Al–Sr system

112 accepted literature values from 3 paper(s) (experimental 43, model 26, DFT 43); 4 calculated phase diagram(s). 17 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 (8) · papers (bibliography) · Markdown

Accepted values by evidence class
Evidence classValues
experimental43
model26
DFT43
Accepted values by property group
Property groupValues
invariant reaction65
phase transition3
formation43
activity / EMF / Gibbs energy1

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
AlSr-03Wan-LB.tdbC. Wang, Z. Jin, Y. Du, J. Alloys Compd., 358, 288-93(2003). doi:10.1016/S0925-8388(03)00046-X2caf2ad6b04dbbc62837bdbe8e88b479240e72ddf83710674d5784217aa8514dviewer · TDB · JSON
AlSr-04Zho-RK.tdbY. Zhong, C. Wolverton, Y.A. Chang, Z.-K. Liu, Calphad, 52, 2739-54(2004). doi:10.1016/j.actamat.2004.02.022967e575d3bcd6d9789a119bc94b4987c2267315e4157d278dcb1b4f165de52e8viewer · TDB · JSON
AlSr-04Zho-ass.tdbY. Zhong, C. Wolverton, Y.A. Chang, Z.-K. Liu, Calphad, 52, 2739-54(2004). doi:10.1016/j.actamat.2004.02.0221ee19ea419966799c5314b1441f2dd73aeffef6915b77d5071be332d0fda62a6viewer · TDB · JSON
AlSr-14Lia.tdbS.-M. Liang, M. Engstler, V. Groten, J. Barrirero, F. Muecklich, A. Buehrig-Polaczek, R. Schmid-Fetzer, J. Alloys Compd., 610, 443-50(2014). doi:10.1016/j.jallcom.2014.05.0181fa45401a85a4430ea2eeeea089f261e20f3c655f4f1649d988ed43f81783b9aviewer · TDB · JSON
Calculated three-phase invariants (model, mole fraction of the second component)
TDB fileT (K)Phases at the invariant
AlSr-03Wan-LB.tdb1201.3AL4SR_D13 (x(Sr) 0.2) + AL2SR (x(Sr) 0.33333) + LIQUID (x(Sr) 0.34877)
AlSr-03Wan-LB.tdb1201.3AL4SR_D13 (x(Sr) 0.2) + AL2SR (x(Sr) 0.33333) + LIQUID (x(Sr) 0.34885)
AlSr-03Wan-LB.tdb1201.3AL4SR_D13 (x(Sr) 0.2) + AL2SR (x(Sr) 0.33333) + LIQUID (x(Sr) 0.34859)
AlSr-03Wan-LB.tdb1050AL4SR_D13 (x(Sr) 0.2) + BCC_A2 (x(Sr) 1) + LIQUID (x(Sr) 1)
AlSr-03Wan-LB.tdb937.63AL2SR (x(Sr) 0.33333) + AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.62297)
AlSr-03Wan-LB.tdb937.63AL2SR (x(Sr) 0.33333) + AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.62271)
AlSr-03Wan-LB.tdb937.63AL2SR (x(Sr) 0.33333) + AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.62303)
AlSr-03Wan-LB.tdb924.67FCC_A1 (x(Sr) 0) + LIQUID (x(Sr) 0.01164) + AL4SR_D13 (x(Sr) 0.2)
AlSr-03Wan-LB.tdb924.67FCC_A1 (x(Sr) 0) + LIQUID (x(Sr) 0.01156) + AL4SR_D13 (x(Sr) 0.2)
AlSr-03Wan-LB.tdb851.91AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.73548) + BCC_A2 (x(Sr) 1)
AlSr-03Wan-LB.tdb851.91AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.73592) + BCC_A2 (x(Sr) 1)
AlSr-03Wan-LB.tdb820AL7SR8 (x(Sr) 0.53333) + FCC_A1 (x(Sr) 1) + BCC_A2 (x(Sr) 1)
AlSr-04Zho-RK.tdb1195.24AL4SR_D13 (x(Sr) 0.2) + LIQUID (x(Sr) 0.33256) + AL2SR (x(Sr) 0.33333)
AlSr-04Zho-RK.tdb1195.24AL4SR_D13 (x(Sr) 0.2) + LIQUID (x(Sr) 0.33273) + AL2SR (x(Sr) 0.33333)
AlSr-04Zho-RK.tdb1195.24AL4SR_D13 (x(Sr) 0.2) + LIQUID (x(Sr) 0.33212) + AL2SR (x(Sr) 0.33333)
AlSr-04Zho-RK.tdb1050AL4SR_D13 (x(Sr) 0.2) + BCC_A2 (x(Sr) 1) + LIQUID (x(Sr) 1)
AlSr-04Zho-RK.tdb941.4AL2SR (x(Sr) 0.33333) + AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.56058)
AlSr-04Zho-RK.tdb941.4AL2SR (x(Sr) 0.33333) + AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.56063)
AlSr-04Zho-RK.tdb941.4AL2SR (x(Sr) 0.33333) + AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.56046)
AlSr-04Zho-RK.tdb924.96FCC_A1 (x(Sr) 0) + LIQUID (x(Sr) 0.01127) + AL4SR_D13 (x(Sr) 0.2)
AlSr-04Zho-RK.tdb924.96FCC_A1 (x(Sr) 0) + LIQUID (x(Sr) 0.01119) + AL4SR_D13 (x(Sr) 0.2)
AlSr-04Zho-RK.tdb864.19AL3SR8 (x(Sr) 0.72727) + LIQUID (x(Sr) 0.78259) + BCC_A2 (x(Sr) 0.99878)
AlSr-04Zho-RK.tdb864.19AL3SR8 (x(Sr) 0.72727) + LIQUID (x(Sr) 0.78278) + BCC_A2 (x(Sr) 0.99878)
AlSr-04Zho-RK.tdb857.44AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.67106) + AL3SR8 (x(Sr) 0.72727)
AlSr-04Zho-RK.tdb857.44AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.67132) + AL3SR8 (x(Sr) 0.72727)
AlSr-04Zho-RK.tdb828.96AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 0.99776) + BCC_A2 (x(Sr) 0.99907)
AlSr-04Zho-RK.tdb828.96AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 0.99777) + BCC_A2 (x(Sr) 0.99908)
AlSr-04Zho-RK.tdb615.46AL7SR8 (x(Sr) 0.53333) + AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 0.99963)
AlSr-04Zho-RK.tdb615.46AL7SR8 (x(Sr) 0.53333) + AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 0.99963)
AlSr-04Zho-RK.tdb615.46AL7SR8 (x(Sr) 0.53333) + AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 0.99963)
AlSr-04Zho-RK.tdb615.46AL7SR8 (x(Sr) 0.53333) + AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 0.99963)
AlSr-04Zho-ass.tdb1196.21AL4SR_D13 (x(Sr) 0.2) + LIQUID (x(Sr) 0.31534) + AL2SR (x(Sr) 0.33333)
AlSr-04Zho-ass.tdb935.68AL2SR (x(Sr) 0.33333) + AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.55499)
AlSr-04Zho-ass.tdb928.83FCC_A1 (x(Sr) 0) + LIQUID (x(Sr) 0.00671) + AL4SR_D13 (x(Sr) 0.2)
AlSr-04Zho-ass.tdb871.2AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.67967) + AL3SR8 (x(Sr) 0.72727)
AlSr-04Zho-ass.tdb860.39AL3SR8 (x(Sr) 0.72727) + LIQUID (x(Sr) 0.80098) + BCC_A2 (x(Sr) 0.99908)
AlSr-04Zho-ass.tdb826.86AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 0.99829) + BCC_A2 (x(Sr) 0.99929)
AlSr-04Zho-ass.tdb826.86AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 0.99829) + BCC_A2 (x(Sr) 0.9993)
AlSr-04Zho-ass.tdb673.79AL7SR8 (x(Sr) 0.53333) + AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 0.99947)
AlSr-04Zho-ass.tdb673.79AL7SR8 (x(Sr) 0.53333) + AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 0.99947)
AlSr-14Lia.tdb1195.99AL4SR_D13 (x(Sr) 0.2) + AL2SR (x(Sr) 0.33333) + LIQUID (x(Sr) 0.35142)
AlSr-14Lia.tdb1195.99AL4SR_D13 (x(Sr) 0.2) + AL2SR (x(Sr) 0.33333) + LIQUID (x(Sr) 0.35148)
AlSr-14Lia.tdb1195.99AL4SR_D13 (x(Sr) 0.2) + AL2SR (x(Sr) 0.33333) + LIQUID (x(Sr) 0.35112)
AlSr-14Lia.tdb940.86AL2SR (x(Sr) 0.33333) + AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.56117)
AlSr-14Lia.tdb940.86AL2SR (x(Sr) 0.33333) + AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.5613)
AlSr-14Lia.tdb940.86AL2SR (x(Sr) 0.33333) + AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.561)
AlSr-14Lia.tdb928.58FCC_A1 (x(Sr) 2.000e-5) + LIQUID (x(Sr) 0.00681) + AL4SR_D13 (x(Sr) 0.2)
AlSr-14Lia.tdb928.58FCC_A1 (x(Sr) 2.000e-5) + LIQUID (x(Sr) 0.00674) + AL4SR_D13 (x(Sr) 0.2)
AlSr-14Lia.tdb863.99AL3SR8 (x(Sr) 0.72727) + LIQUID (x(Sr) 0.78247) + BCC_A2 (x(Sr) 0.99878)
AlSr-14Lia.tdb863.99AL3SR8 (x(Sr) 0.72727) + LIQUID (x(Sr) 0.78265) + BCC_A2 (x(Sr) 0.99878)
AlSr-14Lia.tdb857.22AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.67137) + AL3SR8 (x(Sr) 0.72727)
AlSr-14Lia.tdb857.21AL7SR8 (x(Sr) 0.53333) + LIQUID (x(Sr) 0.6711) + AL3SR8 (x(Sr) 0.72727)
AlSr-14Lia.tdb815.11AL3SR8 (x(Sr) 0.72727) + BCC_A2 (x(Sr) 0.99917) + FCC_A1 (x(Sr) 0.99992)
AlSr-14Lia.tdb815.11AL3SR8 (x(Sr) 0.72727) + BCC_A2 (x(Sr) 0.99918) + FCC_A1 (x(Sr) 0.99992)
AlSr-14Lia.tdb615.07AL7SR8 (x(Sr) 0.53333) + AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 1)
AlSr-14Lia.tdb615.07AL7SR8 (x(Sr) 0.53333) + AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 1)
AlSr-14Lia.tdb615.07AL7SR8 (x(Sr) 0.53333) + AL3SR8 (x(Sr) 0.72727) + FCC_A1 (x(Sr) 1)

Convex hulls: Materials Project DFT hull · OQMD DFT hull · CALPHAD hull AlSr-03Wan-LB · CALPHAD hull AlSr-04Zho-RK · CALPHAD hull AlSr-04Zho-ass

Invariant reactions (literature)

Invariant reactions reported in the literature for the Al–Sr system (65)
T (K)Reaction / phasesCompositions (mole fraction)ClassSourceLocationQuote
1316.15congruent melting: Liquid = SrAl4L: Al 0.8, Sr 0.2 (basis unresolved); SrAl4: Al 0.8, Sr 0.2 (basis unresolved)model[1] Liang 2014
cites Zhong 2004 doi
Table 5, p. 6, row 17
report
1313.15congruent melting: Liquid = SrAl4L: Al 0.8, Sr 0.2; SrAl4: Al 0.8, Sr 0.2experimental[1] Liang 2014
cites Vakhobov 1979
Table 5, p. 6, row 13
report
1313.15congruent melting: Liquid = SrAl4L: Al 0.8, Sr 0.2; SrAl4: Al 0.8, Sr 0.2experimental[1] Liang 2014
cites Conclusion
Table 5, p. 6, row 12
report
1313.15congruent melting: SrAl4->LSrAl4: Al 0.8, Sr 0.2; L: Al 0.8, Sr 0.2experimental[2] Wang 2003Table 1, p. 2, row 2
report
1313.15congruent melting: SrAl4->LSrAl4: Al 0.8, Sr 0.2; L: Sr 0.25model[2] Wang 2003
cites Du 2002
Table 1, p. 2, row 6
report
1313.15congruent melting: SrAl4->LSrAl4: Al 0.8, Sr 0.2; L: Sr 0.25experimental[2] Wang 2003
cites Bruzzone 1975 doi
Table 1, p. 2, row 3
report
1311.15congruent melting: Liquid = SrAl4L: Al 0.8, Sr 0.2 (basis unresolved); SrAl4: Al 0.8, Sr 0.2 (basis unresolved)model[1] Liang 2014Table 5, p. 6, row 18
report
1307.15congruent melting: Liquid = SrAl4L: Al 0.8, Sr 0.2 (basis unresolved); SrAl4: Al 0.8, Sr 0.2 (basis unresolved)model[1] Liang 2014
cites Wang 2003 doi
Table 5, p. 6, row 15
report
1307.15congruent melting: SrAl4->LSrAl4: Al 0.8, Sr 0.2; L: Sr 0.25model[2] Wang 2003Table 1, p. 2, row 7
report
1298.15congruent melting: SrAl4->LSrAl4: Al 0.8, Sr 0.2; L: Sr 0.25experimental[2] Wang 2003
cites Vakhobov 1979
Table 1, p. 2, row 4
report
1298.15congruent melting: Liquid = SrAl4L: Al 0.8, Sr 0.2; SrAl4: Al 0.8, Sr 0.2experimental[1] Liang 2014
cites Closset 1986 doi
Table 5, p. 6, row 14
report
1295.15congruent melting: Liquid = SrAl4L: Al 0.8, Sr 0.2 (basis unresolved); SrAl4: Al 0.8, Sr 0.2 (basis unresolved)model[1] Liang 2014
cites Zhong 2004 doi
Table 5, p. 6, row 16
report
1273.15congruent melting: Liquid = SrAl4L: Al 0.8, Sr 0.2; SrAl4: Al 0.8, Sr 0.2experimental[1] Liang 2014
cites Vakhobov 1975
Table 5, p. 6, row 11
report
1273.15congruent melting: SrAl4->LSrAl4: Al 0.8, Sr 0.2; L: Sr 0.25experimental[2] Wang 2003
cites Burylev 1974
Table 1, p. 2, row 1
report
1227.15eutectic: L⇔(Al)+SrAl4L: Sr 0.0085; SrAl4: Al 0.8, Sr 0.2experimental[2] Wang 2003
cites Sato 1985
Table 1, p. 2, row 34
report
1213.15peritectic: SrAl4+L->SrAl2SrAl4: Al 0.8, Sr 0.2; SrAl2: Al 0.666667, Sr 0.333333experimental[2] Wang 2003
cites Vakhobov 1979
Table 1, p. 2, row 9
report
1213.15peritectic: Liquid + SrAl4 = SrAl2SrAl4: Al 0.8, Sr 0.2; SrAl2: Al 0.666667, Sr 0.333333experimental[1] Liang 2014
cites Vakhobov 1979
Table 5, p. 6, row 20
report
1213peritecticexperimental[3] Zhong 2004
cites Vakhobov 1979
p. 3
report
Particularly, their results agree well with the phase diagram drawn from the results of Bruzzone and Merlo [7]: the eutectic reaction on the Sr side was shown at about 77 at.% Sr and 833 K, the melting point of Al4 Sr coincides with the value of Bruzzone and Merlo [7]; and the peritectic reactions of formation of Al2 Sr and ÔAl2 Sr3 Õ were given as occurring at 1213 and 951 K, respectively.
1209.15peritectic: SrAl4+L->SrAl2SrAl4: Al 0.8, Sr 0.2; SrAl2: Al 0.666667, Sr 0.333333experimental[2] Wang 2003
cites Bruzzone 1975 doi
Table 1, p. 2, row 8
report
1209.15peritectic: Liquid + SrAl4 = SrAl2SrAl4: Al 0.8, Sr 0.2; SrAl2: Al 0.666667, Sr 0.333333experimental[1] Liang 2014
cites Conclusion
Table 5, p. 6, row 19
report
1209.15peritectic: SrAl4+L->SrAl2SrAl4: Al 0.8, Sr 0.2; L: Sr 0.34; SrAl2: Al 0.666667, Sr 0.333333model[2] Wang 2003
cites Du 2002
Table 1, p. 2, row 11
report
1201.15peritectic: SrAl4+L->SrAl2SrAl4: Al 0.8, Sr 0.2; L: Sr 0.349; SrAl2: Al 0.666667, Sr 0.333333model[2] Wang 2003Table 1, p. 2, row 12
report
1201.15peritectic: Liquid + SrAl4 = SrAl2SrAl4: Al 0.8, Sr 0.2 (basis unresolved); SrAl2: Al 0.666667, Sr 0.333333 (basis unresolved)model[1] Liang 2014
cites Wang 2003 doi
Table 5, p. 6, row 22
report
1196.15peritectic: Liquid + SrAl4 = SrAl2SrAl4: Al 0.8, Sr 0.2 (basis unresolved); SrAl2: Al 0.666667, Sr 0.333333 (basis unresolved)model[1] Liang 2014Table 5, p. 6, row 25
report
1195.15peritectic: Liquid + SrAl4 = SrAl2SrAl4: Al 0.8, Sr 0.2 (basis unresolved); SrAl2: Al 0.666667, Sr 0.333333 (basis unresolved)model[1] Liang 2014
cites Zhong 2004 doi
Table 5, p. 6, row 23
report
1194.15peritectic: Liquid + SrAl4 = SrAl2SrAl4: Al 0.8, Sr 0.2 (basis unresolved); SrAl2: Al 0.666667, Sr 0.333333 (basis unresolved)model[1] Liang 2014
cites Zhong 2004 doi
Table 5, p. 6, row 24
report
1193.15peritectic: SrAl4+L->SrAl2SrAl4: Al 0.8, Sr 0.2; L: Sr 0.344; SrAl2: Al 0.666667, Sr 0.333333experimental[2] Wang 2003
cites Closset 1986 doi
Table 1, p. 2, row 10
report
1193.15peritectic: Liquid + SrAl4 = SrAl2SrAl4: Al 0.8, Sr 0.2; SrAl2: Al 0.666667, Sr 0.333333experimental[1] Liang 2014
cites Closset 1986 doi
Table 5, p. 6, row 21
report
1193peritecticexperimental[3] Zhong 2004p. 3
report
The melting point of the Al4 Sr compound was given as 1298 K, the peritectic reactions of the Al2 Sr and ÔAlSrÕ (instead of the ÔAl2 Sr3 Õ in [7]) compounds at 1193 and 937 K, respectively.
951.15peritectic: SrAl2+L->Sr8Al7SrAl2: Al 0.666667, Sr 0.333333; Sr8Al7: Al 0.466667, Sr 0.533333experimental[2] Wang 2003
cites Vakhobov 1979
Table 1, p. 2, row 21
report
951.15peritectic: Liquid + SrAl2 = Sr8Al7SrAl2: Al 0.666667, Sr 0.333333; Sr8Al7: Al 0.466667, Sr 0.533333experimental[1] Liang 2014
cites Vakhobov 1979
Table 5, p. 6, row 27
report
951peritecticexperimental[3] Zhong 2004
cites Vakhobov 1979
p. 3
report
Particularly, their results agree well with the phase diagram drawn from the results of Bruzzone and Merlo [7]: the eutectic reaction on the Sr side was shown at about 77 at.% Sr and 833 K, the melting point of Al4 Sr coincides with the value of Bruzzone and Merlo [7]; and the peritectic reactions of formation of Al2 Sr and ÔAl2 Sr3 Õ were given as occurring at 1213 and 951 K, respectively.
941.15peritectic: Liquid + SrAl2 = Sr8Al7SrAl2: Al 0.666667, Sr 0.333333 (basis unresolved); Sr8Al7: Al 0.466667, Sr 0.533333 (basis unresolved)model[1] Liang 2014Table 5, p. 6, row 32
report
941.15peritectic: Liquid + SrAl2 = Sr8Al7SrAl2: Al 0.666667, Sr 0.333333 (basis unresolved); Sr8Al7: Al 0.466667, Sr 0.533333 (basis unresolved)model[1] Liang 2014
cites Zhong 2004 doi
Table 5, p. 6, row 30
report
939.15peritectic: Liquid + SrAl2 = Sr8Al7SrAl2: Al 0.666667, Sr 0.333333; Sr8Al7: Al 0.466667, Sr 0.533333experimental[1] Liang 2014
cites Conclusion
Table 5, p. 6, row 26
report
939.15peritectic: SrAl2+L->Sr8Al7SrAl2: Al 0.666667, Sr 0.333333; L: Sr 0.72; Sr8Al7: Al 0.466667, Sr 0.533333model[2] Wang 2003
cites Du 2002
Table 1, p. 2, row 23
report
939.15peritectic: SrAl2+L->Sr8Al7SrAl2: Al 0.666667, Sr 0.333333; L: Sr 0.72; Sr8Al7: Al 0.466667, Sr 0.533333experimental[2] Wang 2003
cites Bruzzone 1975 doi
Table 1, p. 2, row 20
report
938.15peritectic: SrAl2+L->Sr8Al7SrAl2: Al 0.666667, Sr 0.333333; L: Sr 0.623; Sr8Al7: Al 0.466667, Sr 0.533333model[2] Wang 2003Table 1, p. 2, row 24
report
937.15peritectic: Liquid + SrAl2 = Sr8Al7SrAl2: Al 0.666667, Sr 0.333333 (basis unresolved); Sr8Al7: Al 0.466667, Sr 0.533333 (basis unresolved)model[1] Liang 2014
cites Wang 2003 doi
Table 5, p. 6, row 29
report
937.15peritectic: Liquid + SrAl2 = Sr8Al7SrAl2: Al 0.666667, Sr 0.333333; Sr8Al7: Al 0.466667, Sr 0.533333experimental[1] Liang 2014
cites Closset 1986 doi
Table 5, p. 6, row 28
report
937.15peritectic: SrAl2+L->Sr8Al7SrAl2: Al 0.666667, Sr 0.333333; L: Sr 0.584; Sr8Al7: Al 0.466667, Sr 0.533333experimental[2] Wang 2003
cites Closset 1986 doi
Table 1, p. 2, row 22
report
937peritecticexperimental[3] Zhong 2004p. 3
report
The melting point of the Al4 Sr compound was given as 1298 K, the peritectic reactions of the Al2 Sr and ÔAlSrÕ (instead of the ÔAl2 Sr3 Õ in [7]) compounds at 1193 and 937 K, respectively.
936.15peritectic: Liquid + SrAl2 = Sr8Al7SrAl2: Al 0.666667, Sr 0.333333 (basis unresolved); Sr8Al7: Al 0.466667, Sr 0.533333 (basis unresolved)model[1] Liang 2014
cites Zhong 2004 doi
Table 5, p. 6, row 31
report
928.75eutecticexperimental[1] Liang 2014p. 3
report
Preference is given to the data at slow heating rate and the value of 655.6 °C is determined for the (Al)-SrAl4 eutectic temperature.
928.75eutectic: Liquid = (Al) + SrAl4SrAl4: Al 0.8, Sr 0.2experimental[1] Liang 2014Table 5, p. 6, row 9
report
928.55eutectic: Liquid = (Al) + SrAl4SrAl4: Al 0.8, Sr 0.2 (basis unresolved)model[1] Liang 2014Table 5, p. 6, row 10
report
928.05eutectic: Liquid = (Al) + SrAl4SrAl4: Al 0.8, Sr 0.2 (basis unresolved)model[1] Liang 2014
cites Zhong 2004 doi
Table 5, p. 6, row 8
report
927.15eutectic: L->(Al)+SrAl4L: Sr 0.01; SrAl4: Al 0.8, Sr 0.2model[2] Wang 2003
cites Du 2002
Table 1, p. 2, row 18
report
927.15eutectic: Liquid = (Al) + SrAl4SrAl4: Al 0.8, Sr 0.2 (basis unresolved)experimental[1] Liang 2014
cites Sato 1985
Table 5, p. 6, row 4
report
927.15eutectic: Liquid = (Al) + SrAl4SrAl4: Al 0.8, Sr 0.2 (basis unresolved)experimental[1] Liang 2014
cites Closset 1986 doi
Table 5, p. 6, row 5
report
926.15eutectic: Liquid = (Al) + SrAl4SrAl4: Al 0.8, Sr 0.2 (basis unresolved)experimental[1] Liang 2014
cites Hanna 1983
Table 5, p. 6, row 3
report
926.15eutectic: L->(Al)+SrAl4L: Sr 0.013; SrAl4: Al 0.8, Sr 0.2experimental[2] Wang 2003
cites Hanna 1983
Table 1, p. 2, row 15
report
925.15eutectic: L->(Al)+SrAl4L: Sr 0.0116; SrAl4: Al 0.8, Sr 0.2model[2] Wang 2003Table 1, p. 2, row 19
report
925.15eutectic: Liquid = (Al) + SrAl4SrAl4: Al 0.8, Sr 0.2 (basis unresolved)model[1] Liang 2014
cites Wang 2003 doi
Table 5, p. 6, row 6
report
925.05eutectic: Liquid = (Al) + SrAl4SrAl4: Al 0.8, Sr 0.2 (basis unresolved)model[1] Liang 2014
cites Zhong 2004 doi
Table 5, p. 6, row 7
report
908.15eutectic: L->(Al)+SrAl4L: Sr 0.032; SrAl4: Al 0.8, Sr 0.2experimental[2] Wang 2003
cites Vakhobov 1979
Table 1, p. 2, row 14
report
908.15eutectic: Liquid = (Al) + SrAl4SrAl4: Al 0.8, Sr 0.2 (basis unresolved)experimental[1] Liang 2014
cites Vakhobov 1979
Table 5, p. 6, row 2
report
903.15eutectic: Liquid = (Al) + SrAl4SrAl4: Al 0.8, Sr 0.2 (basis unresolved)experimental[1] Liang 2014
cites Vakhobov 1975
Table 5, p. 6, row 1
report
903.15eutectic: L->(Al)+SrAl4L: Sr 0.032; SrAl4: Al 0.8, Sr 0.2experimental[2] Wang 2003
cites Burylev 1974
Table 1, p. 2, row 13
report
863.15eutectic: L->Sr8Al7+(βSr)L: Sr 0.8175; Sr8Al7: Al 0.466667, Sr 0.533333experimental[2] Wang 2003
cites Bruzzone 1975 doi
Table 1, p. 2, row 26
report
863.15eutectic: L->Sr8Al7+(βSr)L: Sr 0.818; Sr8Al7: Al 0.466667, Sr 0.533333model[2] Wang 2003
cites Du 2002
Table 1, p. 2, row 29
report
853.15eutectic: L->Sr8Al7+(βSr)L: Sr 0.735; Sr8Al7: Al 0.466667, Sr 0.533333experimental[2] Wang 2003
cites Closset 1986 doi
Table 1, p. 2, row 28
report
853.15eutectic: L->Sr8Al7+(βSr)L: Sr 0.77; Sr8Al7: Al 0.466667, Sr 0.533333experimental[2] Wang 2003
cites Vakhobov 1979
Table 1, p. 2, row 27
report
852.15eutectic: L->Sr8Al7+(βSr)L: Sr 0.736; Sr8Al7: Al 0.466667, Sr 0.533333model[2] Wang 2003Table 1, p. 2, row 30
report
833.15eutectic: L->Sr8Al7+(βSr)L: Sr 0.7; Sr8Al7: Al 0.466667, Sr 0.533333experimental[2] Wang 2003
cites Burylev 1974
Table 1, p. 2, row 25
report

Formation enthalpies

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

Enthalpies of formation, Al–Sr system (43)
PhaseCompoundValueT (K)ClassMP DFT (kJ/mol-atom)OQMD DFT (kJ/mol-atom)SourceLocationQuote
"SQS-16"-12.3 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 30
report
"SQS-16"-11.6 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 3
report
Al10V-type8.4 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 24
report
Al13Ba7-type-27.8 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 37
report
Al13Ba7-type-27.3 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 38
report
Al14Ca13-type-22.4 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 19
report
Al2Sr C14-28.2 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 7
report
Al2Sr C15-30.3 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 36
report
Al2Sr C15-27.2 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 17
report
Al2Sr C160.5 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 11
report
Al2Sr C32-23 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 9
report
Al2Sr C36-29.8 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 8
report
Al2Sr CaF2-type55.4 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 14
report
Al2Sr CaIn2-type-26 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 10
report
Al2Sr CeCu2-type-29.7 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 31
report
Al2Sr CeCu2-type-29 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 34
report
Al2Sr CeCu2-type-28.8 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 35
report
Al2Sr CeCu2-type-27.9 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 33
report
Al2Sr CeCu2-type-27.4 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 32
report
Al2Sr MoPt2-type-8.2 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 13
report
Al3Sr L12-5.5 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 4
report
Al3Sr “SQS-16”-12.3 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 30
report
Al3Sr “SQS-16”-11.6 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 3
report
Al3Sr8 Ca8In3-type-10.6 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 46
report
Al3Sr8 Ca8In3-type-10.1 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 23
report
Al4Ba-type-26.2 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 29
report
Al4Ba-type-25.6 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 28
report
Al4Ba-type-24.2 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 25
report
Al4Ba-type-23.7 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 26
report
Al4Ba-type-22.8 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 27
report
Al5Ba3-type-27.5 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 41
report
Al5Ba3-type-27.2 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 17
report
Al5Ba4-type-26.7 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 42
report
Al7Sr8-21.9 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 44
report
Al7Sr8-21.4 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 45
report
Al7Sr8-18.9 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 43
report
Al9Sr5-29.4 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 39
report
Al9Sr5-27.7 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 40
report
AlSr B2-12.7 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 21
report
AlSr Bf-17.3 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 20
report
Ni3Sn-type-18.4 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 2
report
Si2Sr-type-9 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 12
report
‘‘SQS-16’’-11.6 kJ/mol-atom0DFT[3] Zhong 2004Table 3, p. 6, row 3
report

Other properties

Phase transition (3)

Phase transition, Al–Sr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase transition928.75 K928.75eutectic: (Al)-SrAl4 eutectic
alloy: Al 0, Sr 1
experimental[1] Liang 2014Table 2, p. 4, row 6
report
Phase transition929.05 K929.05eutectic: (Al)-SrAl4 eutectic
alloy: Al 0, Sr 1
experimental[1] Liang 2014Table 2, p. 4, row 2
report
Phase transition1298 K1298Al4Srexperimental[3] Zhong 2004p. 3
report
The melting point of the Al4 Sr compound was given as 1298 K, the peritectic reactions of the Al2 Sr and ÔAlSrÕ (instead of the ÔAl2 Sr3 Õ in [7]) compounds at 1193 and 937 K, respectively.

Activity / EMF / Gibbs energy (1)

Activity / EMF / Gibbs energy, Al–Sr system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Activity
printed: a(Sr)
0.002 unspecified1300experimental[3] Zhong 2004
cites Vakhobov 1974
p. 3
report
The values of the activities of Sr at 1300 K were given as 0.002 at 20 at.% Sr and 0.03 at 33.3 or 50 at.% Sr separately by Vakhobov et al. [6] and Burylev et al. [5].

Sources

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

  1. Song-Mao Liang, Michael Engstler, Veronika Groten, Jenifer Barrirero, Frank Mücklich, Andreas Bührig-Polaczek et al., Key experiments and thermodynamic revision of the binary Al–Sr system, Journal of Alloys and Compounds 610, 443-450 (2014). doi:10.1016/j.jallcom.2014.05.018
  2. Chong Wang, Zhanpeng Jin, Yong Du, Thermodynamic modeling of the Al–Sr system, Journal of Alloys and Compounds 358, 288-293 (2003). doi:10.1016/s0925-8388(03)00046-x
  3. Yu Zhong, C. Wolverton, Y. Austin Chang, Zi-Kui Liu, A combined CALPHAD/first-principles remodeling of the thermodynamics of Al–Sr: unsuspected ground state energies by “rounding up the (un)usual suspects”, Acta Materialia 52, 2739-2754 (2004). doi:10.1016/j.actamat.2004.02.022