7
report		Combined the XRD and BEI analysis on the as-cast and annealed alloys, the first one with an onset at 1218 K corresponds to the invariant reaction liquid $ CuZr ? CuZr2.
Phase transition1226 K1226Liq -> B2
L: Zr 0.5; B2: Zr 0.5		model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 47
report
Phase transition1226 K1226congruent melting: L -> CuZr
L: Zr 0.5; CuZr: Zr 0.5		model[3] Wang 2006Table 1, p. 5, row 11
report
Phase transition1229 K1229Liq -> B2
L: Zr 0.5; B2: Zr 0.5		experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 49
report
Phase transition1230 K1230polymorphic: CuZr2-h -> CuZr2-l
CuZr2-h: Zr 0.667; CuZr2-l: Zr 0.666667		experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 5, row 21
report
Phase transition1233 K1233congruent melting: L -> CuZr
L: Zr 0.5; CuZr: Zr 0.5		experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 5, row 8
report
Phase transition1273 K1273Liq -> C11b
L: Zr 0.666667; C11b: Zr 0.666667		experimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 20
report
Phase transition1273 K1273congruent melting: L -> CuZr2-h
L: Zr 0.667; CuZr2-h: Zr 0.666667		model[3] Wang 2006
cites Arias 1990 doi		Table 1, p. 5, row 17
report
Phase transition1273 K1273congruent melting: L -> CuZr2-h
L: Zr 0.667; CuZr2-h: Zr 0.666667		experimental[3] Wang 2006
cites Lundin 1953		Table 1, p. 5, row 15
report
Phase transition1274 K1274Liq -> C11b
L: Zr 0.666667; C11b: Zr 0.666667		model[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 18
report
Phase transition1274 K1274congruent melting: L -> CuZr2-h
L: Zr 0.667; CuZr2-h: Zr 0.666667		model[3] Wang 2006
cites Zaitsev 2003 doi		Table 1, p. 5, row 18
report
Phase transition1274.9 K1274.9Liq -> C11b
L: Zr 0.666667; C11b: Zr 0.666667		model[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 17
report
Phase transition1275 K1275Liq -> C11b
L: Zr 0.666667; C11b: Zr 0.666667		model[6] Zhou 2010Table 7, p. 9, row 16
report
Phase transition1285 K1285congruent melting: L -> CuZr2-h
L: Zr 0.667; CuZr2-h: Zr 0.666667		experimental[3] Wang 2006
cites Braga 1998		Table 1, p. 5, row 16
report
Phase transition1286 K1286Liq -> C11b
L: Zr 0.666667; C11b: Zr 0.666667		model[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 19
report
Phase transition1286 K1286congruent melting: L -> CuZr2-h
L: Zr 0.667; CuZr2-h: Zr 0.666667		model[3] Wang 2006Table 1, p. 5, row 19
report
Phase transition1299 K1299Liq -> C11b
L: Zr 0.666667; C11b: Zr 0.666667		experimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 21
report
Phase transition1373 K1373Liq -> βexperimental[6] Zhou 2010
cites Lundin 1953		Table 7, p. 9, row 5
report
Phase transition1377 K1377Liq -> βexperimental[6] Zhou 2010
cites Kuznetsov 1978		Table 7, p. 9, row 8
report
Phase transition1382 K1382Liq -> βmodel[6] Zhou 2010Table 7, p. 9, row 1
report
Phase transition1385.7 K1385.7Liq -> βmodel[6] Zhou 2010
cites Zeng 1994 doi		Table 7, p. 9, row 2
report
Phase transition1388 K1388Liq -> βexperimental[6] Zhou 2010
cites Glimois 1985 doi		Table 7, p. 9, row 7
report
Phase transition1388 K1388Liq -> βmodel[6] Zhou 2010
cites Zaitsev 2003 doi		Table 7, p. 9, row 3
report
Phase transition1389 K1389Liq -> βmodel[6] Zhou 2010
cites Wang 2006 doi		Table 7, p. 9, row 4
report
Phase transition1389 K1389Liq -> βexperimental[6] Zhou 2010
cites Braga 1998		Table 7, p. 9, row 6
report

Phase equilibrium (29)

Phase equilibrium, Cu–Zr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase assemblageCuZr2-C11b + CuZr-B33
alloy: Zr 0.666667		experimental[6] Zhou 2010Table 3, p. 3, row 4
report
Phase assemblage773Cu5Zr-C15b
alloy: Zr 0.00126		experimental[6] Zhou 2010
cites Lou 1984		p. 5
report		This experiment establishes a new lower bound for the Cu51Zr14-b phase, in disagreement with Lou and Grant [31], who observed the Cu5Zr-C15b phase in an alloy of 0.126 at.% Zr after holding at 773 K (below 802 K) for 18 h.
Phase assemblage955CuZr2-C11b + Cu10Zr7-φ
alloy: Zr 0.666667		experimental[6] Zhou 2010Table 3, p. 3, row 6
report
Phase assemblage1223Cu9Zr2(Cu5Zr-C15b)
alloy: Zr 0.169		experimental[6] Zhou 2010
cites Glimois 1985		p. 5
report		These results are also consistent with the report of Glimois et al. [28] who observed Cu9Zr2(Cu5Zr-C15b) in a specimen (Cu-16.9 at.% Zr), treated at 1223 K for 500 h.
Phase composition1123.15Cu8Zr3 + Cu10Zr7
Cu8Zr3: Cu 0.728, Zr 0.272; Cu10Zr7: Cu 0.598, Zr 0.402		experimental[1] Liu 2017Table 3, p. 4, row 1
report
Phase composition1123.15CuZr + CuZr2
CuZr: Cu 0.509, Zr 0.491; CuZr2: Cu 0.352, Zr 0.648		experimental[1] Liu 2017Table 3, p. 4, row 2
report
Phase composition1123.15CuZr + CuZr2
CuZr: Cu 0.502, Zr 0.498; CuZr2: Cu 0.347, Zr 0.653		experimental[1] Liu 2017Table 3, p. 4, row 3
report
Phase composition1123.15CuZr2 + (αZr)
CuZr2: Cu 0.341, Zr 0.659; (αZr): Cu 0.025, Zr 0.975		experimental[1] Liu 2017Table 3, p. 4, row 4
report
Phase composition1164.4congruent melting: Cu10Zr7
liquid: Zr 0.411765; Cu10Zr7: Zr 0.411765		model[7] Zeng 1994Table 6, p. 5, row 22
report
Phase composition1168congruent melting: Cu10Zr7
liquid: Zr 0.411765; Cu10Zr7: Zr 0.411765		model[7] Zeng 1994
cites Arias 1990 doi		Table 6, p. 5, row 20
report
Phase composition1168congruent melting: Cu10Zr7
liquid: Zr 0.411765; Cu10Zr7: Zr 0.411765		experimental[7] Zeng 1994
cites Lundin 1953		Table 6, p. 5, row 19
report
Phase composition1201congruent melting: CuZr
liquid: Zr 0.5; CuZr: Zr 0.5		model[7] Zeng 1994
cites Saunders 1985 doi		Table 6, p. 5, row 12
report
Phase composition1208congruent melting: CuZr
liquid: Zr 0.5; CuZr: Zr 0.5		experimental[7] Zeng 1994
cites Lundin 1953		Table 6, p. 5, row 10
report
Phase composition1208congruent melting: CuZr
liquid: Zr 0.5; CuZr: Zr 0.5		model[7] Zeng 1994
cites Arias 1990 doi		Table 6, p. 5, row 11
report
Phase composition1209congruent melting: CuZr
liquid: Zr 0.5; CuZr: Zr 0.5		model[7] Zeng 1994Table 6, p. 5, row 13
report
Phase composition1273congruent melting: CuZr2
liquid: Zr 0.666667; CuZr2: Zr 0.666667		experimental[7] Zeng 1994
cites Lundin 1953		Table 6, p. 5, row 15
report
Phase composition1273congruent melting: CuZr2
liquid: Zr 0.666667; CuZr2: Zr 0.666667		model[7] Zeng 1994
cites Arias 1990 doi		Table 6, p. 5, row 16
report
Phase composition1275congruent melting: CuZr2
liquid: Zr 0.666667; CuZr2: Zr 0.666667		model[7] Zeng 1994Table 6, p. 5, row 18
report
Phase composition1284congruent melting: CuZr2
liquid: Zr 0.666667; CuZr2: Zr 0.666667		model[7] Zeng 1994
cites Saunders 1985 doi		Table 6, p. 5, row 17
report
Phase composition1338congruent melting: CuZr2
liquid: Zr 0.666667; CuZr2: Zr 0.666667		experimental[7] Zeng 1994
cites Auguston 1950		Table 6, p. 5, row 14
report
Phase composition1373congruent melting: Cu51Zr14
liquid: Zr 0.215385; Cu51Zr14: Zr 0.215385		experimental[7] Zeng 1994
cites Lundin 1953		Table 6, p. 5, row 1
report
Phase composition1377congruent melting: Cu51Zr14
liquid: Zr 0.215385; Cu51Zr14: Zr 0.215385		experimental[7] Zeng 1994
cites Kuznetsov 1978		Table 6, p. 5, row 6
report
Phase composition1385congruent melting: Cu51Zr14
liquid: Zr 0.215385; Cu51Zr14: Zr 0.215385		experimental[7] Zeng 1994
cites Raub 1948		Table 6, p. 5, row 5
report
Phase composition1386congruent melting: Cu51Zr14
liquid: Zr 0.215385; Cu51Zr14: Zr 0.215385		model[7] Zeng 1994Table 6, p. 5, row 9
report
Phase composition1386congruent melting: Cu51Zr14
liquid: Zr 0.215385; Cu51Zr14: Zr 0.215385		experimental[7] Zeng 1994
cites Perry 1972		Table 6, p. 5, row 2
report
Phase composition1388congruent melting: Cu51Zr14
liquid: Zr 0.215385; Cu51Zr14: Zr 0.215385		experimental[7] Zeng 1994
cites Glimois 1985 doi		Table 6, p. 5, row 3
report
Phase composition1388congruent melting: Cu51Zr14
liquid: Zr 0.215385; Cu51Zr14: Zr 0.215385		model[7] Zeng 1994
cites Arias 1990 doi		Table 6, p. 5, row 7
report
Phase composition1395congruent melting: Cu51Zr14
liquid: Zr 0.215385; Cu51Zr14: Zr 0.215385		model[7] Zeng 1994
cites Saunders 1985 doi		Table 6, p. 5, row 8
report
Phase composition1413congruent melting: Cu51Zr14
liquid: Zr 0.215385; Cu51Zr14: Zr 0.215385		experimental[7] Zeng 1994
cites Pogodin 1940		Table 6, p. 5, row 4
report

Formation (12)

Formation, Cu–Zr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Entropy of formation
printed: ΔfS		-7.28 J/mol-atom/K ± 0.271123Cu10Zr7
alloy: Zr 0.411765		experimental[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 13
report
Entropy of formation
printed: ΔfS		-4.28 J/mol-atom/K1123Cu10Zr7
alloy: Zr 0.411765		model[2] Turchanin 2008Table 3, p. 10, row 15
report
Entropy of formation
printed: ΔfS		0 J/mol-atom/K ± 0.081123Cu51Zr14
alloy: Zr 0.215385		experimental[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 6
report
Entropy of formation
printed: ΔfS		0 J/mol-atom/K1123Cu51Zr14
alloy: Zr 0.215385		model[2] Turchanin 2008Table 3, p. 10, row 8
report
Entropy of formation
printed: ΔfS		-0.3 J/mol-atom/K1123Cu5Zr
alloy: Zr 0.166667		model[2] Turchanin 2008Table 3, p. 10, row 4
report
Entropy of formation
printed: ΔfS		-0.6 J/mol-atom/K ± 0.081123Cu5Zr
alloy: Zr 0.166667		experimental[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 2
report
Entropy of formation
printed: ΔfS		-0.88 J/mol-atom/K1123Cu8Zr3
alloy: Zr 0.272727		model[2] Turchanin 2008Table 3, p. 10, row 11
report
Entropy of formation
printed: ΔfS		-0.71 J/mol-atom/K ± 0.091123Cu8Zr3
alloy: Zr 0.272727		experimental[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 9
report
Entropy of formation
printed: ΔfS		-0.87 J/mol-atom/K1123CuZr
alloy: Zr 0.5		model[2] Turchanin 2008Table 3, p. 10, row 20
report
Entropy of formation
printed: ΔfS		-3.05 J/mol-atom/K ± 0.311123CuZr
alloy: Zr 0.5		experimental[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 19
report
Entropy of formation
printed: ΔfS		-6.68 J/mol-atom/K ± 0.341123CuZr2
alloy: Zr 0.666667		experimental[2] Turchanin 2008
cites Zaitsev 2003 doi		Table 3, p. 10, row 23
report
Entropy of formation
printed: ΔfS		-7.76 J/mol-atom/K1123CuZr2
alloy: Zr 0.666667		model[2] Turchanin 2008Table 3, p. 10, row 25
report

Heat capacity / entropy / enthalpy (6)

Heat capacity / entropy / enthalpy, Cu–Zr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
sm fusion
printed: ΔmS		9.95 J/(mole · K)1165Cu10Zr7
alloy: Zr 0.411765		model[2] Turchanin 2008Table 3, p. 10, row 29
report
sm fusion
printed: ΔmS		12.61 J/(mole · K)1185Cu10Zr7
alloy: Zr 0.411765		experimental[2] Turchanin 2008
cites Yamaguchi 2008 doi		Table 3, p. 10, row 28
report
sm fusion
printed: ΔmS		8.6 J/(mole · K)1279CuZr2
alloy: Zr 0.666667		experimental[2] Turchanin 2008
cites Yamaguchi 2008 doi		Table 3, p. 10, row 30
report
sm fusion
printed: ΔmS		15.65 J/(mole · K)1282CuZr2
alloy: Zr 0.666667		model[2] Turchanin 2008Table 3, p. 10, row 31
report
sm fusion
printed: ΔmS		9.69 J/(mole · K)1382Cu51Zr14
alloy: Zr 0.215385		model[2] Turchanin 2008Table 3, p. 10, row 27
report
sm fusion
printed: ΔmS		12.82 J/(mole · K)1393Cu51Zr14
alloy: Zr 0.215385		experimental[2] Turchanin 2008
cites Yamaguchi 2008 doi		Table 3, p. 10, row 26
report

Activity / EMF / Gibbs energy (84)

Activity / EMF / Gibbs energy, Cu–Zr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Activity Cu
printed: a(Cu)		0.17 11191liquid
alloy: Cu 0.553, Zr 0.447		model[3] Wang 2006Table 3, p. 7, row 24
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Activity Cu
printed: a(Cu)		0.215 11191melt
alloy: Cu 0.553, Zr 0.447		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 23
report
Activity Cu
printed: a(Cu)		0.249 11223liquid
alloy: Cu 0.595, Zr 0.405		model[3] Wang 2006Table 3, p. 7, row 22
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Activity Cu
printed: a(Cu)		0.293 11223liquid
alloy: Cu 0.595, Zr 0.405		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 21
report
Activity Cu
printed: a(Cu)		0.149 11273liquid
alloy: Cu 0.462, Zr 0.538		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 27
report
Activity Cu
printed: a(Cu)		0.0807 11273melt
alloy: Cu 0.462, Zr 0.538		model[3] Wang 2006Table 3, p. 7, row 28
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Activity Cu
printed: a(Cu)		0.0236 11304liquid
alloy: Cu 0.34, Zr 0.66		model[3] Wang 2006Table 3, p. 7, row 34
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Activity Cu
printed: a(Cu)		0.0672 11304liquid
alloy: Cu 0.34, Zr 0.66		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 33
report
Activity Cu
printed: a(Cu)		0.472 11338liquid
alloy: Cu 0.669, Zr 0.331		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 17
report
Activity Cu
printed: a(Cu)		0.44 11338liquid
alloy: Cu 0.669, Zr 0.331		model[3] Wang 2006Table 3, p. 7, row 18
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Activity Cu
printed: a(Cu)		0.838 11373liquid
alloy: Cu 0.85, Zr 0.15		model[3] Wang 2006Table 3, p. 7, row 6
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Activity Cu
printed: a(Cu)		0.811 11373liquid
alloy: Cu 0.85, Zr 0.15		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 5
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Activity Cu
printed: a(Cu)		0.154 11423liquid
alloy: Cu 0.511, Zr 0.489		model[3] Wang 2006Table 3, p. 7, row 26
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Activity Cu
printed: a(Cu)		0.874 11423liquid
alloy: Cu 0.897, Zr 0.103		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 3
report
Activity Cu
printed: a(Cu)		0.244 11423liquid
alloy: Cu 0.511, Zr 0.489		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 25
report
Activity Cu
printed: a(Cu)		0.641 11423liquid
alloy: Cu 0.755, Zr 0.245		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 11
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Activity Cu
printed: a(Cu)		0.902 11423melt
alloy: Cu 0.897, Zr 0.103		model[3] Wang 2006Table 3, p. 7, row 4
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Activity Cu
printed: a(Cu)		0.661 11423melt
alloy: Cu 0.755, Zr 0.245		model[3] Wang 2006Table 3, p. 7, row 12
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Activity Cu
printed: a(Cu)		0.111 11453liquid
alloy: Cu 0.371, Zr 0.629		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 31
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Activity Cu
printed: a(Cu)		0.0432 11453melt
alloy: Cu 0.371, Zr 0.629		model[3] Wang 2006Table 3, p. 7, row 32
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Activity Cu
printed: a(Cu)		0.785 11523liquid
alloy: Cu 0.801, Zr 0.199		model[3] Wang 2006Table 3, p. 7, row 8
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Activity Cu
printed: a(Cu)		0.746 11523melt
alloy: Cu 0.801, Zr 0.199		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 7
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Activity Cu
printed: a(Cu)		0.57 11550liquid
alloy: Cu 0.692, Zr 0.308		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 15
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Activity Cu
printed: a(Cu)		0.535 11550melt
alloy: Cu 0.692, Zr 0.308		model[3] Wang 2006Table 3, p. 7, row 16
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Activity Cu
printed: a(Cu)		0.733 11573liquid
alloy: Cu 0.79, Zr 0.21		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 9
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Activity Cu
printed: a(Cu)		0.751 11573liquid
alloy: Cu 0.79, Zr 0.21		model[3] Wang 2006Table 3, p. 7, row 10
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Activity Cu
printed: a(Cu)		0.0746 11573liquid
alloy: Cu 0.41, Zr 0.59		model[3] Wang 2006Table 3, p. 7, row 30
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Activity Cu
printed: a(Cu)		0.173 11573melt
alloy: Cu 0.41, Zr 0.59		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 29
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Activity Cu
printed: a(Cu)		0.633 11623liquid
alloy: Cu 0.73, Zr 0.27		model[3] Wang 2006Table 3, p. 7, row 14
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Activity Cu
printed: a(Cu)		0.0178 11623liquid
alloy: Cu 0.251, Zr 0.749		model[3] Wang 2006Table 3, p. 7, row 38
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Activity Cu
printed: a(Cu)		0.0573 11623liquid
alloy: Cu 0.251, Zr 0.749		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 37
report
Activity Cu
printed: a(Cu)		0.634 11623liquid
alloy: Cu 0.73, Zr 0.27		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 13
report
Activity Cu
printed: a(Cu)		0.954 11673liquid
alloy: Cu 0.949, Zr 0.051		model[3] Wang 2006Table 3, p. 7, row 2
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Activity Cu
printed: a(Cu)		0.0292 11673liquid
alloy: Cu 0.295, Zr 0.705		model[3] Wang 2006Table 3, p. 7, row 36
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Activity Cu
printed: a(Cu)		0.949 11673melt
alloy: Cu 0.949, Zr 0.051		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 1
report
Activity Cu
printed: a(Cu)		0.0885 11673melt
alloy: Cu 0.295, Zr 0.705		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 35
report
Activity Cu
printed: a(Cu)		0.501 11723liquid
alloy: Cu 0.63, Zr 0.37		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 19
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Activity Cu
printed: a(Cu)		0.423 11723melt
alloy: Cu 0.63, Zr 0.37		model[3] Wang 2006Table 3, p. 7, row 20
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Activity Cu
printed: a(Cu)		0.0449 11773liquid
alloy: Cu 0.203, Zr 0.797		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 39
report
Activity Cu
printed: a(Cu)		0.0147 11773liquid
alloy: Cu 0.203, Zr 0.797		model[3] Wang 2006Table 3, p. 7, row 40
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Activity Cu
printed: a(Cu)		0.0278 11823liquid
alloy: Cu 0.15, Zr 0.85		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 41
report
Activity Cu
printed: a(Cu)		0.00996 11823liquid
alloy: Cu 0.15, Zr 0.85		model[3] Wang 2006Table 3, p. 7, row 42
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Activity Zr
printed: a(Zr)		0.0675 11191liquid
alloy: Cu 0.553, Zr 0.447		model[3] Wang 2006Table 3, p. 7, row 24
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Activity Zr
printed: a(Zr)		0.112 11191liquid
alloy: Cu 0.553, Zr 0.447		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 23
report
Activity Zr
printed: a(Zr)		0.0869 11223liquid
alloy: Cu 0.595, Zr 0.405		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 21
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Activity Zr
printed: a(Zr)		0.0445 11223melt
alloy: Cu 0.595, Zr 0.405		model[3] Wang 2006Table 3, p. 7, row 22
report
Activity Zr
printed: a(Zr)		0.222 11273liquid
alloy: Cu 0.462, Zr 0.538		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 27
report
Activity Zr
printed: a(Zr)		0.18 11273melt
alloy: Cu 0.462, Zr 0.538		model[3] Wang 2006Table 3, p. 7, row 28
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Activity Zr
printed: a(Zr)		0.437 11304liquid
alloy: Cu 0.34, Zr 0.66		model[3] Wang 2006Table 3, p. 7, row 34
report
Activity Zr
printed: a(Zr)		0.408 11304liquid
alloy: Cu 0.34, Zr 0.66		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 33
report
Activity Zr
printed: a(Zr)		0.0624 11338liquid
alloy: Cu 0.669, Zr 0.331		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 17
report
Activity Zr
printed: a(Zr)		0.024 11338liquid
alloy: Cu 0.669, Zr 0.331		model[3] Wang 2006Table 3, p. 7, row 18
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Activity Zr
printed: a(Zr)		0.0127 11373liquid
alloy: Cu 0.85, Zr 0.15		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 5
report
Activity Zr
printed: a(Zr)		0.0037 11373melt
alloy: Cu 0.85, Zr 0.15		model[3] Wang 2006Table 3, p. 7, row 6
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Activity Zr
printed: a(Zr)		0.133 11423liquid
alloy: Cu 0.511, Zr 0.489		model[3] Wang 2006Table 3, p. 7, row 26
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Activity Zr
printed: a(Zr)		0.00265 11423liquid
alloy: Cu 0.897, Zr 0.103		model[3] Wang 2006Table 3, p. 7, row 4
report
Activity Zr
printed: a(Zr)		0.0372 11423liquid
alloy: Cu 0.755, Zr 0.245		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 11
report
Activity Zr
printed: a(Zr)		0.00858 11423melt
alloy: Cu 0.897, Zr 0.103		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 3
report
Activity Zr
printed: a(Zr)		0.197 11423melt
alloy: Cu 0.511, Zr 0.489		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 25
report
Activity Zr
printed: a(Zr)		0.0113 11423melt
alloy: Cu 0.755, Zr 0.245		model[3] Wang 2006Table 3, p. 7, row 12
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Activity Zr
printed: a(Zr)		0.38 11453liquid
alloy: Cu 0.371, Zr 0.629		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 31
report
Activity Zr
printed: a(Zr)		0.382 11453melt
alloy: Cu 0.371, Zr 0.629		model[3] Wang 2006Table 3, p. 7, row 32
report
Activity Zr
printed: a(Zr)		0.0287 11523liquid
alloy: Cu 0.801, Zr 0.199		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 7
report
Activity Zr
printed: a(Zr)		0.00813 11523liquid
alloy: Cu 0.801, Zr 0.199		model[3] Wang 2006Table 3, p. 7, row 8
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Activity Zr
printed: a(Zr)		0.0273 11550liquid
alloy: Cu 0.692, Zr 0.308		model[3] Wang 2006Table 3, p. 7, row 16
report
Activity Zr
printed: a(Zr)		0.0755 11550liquid
alloy: Cu 0.692, Zr 0.308		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 15
report
Activity Zr
printed: a(Zr)		0.0375 11573liquid
alloy: Cu 0.79, Zr 0.21		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 9
report
Activity Zr
printed: a(Zr)		0.349 11573liquid
alloy: Cu 0.41, Zr 0.59		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 29
report
Activity Zr
printed: a(Zr)		0.0111 11573liquid
alloy: Cu 0.79, Zr 0.21		model[3] Wang 2006Table 3, p. 7, row 10
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Activity Zr
printed: a(Zr)		0.313 11573liquid
alloy: Cu 0.41, Zr 0.59		model[3] Wang 2006Table 3, p. 7, row 30
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Activity Zr
printed: a(Zr)		0.0213 11623liquid
alloy: Cu 0.73, Zr 0.27		model[3] Wang 2006Table 3, p. 7, row 14
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Activity Zr
printed: a(Zr)		0.0643 11623liquid
alloy: Cu 0.73, Zr 0.27		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 13
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Activity Zr
printed: a(Zr)		0.672 11623melt
alloy: Cu 0.251, Zr 0.749		model[3] Wang 2006Table 3, p. 7, row 38
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Activity Zr
printed: a(Zr)		0.601 11623melt
alloy: Cu 0.251, Zr 0.749		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 37
report
Activity Zr
printed: a(Zr)		0.00277 11673melt
alloy: Cu 0.949, Zr 0.051		model[3] Wang 2006Table 3, p. 7, row 2
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Activity Zr
printed: a(Zr)		0.00716 11673melt
alloy: Cu 0.949, Zr 0.051		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 1
report
Activity Zr
printed: a(Zr)		0.541 11673melt
alloy: Cu 0.295, Zr 0.705		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 35
report
Activity Zr
printed: a(Zr)		0.578 11673melt
alloy: Cu 0.295, Zr 0.705		model[3] Wang 2006Table 3, p. 7, row 36
report
Activity Zr
printed: a(Zr)		0.134 11723liquid
alloy: Cu 0.63, Zr 0.37		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 19
report
Activity Zr
printed: a(Zr)		0.0608 11723melt
alloy: Cu 0.63, Zr 0.37		model[3] Wang 2006Table 3, p. 7, row 20
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Activity Zr
printed: a(Zr)		0.769 11773liquid
alloy: Cu 0.203, Zr 0.797		model[3] Wang 2006Table 3, p. 7, row 40
report
Activity Zr
printed: a(Zr)		0.705 11773melt
alloy: Cu 0.203, Zr 0.797		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 39
report
Activity Zr
printed: a(Zr)		0.786 11823liquid
alloy: Cu 0.15, Zr 0.85		experimental[3] Wang 2006
cites Zaitsev 2003 doi		Table 3, p. 7, row 41
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Activity Zr
printed: a(Zr)		0.85 11823melt
alloy: Cu 0.15, Zr 0.85		model[3] Wang 2006Table 3, p. 7, row 42
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Crystal structure (13)

Crystal structure, Cu–Zr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Lattice a3.6152 Å298.15(Cu)
alloy: Zr 0		experimental[1] Liu 2017
cites Ellner 1991 doi		Table 2, p. 4, row 1
report
Lattice a12.675 Å298.15Cu10Zr7
alloy: Zr 0.411765		experimental[1] Liu 2017
cites Glimois 1981 doi		Table 2, p. 4, row 5
report
Lattice a1.124 Å298.15Cu51Zr14
alloy: Zr 0.215385		experimental[1] Liu 2017
cites Bsenko 1975 doi		Table 2, p. 4, row 3
report
Lattice a6.87 Å298.15Cu5Zr
alloy: Zr 0.166667		unspecified[1] Liu 2017
cites Forey 1980		Table 2, p. 4, row 2
report
Lattice a7.869 Å298.15Cu8Zr3
alloy: Zr 0.272727		experimental[1] Liu 2017
cites Bsenko 1975 doi		Table 2, p. 4, row 4
report
Lattice a3.262 Å298.15CuZr
alloy: Zr 0.5		experimental[1] Liu 2017
cites Carvalho 1980 doi		Table 2, p. 4, row 6
report
Lattice a3.22 Å298.15CuZr2
alloy: Zr 0.666667		experimental[1] Liu 2017
cites Nevitt 1962		Table 2, p. 4, row 7
report
Lattice b9.313 Å298.15Cu10Zr7
alloy: Zr 0.411765		experimental[1] Liu 2017
cites Glimois 1981 doi		Table 2, p. 4, row 5
report
Lattice b9.985 Å298.15Cu8Zr3
alloy: Zr 0.272727		experimental[1] Liu 2017
cites Bsenko 1975 doi		Table 2, p. 4, row 4
report
Lattice c9.347 Å298.15Cu10Zr7
alloy: Zr 0.411765		experimental[1] Liu 2017
cites Glimois 1981 doi		Table 2, p. 4, row 5
report
Lattice c8.282 Å298.15Cu51Zr14
alloy: Zr 0.215385		experimental[1] Liu 2017
cites Bsenko 1975 doi		Table 2, p. 4, row 3
report
Lattice c8.155 Å298.15Cu8Zr3
alloy: Zr 0.272727		experimental[1] Liu 2017
cites Bsenko 1975 doi		Table 2, p. 4, row 4
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Lattice c11.183 Å298.15CuZr2
alloy: Zr 0.666667		experimental[1] Liu 2017
cites Nevitt 1962		Table 2, p. 4, row 7
report

Sources

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

  1. Yuling Liu, Shuhong Liu, Cong Zhang, Yong Du, Jiong Wang, Yiwei Li, Experimental Investigation and Thermodynamic Description of the Cu-Zr System, J. Phase Equilib. Diffus. 38, 121-134 (2017). doi:10.1007/s11669-017-0522-2
  2. M. A. Turchanin, P. G. Agraval, A. R. Abdulov, Thermodynamic assessment of the Cu-Ti-Zr system. II. Cu-Zr and Ti-Zr systems, Powder Metall Met Ceram 47, 428-446 (2008). doi:10.1007/s11106-008-9039-x
  3. Na Wang, Changrong Li, Zhenmin Du, Fuming Wang, Weijing Zhang, The thermodynamic re-assessment of the Cu–Zr system, Calphad 30, 461-469 (2006). doi:10.1016/j.calphad.2006.06.002
  4. 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.
  5. Wojciech Gierlotka, Kai-Chien Zhang, Yuan-Pei Chang, Thermodynamic description of the binary Cu–Zr system, Journal of Alloys and Compounds 509, 8313-8318 (2011). doi:10.1016/j.jallcom.2011.04.141
  6. S.H. Zhou, R.E. Napolitano, Phase stability for the Cu–Zr system: First-principles, experiments and solution-based modeling, Acta Materialia 58, 2186-2196 (2010). doi:10.1016/j.actamat.2009.12.004
  7. K. J. Zeng, M. Hämäläinen, H. L. Lukas, A new thermodynamic description of the Cu-Zr system, JPE 15, 577-586 (1994). doi:10.1007/bf02647618