Mg–Ni system

98 accepted literature values from 3 paper(s) (experimental 60, model 38); 3 calculated phase diagram(s). 1 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 (7) · papers (bibliography) · Markdown

Accepted values by evidence class
Evidence classValues
experimental60
model38
Accepted values by property group
Property groupValues
invariant reaction29
phase transition6
formation53
crystal structure10

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
MgNi-05Isl.tdbF. Islam, M. Medraj, Calphad, 29, 289-302(2005). doi:10.1016/j.calphad.2005.08.006452d7faaa3e14191ac8bc455e879ab416bd185af2b6cb220b42f5e3599af0a7eviewer · TDB · JSON
MgNi-98Jac-2.tdbM.H.G. Jacobs, P.J. Spencer, Calphad, 22, 513-25(1998). doi:10.1016/S0364-5916(99)00008-5a7597b0f81c491ccc586c553a9e447e50db9c77cd3eb466d5630055a335c46b7viewer · TDB · JSON
MgNi-98Jac-LB.tdbM.H.G. Jacobs, P.J. Spencer, COST 507, Final report round 2, 1998.c65d409d16032b0a17b49e8d2259f5f844d5a521884c54b095097403c96ed068viewer · TDB · JSON
Calculated three-phase invariants (model, mole fraction of the second component)
TDB fileT (K)Phases at the invariant
MgNi-05Isl.tdb1373.59C36_LAVES (x(Ni) 0.67341) + LIQUID (x(Ni) 0.79494) + FCC_A1 (x(Ni) 0.99882)
MgNi-05Isl.tdb1030.66LIQUID (x(Ni) 0.28993) + MG2NI_CA (x(Ni) 0.33333) + C36_LAVES (x(Ni) 0.662)
MgNi-05Isl.tdb781.54HCP_A3 (x(Ni) 1.000e-5) + LIQUID (x(Ni) 0.10485) + MG2NI_CA (x(Ni) 0.33333)
MgNi-05Isl.tdb781.54HCP_A3 (x(Ni) 1.000e-5) + LIQUID (x(Ni) 0.10479) + MG2NI_CA (x(Ni) 0.33333)
MgNi-98Jac-2.tdb1368.5C36_LAVES (x(Ni) 0.67337) + LIQUID (x(Ni) 0.7955) + FCC_A1 (x(Ni) 0.99847)
MgNi-98Jac-2.tdb1032.32LIQUID (x(Ni) 0.29643) + MG2NI (x(Ni) 0.33333) + C36_LAVES (x(Ni) 0.66201)
MgNi-98Jac-2.tdb781.41HCP_A3 (x(Ni) 1.000e-5) + LIQUID (x(Ni) 0.11066) + MG2NI (x(Ni) 0.33333)
MgNi-98Jac-2.tdb781.41HCP_A3 (x(Ni) 1.000e-5) + LIQUID (x(Ni) 0.1106) + MG2NI (x(Ni) 0.33333)
MgNi-98Jac-LB.tdb1366.62C36_LAVES (x(Ni) 0.66653) + LIQUID (x(Ni) 0.8) + FCC_A1 (x(Ni) 1)
MgNi-98Jac-LB.tdb1366.62C36_LAVES (x(Ni) 0.66653) + LIQUID (x(Ni) 0.8) + FCC_A1 (x(Ni) 1)
MgNi-98Jac-LB.tdb1366.62C36_LAVES (x(Ni) 0.66653) + LIQUID (x(Ni) 0.80009) + FCC_A1 (x(Ni) 1)
MgNi-98Jac-LB.tdb1032.08LIQUID (x(Ni) 0.30452) + MG2NI (x(Ni) 0.33333) + C36_LAVES (x(Ni) 0.66305)
MgNi-98Jac-LB.tdb780HCP_A3 (x(Ni) 0) + LIQUID (x(Ni) 0.10144) + MG2NI (x(Ni) 0.33333)
MgNi-98Jac-LB.tdb780HCP_A3 (x(Ni) 0) + LIQUID (x(Ni) 0.1014) + MG2NI (x(Ni) 0.33333)

Convex hulls: Materials Project DFT hull · OQMD DFT hull · CALPHAD hull MgNi-98Jac-2 · CALPHAD hull MgNi-98Jac-LB

Invariant reactions (literature)

Invariant reactions reported in the literature for the Mg–Ni system (29)
T (K)Reaction / phasesCompositions (mole fraction)ClassSourceLocationQuote
1422.84congruent melting: MgNi2 -> LMgNi2: Mg 0.333333, Ni 0.666667; L: Ni 0.666model[1] Islam 2005Table 3, p. 6, row 12
report
1420congruent melting: MgNi2 -> LMgNi2: Mg 0.333333, Ni 0.666667; L: Mg 0.333333, Ni 0.666667experimental[1] Islam 2005
cites Bagnoud 1978
Table 3, p. 6, row 13
report
1377.7eutectic: L -> Ni-fcc + MgNi2L: Ni 0.797; MgNi2: Ni 0.676model[1] Islam 2005Table 3, p. 6, row 9
report
1370eutectic: L -> Ni-fcc + MgNi2MgNi2: Ni 0.673experimental[1] Islam 2005
cites Bagnoud 1978
Table 3, p. 6, row 10
report
1370Liq+Fcc_A1+MgNi2MgNi2: Ni 0.673experimental[2] Jacobs 1998
cites ref. 3
Table 3, p. 6, row 13
report
1368.28Liq+Fcc_A1+MgNi2L: Ni 0.7961; MgNi2: Ni 0.6734model[2] Jacobs 1998Table 3, p. 6, row 9
report
1368.04Liq+Fcc_A1+MgNi2L: Ni 0.796; MgNi2: Ni 0.6735model[2] Jacobs 1998Table 3, p. 6, row 10
report
1368Liq+Fcc_A1+MgNi2MgNi2: Ni 0.666667experimental[2] Jacobs 1998
cites ref. 5
Table 3, p. 6, row 12
report
1366.6eutectic: Liquid -> Laves-C36 + fcc-A1Liquid: Ni 0.802; Laves-C36: Ni 0.666; fcc-A1: Ni 1model[3] (ed.) 1998Table I, p. 235, row 1
report
1355Liq+Fcc_A1+MgNi2L: Ni 0.772; MgNi2: Ni 0.666667experimental[2] Jacobs 1998
cites ref. 6
Table 3, p. 6, row 11
report
1355eutectic: L -> Ni-fcc + MgNi2L: Ni 0.772; MgNi2: Ni 0.667experimental[1] Islam 2005
cites Voss 1908 doi
Table 3, p. 6, row 11
report
1041peritectic: L + MgNi2 -> Mg2NiL: Ni 0.26; MgNi2: Ni 0.667; Mg2Ni: Ni 0.333experimental[1] Islam 2005
cites Voss 1908 doi
Table 3, p. 6, row 8
report
1041Liq+Mg2Ni+MgNi2L: Ni 0.26; Mg2Ni: Ni 0.333333; MgNi2: Ni 0.666667experimental[2] Jacobs 1998
cites ref. 6
Table 3, p. 6, row 6
report
1033peritectic: L + MgNi2 -> Mg2NiMgNi2: Ni 0.662; Mg2Ni: Ni 0.333experimental[1] Islam 2005
cites Bagnoud 1978
Table 3, p. 6, row 7
report
1033peritectic: L + MgNi2 -> Mg2NiL: Ni 0.29; MgNi2: Ni 0.667; Mg2Ni: Ni 0.333experimental[1] Islam 2005
cites Haughton 1934
Table 3, p. 6, row 6
report
1033Liq+Mg2Ni+MgNi2L: Ni 0.29; Mg2Ni: Ni 0.333333; MgNi2: Ni 0.666667experimental[2] Jacobs 1998
cites ref. 4
Table 3, p. 6, row 7
report
1033Liq+Mg2Ni+MgNi2Mg2Ni: Ni 0.333333; MgNi2: Ni 0.662experimental[2] Jacobs 1998
cites ref. 3
Table 3, p. 6, row 8
report
1032.31Liq+Mg2Ni+MgNi2L: Ni 0.2964; Mg2Ni: Ni 0.333333; MgNi2: Ni 0.662model[2] Jacobs 1998Table 3, p. 6, row 5
report
1032.2peritectic: Liquid + Mg2Ni -> Laves-C36Liquid: Ni 0.278; Mg2Ni: Ni 0.333; Laves-C36: Ni 0.666model[3] (ed.) 1998Table I, p. 235, row 3
report
1031peritectic: L + MgNi2 -> Mg2NiL: Ni 0.291; MgNi2: Ni 0.665; Mg2Ni: Ni 0.333model[1] Islam 2005Table 3, p. 6, row 5
report
785Hcp_A3+Liq+Mg2NiL: Ni 0.176; Mg2Ni: Ni 0.333333experimental[2] Jacobs 1998
cites ref. 6
Table 3, p. 6, row 2
report
785eutectic: L -> Mg-hcp + Mg2NiL: Ni 0.176; Mg2Ni: Ni 0.333experimental[1] Islam 2005
cites Voss 1908 doi
Table 3, p. 6, row 4
report
781.53eutectic: L -> Mg-hcp + Mg2NiL: Ni 0.1048; Mg2Ni: Ni 0.333model[1] Islam 2005Table 3, p. 6, row 1
report
781.41Hcp_A3+Liq+Mg2NiL: Ni 0.1106; Mg2Ni: Ni 0.333333model[2] Jacobs 1998Table 3, p. 6, row 1
report
781eutectic: L -> Mg-hcp + Mg2NiL: Ni 0.113; Mg2Ni: Ni 0.333experimental[1] Islam 2005
cites Haughton 1934
Table 3, p. 6, row 2
report
781Hcp_A3+Liq+Mg2NiL: Ni 0.113; Mg2Ni: Ni 0.333333experimental[2] Jacobs 1998
cites ref. 4
Table 3, p. 6, row 3
report
780eutectic: Liquid -> + hcp-A3 Mg2NiLiquid: Ni 0.101; hcp-A3: Ni 0; Mg2Ni: Ni 0.333model[3] (ed.) 1998Table I, p. 235, row 4
report
779eutectic: L -> Mg-hcp + Mg2NiMg2Ni: Mg 0.666667, Ni 0.333333experimental[1] Islam 2005
cites Bagnoud 1978
Table 3, p. 6, row 3
report
779Hcp_A3+Liq+Mg2NiMg2Ni: Ni 0.333333experimental[2] Jacobs 1998
cites ref. 3
Table 3, p. 6, row 4
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, Mg–Ni system (26)
PhaseCompoundValueT (K)ClassMP DFT (kJ/mol-atom)OQMD DFT (kJ/mol-atom)SourceLocationQuote
Mg2Ni-66.99 kJ/mol (basis unstated) ± 9.2298.15experimental[2] Jacobs 1998
cites ref. 10
Table 4, p. 7, row 3
report
Mg2Ni-60.29 kJ/mol (basis unstated)298.15experimental[2] Jacobs 1998
cites ref. 9
Table 4, p. 7, row 2
report
Mg2Ni-56.29 kJ/mol (basis unstated) ± 5.23model[2] Jacobs 1998Table 4, p. 7, row 4
report
Mg2Ni-48.46 kJ/mol (basis unstated)298.15experimental[2] Jacobs 1998
cites ref. 12
Table 4, p. 7, row 6
report
Mg2Ni-39.57 kJ/mol (basis unstated) ± 1.26298.15experimental[2] Jacobs 1998
cites ref. 11
Table 4, p. 7, row 5
report
Mg2Ni-36.36 kJ/mol (basis unstated) ± 6.24298.15experimental[2] Jacobs 1998
cites ref. 16
Table 4, p. 7, row 7
report
Mg2Ni-35.555 kJ/mol (basis unstated)model[2] Jacobs 1998Table 4, p. 7, row 1
report
Mg2NiMg2Ni-20.06 kJ/mol-atom298.15experimental-16.707 (mp-aaaaadef)-18.281 (oqmd-1791943)[1] Islam 2005
cites Schmahl 1958
Table 4, p. 7, row 4
report
Mg2NiMg2Ni-19.23 kJ/mol-atom298.15experimental-16.707 (mp-aaaaadef)-18.281 (oqmd-1791943)[1] Islam 2005
cites Smith 1960 doi
Table 4, p. 7, row 6
report
Mg2NiMg2Ni-16.2 kJ/mol-atommodel-16.707 (mp-aaaaadef)-18.281 (oqmd-1791943)[1] Islam 2005Table 4, p. 7, row 2
report
Mg2NiMg2Ni-16.13 kJ/mol-atom298.15experimental-16.707 (mp-aaaaadef)-18.281 (oqmd-1791943)[1] Islam 2005
cites Lukashenko 1966
Table 4, p. 7, row 3
report
Mg2NiMg2Ni-14.2 kJ/mol-atom298.15experimental-16.707 (mp-aaaaadef)-18.281 (oqmd-1791943)[1] Islam 2005
cites Feufel 1995 doi
Table 4, p. 7, row 7
report
Mg2NiMg2Ni-13.59 kJ/mol-atom298.15experimental-16.707 (mp-aaaaadef)-18.281 (oqmd-1791943)[1] Islam 2005
cites King 1964 doi
Table 4, p. 7, row 5
report
MgNi2-77.87 kJ/mol (basis unstated)298.15experimental[2] Jacobs 1998
cites ref. 9
Table 4, p. 7, row 2
report
MgNi2-59.91 kJ/mol (basis unstated)298.15experimental[2] Jacobs 1998
cites ref. 12
Table 4, p. 7, row 6
report
MgNi2-55.68 kJ/mol (basis unstated) ± 6.28298.15experimental[2] Jacobs 1998
cites ref. 10
Table 4, p. 7, row 3
report
MgNi2-55.65 kJ/mol (basis unstated) ± 4.61model[2] Jacobs 1998Table 4, p. 7, row 4
report
MgNi2-55.27 kJ/mol (basis unstated) ± 2.1298.15experimental[2] Jacobs 1998
cites ref. 11
Table 4, p. 7, row 5
report
MgNi2-53.22 kJ/mol (basis unstated) ± 10298.15experimental[2] Jacobs 1998
cites ref. 16
Table 4, p. 7, row 7
report
MgNi2-48.086 kJ/mol (basis unstated)model[2] Jacobs 1998Table 4, p. 7, row 1
report
MgNi2MgNi2-25.92 kJ/mol-atom298.15experimental-21.279 (mp-aaaaadyx)-22.517 (oqmd-17634)[1] Islam 2005
cites Schmahl 1958
Table 4, p. 7, row 4
report
MgNi2MgNi2-21.55 kJ/mol-atommodel-21.279 (mp-aaaaadyx)-22.517 (oqmd-17634)[1] Islam 2005Table 4, p. 7, row 2
report
MgNi2MgNi2-21.47 kJ/mol-atom298.15experimental-21.279 (mp-aaaaadyx)-22.517 (oqmd-17634)[1] Islam 2005
cites Lukashenko 1966
Table 4, p. 7, row 3
report
MgNi2MgNi2-21.073 kJ/mol-atom298.15experimental-21.279 (mp-aaaaadyx)-22.517 (oqmd-17634)[1] Islam 2005
cites Feufel 1995 doi
Table 4, p. 7, row 7
report
MgNi2MgNi2-20.62 kJ/mol-atom298.15experimental-21.279 (mp-aaaaadyx)-22.517 (oqmd-17634)[1] Islam 2005
cites Smith 1960 doi
Table 4, p. 7, row 6
report
MgNi2MgNi2-19.23 kJ/mol-atom298.15experimental-21.279 (mp-aaaaadyx)-22.517 (oqmd-17634)[1] Islam 2005
cites King 1964 doi
Table 4, p. 7, row 5
report

Other properties

Phase transition (6)

Phase transition, Mg–Ni system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase transition1368 K1368other: Liq+MgNi2 (maximum)
L: Ni 0.666667; MgNi2: Ni 0.666667
experimental[2] Jacobs 1998
cites ref. 5
Table 3, p. 6, row 16
report
Phase transition1416 K1416other: Liq+MgNi2 (maximum)
L: Ni 0.666667; MgNi2: Ni 0.666667
experimental[2] Jacobs 1998
cites ref. 8
Table 3, p. 6, row 17
report
Phase transition1420 K1420congruent melting: Liquid -> MgNi2
Liquid: Ni 0.666; MgNi2: Ni 0.666
model[3] (ed.) 1998Table I, p. 235, row 2
report
Phase transition1420 K1420other: Liq+MgNi2 (maximum)
L: Ni 0.666667; MgNi2: Ni 0.666667
experimental[2] Jacobs 1998
cites ref. 3
Table 3, p. 6, row 18
report
Phase transition1420.58 K1420.58other: Liq+MgNi2 (maximum)
L: Ni 0.6686; MgNi2: Ni 0.6686
model[2] Jacobs 1998Table 3, p. 6, row 15
report
Phase transition1420.6 K1420.6other: Liq+MgNi2 (maximum)
L: Ni 0.6665; MgNi2: Ni 0.6665
model[2] Jacobs 1998Table 3, p. 6, row 14
report

Formation (27)

Formation, Mg–Ni system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Entropy of formation
printed: ΔfS(Mg2Ni)
-2.323 J/mol (basis unstated)/KMg2Ni
alloy: Ni 0.333333
model[2] Jacobs 1998Table 4, p. 7, row 1
report
Entropy of formation
printed: ΔfS(Mg2Ni)
-8.97 J/mol (basis unstated)/K ± 5.77Mg2Ni
alloy: Ni 0.333333
model[2] Jacobs 1998Table 4, p. 7, row 4
report
Entropy of formation
printed: ΔSf
-5.4 J/mol-atom/KMg2Ni
alloy: Ni 0.333333
model[1] Islam 2005Table 4, p. 7, row 2
report
Entropy of formation
printed: ΔfS(MgNi2)
-7.504 J/mol (basis unstated)/KMgNi2
alloy: Ni 0.666667
model[2] Jacobs 1998Table 4, p. 7, row 1
report
Entropy of formation
printed: ΔfS(MgNi2)
-5.63 J/mol (basis unstated)/K ± 4.8MgNi2
alloy: Ni 0.666667
model[2] Jacobs 1998Table 4, p. 7, row 4
report
Entropy of formation
printed: ΔSf
-7.11 J/mol-atom/KMgNi2
alloy: Ni 0.666667
model[1] Islam 2005Table 4, p. 7, row 2
report
Entropy of formation
printed: ΔSf
-4.96 J/mol-atom/K298.15Mg2Ni
alloy: Ni 0.333333
experimental[1] Islam 2005
cites Lukashenko 1966
Table 4, p. 7, row 3
report
Entropy of formation
printed: ΔfS(Mg2Ni)
-14.89 J/mol (basis unstated)/K298.15Mg2Ni
alloy: Ni 0.333333
experimental[2] Jacobs 1998
cites ref. 12
Table 4, p. 7, row 6
report
Entropy of formation
printed: ΔSf
-9.2 J/mol-atom/K298.15Mg2Ni
alloy: Ni 0.333333
experimental[1] Islam 2005
cites Schmahl 1958
Table 4, p. 7, row 4
report
Entropy of formation
printed: ΔfS(Mg2Ni)
-27.63 J/mol (basis unstated)/K298.15Mg2Ni
alloy: Ni 0.333333
experimental[2] Jacobs 1998
cites ref. 9
Table 4, p. 7, row 2
report
Entropy of formation
printed: ΔfS(Mg2Ni)
-25.12 J/mol (basis unstated)/K ± 12.14298.15Mg2Ni
alloy: Ni 0.333333
experimental[2] Jacobs 1998
cites ref. 10
Table 4, p. 7, row 3
report
Entropy of formation
printed: ΔSf
-4.32 J/mol-atom/K298.15Mg2Ni
alloy: Ni 0.333333
experimental[1] Islam 2005
cites Smith 1960 doi
Table 4, p. 7, row 6
report
Entropy of formation
printed: ΔSf
-6.65 J/mol-atom/K298.15MgNi2
alloy: Ni 0.666667
experimental[1] Islam 2005
cites Lukashenko 1966
Table 4, p. 7, row 3
report
Entropy of formation
printed: ΔfS(MgNi2)
-11.68 J/mol (basis unstated)/K298.15MgNi2
alloy: Ni 0.666667
experimental[2] Jacobs 1998
cites ref. 12
Table 4, p. 7, row 6
report
Entropy of formation
printed: ΔSf
-10.89 J/mol-atom/K298.15MgNi2
alloy: Ni 0.666667
experimental[1] Islam 2005
cites Schmahl 1958
Table 4, p. 7, row 4
report
Entropy of formation
printed: ΔfS(MgNi2)
-2.5 J/mol (basis unstated)/K298.15MgNi2
alloy: Ni 0.666667
experimental[2] Jacobs 1998
cites ref. 11
Table 4, p. 7, row 5
report
Entropy of formation
printed: ΔfS(MgNi2)
-32.66 J/mol (basis unstated)/K298.15MgNi2
alloy: Ni 0.666667
experimental[2] Jacobs 1998
cites ref. 9
Table 4, p. 7, row 2
report
Entropy of formation
printed: ΔfS(MgNi2)
-2.51 J/mol (basis unstated)/K ± 5.86298.15MgNi2
alloy: Ni 0.666667
experimental[2] Jacobs 1998
cites ref. 10
Table 4, p. 7, row 3
report
Entropy of formation
printed: ΔSf
-2.79 J/mol-atom/K298.15MgNi2
alloy: Ni 0.666667
experimental[1] Islam 2005
cites Smith 1960 doi
Table 4, p. 7, row 6
report
Gibbs energy of formation
printed: ΔGf
-14.73 kJ/mol-atomMg2Ni
alloy: Ni 0.333333
model[1] Islam 2005Table 4, p. 7, row 2
report
Gibbs energy of formation
printed: ΔGf
-19.61 kJ/mol-atomMgNi2
alloy: Ni 0.666667
model[1] Islam 2005Table 4, p. 7, row 2
report
Gibbs energy of formation
printed: ΔGf
-14.78 kJ/mol-atom298.15Mg2Ni
alloy: Ni 0.333333
experimental[1] Islam 2005
cites Lukashenko 1966
Table 4, p. 7, row 3
report
Gibbs energy of formation
printed: ΔGf
-17.54 kJ/mol-atom298.15Mg2Ni
alloy: Ni 0.333333
experimental[1] Islam 2005
cites Schmahl 1958
Table 4, p. 7, row 4
report
Gibbs energy of formation
printed: ΔGf
-18.05 kJ/mol-atom298.15Mg2Ni
alloy: Ni 0.333333
experimental[1] Islam 2005
cites Smith 1960 doi
Table 4, p. 7, row 6
report
Gibbs energy of formation
printed: ΔGf
-19.65 kJ/mol-atom298.15MgNi2
alloy: Ni 0.666667
experimental[1] Islam 2005
cites Lukashenko 1966
Table 4, p. 7, row 3
report
Gibbs energy of formation
printed: ΔGf
-22.95 kJ/mol-atom298.15MgNi2
alloy: Ni 0.666667
experimental[1] Islam 2005
cites Schmahl 1958
Table 4, p. 7, row 4
report
Gibbs energy of formation
printed: ΔGf
-19.86 kJ/mol-atom298.15MgNi2
alloy: Ni 0.666667
experimental[1] Islam 2005
cites Smith 1960 doi
Table 4, p. 7, row 6
report

Crystal structure (10)

Crystal structure, Mg–Ni system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Lattice a4.824 Å298.15MgNi2
alloy: Mg 0.333333, Ni 0.666667
model[1] Islam 2005
cites Villars 1991
Table 1, p. 4, row 5
report
Lattice a4.824 Å298.15MgNi2
alloy: Mg 0.333333, Ni 0.666667
model[1] Islam 2005
cites Villars 1991
Table 1, p. 4, row 2
report
Lattice c15.826 Å298.15MgNi2
alloy: Mg 0.333333, Ni 0.666667
model[1] Islam 2005
cites Villars 1991
Table 1, p. 4, row 5
report
Lattice c15.826 Å298.15MgNi2
alloy: Mg 0.333333, Ni 0.666667
model[1] Islam 2005
cites Villars 1991
Table 1, p. 4, row 2
report
lattice alpha90 not_printed298.15MgNi2
alloy: Mg 0.333333, Ni 0.666667
model[1] Islam 2005
cites Villars 1991
Table 1, p. 4, row 5
report
lattice alpha90 not_printed298.15MgNi2
alloy: Mg 0.333333, Ni 0.666667
model[1] Islam 2005
cites Villars 1991
Table 1, p. 4, row 2
report
lattice beta90 not_printed298.15MgNi2
alloy: Mg 0.333333, Ni 0.666667
model[1] Islam 2005
cites Villars 1991
Table 1, p. 4, row 5
report
lattice beta90 not_printed298.15MgNi2
alloy: Mg 0.333333, Ni 0.666667
model[1] Islam 2005
cites Villars 1991
Table 1, p. 4, row 2
report
lattice gamma120 not_printed298.15MgNi2
alloy: Mg 0.333333, Ni 0.666667
model[1] Islam 2005
cites Villars 1991
Table 1, p. 4, row 5
report
lattice gamma120 not_printed298.15MgNi2
alloy: Mg 0.333333, Ni 0.666667
model[1] Islam 2005
cites Villars 1991
Table 1, p. 4, row 2
report

Sources

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

  1. F. Islam, M. Medraj, The phase equilibria in the Mg–Ni–Ca system, Calphad 29, 289-302 (2005). doi:10.1016/j.calphad.2005.08.006
  2. M.H.G. Jacobs, P.J. Spencer, A critical thermodynamic evaluation of the system MG-NI, Calphad 22, 513-525 (1998). doi:10.1016/s0364-5916(99)00008-5
  3. 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.