Cr–Ti system

209 accepted literature values from 3 paper(s) (experimental 76, model 50, DFT 60, unspecified 23); 8 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 (10) · papers (bibliography) · Markdown

Accepted values by evidence class
Evidence classValues
experimental76
model50
DFT60
unspecified23
Accepted values by property group
Property groupValues
invariant reaction83
phase transition11
phase equilibrium15
formation5
crystal structure95

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
CrTi-00Zhu.tdbW. Zhuang, J. Shen, Y. Liu, L. Ling, S. Shang, Y. Du, J.C. Schuster, Z. Metallkd., 91, 121-27(2000). doi:10.1515/ijmr-2000-9102038e0045194fc6bbe46467f497a97219d2370b6b6259a4d3c259c7708021c58c51viewer · TDB · JSON
CrTi-02Gho.tdbG. Ghosh, J. Phase Equilib., 23, 310-28(2002). 2020.08.30: Modified for use with GES6. doi:10.1361/105497102770331569cfa98d3054ed1a832e6d2fb8a92a53beb3ee256d16e5160e2f0bf8fb5bcb21caviewer · TDB · JSON
CrTi-10Pav-3SL.tdbJ. Pavlu, J. Vrestal, M. Sob, Calphad, 34, 215-21(2010). 2020.08.30: Modified for use with GES6. doi:10.1016/j.calphad.2010.03.0037566666f3d21bb888dd64610d994e92c136b0ef48c2918e618126fc9e2773326viewer · TDB · JSON
CrTi-10Pav.tdbJ. Pavlu, J. Vrestal, M. Sob, Calphad, 34, 215-21(2010). 2020.08.30: Modified for use with GES6. doi:10.1016/j.calphad.2010.03.00372d079567c30caf68c7b34f389dcb36937fd2ae8e7a566ba02fd71d62c81882fviewer · TDB · JSON
CrTi-22Sun.tdbH. Sun, Y. Zhang, Q. Pan, Y. Liu, W. Zheng, X.-G. Lu, Calphad, 79, 102505(2022). doi:10.1016/j.calphad.2022.102505636c20714b97be053a56dd4d7f3abc5c5f089370df87c1f501f3e90a33f3ef2dviewer · TDB · JSON
CrTi-24Flo.tdbA. Flores, S. Chatain, P. Fossati, F. Stein, J.-M. Joubert, J. Phase Equilib. Diffus., 45, 417-32(2024). doi:10.1007/s11669-024-01090-2aade304e745bf1bd3a0cb74c9160d4bfb32d0b9ef9aa8c48cc27270509320496viewer · TDB · JSON
CrTi-98Sau-LB.tdbN. Saunders, COST 507, Final report round 2, 1998.ba7af58faf26ef721f53305e67145b417da24ac9d177eae2ed11a00e7834eb69viewer · TDB · JSON
CrTi-99Lee.tdbJ.Y. Lee, J.H. Kim, S.I. Park, H.M. Lee, J. Alloys Compd., 291, 229-38(1999). doi:10.1016/S0925-8388(99)00144-96210a5bfed1fb282c7d370785a600e804d81f3612681c87e45248feda3f2fd02viewer · TDB · JSON
Calculated three-phase invariants (model, mole fraction of the second component)
TDB fileT (K)Phases at the invariant
CrTi-00Zhu.tdb1544.03C14_LAVES (x(Ti) 0.36116) + C36_LAVES (x(Ti) 0.36117) + BCC_A2 (x(Ti) 0.56023)
CrTi-00Zhu.tdb1543.61BCC_A2 (x(Ti) 0.16541) + C36_LAVES (x(Ti) 0.34426) + C14_LAVES (x(Ti) 0.34426)
CrTi-00Zhu.tdb1495.83C36_LAVES (x(Ti) 0.36171) + C15_LAVES (x(Ti) 0.37253) + BCC_A2 (x(Ti) 0.60765)
CrTi-00Zhu.tdb1083.79BCC_A2 (x(Ti) 0.02106) + C36_LAVES (x(Ti) 0.33424) + C15_LAVES (x(Ti) 0.33502)
CrTi-00Zhu.tdb939.59C15_LAVES (x(Ti) 0.36723) + BCC_A2 (x(Ti) 0.88962) + HCP_A3 (x(Ti) 0.99379)
CrTi-02Gho.tdb1545.32BCC_A2 (x(Ti) 0.20199) + C36_LAVES (x(Ti) 0.34375) + C14_LAVES (x(Ti) 0.34375)
CrTi-02Gho.tdb1545.32C36_LAVES (x(Ti) 0.36243) + C14_LAVES (x(Ti) 0.36243) + BCC_A2 (x(Ti) 0.54036)
CrTi-02Gho.tdb1492.95C36_LAVES (x(Ti) 0.36238) + C15_LAVES (x(Ti) 0.37542) + BCC_A2 (x(Ti) 0.5901)
CrTi-02Gho.tdb1073.84BCC_A2 (x(Ti) 0.04283) + C36_LAVES (x(Ti) 0.33381) + C15_LAVES (x(Ti) 0.33432)
CrTi-02Gho.tdb938.49C15_LAVES (x(Ti) 0.36914) + BCC_A2 (x(Ti) 0.87766) + HCP_A3 (x(Ti) 0.99378)
CrTi-10Pav-3SL.tdb1547.48BCC_A2 (x(Ti) 0.16606) + C36_LAVES (x(Ti) 0.34569) + C14_LAVES (x(Ti) 0.34578)
CrTi-10Pav-3SL.tdb1544.8C36_LAVES (x(Ti) 0.36228) + C14_LAVES (x(Ti) 0.36262) + BCC_A2 (x(Ti) 0.566)
CrTi-10Pav-3SL.tdb1492.02C36_LAVES (x(Ti) 0.36321) + C15_LAVES (x(Ti) 0.38024) + BCC_A2 (x(Ti) 0.62333)
CrTi-10Pav-3SL.tdb1087.12BCC_A2 (x(Ti) 0.01614) + C36_LAVES (x(Ti) 0.33422) + C15_LAVES (x(Ti) 0.33555)
CrTi-10Pav-3SL.tdb965.05C15_LAVES (x(Ti) 0.37158) + BCC_A2 (x(Ti) 0.9054) + HCP_A3 (x(Ti) 0.99428)
CrTi-10Pav.tdb1559.08C14_LAVES (x(Ti) 0.36776) + C36_LAVES (x(Ti) 0.36806) + BCC_A2 (x(Ti) 0.55739)
CrTi-10Pav.tdb1556.84BCC_A2 (x(Ti) 0.1724) + C36_LAVES (x(Ti) 0.34768) + C14_LAVES (x(Ti) 0.34771)
CrTi-10Pav.tdb1497.55C36_LAVES (x(Ti) 0.36967) + C15_LAVES (x(Ti) 0.39137) + BCC_A2 (x(Ti) 0.62491)
CrTi-10Pav.tdb1206.37C36_LAVES (x(Ti) 0.34387) + CR2TI_C15 (x(Ti) 0.35226) + C15_LAVES (x(Ti) 0.35352)
CrTi-10Pav.tdb1079.88BCC_A2 (x(Ti) 0.01545) + C36_LAVES (x(Ti) 0.3342) + CR2TI_C15 (x(Ti) 0.33544)
CrTi-10Pav.tdb965.87C15_LAVES (x(Ti) 0.38213) + BCC_A2 (x(Ti) 0.90589) + HCP_A3 (x(Ti) 0.99429)
CrTi-10Pav.tdb714.98CR2TI_C15 (x(Ti) 0.35199) + C15_LAVES (x(Ti) 0.35405) + HCP_A3 (x(Ti) 0.99922)
CrTi-22Sun.tdb1551.56BCC_A2 (x(Ti) 0.1692) + C14_LAVES (x(Ti) 0.33967) + C36_LAVES (x(Ti) 0.34188)
CrTi-22Sun.tdb1548.35C36_LAVES (x(Ti) 0.35907) + C14_LAVES (x(Ti) 0.36171) + BCC_A2 (x(Ti) 0.55593)
CrTi-22Sun.tdb1488.92C36_LAVES (x(Ti) 0.36058) + C15_LAVES (x(Ti) 0.37531) + BCC_A2 (x(Ti) 0.6241)
CrTi-22Sun.tdb1083.66BCC_A2 (x(Ti) 0.01425) + C36_LAVES (x(Ti) 0.33369) + C15_LAVES (x(Ti) 0.33566)
CrTi-22Sun.tdb970.77C15_LAVES (x(Ti) 0.38264) + BCC_A2 (x(Ti) 0.90947) + HCP_A3 (x(Ti) 0.99455)
CrTi-24Flo.tdb1545.15BCC_A2 (x(Ti) 0.18384) + C14_LAVES (x(Ti) 0.33736) + C36_LAVES (x(Ti) 0.33758)
CrTi-24Flo.tdb1533.14C36_LAVES (x(Ti) 0.36043) + C14_LAVES (x(Ti) 0.36185) + BCC_A2 (x(Ti) 0.54109)
CrTi-24Flo.tdb1448.02BCC_A2 (x(Ti) 0.12309) + C15_LAVES (x(Ti) 0.33254) + C36_LAVES (x(Ti) 0.33419)
CrTi-24Flo.tdb1417.68C36_LAVES (x(Ti) 0.36258) + C15_LAVES (x(Ti) 0.36277) + BCC_A2 (x(Ti) 0.63259)
CrTi-24Flo.tdb936.82C15_LAVES (x(Ti) 0.35322) + BCC_A2 (x(Ti) 0.88479) + HCP_A3 (x(Ti) 0.9955)
CrTi-98Sau-LB.tdb1498.66C14_LAVES (x(Ti) 0.35252) + C15_LAVES (x(Ti) 0.36125) + BCC_A2 (x(Ti) 0.58994)
CrTi-98Sau-LB.tdb1099.11BCC_A2 (x(Ti) 0.0281) + C14_LAVES (x(Ti) 0.33606) + C15_LAVES (x(Ti) 0.34149)
CrTi-98Sau-LB.tdb959.31C15_LAVES (x(Ti) 0.36541) + BCC_A2 (x(Ti) 0.88398) + HCP_A3 (x(Ti) 0.99399)
CrTi-99Lee.tdb1543.21BCC_A2 (x(Ti) 0.19875) + C36_LAVES (x(Ti) 0.34227) + C14_LAVES (x(Ti) 0.34227)
CrTi-99Lee.tdb1543.21C36_LAVES (x(Ti) 0.35692) + C14_LAVES (x(Ti) 0.35692) + BCC_A2 (x(Ti) 0.52475)
CrTi-99Lee.tdb1489.12C36_LAVES (x(Ti) 0.35722) + C15_LAVES (x(Ti) 0.36013) + BCC_A2 (x(Ti) 0.5727)
CrTi-99Lee.tdb1040.69BCC_A2 (x(Ti) 0.03344) + C36_LAVES (x(Ti) 0.33385) + C15_LAVES (x(Ti) 0.33468)
CrTi-99Lee.tdb930C15_LAVES (x(Ti) 0.36568) + BCC_A2 (x(Ti) 0.87061) + HCP_A3 (x(Ti) 0.98723)

Convex hulls: Materials Project DFT hull · OQMD DFT hull · CALPHAD hull CrTi-00Zhu · CALPHAD hull CrTi-02Gho · CALPHAD hull CrTi-10Pav-3SL · CALPHAD hull CrTi-22Sun · CALPHAD hull CrTi-98Sau-LB · CALPHAD hull CrTi-99Lee

Invariant reactions (literature)

Invariant reactions reported in the literature for the Cr–Ti system (83)
T (K)Reaction / phasesCompositions (mole fraction)ClassSourceLocationQuote
1688.15congruent melting: Liquid -> bccexperimental[1] Flores 2024
cites Ohsaka 1992 doi
Table 4, p. 10, row 6
report
1685.15congruent melting: Liquid -> bccexperimental[1] Flores 2024
cites Rudy 1969
Table 4, p. 10, row 5
report
1685L -> β(Cr,Ti)L: Ti 0.5645; β(Cr,Ti): Cr 0.5, Ti 0.5model[2] Ghosh 2002Table 3, p. 8, row 4
report
1683L -> β(Cr,Ti)L: Ti 0.56; β(Cr,Ti): Cr 0.5, Ti 0.5model[2] Ghosh 2002
cites Zhuang 2002
Table 3, p. 8, row 3
report
1683L -> β(Cr,Ti)L: Ti 0.56; β(Cr,Ti): Cr 0.5, Ti 0.5model[2] Ghosh 2002
cites Murray 1987
Table 3, p. 8, row 1
report
1677L -> β(Cr,Ti)L: Ti 0.573; β(Cr,Ti): Cr 0.5, Ti 0.5model[2] Ghosh 2002
cites Saunders 1994
Table 3, p. 8, row 2
report
1673.15congruent melting: Liquid -> bccexperimental[1] Flores 2024
cites Kornilov 1957
Table 4, p. 10, row 4
report
1673.15congruent melting: Liquid -> bccexperimental[1] Flores 2024
cites Cuff 1952
Table 4, p. 10, row 3
report
1673.15congruent melting: Liquid -> bccexperimental[1] Flores 2024
cites McQuillan 1951
Table 4, p. 10, row 1
report
1653.15congruent melting: Liquid -> bccexperimental[1] Flores 2024
cites R 2024
Table 4, p. 10, row 2
report
1648.15polymorphic: bcc -> C14experimental[1] Flores 2024
cites Baumann 2012
Table 4, p. 10, row 12
report
1645polymorphic: (βTi) -> γ-Cr2Ti(βTi): Ti 0.333; γ-Cr2Ti: Cr 0.666667, Ti 0.333333model[2] Ghosh 2002
cites Saunders 1994
Table 3, p. 8, row 6
report
1643polymorphic: (βTi) -> γ-Cr2Ti(βTi): Ti 0.34; γ-Cr2Ti: Cr 0.666667, Ti 0.333333model[2] Ghosh 2002
cites Murray 1987
Table 3, p. 8, row 5
report
1643polymorphic: (βTi) -> γ-Cr2Ti(βTi): Ti 0.3578; γ-Cr2Ti: Cr 0.666667, Ti 0.333333model[2] Ghosh 2002Table 3, p. 8, row 8
report
1638.15polymorphic: bcc -> C14experimental[1] Flores 2024
cites Farrar 1963
Table 4, p. 10, row 10
report
1633.15polymorphic: bcc -> C14experimental[1] Flores 2024
cites Svechnikov 1970
Table 4, p. 10, row 11
report
1633.15polymorphic: bcc -> C14experimental[1] Flores 2024
cites McQuillan 1951
Table 4, p. 10, row 7
report
1632polymorphic: (βTi) -> γ-Cr2Ti(βTi): Ti 0.354; γ-Cr2Ti: Cr 0.666667, Ti 0.333333model[2] Ghosh 2002
cites Zhuang 2002
Table 3, p. 8, row 7
report
1623.15polymorphic: bcc -> C14experimental[1] Flores 2024
cites Cuff 1952
Table 4, p. 10, row 9
report
1623.15polymorphic: bcc -> C14experimental[1] Flores 2024
cites R 2024
Table 4, p. 10, row 8
report
1555.15C14 -> bcc + C36 (Ti-rich)model[1] Flores 2024
cites Pavlu 2010 doi
Table 6, p. 13, row 16
report
1553.15C14 -> bcc + C36 (Cr-rich)model[1] Flores 2024
cites Pavlu 2010 doi
Table 6, p. 13, row 11
report
1551.15C14 -> bcc + C36 (Cr-rich)model[1] Flores 2024
cites Sun 2022 doi
Table 6, p. 13, row 13
report
1550.15C14 -> bcc + C36 (Cr-rich)*experimental[1] Flores 2024
cites Baumann 2010 doi
Table 4, p. 10, row 15
report
1548.15C14 -> bcc + C36 (Ti-rich)model[1] Flores 2024
cites Sun 2022 doi
Table 6, p. 13, row 18
report
1545.65C14 -> bcc + C36 (Ti-rich)*experimental[1] Flores 2024
cites Minayeva 1971
Table 4, p. 10, row 18
report
1545.65C14 -> bcc + C36 (Cr-rich)*experimental[1] Flores 2024
cites Minayeva 1971
Table 4, p. 10, row 14
report
1545.15C14 -> bcc + C36 (Cr-rich)experimental[1] Flores 2024Table 6, p. 13, row 14
report
1545.15C14 -> bcc + C36 (Cr-rich)unspecified[1] Flores 2024Table 6, p. 13, row 15
report
1545.15C14 -> bcc + C36 (Cr-rich)*experimental[1] Flores 2024Table 4, p. 10, row 16
report
1544(βTi) + γ-Cr2Ti -> β-Cr2Ti(βTi): Ti 0.56; γ-Cr2Ti: Ti 0.3611model[2] Ghosh 2002
cites Zhuang 2002
Table 3, p. 8, row 18
report
1543.15C14 -> bcc + C36 (Ti-rich)model[1] Flores 2024
cites Cupid 2011 doi
Table 6, p. 13, row 17
report
1543(βTi) + γ-Cr2Ti -> β-Cr2Ti(βTi): Ti 0.5901; γ-Cr2Ti: Ti 0.3624model[2] Ghosh 2002Table 3, p. 8, row 19
report
1543(βTi) + γ-Cr2Ti -> β-Cr2Timodel[2] Ghosh 2002
cites Murray 1987
Table 3, p. 8, row 17
report
1542.15C14 -> bcc + C36 (Cr-rich)model[1] Flores 2024
cites Cupid 2011 doi
Table 6, p. 13, row 12
report
1542.15C14 -> bcc + C36 (Ti-rich)*experimental[1] Flores 2024
cites Baumann 2010 doi
Table 4, p. 10, row 19
report
1533.15C14 -> bcc + C36 (Ti-rich)unspecified[1] Flores 2024Table 6, p. 13, row 20
report
1533.15C14 -> bcc + C36 (Cr-rich)*experimental[1] Flores 2024
cites Svechnikov 1970
Table 4, p. 10, row 13
report
1533.15C14 -> bcc + C36 (Ti-rich)*experimental[1] Flores 2024
cites Svechnikov 1970
Table 4, p. 10, row 17
report
1530.15C14 -> bcc + C36 (Ti-rich)*experimental[1] Flores 2024Table 4, p. 10, row 20
report
1530.15C14 -> bcc + C36 (Ti-rich)experimental[1] Flores 2024Table 6, p. 13, row 19
report
1500.15bcc + C36 -> C15 (Ti-rich)model[1] Flores 2024
cites Pavlu 2010 doi
Table 6, p. 13, row 27
report
1498.15bcc + C36 -> C15 (Ti-rich)*experimental[1] Flores 2024
cites Minayeva 1971
Table 4, p. 10, row 25
report
1496(βTi) + β-Cr2Ti -> α-Cr2Ti(βTi): Ti 0.608; β-Cr2Ti: Ti 0.362; α-Cr2Ti: Ti 0.373model[2] Ghosh 2002
cites Zhuang 2002
Table 3, p. 8, row 15
report
1495(βTi) + β-Cr2Ti -> α-Cr2Ti(βTi): Ti 0.593; β-Cr2Ti: Ti 0.353; α-Cr2Ti: Ti 0.362model[2] Ghosh 2002
cites Saunders 1994
Table 3, p. 8, row 14
report
1493.15bcc + C36 -> C15 (Ti-rich)model[1] Flores 2024
cites Cupid 2011 doi
Table 6, p. 13, row 28
report
1493(βTi) + β-Cr2Ti -> α-Cr2Ti(βTi): Ti 0.61; β-Cr2Ti: Ti 0.36; α-Cr2Ti: Ti 0.37model[2] Ghosh 2002
cites Murray 1987
Table 3, p. 8, row 13
report
1493(βTi) + β-Cr2Ti -> α-Cr2Ti(βTi): Ti 0.5901; β-Cr2Ti: Ti 0.3624; α-Cr2Ti: Ti 0.3754model[2] Ghosh 2002Table 3, p. 8, row 16
report
1489.15bcc + C36 -> C15 (Ti-rich)model[1] Flores 2024
cites Sun 2022 doi
Table 6, p. 13, row 29
report
1473.15 (<)bcc + C36 -> C15 (Cr-rich)experimental[1] Flores 2024
cites Baumann 2010 doi
Table 6, p. 13, row 25
report
1468.15bcc + C36 -> C15 (Ti-rich)*experimental[1] Flores 2024
cites Svechnikov 1970
Table 4, p. 10, row 24
report
1448.15bcc + C36 -> C15 (Cr-rich)unspecified[1] Flores 2024Table 6, p. 13, row 26
report
1430.65bcc + C36 -> C15 (Ti-rich)*experimental[1] Flores 2024
cites Gross 1960
Table 4, p. 10, row 22
report
1423.15bcc + C36 -> C15 (Ti-rich)*experimental[1] Flores 2024
cites Farrar 1963
Table 4, p. 10, row 23
report
1423.15 (>)bcc + C36 -> C15 (Cr-rich)experimental[1] Flores 2024Table 6, p. 13, row 24
report
1418.15bcc + C36 -> C15 (Ti-rich)unspecified[1] Flores 2024Table 6, p. 13, row 31
report
1416.15bcc + C36 -> C15 (Ti-rich)*experimental[1] Flores 2024Table 4, p. 10, row 26
report
1416.15bcc + C36 -> C15 (Ti-rich)experimental[1] Flores 2024Table 6, p. 13, row 30
report
1123.15bcc + C36 -> C15 (Cr-rich)*experimental[1] Flores 2024
cites Farrar 1963
Table 4, p. 10, row 21
report
1093β-Cr2Ti -> (Cr) + α-Cr2Tiβ-Cr2Ti: Ti 0.342; (Cr): Ti 0.027; α-Cr2Ti: Ti 0.336model[2] Ghosh 2002
cites Saunders 1994
Table 3, p. 8, row 21
report
1084.15bcc + C36 -> C15 (Cr-rich)model[1] Flores 2024
cites Sun 2022 doi
Table 6, p. 13, row 23
report
1082.15bcc + C36 -> C15 (Cr-rich)model[1] Flores 2024
cites Pavlu 2010 doi
Table 6, p. 13, row 21
report
1077β-Cr2Ti -> (Cr) + α-Cr2Tiβ-Cr2Ti: Ti 0.335; (Cr): Ti 0.026; α-Cr2Ti: Ti 0.329model[2] Ghosh 2002
cites Zhuang 2002
Table 3, p. 8, row 22
report
1076.15bcc + C36 -> C15 (Cr-rich)model[1] Flores 2024
cites Cupid 2011 doi
Table 6, p. 13, row 22
report
1074β-Cr2Ti -> (Cr) + α-Cr2Tiβ-Cr2Ti: Ti 0.3338; (Cr): Ti 0.0428; α-Cr2Ti: Ti 0.3343model[2] Ghosh 2002Table 3, p. 8, row 23
report
1073β-Cr2Ti -> (Cr) + α-Cr2Tiβ-Cr2Ti: Ti 0.35; (Cr): Ti 0.04; α-Cr2Ti: Ti 0.34model[2] Ghosh 2002
cites Murray 1987
Table 3, p. 8, row 20
report
1001.15bcc -> hcp + C15experimental[1] Flores 2024
cites Kornilov 1957
Table 4, p. 10, row 30
report
973.15bcc -> hcp + C15experimental[1] Flores 2024
cites Mikheev 1962
Table 4, p. 10, row 33
report
971.15bcc -> C15 + hcpmodel[1] Flores 2024
cites Sun 2022 doi
Table 6, p. 13, row 34
report
965.15bcc -> C15 + hcpmodel[1] Flores 2024
cites Pavlu 2010 doi
Table 6, p. 13, row 32
report
960(βTi) -> (αTi) + α-Cr2Ti(βTi): Ti 0.884; (αTi): Ti 0.994; α-Cr2Ti: Ti 0.365model[2] Ghosh 2002
cites Saunders 1994
Table 3, p. 8, row 10
report
959.15bcc -> C15 + hcpmodel[1] Flores 2024
cites Cupid 2011 doi
Table 6, p. 13, row 33
report
958.15bcc -> hcp + C15experimental[1] Flores 2024
cites R 2024
Table 4, p. 10, row 27
report
943.15bcc -> hcp + C15experimental[1] Flores 2024
cites Cuff 1952
Table 4, p. 10, row 28
report
943.15bcc -> hcp + C15experimental[1] Flores 2024
cites Goldenstein 1959
Table 4, p. 10, row 31
report
943(βTi) -> (αTi) + α-Cr2Ti(βTi): Ti 0.875; (αTi): Ti 0.994; α-Cr2Ti: Ti 0.37model[2] Ghosh 2002
cites Murray 1987
Table 3, p. 8, row 9
report
940.15bcc -> hcp + C15experimental[1] Flores 2024
cites Ermanis 1961
Table 4, p. 10, row 32
report
940(βTi) -> (αTi) + α-Cr2Ti(βTi): Ti 0.89; (αTi): Ti 0.994; α-Cr2Ti: Ti 0.367model[2] Ghosh 2002
cites Zhuang 2002
Table 3, p. 8, row 11
report
938.5(βTi) -> (αTi) + α-Cr2Ti(βTi): Ti 0.8777; (αTi): Ti 0.9938; α-Cr2Ti: Ti 0.3691model[2] Ghosh 2002Table 3, p. 8, row 12
report
937.15bcc -> C15 + hcpunspecified[1] Flores 2024Table 6, p. 13, row 36
report
935.65bcc -> hcp + C15experimental[1] Flores 2024
cites Duwez 1952
Table 4, p. 10, row 29
report
935.15bcc -> hcp + C15experimental[1] Flores 2024Table 4, p. 10, row 34
report
935.15bcc -> C15 + hcpexperimental[1] Flores 2024Table 6, p. 13, row 35
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, Cr–Ti system (5)
PhaseCompoundValueT (K)ClassMP DFT (kJ/mol-atom)OQMD DFT (kJ/mol-atom)SourceLocationQuote
α-Cr0.667Ti0.333-10 kJ/mol (basis unstated)298.15model[2] Ghosh 2002
cites F 1988
Table 2, p. 6, row 1
report
α-Cr0.667Ti0.333-9.856 kJ/mol (basis unstated)298.15model[2] Ghosh 2002Table 2, p. 6, row 5
report
α-Cr0.667Ti0.333-6.835 kJ/mol (basis unstated)298.15model[2] Ghosh 2002
cites Lee 1999 doi
Table 2, p. 6, row 3
report
α-Cr0.667Ti0.333-6.754 kJ/mol (basis unstated)298.15model[2] Ghosh 2002
cites Zhuang 2002
Table 2, p. 6, row 4
report
α-Cr0.667Ti0.333-0.593 kJ/mol (basis unstated)298.15model[2] Ghosh 2002
cites Saunders 1994
Table 2, p. 6, row 2
report

Other properties

Phase transition (11)

Phase transition, Cr–Ti system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase transition1624.15 K1624.15bcc -> C14model[1] Flores 2024
cites Sun 2022 doi
Table 6, p. 13, row 8
report
Phase transition1629.15 K1629.15bcc -> C14model[1] Flores 2024
cites Pavlu 2010 doi
Table 6, p. 13, row 6
report
Phase transition1638.15 K1638.15bcc -> C14model[1] Flores 2024
cites Cupid 2011 doi
Table 6, p. 13, row 7
report
Phase transition1648.15 K1648.15bcc -> C14experimental[1] Flores 2024
cites Baumann 2012
Table 6, p. 13, row 9
report
Phase transition1649.15 K1649.15bcc -> C14unspecified[1] Flores 2024Table 6, p. 13, row 10
report
Phase transition1677.15 K1677.15Liquid -> bccmodel[1] Flores 2024
cites Cupid 2011 doi
Table 6, p. 13, row 2
report
Phase transition1681.15 K1681.15Liquid -> bccunspecified[1] Flores 2024Table 6, p. 13, row 5
report
Phase transition1681.15 K1681.15congruent transformationmodel[1] Flores 2024p. 11
report
Temperature and composition of the congruent melting point of the bcc solid solution obtained here was 1408 C and 57.4 at.% Ti, TiCr2
Phase transition1685.15 K1685.15Liquid -> bccexperimental[1] Flores 2024
cites Rudy 1969
Table 6, p. 13, row 4
report
Phase transition1706.15 K1706.15Liquid -> bccmodel[1] Flores 2024
cites Pavlu 2010 doi
Table 6, p. 13, row 1
report
Phase transition1709.15 K1709.15Liquid -> bccmodel[1] Flores 2024
cites Sun 2022 doi
Table 6, p. 13, row 3
report

Phase equilibrium (15)

Phase equilibrium, Cr–Ti system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase composition1023.15Laves (Cr-rich)
Laves (Cr-rich): Cr 0.667, Ti 0.333
experimental[1] Flores 2024Table 3, p. 6, row 5
report
Phase composition1173.15Laves (Cr-rich)
Laves (Cr-rich): Cr 0.671, Ti 0.329
experimental[1] Flores 2024Table 3, p. 6, row 6
report
Phase composition1173.15Laves (Ti-rich) + bcc (Ti-rich)
Laves (Ti-rich): Cr 0.649, Ti 0.351; bcc (Ti-rich): Cr 0.213, Ti 0.787
experimental[1] Flores 2024Table 3, p. 6, row 9
report
Phase composition1173.15Laves (Ti-rich) + bcc (Ti-rich)
Laves (Ti-rich): Cr 0.645, Ti 0.355; bcc (Ti-rich): Cr 0.213, Ti 0.787
experimental[1] Flores 2024Table 3, p. 6, row 13
report
Phase composition1173.15bcc (Cr-rich) + Laves (Cr-rich) + Laves (Ti-rich) + bcc (Ti-rich)
bcc (Cr-rich): Cr 0.984, Ti 0.016; Laves (Cr-rich): Cr 0.666, Ti 0.334; Laves (Ti-rich): Cr 0.638, Ti 0.362; bcc (Ti-rich): Cr 0.214, Ti 0.786
experimental[1] Flores 2024Table 3, p. 6, row 1
report
Phase composition1273.15Laves (Ti-rich) + bcc (Ti-rich)
Laves (Ti-rich): Cr 0.634, Ti 0.366; bcc (Ti-rich): Cr 0.289, Ti 0.711
experimental[1] Flores 2024Table 3, p. 6, row 10
report
Phase composition1273.15Laves (Ti-rich) + bcc (Ti-rich)
Laves (Ti-rich): Cr 0.644, Ti 0.356; bcc (Ti-rich): Cr 0.29, Ti 0.71
experimental[1] Flores 2024Table 3, p. 6, row 14
report
Phase composition1273.15bcc (Cr-rich) + Laves (Cr-rich)
bcc (Cr-rich): Cr 0.894, Ti 0.106; Laves (Cr-rich): Cr 0.664, Ti 0.336
experimental[1] Flores 2024Table 3, p. 6, row 7
report
Phase composition1273.15bcc (Cr-rich) + Laves (Cr-rich) + Laves (Ti-rich) + bcc (Ti-rich)
bcc (Cr-rich): Cr 0.972, Ti 0.028; Laves (Cr-rich): Cr 0.653, Ti 0.347; Laves (Ti-rich): Cr 0.628, Ti 0.372; bcc (Ti-rich): Cr 0.286, Ti 0.714
experimental[1] Flores 2024Table 3, p. 6, row 2
report
Phase composition1373.15Laves (Ti-rich) + bcc (Ti-rich)
Laves (Ti-rich): Cr 0.638, Ti 0.362; bcc (Ti-rich): Cr 0.339, Ti 0.661
experimental[1] Flores 2024Table 3, p. 6, row 15
report
Phase composition1373.15Laves (Ti-rich) + bcc (Ti-rich)
Laves (Ti-rich): Cr 0.638, Ti 0.362; bcc (Ti-rich): Cr 0.351, Ti 0.649
experimental[1] Flores 2024Table 3, p. 6, row 11
report
Phase composition1373.15bcc (Cr-rich) + Laves (Cr-rich)
bcc (Cr-rich): Cr 0.884, Ti 0.116; Laves (Cr-rich): Cr 0.67, Ti 0.33
experimental[1] Flores 2024Table 3, p. 6, row 8
report
Phase composition1373.15bcc (Cr-rich) + Laves (Cr-rich) + Laves (Ti-rich) + bcc (Ti-rich)
bcc (Cr-rich): Cr 0.968, Ti 0.032; Laves (Cr-rich): Cr 0.669, Ti 0.331; Laves (Ti-rich): Cr 0.633, Ti 0.367; bcc (Ti-rich): Cr 0.353, Ti 0.647
experimental[1] Flores 2024Table 3, p. 6, row 3
report
Phase composition1423.15Laves (Ti-rich) + bcc (Ti-rich)
Laves (Ti-rich): Cr 0.638, Ti 0.362; bcc (Ti-rich): Cr 0.363, Ti 0.637
experimental[1] Flores 2024Table 3, p. 6, row 12
report
Phase composition1473.15bcc (Cr-rich) + Laves (Cr-rich) + Laves (Ti-rich) + bcc (Ti-rich)
bcc (Cr-rich): Cr 0.885, Ti 0.115; Laves (Cr-rich): Cr 0.673, Ti 0.327; Laves (Ti-rich): Cr 0.636, Ti 0.364; bcc (Ti-rich): Cr 0.392, Ti 0.608
experimental[1] Flores 2024Table 3, p. 6, row 4
report

Crystal structure (95)

Crystal structure, Cr–Ti system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Lattice a4.8619 ÅCr2Ti (C14)
alloy: Ti 0.333333
unspecified[3] Pavlů 2010Table 2, p. 3, row 17
report
Lattice a4.8619 Å0Cr2Ti (C14)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 48
report
Lattice a6.8286 Å0Cr2Ti (C15)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 49
report
Lattice a4.8427 Å0Cr2Ti (C36)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 57
report
Lattice a4.8427 ÅCr2Ti (C36)
alloy: Ti 0.333333
unspecified[3] Pavlů 2010Table 2, p. 3, row 24
report
Lattice a5.6373 Å0Cr2Ti10 (C14)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 53
report
Lattice a5.6373 ÅCr2Ti10 (C14)
alloy: Ti 0.833333
unspecified[3] Pavlů 2010Table 2, p. 3, row 20
report
Lattice a5.6317 ÅCr2Ti10 (C36)
alloy: Ti 0.833333
unspecified[3] Pavlů 2010Table 2, p. 3, row 27
report
Lattice a5.6317 Å0Cr2Ti10 (C36)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 60
report
Lattice a5.6968 ÅCr6Ti6 (C14)
alloy: Ti 0.5
unspecified[3] Pavlů 2010Table 2, p. 3, row 18
report
Lattice a5.6968 Å0Cr6Ti6 (C14)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 50
report
Lattice a5.6273 ÅCr6Ti6 (C36)
alloy: Ti 0.5
unspecified[3] Pavlů 2010Table 2, p. 3, row 25
report
Lattice a5.6273 Å0Cr6Ti6 (C36)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 58
report
Lattice a5.1321 ÅCrTi2 (C14)
alloy: Ti 0.666667
unspecified[3] Pavlů 2010Table 2, p. 3, row 19
report
Lattice a5.1321 Å0CrTi2 (C14)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 51
report
Lattice a7.15 Å0CrTi2 (C15)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 52
report
Lattice a5.1243 ÅCrTi2 (C36)
alloy: Ti 0.666667
unspecified[3] Pavlů 2010Table 2, p. 3, row 26
report
Lattice a5.1243 Å0CrTi2 (C36)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 59
report
Lattice a4.9322 Å298.15Cr2Ti (C14)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 46
report
Lattice a0.069324 Å298.15Cr2Ti (C15)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 47
report
Lattice a4.9322 Å298.15Cr2Ti (C36)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 56
report
Lattice a4.9322 Å298.15Cr2Ti (C36)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 22
report
Lattice c7.7839 ÅCr2Ti (C14)
alloy: Ti 0.333333
unspecified[3] Pavlů 2010Table 2, p. 3, row 17
report
Lattice c7.7839 Å0Cr2Ti (C14)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 48
report
Lattice c15.6836 Å0Cr2Ti (C36)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 57
report
Lattice c15.6836 ÅCr2Ti (C36)
alloy: Ti 0.333333
unspecified[3] Pavlů 2010Table 2, p. 3, row 24
report
Lattice c7.0672 Å0Cr2Ti10 (C14)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 53
report
Lattice c7.0672 ÅCr2Ti10 (C14)
alloy: Ti 0.833333
unspecified[3] Pavlů 2010Table 2, p. 3, row 20
report
Lattice c14.1717 ÅCr2Ti10 (C36)
alloy: Ti 0.833333
unspecified[3] Pavlů 2010Table 2, p. 3, row 27
report
Lattice c14.1717 Å0Cr2Ti10 (C36)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 60
report
Lattice c6.3196 ÅCr6Ti6 (C14)
alloy: Ti 0.5
unspecified[3] Pavlů 2010Table 2, p. 3, row 18
report
Lattice c6.3196 Å0Cr6Ti6 (C14)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 50
report
Lattice c12.907 ÅCr6Ti6 (C36)
alloy: Ti 0.5
unspecified[3] Pavlů 2010Table 2, p. 3, row 25
report
Lattice c12.907 Å0Cr6Ti6 (C36)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 58
report
Lattice c7.8629 ÅCrTi2 (C14)
alloy: Ti 0.666667
unspecified[3] Pavlů 2010Table 2, p. 3, row 19
report
Lattice c7.8629 Å0CrTi2 (C14)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 51
report
Lattice c15.8744 ÅCrTi2 (C36)
alloy: Ti 0.666667
unspecified[3] Pavlů 2010Table 2, p. 3, row 26
report
Lattice c15.8744 Å0CrTi2 (C36)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 59
report
Lattice c8.0053 Å298.15Cr2Ti (C14)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 46
report
Lattice c8.0053 Å298.15Cr2Ti (C14)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 15
report
Lattice c16.011 Å298.15Cr2Ti (C36)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 56
report
Lattice c16.011 Å298.15Cr2Ti (C36)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 22
report
lattice 4e z0.0947 not_printed0Cr2Ti (C36)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 57
report
lattice 4e z0.0871 not_printed0Cr2Ti10 (C36)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 60
report
lattice 4e z0.0729 not_printed0Cr6Ti6 (C36)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 58
report
lattice 4e z0.0908 not_printed0CrTi2 (C36)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 59
report
lattice 4e z0.094 not_printed298.15Cr2Ti (C36)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 56
report
lattice 4f z0.0605 not_printed0Cr2Ti (C14)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 48
report
lattice 4f z0.0754 not_printed0Cr2Ti10 (C14)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 53
report
lattice 4f z0.1111 not_printed0Cr6Ti6 (C14)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 50
report
lattice 4f z0.0669 not_printed0CrTi2 (C14)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 51
report
lattice 4f z0.0625 not_printed298.15Cr2Ti (C14)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 46
report
lattice 4f z 10.8437 not_printed0Cr2Ti (C36)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 57
report
lattice 4f z 10.8374 not_printed0Cr2Ti10 (C36)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 60
report
lattice 4f z 10.8203 not_printed0Cr6Ti6 (C36)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 58
report
lattice 4f z 10.845 not_printed0CrTi2 (C36)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 59
report
lattice 4f z 10.844 not_printed298.15Cr2Ti (C36)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 56
report
lattice 4f z 20.1236 not_printed0Cr2Ti (C36)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 57
report
lattice 4f z 20.1264 not_printed0Cr2Ti10 (C36)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 60
report
lattice 4f z 20.1286 not_printed0Cr6Ti6 (C36)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 58
report
lattice 4f z 20.1288 not_printed0CrTi2 (C36)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 59
report
lattice 4f z 20.125 not_printed298.15Cr2Ti (C36)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 56
report
lattice 6h x0.8299 not_printed0Cr2Ti (C14)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 48
report
lattice 6h x0.1633 not_printed0Cr2Ti (C36)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 57
report
lattice 6h x0.8289 not_printed0Cr2Ti10 (C14)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 53
report
lattice 6h x0.1615 not_printed0Cr2Ti10 (C36)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 60
report
lattice 6h x0.8259 not_printed0Cr6Ti6 (C14)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 50
report
lattice 6h x0.1583 not_printed0Cr6Ti6 (C36)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 58
report
lattice 6h x0.8237 not_printed0CrTi2 (C14)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 51
report
lattice 6h x0.1556 not_printed0CrTi2 (C36)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 59
report
lattice 6h x0.833 not_printed298.15Cr2Ti (C14)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 46
report
lattice 6h x0.167 not_printed298.15Cr2Ti (C36)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 56
report
lattice 6h y0.6599 not_printed0Cr2Ti (C14)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 48
report
lattice 6h y0.3266 not_printed0Cr2Ti (C36)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 57
report
lattice 6h y0.6579 not_printed0Cr2Ti10 (C14)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 53
report
lattice 6h y0.3229 not_printed0Cr2Ti10 (C36)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 60
report
lattice 6h y0.6518 not_printed0Cr6Ti6 (C14)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 50
report
lattice 6h y0.3167 not_printed0Cr6Ti6 (C36)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 58
report
lattice 6h y0.6474 not_printed0CrTi2 (C14)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 51
report
lattice 6h y0.3112 not_printed0CrTi2 (C36)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 59
report
lattice 6h y0.666 not_printed298.15Cr2Ti (C14)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 46
report
lattice 6h y0.334 not_printed298.15Cr2Ti (C36)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 56
report
lattice v atom1.32789 10^7 pm^30Cr2Ti (C14)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 48
report
lattice v atom1.32676 10^7 pm^30Cr2Ti (C15)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 49
report
lattice v atom1.3272 10^7 pm^30Cr2Ti (C36)
alloy: Ti 0.333333
DFT[3] Pavlů 2010Table 2, p. 3, row 57
report
lattice v atom1.6208 10^7 pm^30Cr2Ti10 (C14)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 53
report
lattice v atom1.62188 10^7 pm^30Cr2Ti10 (C36)
alloy: Ti 0.833333
DFT[3] Pavlů 2010Table 2, p. 3, row 60
report
lattice v atom1.48011 10^7 pm^30Cr6Ti6 (C14)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 50
report
lattice v atom1.47483 10^7 pm^30Cr6Ti6 (C36)
alloy: Ti 0.5
DFT[3] Pavlů 2010Table 2, p. 3, row 58
report
lattice v atom1.49463 10^7 pm^30CrTi2 (C14)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 51
report
lattice v atom1.52301 10^7 pm^30CrTi2 (C15)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 52
report
lattice v atom1.50412 10^7 pm^30CrTi2 (C36)
alloy: Ti 0.666667
DFT[3] Pavlů 2010Table 2, p. 3, row 59
report
lattice v atom1.40543 10^7 pm^3298.15Cr2Ti (C14)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 46
report
lattice v atom1.38816 10^7 pm^3298.15Cr2Ti (C15)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 47
report
lattice v atom1.40546 10^7 pm^3298.15Cr2Ti (C36)
alloy: Ti 0.333333
experimental[3] Pavlů 2010
cites Villars 1991
Table 2, p. 3, row 56
report

Sources

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

  1. Agustin Flores, Sylvie Chatain, Paul Fossati, Frank Stein, Jean-Marc Joubert, Experimental Investigation and Thermodynamic Assessment of the Cr–Ti System, J. Phase Equilib. Diffus. 45, 417-432 (2024). doi:10.1007/s11669-024-01090-2
  2. G. Ghosh, Thermodynamic and kinetic modeling of the Cr-Ti-V system, JPE 23, 310-328 (2002). doi:10.1361/105497102770331569
  3. J. Pavlů, J. Vřešt’ál, M. Šob, Thermodynamic modeling of Laves phases in the Cr–Hf and Cr–Ti systems: Reassessment using first-principles results, Calphad 34, 215-221 (2010). doi:10.1016/j.calphad.2010.03.003