Mg–Zn system

62 accepted literature values from 7 paper(s) (experimental 8, model 42, unspecified 12); 6 calculated phase diagram(s). 7 further extracted value(s) not accepted by the reader-agreement checks are only in the JSON/CSV.

Data: JSON · CSV · interactive explorer · interactive phase diagram · phases (12) · papers (bibliography) · Markdown

Accepted values by evidence class
Evidence classValues
experimental8
model42
unspecified12
Accepted values by property group
Property groupValues
invariant reaction35
phase transition2
crystal structure25

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
MgZn-10Niu.tdbC. Niu, M. Liu, C. Li, Z. Du, C. Guo, Calphad, 34, 428-33(2010). doi:10.1016/j.calphad.2010.07.010ddf26e3ed256541c4cd1d0493e9758c2e83d6c747815ffab507f84332338e70aviewer · TDB · JSON
MgZn-14Yua.tdbY. Yuan, F. Pan, D. Li, A. Watson, Calphad, 44, 54-61(2014). doi:10.1016/j.calphad.2013.07.0075c6bc30db874d0b1472dd7db3b0d7fa6ed3c53e17933b9f568a07795f890b1c5viewer · TDB · JSON
MgZn-20Hay.tdbN. Hayashi, K. Nakashima, M. Enoki, H. Ohtani, J. Jpn. Inst. Met. Mater., 84, 141-50(2020). doi:10.2320/jinstmet.JBW20190501db9e45b19b39b07e47275be7a1fe621bbc764ff8012d89c2c7ba6e7b07a775viewer · TDB · JSON
MgZn-22Li.tdbX. Li, S. Liu, D. Huang, Y. Du, Calphad, 79, 102479(2022). doi:10.1016/j.calphad.2022.102479a63cd9424cb2e765166e1e661d88313d20e02569cc3d1a2703aa8dd064e4c7a4viewer · TDB · JSON
MgZn-92Aga.tdbR. Agarwal, S.G. Fries, H.L. Lukas, G. Petzow, F. Sommer, T.G. Chart, G. Effenberg, Z. Metallkd., 83, 216-23(1992). doi:10.1515/ijmr-1992-830402ebd8b9262088fe02aa6333b11e33cc101d53980b3ec439b0c3620525db970549viewer · TDB · JSON
MgZn-98Lia-LB.tdbP. Liang, T. Tarfa, J.A. Robinson, S. Wagner, P. Ochin, M.G. Harmelin, H.J. Seifert, H.L. Lukas, F. Aldinger, Thermochim. Acta, 314, 87-110(1998). doi:10.1016/S0040-6031(97)00458-9abe87ea1530de4863f3b52fcc83738c53f97fd9115c5300a014b94384e127a1aviewer · TDB · JSON
Calculated three-phase invariants (model, mole fraction of the second component)
TDB fileT (K)Phases at the invariant
MgZn-10Niu.tdb688.95LIQUID (x(Zn) 0.35639) + MG2ZN3 (x(Zn) 0.6) + C14_LAVES (x(Zn) 0.66141)
MgZn-10Niu.tdb688.95LIQUID (x(Zn) 0.35621) + MG2ZN3 (x(Zn) 0.6) + C14_LAVES (x(Zn) 0.66141)
MgZn-10Niu.tdb654.39C14_LAVES (x(Zn) 0.67082) + MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.91339)
MgZn-10Niu.tdb640.38MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.92957) + HCP_A3 (x(Zn) 0.99691)
MgZn-10Niu.tdb640.38MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.92967) + HCP_A3 (x(Zn) 0.99692)
MgZn-10Niu.tdb620.15LIQUID (x(Zn) 0.29602) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-10Niu.tdb620.15LIQUID (x(Zn) 0.29605) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-10Niu.tdb620.15LIQUID (x(Zn) 0.29588) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-10Niu.tdb614.15HCP_A3 (x(Zn) 0.03445) + MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.29003)
MgZn-10Niu.tdb614.14MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.29038) + MG12ZN13 (x(Zn) 0.52)
MgZn-10Niu.tdb598.53HCP_A3 (x(Zn) 0.03039) + MG51ZN20 (x(Zn) 0.28169) + MG12ZN13 (x(Zn) 0.52)
MgZn-14Yua.tdb691.44LIQUID (x(Zn) 0.3613) + MG2ZN3 (x(Zn) 0.6) + C14_LAVES (x(Zn) 0.6613)
MgZn-14Yua.tdb691.43LIQUID (x(Zn) 0.36156) + MG2ZN3 (x(Zn) 0.6) + C14_LAVES (x(Zn) 0.6613)
MgZn-14Yua.tdb653.22C14_LAVES (x(Zn) 0.67078) + MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.9122)
MgZn-14Yua.tdb639.53MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.92901) + HCP_A3 (x(Zn) 0.99799)
MgZn-14Yua.tdb639.53MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.92908) + HCP_A3 (x(Zn) 0.99799)
MgZn-14Yua.tdb618.64LIQUID (x(Zn) 0.29955) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-14Yua.tdb618.64LIQUID (x(Zn) 0.29956) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-14Yua.tdb618.64LIQUID (x(Zn) 0.2995) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-14Yua.tdb612.11HCP_A3 (x(Zn) 0.02961) + MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.29302)
MgZn-14Yua.tdb612.07MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.2937) + MG12ZN13 (x(Zn) 0.52)
MgZn-14Yua.tdb612.07MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.29369) + MG12ZN13 (x(Zn) 0.52)
MgZn-14Yua.tdb598.13HCP_A3 (x(Zn) 0.02756) + MG51ZN20 (x(Zn) 0.28169) + MG12ZN13 (x(Zn) 0.52)
MgZn-14Yua.tdb598.13HCP_A3 (x(Zn) 0.02753) + MG51ZN20 (x(Zn) 0.28169) + MG12ZN13 (x(Zn) 0.52)
MgZn-20Hay.tdb689.15LIQUID (x(Zn) 0.36609) + MG2ZN3 (x(Zn) 0.6) + C14_LAVES (x(Zn) 0.66175)
MgZn-20Hay.tdb689.15LIQUID (x(Zn) 0.36595) + MG2ZN3 (x(Zn) 0.6) + C14_LAVES (x(Zn) 0.66175)
MgZn-20Hay.tdb658.61C14_LAVES (x(Zn) 0.67073) + MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.91059)
MgZn-20Hay.tdb641.44MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.93201) + HCP_A3 (x(Zn) 0.99833)
MgZn-20Hay.tdb641.44MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.93213) + HCP_A3 (x(Zn) 0.99833)
MgZn-20Hay.tdb619.91LIQUID (x(Zn) 0.28877) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-20Hay.tdb619.91LIQUID (x(Zn) 0.28881) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-20Hay.tdb617.96HCP_A3 (x(Zn) 0.02831) + MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.2852)
MgZn-20Hay.tdb617.94MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.28631) + MG12ZN13 (x(Zn) 0.52)
MgZn-20Hay.tdb617.94MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.28626) + MG12ZN13 (x(Zn) 0.52)
MgZn-20Hay.tdb596.8HCP_A3 (x(Zn) 0.02544) + MG51ZN20 (x(Zn) 0.28169) + MG12ZN13 (x(Zn) 0.52)
MgZn-20Hay.tdb596.8HCP_A3 (x(Zn) 0.0254) + MG51ZN20 (x(Zn) 0.28169) + MG12ZN13 (x(Zn) 0.52)
MgZn-22Li.tdb686.58LIQUID (x(Zn) 0.36673) + MG2ZN3 (x(Zn) 0.6) + C14_LAVES (x(Zn) 0.65785)
MgZn-22Li.tdb686.58LIQUID (x(Zn) 0.36666) + MG2ZN3 (x(Zn) 0.6) + C14_LAVES (x(Zn) 0.65785)
MgZn-22Li.tdb656.34C14_LAVES (x(Zn) 0.67132) + MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.89889)
MgZn-22Li.tdb635.35MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.93146) + HCP_A3 (x(Zn) 0.99933)
MgZn-22Li.tdb635.35MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.93168) + HCP_A3 (x(Zn) 0.99933)
MgZn-22Li.tdb620.01LIQUID (x(Zn) 0.30427) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-22Li.tdb620.01LIQUID (x(Zn) 0.30405) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-22Li.tdb613.04HCP_A3 (x(Zn) 0.02433) + MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.29685)
MgZn-22Li.tdb613.03MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.2969) + MG12ZN13 (x(Zn) 0.52)
MgZn-22Li.tdb596.08HCP_A3 (x(Zn) 0.02151) + MG51ZN20 (x(Zn) 0.28169) + MG12ZN13 (x(Zn) 0.52)
MgZn-92Aga.tdb688.97LIQUID (x(Zn) 0.35427) + MG2ZN3 (x(Zn) 0.6) + MGZN2_C14 (x(Zn) 0.66667)
MgZn-92Aga.tdb688.97LIQUID (x(Zn) 0.35447) + MG2ZN3 (x(Zn) 0.6) + MGZN2_C14 (x(Zn) 0.66667)
MgZn-92Aga.tdb688.97LIQUID (x(Zn) 0.35421) + MG2ZN3 (x(Zn) 0.6) + MGZN2_C14 (x(Zn) 0.66667)
MgZn-92Aga.tdb654.03MGZN2_C14 (x(Zn) 0.66667) + MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.90728)
MgZn-92Aga.tdb654.03MGZN2_C14 (x(Zn) 0.66667) + MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.90708)
MgZn-92Aga.tdb637.31MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.9266) + HCP_A3 (x(Zn) 0.99746)
MgZn-92Aga.tdb637.31MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.9269) + HCP_A3 (x(Zn) 0.99748)
MgZn-92Aga.tdb620.2LIQUID (x(Zn) 0.30295) + MGZN (x(Zn) 0.5) + MG2ZN3 (x(Zn) 0.6)
MgZn-92Aga.tdb620.2LIQUID (x(Zn) 0.30283) + MGZN (x(Zn) 0.5) + MG2ZN3 (x(Zn) 0.6)
MgZn-92Aga.tdb620.2LIQUID (x(Zn) 0.30298) + MGZN (x(Zn) 0.5) + MG2ZN3 (x(Zn) 0.6)
MgZn-92Aga.tdb614.2LIQUID (x(Zn) 0.29769) + MG7ZN3 (x(Zn) 0.3) + MGZN (x(Zn) 0.5)
MgZn-92Aga.tdb614.2HCP_A3 (x(Zn) 0.02717) + LIQUID (x(Zn) 0.29747) + MG7ZN3 (x(Zn) 0.3)
MgZn-92Aga.tdb598.22HCP_A3 (x(Zn) 0.02507) + MG7ZN3 (x(Zn) 0.3) + MGZN (x(Zn) 0.5)
MgZn-98Lia-LB.tdb688.95LIQUID (x(Zn) 0.35639) + MG2ZN3 (x(Zn) 0.6) + C14_LAVES (x(Zn) 0.66141)
MgZn-98Lia-LB.tdb688.95LIQUID (x(Zn) 0.35621) + MG2ZN3 (x(Zn) 0.6) + C14_LAVES (x(Zn) 0.66141)
MgZn-98Lia-LB.tdb654.39C14_LAVES (x(Zn) 0.67082) + MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.91339)
MgZn-98Lia-LB.tdb640.14MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.92982) + HCP_A3 (x(Zn) 0.99798)
MgZn-98Lia-LB.tdb640.14MG2ZN11_D8C (x(Zn) 0.84615) + LIQUID (x(Zn) 0.92991) + HCP_A3 (x(Zn) 0.99798)
MgZn-98Lia-LB.tdb620.15LIQUID (x(Zn) 0.29602) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-98Lia-LB.tdb620.15LIQUID (x(Zn) 0.29605) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-98Lia-LB.tdb620.15LIQUID (x(Zn) 0.29588) + MG12ZN13 (x(Zn) 0.52) + MG2ZN3 (x(Zn) 0.6)
MgZn-98Lia-LB.tdb614.17HCP_A3 (x(Zn) 0.02992) + MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.28959)
MgZn-98Lia-LB.tdb614.14MG51ZN20 (x(Zn) 0.28169) + LIQUID (x(Zn) 0.29038) + MG12ZN13 (x(Zn) 0.52)
MgZn-98Lia-LB.tdb598.13HCP_A3 (x(Zn) 0.02756) + MG51ZN20 (x(Zn) 0.28169) + MG12ZN13 (x(Zn) 0.52)

Convex hulls: Materials Project DFT hull · OQMD DFT hull · CALPHAD hull MgZn-10Niu · CALPHAD hull MgZn-14Yua · CALPHAD hull MgZn-20Hay · CALPHAD hull MgZn-92Aga · CALPHAD hull MgZn-98Lia-LB

Invariant reactions (literature)

Invariant reactions reported in the literature for the Mg–Zn system (35)
T (K)Reaction / phasesCompositions (mole fraction)ClassSourceLocationQuote
864congruent melting: Liquid -> MgZn2Liquid: Zn 0.667; MgZn2: Zn 0.667model[1] (ed.) 1998Table I, p. 248, row 5
report
691peritectic: L+Laves_C14 -> Mg2Zn3L: Zn 0.362; Mg2Zn3: Zn 0.6model[2] Yuan 2014Table 1, p. 4, row 7
report
689peritectic: L+Laves_C14 -> Mg2Zn3L: Zn 0.35; Mg2Zn3: Zn 0.6experimental[2] Yuan 2014
cites Massalski 2014
Table 1, p. 4, row 8
report
689Liquid + MgZn2 -> Mg2Zn3Liquid: Zn 0.356; MgZn2: Zn 0.661; Mg2Zn3: Zn 0.6model[3] Niu 2010
cites Liang 1998 doi
Table 3, p. 3, row 2
report
689Liquid + MgZn2 -> Mg2Zn3Liquid: Zn 0.356; MgZn2: Zn 0.661; Mg2Zn3: Zn 0.6model[3] Niu 2010Table 3, p. 3, row 1
report
688.9peritectic: Liquid + Laves-C14 -> Mg2Zn3Liquid: Zn 0.356; Laves-C14: Zn 0.661; Mg2Zn3: Zn 0.6model[1] (ed.) 1998Table I, p. 248, row 4
report
654.4Liquid + MgZn2 -> Mg2Zn11Liquid: Zn 0.913; MgZn2: Zn 0.67; Mg2Zn11: Zn 0.846model[3] Niu 2010Table 3, p. 3, row 3
report
654.4peritectic: Liquid + Laves-C14 -> Mg2Zn11Liquid: Zn 0.913; Laves-C14: Zn 0.661; Mg2Zn11: Zn 0.846model[1] (ed.) 1998Table I, p. 248, row 6
report
654peritectic: L+Laves_C14 -> Mg2Zn11L: Zn 0.91; Mg2Zn11: Zn 0.846154experimental[2] Yuan 2014
cites Massalski 2014
Table 1, p. 4, row 12
report
654Liquid + MgZn2 -> Mg2Zn11Liquid: Zn 0.913; MgZn2: Zn 0.67; Mg2Zn11: Zn 0.846model[3] Niu 2010
cites Liang 1998 doi
Table 3, p. 3, row 4
report
653peritectic: L+Laves_C14 -> Mg2Zn11L: Zn 0.912; Mg2Zn11: Zn 0.846154model[2] Yuan 2014Table 1, p. 4, row 11
report
640.4eutectic: Liquid -> Mg2Zn11 + hcp_A3Liquid: Zn 0.93; Mg2Zn11: Zn 0.846; hcp_A3: Zn 0.997model[3] Niu 2010Table 3, p. 3, row 5
report
640.4eutectic: Liquid -> Mg2Zn11 + hcp_A3Liquid: Zn 0.93; Mg2Zn11: Zn 0.846; hcp_A3: Zn 0.997model[3] Niu 2010
cites Liang 1998 doi
Table 3, p. 3, row 6
report
640eutectic: L -> Mg2Zn11+(Zn)L: Zn 0.929; Mg2Zn11: Zn 0.846154model[2] Yuan 2014Table 1, p. 4, row 13
report
637.3eutectic: Liquid -> Mg2Zn11 + hcp-A3Liquid: Zn 0.926; Mg2Zn11: Zn 0.846; hcp-A3: Zn 0.997model[1] (ed.) 1998Table I, p. 248, row 7
report
637eutectic: L -> Mg2Zn11+(Zn)L: Zn 0.92; Mg2Zn11: Zn 0.846154experimental[2] Yuan 2014
cites Massalski 2014
Table 1, p. 4, row 14
report
620.2Liquid + Mg2Zn3 -> MgZnLiquid: Zn 0.296; Mg2Zn3: Zn 0.6; MgZn: Zn 0.52model[3] Niu 2010Table 3, p. 3, row 7
report
620.2Liquid + Mg2Zn3 -> MgZnLiquid: Zn 0.296; Mg2Zn3: Zn 0.6; MgZn: Zn 0.52model[3] Niu 2010
cites Liang 1998 doi
Table 3, p. 3, row 8
report
620.1peritectic: Liquid + Mg2Zn3 -> MgZnLiquid: Zn 0.196; Mg2Zn3: Zn 0.6; MgZn: Zn 0.52model[1] (ed.) 1998Table I, p. 248, row 3
report
619peritectic: L+Mg2Zn3 -> Mg12Zn13L: Zn 0.3; Mg2Zn3: Zn 0.6; Mg12Zn13: Zn 0.52model[2] Yuan 2014Table 1, p. 4, row 5
report
617.82eutectic: L -> (Mg) + Mg12Zn13 + Mg51Zn20L: Mg 0.7145, Zn 0.2852unspecified[4] Hayashi 2020Table 3, p. 9, row 2
report
614.2Liquid + hcp_A3 -> Mg7Zn3Liquid: Zn 0.29; hcp_A3: Zn 0.034; Mg7Zn3: Zn 0.282model[3] Niu 2010Table 3, p. 3, row 11
report
614.2Liquid + hcp_A3 -> Mg7Zn3Liquid: Zn 0.29; hcp_A3: Zn 0.03; Mg7Zn3: Zn 0.282model[3] Niu 2010
cites Liang 1998 doi
Table 3, p. 3, row 12
report
614.1eutectic: Liquid -> Mg7Zn3 + MgZnLiquid: Zn 0.29; Mg7Zn3: Zn 0.282; MgZn: Zn 0.52model[3] Niu 2010
cites Liang 1998 doi
Table 3, p. 3, row 10
report
614.1eutectic: Liquid -> Mg51Zn20 + MgZnLiquid: Zn 0.281; Mg51Zn20: Zn 0.29; MgZn: Zn 0.52model[1] (ed.) 1998Table I, p. 248, row 2
report
614.1peritectic: Liquid + hcp-A3 -> Mg51Zn20Liquid: Zn 0.295; hcp-A3: Zn 0.029; Mg51Zn20: Zn 0.289model[1] (ed.) 1998Table I, p. 248, row 1
report
614.1eutectic: Liquid -> Mg7Zn3 + MgZnLiquid: Zn 0.29; Mg7Zn3: Zn 0.282; MgZn: Zn 0.52model[3] Niu 2010Table 3, p. 3, row 9
report
614eutectic: L -> hcp(Mg) + MgZn + Mg7Zn3L: Mg 0.7097, Zn 0.2896model[5] Meng 2010Table 3, p. 4, row 12
report
613.9eutectic: Liquid -> MgZn + hcp_A3Liquid: Zn 0.29; MgZn: Zn 0.52; hcp_A3: Zn 0.034model[3] Niu 2010Table 3, p. 3, row 13
report
613.6eutectic: Liquid -> MgZn + hcp_A3Liquid: Zn 0.29; MgZn: Zn 0.52; hcp_A3: Zn 0.03model[3] Niu 2010
cites Liang 1998 doi
Table 3, p. 3, row 14
report
612.1peritectic: L+(Mg) -> Mg51Zn20L: Zn 0.282; Mg51Zn20: Zn 0.28169model[2] Yuan 2014Table 1, p. 4, row 1
report
612eutectic: L -> Mg51Zn20+Mg12Zn13L: Zn 0.293; Mg51Zn20: Zn 0.28169; Mg12Zn13: Zn 0.52model[2] Yuan 2014Table 1, p. 4, row 3
report
598.5Mg7Zn3 -> hcp_A3 + MgZnMg7Zn3: Zn 0.282; hcp_A3: Zn 0.03; MgZn: Zn 0.52model[3] Niu 2010Table 3, p. 3, row 15
report
598.2Mg7Zn3 -> hcp_A3 + MgZnMg7Zn3: Zn 0.282; hcp_A3: Zn 0.027; MgZn: Zn 0.52model[3] Niu 2010
cites Liang 1998 doi
Table 3, p. 3, row 16
report
598.1eutectoid: Mg51Zn20 -> hcp-A3 + MgZnMg51Zn20: Zn 0.282; hcp-A3: Zn 0.027; MgZn: Zn 0.52model[1] (ed.) 1998Table I, p. 248, row 8
report

Other properties

Phase transition (2)

Phase transition, Mg–Zn system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase transition857 K857congruent melting: L -> Laves_C14
L: Zn 0.666; Laves_C14: Zn 0.666
model[2] Yuan 2014Table 1, p. 4, row 9
report
Phase transition861 K861congruent melting: L -> Laves_C14
L: Zn 0.67; Laves_C14: Zn 0.67
experimental[2] Yuan 2014
cites Massalski 2014
Table 1, p. 4, row 10
report

Crystal structure (25)

Crystal structure, Mg–Zn system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Lattice a8.55 Å298.15Mg2Zn11
alloy: Mg 0.153846, Zn 0.846154
model[6] Gröbner 2015
cites Cao 2009 doi
Table 5, p. 10, row 9
report
Lattice a8.55 Å298.15Mg2Zn11
alloy: Zn 0.846154
unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 17
report
Lattice a25.96 Å298.15Mg2Zn3
alloy: Mg 0.4, Zn 0.6
model[6] Gröbner 2015
cites Schmid-Fetzer 2012 doi
Table 5, p. 10, row 7
report
Lattice a25.96 Å298.15Mg2Zn3
alloy: Zn 0.6
unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 15
report
Lattice a14.08 Å298.15Mg5Zn2
alloy: Mg 0.714286, Zn 0.285714
model[6] Gröbner 2015
cites Cao 2009 doi
Table 5, p. 10, row 5
report
Lattice a14.08 Å298.15Mg7Zn3 (Mg51Zn20)unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 13
report
Lattice a16.1 Å298.15MgZn
alloy: Mg 0.5, Zn 0.5
experimental[6] Gröbner 2015
cites Chiotti 1965
Table 5, p. 10, row 6
report
Lattice a5.253 Å298.15MgZn2
alloy: Mg 0.333333, Zn 0.666667
model[6] Gröbner 2015
cites Cao 2009 doi
Table 5, p. 10, row 8
report
Lattice a5.253 Å298.15MgZn2
alloy: Zn 0.666667
unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 16
report
Lattice b14.28 Å298.15Mg2Zn3
alloy: Mg 0.4, Zn 0.6
model[6] Gröbner 2015
cites Schmid-Fetzer 2012 doi
Table 5, p. 10, row 7
report
Lattice b14.28 Å298.15Mg2Zn3
alloy: Zn 0.6
unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 15
report
Lattice b14.49 Å298.15Mg5Zn2
alloy: Mg 0.714286, Zn 0.285714
model[6] Gröbner 2015
cites Cao 2009 doi
Table 5, p. 10, row 5
report
Lattice b14.49 Å298.15Mg7Zn3 (Mg51Zn20)unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 13
report
Lattice b25.79 Å298.15MgZn
alloy: Mg 0.5, Zn 0.5
experimental[6] Gröbner 2015
cites Chiotti 1965
Table 5, p. 10, row 6
report
Lattice c5.24 Å298.15Mg2Zn3
alloy: Mg 0.4, Zn 0.6
model[6] Gröbner 2015
cites Schmid-Fetzer 2012 doi
Table 5, p. 10, row 7
report
Lattice c5.24 Å298.15Mg2Zn3
alloy: Zn 0.6
unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 15
report
Lattice c14.03 Å298.15Mg5Zn2
alloy: Mg 0.714286, Zn 0.285714
model[6] Gröbner 2015
cites Cao 2009 doi
Table 5, p. 10, row 5
report
Lattice c14.03 Å298.15Mg7Zn3 (Mg51Zn20)unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 13
report
Lattice c8.8 Å298.15MgZn
alloy: Mg 0.5, Zn 0.5
experimental[6] Gröbner 2015
cites Chiotti 1965
Table 5, p. 10, row 6
report
Lattice c8.568 Å298.15MgZn2
alloy: Mg 0.333333, Zn 0.666667
model[6] Gröbner 2015
cites Cao 2009 doi
Table 5, p. 10, row 8
report
Lattice c8.568 Å298.15MgZn2
alloy: Zn 0.666667
unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 16
report
lattice gamma102.5 °298.15Mg2Zn3
alloy: Zn 0.6
unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 15
report
lattice gamma120 °298.15MgZn2
alloy: Zn 0.666667
unspecified[7] Shao 2006
cites Tsai 2000 doi
Table 1, p. 2, row 16
report
lattice unspecified angle102.5 °298.15Mg2Zn3
alloy: Mg 0.4, Zn 0.6
model[6] Gröbner 2015
cites Schmid-Fetzer 2012 doi
Table 5, p. 10, row 7
report
lattice unspecified angle112.4 °298.15MgZn
alloy: Mg 0.5, Zn 0.5
experimental[6] Gröbner 2015
cites Chiotti 1965
Table 5, p. 10, row 6
report

Sources

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

  1. 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.
  2. Yuan Yuan, Fusheng Pan, Dajian Li, Andrew Watson, The re-assessment of the Mg–Zn and Fe–Si systems and their incorporation in thermodynamic descriptions of the Al–Mg–Zn and Fe–Si–Zn systems, Calphad 44, 54-61 (2014). doi:10.1016/j.calphad.2013.07.007
  3. Chunju Niu, Miao Liu, Changrong Li, Zhenmin Du, Cuiping Guo, Thermodynamic description on the miscibility gap of the Mg-based solid solution in the Mg–Zn, Mg–Nd and Mg–Zn–Nd systems, Calphad 34, 428-433 (2010). doi:10.1016/j.calphad.2010.07.010
  4. Naohiro Hayashi, Kazuki Nakashima, Masanori Enoki, Hiroshi Ohtani, Thermodynamic Analysis of the Al-Mg-Zn Ternary System, J. Japan Inst. Metals 84, 141-150 (2020). doi:10.2320/jinstmet.jbw201905
  5. F.G. Meng, J. Wang, L.B. Liu, Z.P. Jin, Thermodynamic modeling of the Mg–Sn–Zn ternary system, Journal of Alloys and Compounds 508, 570-581 (2010). doi:10.1016/j.jallcom.2010.08.124
  6. Joachim Gröbner, Artem Kozlov, Xi-Ya Fang, Suming Zhu, Jian-Feng Nie, Mark A. Gibson et al., Phase equilibria and transformations in ternary Mg–Gd–Zn alloys, Acta Materialia 90, 400-416 (2015). doi:10.1016/j.actamat.2015.02.044
  7. G. Shao, V. Varsani, Z. Fan, Thermodynamic modelling of the Y–Zn and Mg–Zn–Y systems, Calphad 30, 286-295 (2006). doi:10.1016/j.calphad.2006.03.005