C–U system

1,321 accepted literature values from 1 paper(s) (experimental 892, model 427, unspecified 2); 0 calculated phase diagram(s). 15 further extracted value(s) not accepted by the reader-agreement checks are only in the JSON/CSV.

Data: JSON part 1 · JSON part 2 · JSON part 3 · CSV · interactive explorer · phases (11) · papers (bibliography) · Markdown

Accepted values by evidence class
Evidence classValues
experimental892
model427
unspecified2
Accepted values by property group
Property groupValues
phase equilibrium223
formation70
heat capacity / entropy / enthalpy928
activity / EMF / Gibbs energy76
crystal structure24

Convex hulls: Materials Project DFT hull · OQMD DFT hull · CALPHAD hull UC-01Che

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, C–U system (70)
PhaseCompoundValueT (K)ClassMP DFT (kJ/mol-atom)OQMD DFT (kJ/mol-atom)SourceLocationQuote
C0.500U0.500UC-48.534 kJ/mol-atom298.15experimental-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001
cites Storms 1967 doi
Table 21, p. 17, row 7
report
C0.500U0.500UC-48.534 kJ/mol-atom ± 2.092298.15experimental-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001
cites Hultgren 1973
Table 21, p. 17, row 9
report
C0.500U0.500UC-48.534 kJ/mol-atom298.15model-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001Table 21, p. 17, row 10
report
C0.500U0.500UC-47.488 kJ/mol-atom ± 0.628298.15experimental-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 21, p. 17, row 8
report
C0.500U0.500UC-46.861 kJ/mol-atom298.15experimental-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001
cites Vozella 1964
Table 21, p. 17, row 4
report
C0.500U0.500UC-34.727 kJ/mol-atom298.15experimental-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001
cites Alcock 1962
Table 21, p. 17, row 3
report
C0.500U0.500(fcc_B1, δ)UC-48.534 kJ/mol-atom298.15model-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001Table 34, p. 28, row 1
report
C0.600U0.400(ε)U2C3-38.349 kJ/mol-atom298.15model-11.927 (mp-aaaaadwz)-12.269 (oqmd-5019)[1] Chevalier 2001Table 34, p. 28, row 10
report
C0.655U0.345-31.798 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Benesovsky 1961
Table 21, p. 17, row 11
report
C0.655U0.345-31.38 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Leitnaker 1962 doi
Table 21, p. 17, row 13
report
C0.655U0.345-31.38 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Storms 1965
Table 21, p. 17, row 18
report
C0.655U0.345-30.543 kJ/mol-atom ± 2.929298.15experimental[1] Chevalier 2001
cites Hultgren 1973
Table 21, p. 17, row 25
report
C0.655U0.345-30.442 kJ/mol-atom ± 2.02298.15experimental[1] Chevalier 2001
cites Huber 1963 doi
Table 21, p. 17, row 22
report
C0.655U0.345-28.422 kJ/mol-atom ± 4.404298.15experimental[1] Chevalier 2001
cites Huber 1963 doi
Table 21, p. 17, row 20
report
C0.655U0.345-27.614 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Lonsdale 1962
Table 21, p. 17, row 16
report
C0.655U0.345-26.835 kJ/mol-atom ± 2.885298.15experimental[1] Chevalier 2001
cites Huber 1963 doi
Table 21, p. 17, row 21
report
C0.655U0.345-18.41 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Alcock 1962
Table 21, p. 17, row 15
report
C0.665U0.345(bct, α)-30.533 kJ/mol-atom298.15model[1] Chevalier 2001Table 34, p. 28, row 9
report
U2C3U2C3-41.003 kJ/mol-atom ± 3.347298.15experimental-11.927 (mp-aaaaadwz)-12.269 (oqmd-5019)[1] Chevalier 2001
cites Hultgren 1973
Table 21, p. 17, row 28
report
U2C3U2C3-38.349 kJ/mol-atom298.15model-11.927 (mp-aaaaadwz)-12.269 (oqmd-5019)[1] Chevalier 2001Table 21, p. 17, row 29
report
U2C3U2C3-36.373 kJ/mol-atom ± 1.45298.15experimental-11.927 (mp-aaaaadwz)-12.269 (oqmd-5019)[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 21, p. 17, row 27
report
UCUC-48.534 kJ/mol-atom298.15experimental-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001
cites Storms 1965
Table 21, p. 17, row 6
report
UCUC-43.932 kJ/mol-atom ± 2.092298.15experimental-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001
cites Farr 1959 doi
Table 21, p. 17, row 1
report
UCUC-41.422 kJ/mol-atom298.15experimental-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001
cites Droege 1959
Table 21, p. 17, row 2
report
UCUC-35.146 kJ/mol-atom298.15experimental-11.946 (mp-aaaaadrt)-12.247 (oqmd-4567)[1] Chevalier 2001
cites Robinson 1964
Table 21, p. 17, row 5
report
UC1.90-33.89 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Norman 1964 doi
Table 21, p. 17, row 17
report
UC1.90-33.325 kJ/mol-atom ± 1.908298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 21, p. 17, row 23
report
UC1.90-31.798 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Eich 1962
Table 21, p. 17, row 14
report
UC1.90-30.962 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Piazza 1962 doi
Table 21, p. 17, row 12
report
UC1.90-30.533 kJ/mol-atom298.15model[1] Chevalier 2001Table 21, p. 17, row 26
report
UC1.90-30.298 kJ/mol-atom ± 0.289298.15experimental[1] Chevalier 2001
cites MacLeod 1969
Table 21, p. 17, row 24
report
UC1.90-30.125 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Behl 1966 doi
Table 21, p. 17, row 19
report
UCx-48.116 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 18
report
UCx-47.968 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 17
report
UCx-47.488 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 19
report
UCx-46.861 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 21
report
UCx-46.121 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 32
report
UCx-45.644 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 15
report
UCx-45.626 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 29
report
UCx-45.432 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 16
report
UCx-44.175 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 31
report
UCx-44.122 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 33
report
UCx-43.832 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 28
report
UCx-43.633 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 27
report
UCx-43.473 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 25
report
UCx-43.202 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 30
report
UCx-42.601 kJ/mol-atom298.15model[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 6
report
UCx-42.248 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 24
report
UCx-42.022 kJ/mol-atom298.15model[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 7
report
UCx-41.84 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 26
report
UCx-41.024 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 23
report
UCx-40.445 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 34
report
UCx-38.779 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 22
report
UCx-37.824 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 37
report
UCx-37.482 kJ/mol-atom298.15model[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 8
report
UCx-37.103 kJ/mol-atom298.15model[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 11
report
UCx-37.036 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 41
report
UCx-36.208 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 40
report
UCx-36.012 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 45
report
UCx-35.982 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 36
report
UCx-35.313 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 35
report
UCx-35.234 kJ/mol-atom298.15model[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 14
report
UCx-34.92 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 39
report
UCx-33.794 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 38
report
UCx-33.627 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 44
report
UCx-33.317 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 43
report
UCx-31.767 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 42
report
UCx-31.416 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 49
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UCx-31.081 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 47
report
UCx-30.932 kJ/mol-atom298.15experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 48
report

Other properties

Phase equilibrium (223)

Phase equilibrium, C–U system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase assemblage2073δ(UC) + δ(UC2)
alloy: C 0.53079, U 0.46921
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 26
report
Phase assemblage2073δ(UC) + δ(UC2)
alloy: C 0.50522, U 0.49478
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 30
report
Phase assemblage2073δ(UC) + δ(UC2)
alloy: C 0.5834, U 0.4166
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 22
report
Phase assemblage2093δ(UC)
alloy: C 0.52381, U 0.47619
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 1
report
Phase assemblage2093δ(UC) + δ(UC2)
alloy: C 0.61686, U 0.38314
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 3
report
Phase assemblage2093δ(UC) + δ(UC2)
alloy: C 0.54545, U 0.45455
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 2
report
Phase assemblage2093δ(UC2)
alloy: C 0.64286, U 0.35714
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 5
report
Phase assemblage2093δ(UC2)
alloy: C 0.6341, U 0.3659
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 4
report
Phase assemblage2173δ(UC)
alloy: C 0.52381, U 0.47619
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 6
report
Phase assemblage2173δ(UC) + δ(UC2)
alloy: C 0.53079, U 0.46921
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 27
report
Phase assemblage2173δ(UC) + δ(UC2)
alloy: C 0.5834, U 0.4166
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 23
report
Phase assemblage2173δ(UC) + δ(UC2)
alloy: C 0.54545, U 0.45455
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 7
report
Phase assemblage2173δ(UC) + δ(UC2)
alloy: C 0.59839, U 0.40161
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 8
report
Phase assemblage2173δ(UC, UC2)
alloy: C 0.50522, U 0.49478
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 31
report
Phase assemblage2173δ(UC2)
alloy: C 0.61686, U 0.38314
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 9
report
Phase assemblage2273δ(UC) + δ(UC2)
alloy: C 0.56522, U 0.43478
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 11
report
Phase assemblage2273δ(UC) + δ(UC2)
alloy: C 0.5834, U 0.4166
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 24
report
Phase assemblage2273δ(UC) + δ(UC2)
alloy: C 0.54545, U 0.45455
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 10
report
Phase assemblage2273δ(UC) + δ(UC2)
alloy: C 0.53079, U 0.46921
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 28
report
Phase assemblage2273δ(UC) + δ(UC2)
alloy: C 0.58333, U 0.41667
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 12
report
Phase assemblage2273δ(UC, UC2)
alloy: C 0.50522, U 0.49478
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 32
report
Phase assemblage2273δ(UC2)
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 13
report
Phase assemblage2343δ(UC) + δ(UC2)
alloy: C 0.54545, U 0.45455
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 14
report
Phase assemblage2343δ(UC) + δ(UC2)
alloy: C 0.55693, U 0.44307
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 15
report
Phase assemblage2343δ(UC2)
alloy: C 0.58333, U 0.41667
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 16
report
Phase assemblage2373δ(UC, UC2)
alloy: C 0.50522, U 0.49478
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 33
report
Phase assemblage2373δ(UC, UC2)
alloy: C 0.53079, U 0.46921
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 29
report
Phase assemblage2373δ(UC, UC2)
alloy: C 0.5834, U 0.4166
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 25
report
Phase assemblage2403δ(UC2)
alloy: C 0.56522, U 0.43478
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 17
report
Phase assemblage2403δ(UC2)
alloy: C 0.631, U 0.369
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 18
report
Phase composition939.09α + UC
α: C 6.000e-5, U 0.99994; UC: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Blumenthal 1960
Table 4, p. 6, row 13
report
Phase composition1044.95β + UC
β: C 2.000e-4, U 0.9998; UC: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Blumenthal 1960
Table 4, p. 6, row 12
report
Phase composition1044.95γ + UC
γ: C 9.000e-4, U 0.9991; UC: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Blumenthal 1960
Table 4, p. 6, row 11
report
Phase composition1389.75γ + UC
γ: C 0.00295, U 0.99705; UC: C 0.499, U 0.501
experimental[1] Chevalier 2001
cites Blumenthal 1960
Table 4, p. 6, row 10
report
Phase composition1389.76L + δ-UC
L: C 0.0098, U 0.9902; δ-UC: C 0.499, U 0.501
experimental[1] Chevalier 2001
cites Blumenthal 1960
Table 4, p. 6, row 5
report
Phase composition1390.15L + δ-UC + γ-U + L(φ1) + δ-UC(φ2)
L: C 0.01153, U 0.98847; δ-UC: C 0.5, U 0.5; L(φ1): C 0.01153, U 0.98847; δ-UC(φ2): C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 28
report
Phase composition1473L + δ-UC
L: C 0.0141, U 0.9859; δ-UC: C 0.498, U 0.502
experimental[1] Chevalier 2001
cites Blumenthal 1960
Table 4, p. 6, row 4
report
Phase composition1473δ-UC(ϕ1) + U2C3(ϕ2) + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.5, U 0.5; ϕ2: C 0.6, U 0.4; φ1: C 0.5, U 0.5; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Benz 1969
Table 9, p. 9, row 1
report
Phase composition1523L + δ-UC
L: C 0.0167, U 0.9833; δ-UC: C 0.498, U 0.502
experimental[1] Chevalier 2001
cites Blumenthal 1960
Table 4, p. 6, row 3
report
Phase composition1573L + δ-UC
L: C 0.02, U 0.98; δ-UC: C 0.497, U 0.503
experimental[1] Chevalier 2001
cites Blumenthal 1960
Table 4, p. 6, row 2
report
Phase composition1573ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.5, U 0.5; ϕ2: C 0.6, U 0.4; φ1: C 0.5, U 0.5; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 2
report
Phase composition1598ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.5, U 0.5; ϕ2: C 0.6, U 0.4; φ1: C 0.5, U 0.5; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 3
report
Phase composition1623L + δ-UC
L: C 0.0247, U 0.9753; δ-UC: C 0.496, U 0.504
experimental[1] Chevalier 2001
cites Blumenthal 1960
Table 4, p. 6, row 1
report
Phase composition1648L + δ-UC
L: C 0.0194, U 0.9806; δ-UC: C 0.496, U 0.504
experimental[1] Chevalier 2001
cites Snow 1943
Table 4, p. 6, row 8
report
Phase composition1648L + δ-UC
L: C 0.0265, U 0.9735; δ-UC: C 0.496, U 0.504
experimental[1] Chevalier 2001
cites Carter 1943
Table 4, p. 6, row 6
report
Phase composition1673L + δ-UC
L: C 0.033, U 0.967; δ-UC: C 0.496, U 0.504
experimental[1] Chevalier 2001
cites Carter 1943
Table 4, p. 6, row 7
report
Phase composition1673L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.05521, U 0.94479; δ-UC: C 0.496, U 0.504; L(φ1): C 0.05521, U 0.94479; δ-UC(φ2): C 0.496, U 0.504
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 1
report
Phase composition1673UC + L + UC(φ1) + L(φ2)
UC: C 0.49589, U 0.50411; L: C 0.055, U 0.945; UC(φ1): C 0.49589, U 0.50411; L(φ2): C 0.055, U 0.945
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 18
report
Phase composition1748L + δ-UC
L: C 0.0325, U 0.9675; δ-UC: C 0.494, U 0.506
experimental[1] Chevalier 2001
cites Snow 1943
Table 4, p. 6, row 9
report
Phase composition1773L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.08171, U 0.91829; δ-UC: C 0.495, U 0.505; L(φ1): C 0.08171, U 0.91829; δ-UC(φ2): C 0.495, U 0.505
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 2
report
Phase composition1773UC + L + UC(φ1) + L(φ2)
UC: C 0.49456, U 0.50544; L: C 0.082, U 0.918; UC(φ1): C 0.49456, U 0.50544; L(φ2): C 0.082, U 0.918
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 19
report
Phase composition1773η-UC2(ϕ1) + C1-gra(ϕ2) + U2C3 + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.65577, U 0.34423; ϕ2: C 1, U 0; φ1: C 0.65577, U 0.34423; φ2: C 1, U 0
experimental[1] Chevalier 2001
cites Benz 1969
Table 9, p. 9, row 47
report
Phase composition1773ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.5192, U 0.4808; ϕ2: C 0.6, U 0.4; φ1: C 0.5192, U 0.4808; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Secrest 1959 doi
Table 9, p. 9, row 15
report
Phase composition1793η-UC2(ϕ1) + C1-gra(ϕ2) + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.65577, U 0.34423; ϕ2: C 1, U 0; φ1: C 0.65577, U 0.34423; φ2: C 1, U 0
experimental[1] Chevalier 2001Table 9, p. 9, row 48
report
Phase composition1793η-UC2(ϕ1) + U2C3(ϕ2) + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.65278, U 0.34722; ϕ2: C 0.6, U 0.4; φ1: C 0.65278, U 0.34722; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Benz 1969
Table 9, p. 9, row 21
report
Phase composition1833ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.50249, U 0.49751; ϕ2: C 0.6, U 0.4; φ1: C 0.50249, U 0.49751; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 4
report
Phase composition1873L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.10987, U 0.89013; δ-UC: C 0.489, U 0.511; L(φ1): C 0.10987, U 0.89013; δ-UC(φ2): C 0.489, U 0.511
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 3
report
Phase composition1873L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.08724, U 0.91276; δ-UC: C 0.49, U 0.51; L(φ1): C 0.08724, U 0.91276; δ-UC(φ2): C 0.49, U 0.51
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 1
report
Phase composition1873UC + L + UC(φ1) + L(φ2)
UC: C 0.48927, U 0.51073; L: C 0.11, U 0.89; UC(φ1): C 0.48927, U 0.51073; L(φ2): C 0.11, U 0.89
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 20
report
Phase composition1873α-UC2(φ1) + C
α-UC2(φ1): C 0.652, U 0.348
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 1
report
Phase composition1873ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.65577, U 0.34423; ϕ2: C 1, U 0; φ1: C 0.65577, U 0.34423; φ2: C 1, U 0
experimental[1] Chevalier 2001Table 9, p. 9, row 49
report
Phase composition1891ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64912, U 0.35088; ϕ2: C 0.6, U 0.4; φ1: C 0.64912, U 0.35088; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 22
report
Phase composition1903L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.1357, U 0.8643; δ-UC: C 0.489, U 0.511; L(φ1): C 0.1357, U 0.8643; δ-UC(φ2): C 0.489, U 0.511
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 4
report
Phase composition1918α-UC2(φ1) + C
α-UC2(φ1): C 0.648, U 0.352
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 2
report
Phase composition1940ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64029, U 0.35971; ϕ2: C 0.6, U 0.4; φ1: C 0.64029, U 0.35971; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 31
report
Phase composition1958α-UC2(φ1) + C
α-UC2(φ1): C 0.653, U 0.347
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 3
report
Phase composition1973L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.15685, U 0.84315; δ-UC: C 0.486, U 0.514; L(φ1): C 0.15685, U 0.84315; δ-UC(φ2): C 0.486, U 0.514
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 5
report
Phase composition1973δ-UC(ϕ1) + U2C3(ϕ2) + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.54751, U 0.45249; ϕ2: C 0.6, U 0.4; φ1: C 0.54751, U 0.45249; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Burdick 1955 doi
Table 9, p. 9, row 13
report
Phase composition1973ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.65577, U 0.34423; ϕ2: C 1, U 0; φ1: C 0.65577, U 0.34423; φ2: C 1, U 0
experimental[1] Chevalier 2001Table 9, p. 9, row 50
report
Phase composition1978α-UC2(φ1) + C
α-UC2(φ1): C 0.653, U 0.347
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 4
report
Phase composition1990ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64539, U 0.35461; ϕ2: C 0.6, U 0.4; φ1: C 0.64539, U 0.35461; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 23
report
Phase composition1993ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.50739, U 0.49261; ϕ2: C 0.6, U 0.4; φ1: C 0.50739, U 0.49261; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 5
report
Phase composition2001ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64286, U 0.35714; ϕ2: C 0.6, U 0.4; φ1: C 0.64286, U 0.35714; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 24
report
Phase composition2018α-UC2(φ1) + C
α-UC2(φ1): C 0.651, U 0.349
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 5
report
Phase composition2025ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64158, U 0.35842; ϕ2: C 0.6, U 0.4; φ1: C 0.64158, U 0.35842; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 25
report
Phase composition2025ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.5098, U 0.4902; ϕ2: C 0.6, U 0.4; φ1: C 0.5098, U 0.4902; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 6
report
Phase composition2028ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64029, U 0.35971; ϕ2: C 0.6, U 0.4; φ1: C 0.64029, U 0.35971; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 27
report
Phase composition2033α-UC2(φ1) + C
α-UC2(φ1): C 0.652, U 0.348
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 6
report
Phase composition2035ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64029, U 0.35971; ϕ2: C 0.6, U 0.4; φ1: C 0.64029, U 0.35971; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 28
report
Phase composition2037L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.18142, U 0.81858; δ-UC: C 0.484, U 0.516; L(φ1): C 0.18142, U 0.81858; δ-UC(φ2): C 0.484, U 0.516
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 6
report
Phase composition2038η-UC2(ϕ1) + C1-gra(ϕ2) + δ-UC2 + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.65577, U 0.34423; ϕ2: C 1, U 0; φ1: C 0.65577, U 0.34423; φ2: C 1, U 0
experimental[1] Chevalier 2001Table 9, p. 9, row 51
report
Phase composition2038ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64029, U 0.35971; ϕ2: C 0.6, U 0.4; φ1: C 0.64029, U 0.35971; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 30
report
Phase composition2043ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.5098, U 0.4902; ϕ2: C 0.6, U 0.4; φ1: C 0.5098, U 0.4902; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 7
report
Phase composition2044L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.17665, U 0.82335; δ-UC: C 0.483, U 0.517; L(φ1): C 0.17665, U 0.82335; δ-UC(φ2): C 0.483, U 0.517
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 7
report
Phase composition2044ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.63899, U 0.36101; ϕ2: C 0.6, U 0.4; φ1: C 0.63899, U 0.36101; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 32
report
Phase composition2045ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.63899, U 0.36101; ϕ2: C 0.6, U 0.4; φ1: C 0.63899, U 0.36101; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 33
report
Phase composition2048η-UC2(ϕ1) + U2C3(ϕ2) + δ-UC2 + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64029, U 0.35971; ϕ2: C 0.6, U 0.4; φ1: C 0.64029, U 0.35971; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 35
report
Phase composition2048η-UC2(ϕ1) + U2C3(ϕ2) + δ-UC2 + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.63899, U 0.36101; ϕ2: C 0.6, U 0.4; φ1: C 0.63899, U 0.36101; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 34
report
Phase composition2051δ-UC2(ϕ1) + U2C3(ϕ2) + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64029, U 0.35971; ϕ2: C 0.6, U 0.4; φ1: C 0.64029, U 0.35971; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 36
report
Phase composition2051ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64029, U 0.35971; ϕ2: C 0.6, U 0.4; φ1: C 0.64029, U 0.35971; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 37
report
Phase composition2053ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.63899, U 0.36101; ϕ2: C 0.6, U 0.4; φ1: C 0.63899, U 0.36101; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 38
report
Phase composition2054ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.63899, U 0.36101; ϕ2: C 0.6, U 0.4; φ1: C 0.63899, U 0.36101; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 39
report
Phase composition2055ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.63768, U 0.36232; ϕ2: C 0.6, U 0.4; φ1: C 0.63768, U 0.36232; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 40
report
Phase composition2059ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.51691, U 0.48309; ϕ2: C 0.6, U 0.4; φ1: C 0.51691, U 0.48309; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 9
report
Phase composition2062ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.63768, U 0.36232; ϕ2: C 0.6, U 0.4; φ1: C 0.63768, U 0.36232; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 41
report
Phase composition2065ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.63504, U 0.36496; ϕ2: C 0.6, U 0.4; φ1: C 0.63504, U 0.36496; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 42
report
Phase composition2073L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.19687, U 0.80313; δ-UC: C 0.483, U 0.517; L(φ1): C 0.19687, U 0.80313; δ-UC(φ2): C 0.483, U 0.517
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 8
report
Phase composition2073UC + L + UC(φ1) + L(φ2)
UC: C 0.48318, U 0.51682; L: C 0.197, U 0.803; UC(φ1): C 0.48318, U 0.51682; L(φ2): C 0.197, U 0.803
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 21
report
Phase composition2073δ-UC(ϕ1) + L + δ-UC + φ1 + φ2
δ-UC: C 0.49239, U 0.50761; L: C 0.2, U 0.8; φ1: C 0.49239, U 0.50761; φ2: C 0.2, U 0.8
experimental[1] Chevalier 2001Table 9, p. 10, row 3
report
Phase composition2073δ-UC(ϕ1) + L + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.49239, U 0.50761; ϕ2: C 0.2, U 0.8; φ1: C 0.49239, U 0.50761; φ2: C 0.2, U 0.8
experimental[1] Chevalier 2001Table 9, p. 9, row 56
report
Phase composition2073δ-UC2(φ1) + C
δ-UC2(φ1): C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 7
report
Phase composition2073δ-UC2(ϕ1) + C1-gra(ϕ2) + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.65577, U 0.34423; ϕ2: C 1, U 0; φ1: C 0.65577, U 0.34423; φ2: C 1, U 0
experimental[1] Chevalier 2001Table 9, p. 9, row 52
report
Phase composition2073ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.55357, U 0.44643; ϕ2: C 0.6, U 0.4; φ1: C 0.55357, U 0.44643; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Rough 1957
Table 9, p. 9, row 14
report
Phase composition2077ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.51691, U 0.48309; ϕ2: C 0.6, U 0.4; φ1: C 0.51691, U 0.48309; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 10
report
Phase composition2077ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.63504, U 0.36496; ϕ2: C 0.6, U 0.4; φ1: C 0.63504, U 0.36496; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 43
report
Phase composition2078ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.51456, U 0.48544; ϕ2: C 0.6, U 0.4; φ1: C 0.51456, U 0.48544; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 8
report
Phase composition2088δ-UC2(φ1) + C
δ-UC2(φ1): C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 8
report
Phase composition2091ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.52153, U 0.47847; ϕ2: C 0.6, U 0.4; φ1: C 0.52153, U 0.47847; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 11
report
Phase composition2091ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.62687, U 0.37313; ϕ2: C 0.6, U 0.4; φ1: C 0.62687, U 0.37313; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 44
report
Phase composition2093(UC) + δ(UC2) + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.617, U 0.383; ϕ2: C 0.528, U 0.472; φ1: C 0.617, U 0.383; φ2: C 0.528, U 0.472
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 19
report
Phase composition2093δ-UC(ϕ1) + U2C3(ϕ2) + δ-UC2 + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.52381, U 0.47619; ϕ2: C 0.6, U 0.4; φ1: C 0.52381, U 0.47619; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 12
report
Phase composition2093δ-UC(ϕ1) + δ-UC2(ϕ2) + U2C3 + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.52381, U 0.47619; ϕ2: C 0.623, U 0.377; φ1: C 0.52381, U 0.47619; φ2: C 0.623, U 0.377
experimental[1] Chevalier 2001Table 9, p. 9, row 17
report
Phase composition2093ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.53488, U 0.46512; ϕ2: C 0.6, U 0.4; φ1: C 0.53488, U 0.46512; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Sears 2001
Table 9, p. 9, row 16
report
Phase composition2098δ-UC(ϕ1) + δ-UC2(ϕ2) + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.52381, U 0.47619; ϕ2: C 0.623, U 0.377; φ1: C 0.52381, U 0.47619; φ2: C 0.623, U 0.377
experimental[1] Chevalier 2001Table 9, p. 9, row 18
report
Phase composition2098δ-UC2(ϕ1) + δ-UC(ϕ2) + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.62264, U 0.37736; ϕ2: C 0.524, U 0.476; φ1: C 0.62264, U 0.37736; φ2: C 0.524, U 0.476
experimental[1] Chevalier 2001Table 9, p. 9, row 45
report
Phase composition2103ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.52381, U 0.47619; ϕ2: C 0.623, U 0.377; φ1: C 0.52381, U 0.47619; φ2: C 0.623, U 0.377
experimental[1] Chevalier 2001Table 9, p. 9, row 19
report
Phase composition2103ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.62264, U 0.37736; ϕ2: C 0.524, U 0.476; φ1: C 0.62264, U 0.37736; φ2: C 0.524, U 0.476
experimental[1] Chevalier 2001Table 9, p. 9, row 46
report
Phase composition2113δ-UC2(φ1) + C
δ-UC2(φ1): C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 9
report
Phase composition2113ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.52607, U 0.47393; ϕ2: C 0.624, U 0.376; φ1: C 0.52607, U 0.47393; φ2: C 0.624, U 0.376
experimental[1] Chevalier 2001
cites Wilson 1960
Table 9, p. 9, row 20
report
Phase composition2123L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.21221, U 0.78779; δ-UC: C 0.48, U 0.52; L(φ1): C 0.21221, U 0.78779; δ-UC(φ2): C 0.48, U 0.52
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 9
report
Phase composition2159L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.22832, U 0.77168; δ-UC: C 0.481, U 0.519; L(φ1): C 0.22832, U 0.77168; δ-UC(φ2): C 0.481, U 0.519
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 10
report
Phase composition2173δ-UC2(φ1) + C
δ-UC2(φ1): C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 10
report
Phase composition2173ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.61, U 0.39; ϕ2: C 0.531, U 0.469; φ1: C 0.61, U 0.39; φ2: C 0.531, U 0.469
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 20
report
Phase composition2218δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.5015, U 0.4985
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 1
report
Phase composition2220δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.50199, U 0.49801
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 3
report
Phase composition2221δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.5015, U 0.4985
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 2
report
Phase composition2223L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.23674, U 0.76326; δ-UC: C 0.478, U 0.522; L(φ1): C 0.23674, U 0.76326; δ-UC(φ2): C 0.478, U 0.522
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 11
report
Phase composition2223UC + L + UC(φ1) + L(φ2)
UC: C 0.47832, U 0.52168; L: C 0.237, U 0.763; UC(φ1): C 0.47832, U 0.52168; L(φ2): C 0.237, U 0.763
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 22
report
Phase composition2243δ-UC2(φ1) + C
δ-UC2(φ1): C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 11
report
Phase composition2253δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.50249, U 0.49751
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 4
report
Phase composition2273L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.25977, U 0.74023; δ-UC: C 0.479, U 0.521; L(φ1): C 0.25977, U 0.74023; δ-UC(φ2): C 0.479, U 0.521
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 2
report
Phase composition2273L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.25988, U 0.74012; δ-UC: C 0.476, U 0.524; L(φ1): C 0.25988, U 0.74012; δ-UC(φ2): C 0.476, U 0.524
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 12
report
Phase composition2273δ-UC(ϕ1) + L + δ-UC + φ1 + φ2
δ-UC: C 0.49239, U 0.50761; L: C 0.2, U 0.8; φ1: C 0.49239, U 0.50761; φ2: C 0.2, U 0.8
experimental[1] Chevalier 2001Table 9, p. 10, row 4
report
Phase composition2273δ-UC(ϕ1) + L + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.49239, U 0.50761; ϕ2: C 0.2, U 0.8; φ1: C 0.49239, U 0.50761; φ2: C 0.2, U 0.8
experimental[1] Chevalier 2001Table 9, p. 9, row 57
report
Phase composition2273ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.65695, U 0.34305; ϕ2: C 1, U 0; φ1: C 0.65695, U 0.34305; φ2: C 1, U 0
experimental[1] Chevalier 2001Table 9, p. 9, row 53
report
Phase composition2273ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.592, U 0.408; ϕ2: C 0.537, U 0.463; φ1: C 0.592, U 0.408; φ2: C 0.537, U 0.463
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 21
report
Phase composition2275δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.50788, U 0.49212
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 7
report
Phase composition2294δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.50471, U 0.49529
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 5
report
Phase composition2303δ-UC2(φ1) + C
δ-UC2(φ1): C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 12
report
Phase composition2319δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.50884, U 0.49116
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 8
report
Phase composition2323L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.28797, U 0.71203; δ-UC: C 0.478, U 0.522; L(φ1): C 0.28797, U 0.71203; δ-UC(φ2): C 0.478, U 0.522
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 13
report
Phase composition2323UC + L + UC(φ1) + L(φ2)
UC: C 0.47832, U 0.52168; L: C 0.288, U 0.712; UC(φ1): C 0.47832, U 0.52168; L(φ2): C 0.288, U 0.712
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 23
report
Phase composition2326δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.50642, U 0.49358
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 6
report
Phase composition2328δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.51052, U 0.48948
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 9
report
Phase composition2328δ-UC2(φ1) + C
δ-UC2(φ1): C 0.657, U 0.343
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 13
report
Phase composition2343ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.576, U 0.424; ϕ2: C 0.541, U 0.459; φ1: C 0.576, U 0.424; φ2: C 0.541, U 0.459
experimental[1] Chevalier 2001
cites Sears 1966 doi
Table 7, p. 8, row 22
report
Phase composition2348δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.511, U 0.489
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 10
report
Phase composition2353δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.51527, U 0.48473
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 11
report
Phase composition2357δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.51737, U 0.48263
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 12
report
Phase composition2371δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.51691, U 0.48309
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 13
report
Phase composition2381δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.51946, U 0.48054
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 14
report
Phase composition2413δ-UC2(φ1) + C
δ-UC2(φ1): C 0.658, U 0.342
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 14
report
Phase composition2415δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.51923, U 0.48077
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 15
report
Phase composition2423UC + L + UC(φ1) + L(φ2)
UC: C 0.4755, U 0.5245; L: C 0.332, U 0.668; UC(φ1): C 0.4755, U 0.5245; L(φ2): C 0.332, U 0.668
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 24
report
Phase composition2433δ-UC2(φ1) + C
δ-UC2(φ1): C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 15
report
Phase composition2437L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.33186, U 0.66814; δ-UC: C 0.476, U 0.524; L(φ1): C 0.33186, U 0.66814; δ-UC(φ2): C 0.476, U 0.524
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 14
report
Phase composition2473L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.34598, U 0.65402; δ-UC: C 0.478, U 0.522; L(φ1): C 0.34598, U 0.65402; δ-UC(φ2): C 0.478, U 0.522
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 3
report
Phase composition2523L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.36536, U 0.63464; δ-UC: C 0.476, U 0.524; L(φ1): C 0.36536, U 0.63464; δ-UC(φ2): C 0.476, U 0.524
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 15
report
Phase composition2523UC + L + UC(φ1) + L(φ2)
UC: C 0.4755, U 0.5245; L: C 0.365, U 0.635; UC(φ1): C 0.4755, U 0.5245; L(φ2): C 0.365, U 0.635
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 25
report
Phase composition2533δ-UC(ϕ1) + δ-UC(ϕ2)
δ-UC(ϕ1): C 0.5183, U 0.4817
experimental[1] Chevalier 2001
cites Scher 1975
Table 10, p. 11, row 16
report
Phase composition2553δ-UC2(φ1) + C
δ-UC2(φ1): C 0.658, U 0.342
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 16
report
Phase composition2573L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.39812, U 0.60188; δ-UC: C 0.479, U 0.521; L(φ1): C 0.39812, U 0.60188; δ-UC(φ2): C 0.479, U 0.521
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 4
report
Phase composition2573δ-UC2(φ1) + C
δ-UC2(φ1): C 0.658, U 0.342
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 17
report
Phase composition2623UC + L + UC(φ1) + L(φ2)
UC: C 0.4769, U 0.5231; L: C 0.396, U 0.604; UC(φ1): C 0.4769, U 0.5231; L(φ2): C 0.396, U 0.604
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 26
report
Phase composition2633δ-UC2(φ1) + C
δ-UC2(φ1): C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Storms 1967 doi
Table 8, p. 8, row 18
report
Phase composition2653δ-(UC, UC2) + L + δ-(UC, UC2)(φ1) + L(φ2)
δ-(UC, UC2): C 0.56325, U 0.43675; L: C 0.573, U 0.427; δ-(UC, UC2)(φ1): C 0.56325, U 0.43675; L(φ2): C 0.573, U 0.427
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 17
report
Phase composition2655L + δ-UC, UC2 + φ1 + φ2
L: C 0.6, U 0.4; δ-UC, UC2: C 0.6, U 0.4; φ1: C 0.6, U 0.4; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 10, row 14
report
Phase composition2655L + δ-UC, UC2 + φ1 + φ2
L: C 0.62264, U 0.37736; δ-UC, UC2: C 0.623, U 0.377; φ1: C 0.62264, U 0.37736; φ2: C 0.623, U 0.377
experimental[1] Chevalier 2001Table 9, p. 10, row 16
report
Phase composition2655L + δ-UC, UC2 + φ1 + φ2
L: C 0.59184, U 0.40816; δ-UC, UC2: C 0.592, U 0.408; φ1: C 0.59184, U 0.40816; φ2: C 0.592, U 0.408
experimental[1] Chevalier 2001Table 9, p. 10, row 13
report
Phase composition2655L + δ-UC, UC2 + φ1 + φ2
L: C 0.62963, U 0.37037; δ-UC, UC2: C 0.63, U 0.37; φ1: C 0.62963, U 0.37037; φ2: C 0.63, U 0.37
experimental[1] Chevalier 2001Table 9, p. 10, row 17
report
Phase composition2655L + δ-UC, UC2 + φ1 + φ2
L: C 0.61538, U 0.38462; δ-UC, UC2: C 0.615, U 0.385; φ1: C 0.61538, U 0.38462; φ2: C 0.615, U 0.385
experimental[1] Chevalier 2001Table 9, p. 10, row 15
report
Phase composition2655ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.6, U 0.4; ϕ2: C 0.6, U 0.4; φ1: C 0.6, U 0.4; φ2: C 0.6, U 0.4
experimental[1] Chevalier 2001Table 9, p. 9, row 67
report
Phase composition2655ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.59184, U 0.40816; ϕ2: C 0.592, U 0.408; φ1: C 0.59184, U 0.40816; φ2: C 0.592, U 0.408
experimental[1] Chevalier 2001Table 9, p. 9, row 66
report
Phase composition2655ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.62963, U 0.37037; ϕ2: C 0.63, U 0.37; φ1: C 0.62963, U 0.37037; φ2: C 0.63, U 0.37
experimental[1] Chevalier 2001Table 9, p. 9, row 70
report
Phase composition2655ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.62264, U 0.37736; ϕ2: C 0.623, U 0.377; φ1: C 0.62264, U 0.37736; φ2: C 0.623, U 0.377
experimental[1] Chevalier 2001Table 9, p. 9, row 69
report
Phase composition2655ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.61538, U 0.38462; ϕ2: C 0.615, U 0.385; φ1: C 0.61538, U 0.38462; φ2: C 0.615, U 0.385
experimental[1] Chevalier 2001Table 9, p. 9, row 68
report
Phase composition2663L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.50414, U 0.49586; δ-UC: C 0.483, U 0.517; L(φ1): C 0.50414, U 0.49586; δ-UC(φ2): C 0.483, U 0.517
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 5
report
Phase composition2663δ-(UC, UC2) + L + δ-(UC, UC2)(φ1) + L(φ2)
δ-(UC, UC2): C 0.61977, U 0.38023; L: C 0.61, U 0.39; δ-(UC, UC2)(φ1): C 0.61977, U 0.38023; L(φ2): C 0.61, U 0.39
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 20
report
Phase composition2668L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.50736, U 0.49264; δ-UC: C 0.483, U 0.517; L(φ1): C 0.50736, U 0.49264; δ-UC(φ2): C 0.483, U 0.517
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 6
report
Phase composition2668L + δ-UC, UC2 + φ1 + φ2
L: C 0.58334, U 0.41666; δ-UC, UC2: C 0.583, U 0.417; φ1: C 0.58334, U 0.41666; φ2: C 0.583, U 0.417
experimental[1] Chevalier 2001Table 9, p. 10, row 12
report
Phase composition2668L + δ-UC, UC2 + φ1 + φ2
L: C 0.64286, U 0.35714; δ-UC, UC2: C 0.643, U 0.357; φ1: C 0.64286, U 0.35714; φ2: C 0.643, U 0.357
experimental[1] Chevalier 2001Table 9, p. 10, row 18
report
Phase composition2668δ-(UC, UC2) + L + δ-(UC, UC2)(φ1) + L(φ2)
δ-(UC, UC2): C 0.63717, U 0.36283; L: C 0.627, U 0.373; δ-(UC, UC2)(φ1): C 0.63717, U 0.36283; L(φ2): C 0.627, U 0.373
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 21
report
Phase composition2668ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.58334, U 0.41666; ϕ2: C 0.583, U 0.417; φ1: C 0.58334, U 0.41666; φ2: C 0.583, U 0.417
experimental[1] Chevalier 2001Table 9, p. 9, row 65
report
Phase composition2668ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.64286, U 0.35714; ϕ2: C 0.643, U 0.357; φ1: C 0.64286, U 0.35714; φ2: C 0.643, U 0.357
experimental[1] Chevalier 2001Table 9, p. 9, row 71
report
Phase composition2673L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.42027, U 0.57973; δ-UC: C 0.478, U 0.522; L(φ1): C 0.42027, U 0.57973; δ-UC(φ2): C 0.478, U 0.522
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 16
report
Phase composition2683δ-(UC, UC2) + L + δ-(UC, UC2)(φ1) + L(φ2)
δ-(UC, UC2): C 0.60592, U 0.39408; L: C 0.596, U 0.404; δ-(UC, UC2)(φ1): C 0.60592, U 0.39408; L(φ2): C 0.596, U 0.404
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 19
report
Phase composition2683δ-(UC, UC2) + L + δ-(UC, UC2)(φ1) + L(φ2)
δ-(UC, UC2): C 0.5834, U 0.4166; L: C 0.593, U 0.407; δ-(UC, UC2)(φ1): C 0.5834, U 0.4166; L(φ2): C 0.593, U 0.407
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 18
report
Phase composition2691L + δ-UC, UC2 + φ1 + φ2
L: C 0.55556, U 0.44444; δ-UC, UC2: C 0.556, U 0.444; φ1: C 0.55556, U 0.44444; φ2: C 0.556, U 0.444
experimental[1] Chevalier 2001Table 9, p. 10, row 11
report
Phase composition2691ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.55556, U 0.44444; ϕ2: C 0.556, U 0.444; φ1: C 0.55556, U 0.44444; φ2: C 0.556, U 0.444
experimental[1] Chevalier 2001Table 9, p. 9, row 64
report
Phase composition2703L + C1-gra + φ1 + φ2
L: C 0.66887, U 0.33113; C1-gra: C 1, U 0; φ1: C 0.66887, U 0.33113; φ2: C 1, U 0
experimental[1] Chevalier 2001Table 9, p. 10, row 2
report
Phase composition2703L + δ-UC, UC2 + φ1 + φ2
L: C 0.65517, U 0.34483; δ-UC, UC2: C 0.655, U 0.345; φ1: C 0.65517, U 0.34483; φ2: C 0.655, U 0.345
experimental[1] Chevalier 2001Table 9, p. 10, row 19
report
Phase composition2703L(ϕ1) + C1-gra(ϕ2) + δ-UC2 + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.66887, U 0.33113; ϕ2: C 1, U 0; φ1: C 0.66887, U 0.33113; φ2: C 1, U 0
experimental[1] Chevalier 2001Table 9, p. 9, row 55
report
Phase composition2703δ-UC2 + C1-gra + φ1 + φ2
δ-UC2: C 0.66216, U 0.33784; C1-gra: C 1, U 0; φ1: C 0.66216, U 0.33784; φ2: C 1, U 0
experimental[1] Chevalier 2001Table 9, p. 10, row 1
report
Phase composition2703δ-UC2(ϕ1) + C1-gra(ϕ2) + L + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.66216, U 0.33784; ϕ2: C 1, U 0; φ1: C 0.66216, U 0.33784; φ2: C 1, U 0
experimental[1] Chevalier 2001Table 9, p. 9, row 54
report
Phase composition2703ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.65517, U 0.34483; ϕ2: C 0.655, U 0.345; φ1: C 0.65517, U 0.34483; φ2: C 0.655, U 0.345
experimental[1] Chevalier 2001Table 9, p. 9, row 72
report
Phase composition2713L + δ-UC, UC2 + φ1 + φ2
L: C 0.66102, U 0.33898; δ-UC, UC2: C 0.661, U 0.339; φ1: C 0.66102, U 0.33898; φ2: C 0.661, U 0.339
experimental[1] Chevalier 2001Table 9, p. 10, row 21
report
Phase composition2713L + δ-UC, UC2 + φ1 + φ2
L: C 0.65753, U 0.34247; δ-UC, UC2: C 0.658, U 0.342; φ1: C 0.65753, U 0.34247; φ2: C 0.658, U 0.342
experimental[1] Chevalier 2001Table 9, p. 10, row 20
report
Phase composition2713ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.66102, U 0.33898; ϕ2: C 0.661, U 0.339; φ1: C 0.66102, U 0.33898; φ2: C 0.661, U 0.339
experimental[1] Chevalier 2001Table 9, p. 9, row 74
report
Phase composition2713ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.65753, U 0.34247; ϕ2: C 0.658, U 0.342; φ1: C 0.65753, U 0.34247; φ2: C 0.658, U 0.342
experimental[1] Chevalier 2001Table 9, p. 9, row 73
report
Phase composition2723L + δ-(UC, UC2) + L(φ1) + δ-(UC, UC2)(φ2)
L: C 0.56325, U 0.43675; δ-(UC, UC2): C 0.553, U 0.447; L(φ1): C 0.56325, U 0.43675; δ-(UC, UC2)(φ2): C 0.553, U 0.447
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 7
report
Phase composition2723L + δ-UC + L(φ1) + δ-UC(φ2)
L: C 0.43672, U 0.56328; δ-UC: C 0.482, U 0.518; L(φ1): C 0.43672, U 0.56328; δ-UC(φ2): C 0.482, U 0.518
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 17
report
Phase composition2723UC + L + UC(φ1) + L(φ2)
UC: C 0.48248, U 0.51752; L: C 0.437, U 0.563; UC(φ1): C 0.48248, U 0.51752; L(φ2): C 0.437, U 0.563
experimental[1] Chevalier 2001
cites Guinet 1965
Table 6, p. 7, row 27
report
Phase composition2728L + δ-(UC, UC2) + L(φ1) + δ-(UC, UC2)(φ2)
L: C 0.5834, U 0.4166; δ-(UC, UC2): C 0.573, U 0.427; L(φ1): C 0.5834, U 0.4166; δ-(UC, UC2)(φ2): C 0.573, U 0.427
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 8
report
Phase composition2733L + δ-(UC, UC2) + L(φ1) + δ-(UC, UC2)(φ2)
L: C 0.60592, U 0.39408; δ-(UC, UC2): C 0.616, U 0.384; L(φ1): C 0.60592, U 0.39408; δ-(UC, UC2)(φ2): C 0.616, U 0.384
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 9
report
Phase composition2738L + δ-UC, UC2 + φ1 + φ2
L: C 0.53488, U 0.46512; δ-UC, UC2: C 0.535, U 0.465; φ1: C 0.53488, U 0.46512; φ2: C 0.535, U 0.465
experimental[1] Chevalier 2001Table 9, p. 10, row 10
report
Phase composition2738ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.53488, U 0.46512; ϕ2: C 0.535, U 0.465; φ1: C 0.53488, U 0.46512; φ2: C 0.535, U 0.465
experimental[1] Chevalier 2001Table 9, p. 9, row 63
report
Phase composition2743L + δ-UC, UC2 + φ1 + φ2
L: C 0.4898, U 0.5102; δ-UC, UC2: C 0.49, U 0.51; φ1: C 0.4898, U 0.5102; φ2: C 0.49, U 0.51
experimental[1] Chevalier 2001Table 9, p. 10, row 5
report
Phase composition2743L/δ-UC + UC2 + ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.4898, U 0.5102; ϕ2: C 0.49, U 0.51; φ1: C 0.4898, U 0.5102; φ2: C 0.49, U 0.51
experimental[1] Chevalier 2001Table 9, p. 9, row 58
report
Phase composition2749L + δ-UC, UC2 + φ1 + φ2
L: C 0.52381, U 0.47619; δ-UC, UC2: C 0.524, U 0.476; φ1: C 0.52381, U 0.47619; φ2: C 0.524, U 0.476
experimental[1] Chevalier 2001Table 9, p. 10, row 9
report
Phase composition2749ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.52381, U 0.47619; ϕ2: C 0.524, U 0.476; φ1: C 0.52381, U 0.47619; φ2: C 0.524, U 0.476
experimental[1] Chevalier 2001Table 9, p. 9, row 62
report
Phase composition2753L + δ-(UC2) + L(φ1) + δ-(UC2)(φ2)
L: C 0.66216, U 0.33784; δ-(UC2): C 0.655, U 0.345; L(φ1): C 0.66216, U 0.33784; δ-(UC2)(φ2): C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 12
report
Phase composition2755L + δ-UC, UC2 + φ1 + φ2
L: C 0.5122, U 0.4878; δ-UC, UC2: C 0.521, U 0.479; φ1: C 0.5122, U 0.4878; φ2: C 0.521, U 0.479
experimental[1] Chevalier 2001Table 9, p. 10, row 8
report
Phase composition2755ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.5122, U 0.4878; ϕ2: C 0.521, U 0.479; φ1: C 0.5122, U 0.4878; φ2: C 0.521, U 0.479
experimental[1] Chevalier 2001Table 9, p. 9, row 61
report
Phase composition2758L + δ-(UC, UC2) + L(φ1) + δ-(UC, UC2)(φ2)
L: C 0.63717, U 0.36283; δ-(UC, UC2): C 0.647, U 0.353; L(φ1): C 0.63717, U 0.36283; δ-(UC, UC2)(φ2): C 0.647, U 0.353
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 11
report
Phase composition2758L + δ-(UC, UC2) + L(φ1) + δ-(UC, UC2)(φ2)
L: C 0.61977, U 0.38023; δ-(UC, UC2): C 0.63, U 0.37; L(φ1): C 0.61977, U 0.38023; δ-(UC, UC2)(φ2): C 0.63, U 0.37
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 10
report
Phase composition2762L + δ-UC, UC2 + φ1 + φ2
L: C 0.5, U 0.5; δ-UC, UC2: C 0.5, U 0.5; φ1: C 0.5, U 0.5; φ2: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 9, p. 10, row 7
report
Phase composition2762ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.5, U 0.5; ϕ2: C 0.5, U 0.5; φ1: C 0.5, U 0.5; φ2: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 9, p. 9, row 60
report
Phase composition2763L + δ-UC, UC2 + φ1 + φ2
L: C 0.49749, U 0.50251; δ-UC, UC2: C 0.497, U 0.503; φ1: C 0.49749, U 0.50251; φ2: C 0.497, U 0.503
experimental[1] Chevalier 2001Table 9, p. 10, row 6
report
Phase composition2763ϕ1 + ϕ2 + φ1 + φ2
ϕ1: C 0.49749, U 0.50251; ϕ2: C 0.497, U 0.503; φ1: C 0.49749, U 0.50251; φ2: C 0.497, U 0.503
experimental[1] Chevalier 2001Table 9, p. 9, row 59
report
Phase composition2773L + C + L(φ1) + C(φ2)
L: C 0.67713, U 0.32287; C: C 0.655, U 0.345; L(φ1): C 0.67713, U 0.32287; C(φ2): C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 13
report
Phase composition2873L + C + L(φ1) + C(φ2)
L: C 0.71009, U 0.28991; C: C 1, U 0; L(φ1): C 0.71009, U 0.28991; C(φ2): C 1, U 0
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 14
report
Phase composition2953L + C + L(φ1) + C(φ2)
L: C 0.71009, U 0.28991; C: C 1, U 0; L(φ1): C 0.71009, U 0.28991; C(φ2): C 1, U 0
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 15
report
Phase composition2973L + C + L(φ1) + C(φ2)
L: C 0.7299, U 0.2701; C: C 1, U 0; L(φ1): C 0.7299, U 0.2701; C(φ2): C 1, U 0
experimental[1] Chevalier 2001
cites Mallet 1952
Table 3, p. 5, row 16
report

Heat capacity / entropy / enthalpy (928)

Heat capacity / entropy / enthalpy, C–U system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Entropy
printed: S°(298)
29.8738 J/mol-atom/K298.15C0.500U0.500
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Hultgren 1973
Table 21, p. 17, row 33
report
Entropy
printed: S°(298)
29.6018 J/mol-atom/K298.15C0.500U0.500
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 21, p. 17, row 31
report
Entropy
printed: S°(298)
29.8738 J/mol-atom/K298.15C0.500U0.500
alloy: C 0.5, U 0.5
model[1] Chevalier 2001Table 21, p. 17, row 34
report
Entropy
printed: S°298.15
29.874 J/mol-atom/K298.15C0.500U0.500(fcc_B1, δ)
alloy: C 0.5, U 0.5
model[1] Chevalier 2001Table 34, p. 28, row 1
report
Entropy
printed: S°298.15
26.68 J/mol-atom/K298.15C0.600U0.400(ε)
alloy: C 0.6, U 0.4
model[1] Chevalier 2001Table 34, p. 28, row 10
report
Entropy
printed: S°(298)
23.973 J/mol-atom/K298.15C0.655U0.345
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 21, p. 17, row 40
report
Entropy
printed: S°(298)
23.4793 J/mol-atom/K298.15C0.655U0.345
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 21, p. 17, row 37
report
Entropy
printed: S°298.15
23.973 J/mol-atom/K298.15C0.665U0.345(bct, α)
alloy: C 0.658416, U 0.341584
model[1] Chevalier 2001Table 34, p. 28, row 9
report
Entropy
printed: S°T
24.0758 J/mol-atom/K298.15U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 1
report
Entropy
printed: S°T
23.5602 J/mol-atom/K298.15U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 1
report
Entropy
printed: S°T
29.6018 J/mol-atom/K298.15U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 1
report
Entropy
printed: S°T
29.8738 J/mol-atom/K298.15U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 1
report
Entropy
printed: S°(298)
27.5726 J/mol-atom/K298.15U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Hultgren 1973
Table 21, p. 17, row 41
report
Entropy
printed: S°(298)
26.68 J/mol-atom/K298.15U2C3
alloy: C 0.6, U 0.4
model[1] Chevalier 2001Table 21, p. 17, row 43
report
Entropy
printed: S°(298)
27.5558 J/mol-atom/K298.15U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 21, p. 17, row 42
report
Entropy
printed: S°(298)
29.8738 J/mol-atom/K298.15UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 21, p. 17, row 30
report
Entropy
printed: S°(298)
29.6018 J/mol-atom/K298.15UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 21, p. 17, row 32
report
Entropy
printed: S°T
23.5314 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 16
report
Entropy
printed: S°(298)
24.0758 J/mol-atom/K298.15UC1.90
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 21, p. 17, row 35
report
Entropy
printed: S°(298)
23.5602 J/mol-atom/K298.15UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 21, p. 17, row 38
report
Entropy
printed: S°(298)
23.5314 J/mol-atom/K298.15UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 21, p. 17, row 36
report
Entropy
printed: S°(298)
23.2212 J/mol-atom/K298.15UC1.90
alloy: C 0.66, U 0.34
experimental[1] Chevalier 2001
cites Hultgren 1973
Table 21, p. 17, row 39
report
Entropy
printed: S°T
24.2044 J/mol-atom/K300U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 2
report
Entropy
printed: S°T
30.0202 J/mol-atom/K300U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 2
report
Entropy
printed: S°T
23.618 J/mol-atom/K300UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 17
report
Entropy
printed: S°T
25.9697 J/mol-atom/K330UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 18
report
Entropy
printed: S°T
30.5732 J/mol-atom/K400U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 3
report
Entropy
printed: S°T
37.6351 J/mol-atom/K400U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 3
report
Entropy
printed: S°T
30.1248 J/mol-atom/K400UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 19
report
Entropy
printed: S°T
35.971 J/mol-atom/K500U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 4
report
Entropy
printed: S°T
35.7372 J/mol-atom/K500U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 2
report
Entropy
printed: S°T
43.8692 J/mol-atom/K500U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 4
report
Entropy
printed: S°T
43.5554 J/mol-atom/K500U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 2
report
Entropy
printed: S°T
35.9247 J/mol-atom/K500UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 20
report
Entropy
printed: S°T
40.6405 J/mol-atom/K600U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 5
report
Entropy
printed: S°T
48.8645 J/mol-atom/K600U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 5
report
Entropy
printed: S°T
40.1231 J/mol-atom/K600UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 21
report
Entropy
printed: S°T
44.7245 J/mol-atom/K700U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 6
report
Entropy
printed: S°T
44.4225 J/mol-atom/K700U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 3
report
Entropy
printed: S°T
53.6389 J/mol-atom/K700U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 6
report
Entropy
printed: S°T
53.346 J/mol-atom/K700U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 3
report
Entropy
printed: S°T
44.2061 J/mol-atom/K700UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 22
report
Entropy
printed: S°T
48.3516 J/mol-atom/K800U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 7
report
Entropy
printed: S°T
57.6137 J/mol-atom/K800U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 7
report
Entropy
printed: S°T
47.8419 J/mol-atom/K800UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 23
report
Entropy
printed: S°T
51.5932 J/mol-atom/K900U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 8
report
Entropy
printed: S°T
51.1602 J/mol-atom/K900U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 4
report
Entropy
printed: S°T
60.919 J/mol-atom/K900U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 4
report
Entropy
printed: S°T
61.191 J/mol-atom/K900U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 8
report
Entropy
printed: S°T
51.1025 J/mol-atom/K900UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 24
report
Entropy
printed: S°T
54.5634 J/mol-atom/K1000U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 9
report
Entropy
printed: S°T
64.4336 J/mol-atom/K1000U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 9
report
Entropy
printed: S°T
54.089 J/mol-atom/K1000UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 25
report
Entropy
printed: S°T
57.2908 J/mol-atom/K1100U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 10
report
Entropy
printed: S°T
56.8014 J/mol-atom/K1100U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 5
report
Entropy
printed: S°T
67.4042 J/mol-atom/K1100U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 10
report
Entropy
printed: S°T
67.1532 J/mol-atom/K1100U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 5
report
Entropy
printed: S°T
56.8014 J/mol-atom/K1100UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 26
report
Entropy
printed: S°T
59.8612 J/mol-atom/K1200U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 11
report
Entropy
printed: S°T
70.1866 J/mol-atom/K1200U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 11
report
Entropy
printed: S°T
59.3407 J/mol-atom/K1200UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 27
report
Entropy
printed: S°T
62.303 J/mol-atom/K1300U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 12
report
Entropy
printed: S°T
61.8655 J/mol-atom/K1300U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 6
report
Entropy
printed: S°T
72.5087 J/mol-atom/K1300U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 6
report
Entropy
printed: S°T
72.7598 J/mol-atom/K1300U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 12
report
Entropy
printed: S°T
61.6924 J/mol-atom/K1300UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 28
report
Entropy
printed: S°T
64.6735 J/mol-atom/K1400U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 13
report
Entropy
printed: S°T
75.2074 J/mol-atom/K1400U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 13
report
Entropy
printed: S°T
63.9142 J/mol-atom/K1400UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 29
report
Entropy
printed: S°T
66.9868 J/mol-atom/K1500U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 14
report
Entropy
printed: S°T
66.6266 J/mol-atom/K1500U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 7
report
Entropy
printed: S°T
77.5086 J/mol-atom/K1500U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 14
report
Entropy
printed: S°T
77.2366 J/mol-atom/K1500U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 7
report
Entropy
printed: S°T
65.357 J/mol-atom/K1500UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 30
report
Entropy
printed: S°T
69.2716 J/mol-atom/K1600U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 15
report
Entropy
printed: S°T
79.7261 J/mol-atom/K1600U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 15
report
Entropy
printed: S°T
67.9251 J/mol-atom/K1600UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 31
report
Entropy
printed: S°T
71.5564 J/mol-atom/K1700U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 16
report
Entropy
printed: S°T
71.2723 J/mol-atom/K1700U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 8
report
Entropy
printed: S°T
81.5462 J/mol-atom/K1700U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 8
report
Entropy
printed: S°T
81.839 J/mol-atom/K1700U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 16
report
Entropy
printed: S°T
69.7862 J/mol-atom/K1700UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 32
report
Entropy
printed: S°T
73.8269 J/mol-atom/K1800U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 17
report
Entropy
printed: S°T
83.8683 J/mol-atom/K1800U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 17
report
Entropy
printed: S°T
70.8394 J/mol-atom/K1800UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 33
report
Entropy
printed: S°T
76.0974 J/mol-atom/K1900U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 18
report
Entropy
printed: S°T
75.918 J/mol-atom/K1900U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 9
report
Entropy
printed: S°T
85.8138 J/mol-atom/K1900U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 18
report
Entropy
printed: S°T
85.521 J/mol-atom/K1900U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 9
report
Entropy
printed: S°T
78.3679 J/mol-atom/K2000U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 19
report
Entropy
printed: S°T
87.7176 J/mol-atom/K2000U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 19
report
Entropy
printed: S°T
79.193 J/mol-atom/K2038U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 10
report
Entropy
printed: S°T
80.9676 J/mol-atom/K2038U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 11
report
Entropy
printed: S°T
81.6237 J/mol-atom/K2060U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 21
report
Entropy
printed: S°T
79.7102 J/mol-atom/K2060U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 20
report
Entropy
printed: S°T
82.3377 J/mol-atom/K2100U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 22
report
Entropy
printed: S°T
82.2372 J/mol-atom/K2100U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 12
report
Entropy
printed: S°T
89.5585 J/mol-atom/K2100U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 22
report
Entropy
printed: S°T
89.2656 J/mol-atom/K2100U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 12
report
Entropy
printed: S°T
84.137 J/mol-atom/K2200U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 23
report
Entropy
printed: S°T
91.3367 J/mol-atom/K2200U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 23
report
Entropy
printed: S°T
85.9505 J/mol-atom/K2300U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 24
report
Entropy
printed: S°T
86.0461 J/mol-atom/K2300U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 13
report
Entropy
printed: S°T
93.094 J/mol-atom/K2300U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 24
report
Entropy
printed: S°T
92.822 J/mol-atom/K2300U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 13
report
Entropy
printed: S°T
87.764 J/mol-atom/K2400U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 25
report
Entropy
printed: S°T
94.8094 J/mol-atom/K2400U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 25
report
Entropy
printed: S°T
89.5919 J/mol-atom/K2500U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 26
report
Entropy
printed: S°T
89.653 J/mol-atom/K2500U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 14
report
Entropy
printed: S°T
96.2529 J/mol-atom/K2500U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 14
report
Entropy
printed: S°T
96.483 J/mol-atom/K2500U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 26
report
Entropy
printed: S°T
91.4197 J/mol-atom/K2600U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 27
report
Entropy
printed: S°T
98.1357 J/mol-atom/K2600U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 27
report
Entropy
printed: S°T
93.2475 J/mol-atom/K2700U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 28
report
Entropy
printed: S°T
99.5583 J/mol-atom/K2700U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 15
report
Entropy
printed: S°T
99.7675 J/mol-atom/K2700U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 28
report
Entropy
printed: S°T
95.0896 J/mol-atom/K2800U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 29
report
Entropy
printed: S°T
94.4574 J/mol-atom/K2800U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 16
report
Entropy
printed: S°T
101.357 J/mol-atom/K2800U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 29
report
Entropy
printed: S°T
101.567 J/mol-atom/K2823U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 17
report
Entropy
printed: S°T
96.9317 J/mol-atom/K2900U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 30
report
Entropy
printed: S°T
98.7738 J/mol-atom/K3000U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 31
report
Heat capacity
printed: Cp
20.8058 J/mol-atom/K298.15U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 1
report
Heat capacity
printed: Cp
20.8769 J/mol-atom/K298.15U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 1
report
Heat capacity
printed: Cp
20.9489 J/mol-atom/K298.15U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 1
report
Heat capacity
printed: Cp
21.4729 J/mol-atom/K298.15U0.4C0.6
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 1
report
Heat capacity
printed: Cp
25.0622 J/mol-atom/K298.15U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 1
report
Heat capacity
printed: Cp
25.3341 J/mol-atom/K298.15U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 1
report
Heat capacity
printed: Cp(U0.5C0.5)
25.0622 J/mol-atom/K298.15UC
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 1
report
Heat capacity
printed: Cp
20.92 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 16
report
Heat capacity
printed: Cp(U0.345C0.655)
20.8769 J/mol-atom/K298.15UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 1
report
Heat capacity
printed: Cp
20.8629 J/mol-atom/K300U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 2
report
Heat capacity
printed: Cp
20.9056 J/mol-atom/K300U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 2
report
Heat capacity
printed: Cp
21.489 J/mol-atom/K300U0.4C0.6
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 2
report
Heat capacity
printed: Cp
25.3969 J/mol-atom/K300U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 2
report
Heat capacity
printed: Cp(U0.5C0.5)
25.104 J/mol-atom/K300UC
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 2
report
Heat capacity
printed: Cp
20.9921 J/mol-atom/K300UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 17
report
Heat capacity
printed: Cp(U0.345C0.655)
20.9056 J/mol-atom/K300UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 2
report
Heat capacity
printed: Cp
22.0021 J/mol-atom/K330UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 18
report
Heat capacity
printed: Cp
23.3476 J/mol-atom/K400U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 3
report
Heat capacity
printed: Cp
23.1198 J/mol-atom/K400U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 3
report
Heat capacity
printed: Cp
27.3634 J/mol-atom/K400U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 3
report
Heat capacity
printed: Cp
27.5935 J/mol-atom/K400U0.5C0.5
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 3
report
Heat capacity
printed: Cp(U0.4C0.6)
23.9911 J/mol-atom/K400U2C3
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 3
report
Heat capacity
printed: Cp
23.6035 J/mol-atom/K400UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 19
report
Heat capacity
printed: Cp(U0.345C0.655)
23.1198 J/mol-atom/K400UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 3
report
Heat capacity
printed: Cp
25.0326 J/mol-atom/K500U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 4
report
Heat capacity
printed: Cp
24.5576 J/mol-atom/K500U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 4
report
Heat capacity
printed: Cp
25.2339 J/mol-atom/K500U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 2
report
Heat capacity
printed: Cp
25.0873 J/mol-atom/K500U0.4C0.6
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 4
report
Heat capacity
printed: Cp
28.3884 J/mol-atom/K500U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 4
report
Heat capacity
printed: Cp
28.4303 J/mol-atom/K500U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 2
report
Heat capacity
printed: Cp
28.7859 J/mol-atom/K500U0.5C0.5
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 4
report
Heat capacity
printed: Cp
25.0463 J/mol-atom/K500UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 20
report
Heat capacity
printed: Cp(U0.345C0.655)
24.5576 J/mol-atom/K500UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 4
report
Heat capacity
printed: Cp
26.1321 J/mol-atom/K600U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 5
report
Heat capacity
printed: Cp
25.6791 J/mol-atom/K600U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 5
report
Heat capacity
printed: Cp
25.7483 J/mol-atom/K600U0.4C0.6
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 5
report
Heat capacity
printed: Cp
29.0579 J/mol-atom/K600U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 5
report
Heat capacity
printed: Cp(U0.5C0.5)
29.5181 J/mol-atom/K600UC
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 5
report
Heat capacity
printed: Cp
25.9841 J/mol-atom/K600UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 21
report
Heat capacity
printed: Cp(U0.345C0.655)
25.6791 J/mol-atom/K600UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 5
report
Heat capacity
printed: Cp
26.8461 J/mol-atom/K700U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 6
report
Heat capacity
printed: Cp
26.6137 J/mol-atom/K700U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 6
report
Heat capacity
printed: Cp
26.3015 J/mol-atom/K700U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 3
report
Heat capacity
printed: Cp
29.6018 J/mol-atom/K700U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 6
report
Heat capacity
printed: Cp
29.6855 J/mol-atom/K700U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 3
report
Heat capacity
printed: Cp(U0.4C0.6)
26.2923 J/mol-atom/K700U2C3
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 6
report
Heat capacity
printed: Cp
28.493 J/mol-atom/K700UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 1
report
Heat capacity
printed: Cp(U0.5C0.5)
30.062 J/mol-atom/K700UC
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 6
report
Heat capacity
printed: Cp
28.493 J/mol-atom/K700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 1
report
Heat capacity
printed: Cp
26.7199 J/mol-atom/K700UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 22
report
Heat capacity
printed: Cp(U0.345C0.655)
26.6137 J/mol-atom/K700UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 6
report
Heat capacity
printed: Cp
27.3745 J/mol-atom/K800U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 7
report
Heat capacity
printed: Cp
27.4189 J/mol-atom/K800U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 7
report
Heat capacity
printed: Cp
26.8529 J/mol-atom/K800U0.4C0.6
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 7
report
Heat capacity
printed: Cp
30.083 J/mol-atom/K800U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 7
report
Heat capacity
printed: Cp
30.5014 J/mol-atom/K800U0.5C0.5
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 7
report
Heat capacity
printed: Cp
29.2043 J/mol-atom/K800UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 2
report
Heat capacity
printed: Cp
29.2043 J/mol-atom/K800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 2
report
Heat capacity
printed: Cp
27.3258 J/mol-atom/K800UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 23
report
Heat capacity
printed: Cp(U0.345C0.655)
27.4189 J/mol-atom/K800UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 7
report
Heat capacity
printed: Cp
27.8315 J/mol-atom/K900U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 8
report
Heat capacity
printed: Cp
28.1234 J/mol-atom/K900U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 8
report
Heat capacity
printed: Cp
27.398 J/mol-atom/K900U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 4
report
Heat capacity
printed: Cp
27.4972 J/mol-atom/K900U0.4C0.6
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 8
report
Heat capacity
printed: Cp
30.6269 J/mol-atom/K900U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 4
report
Heat capacity
printed: Cp
30.5641 J/mol-atom/K900U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 8
report
Heat capacity
printed: Cp
30.9198 J/mol-atom/K900U0.5C0.5
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 8
report
Heat capacity
printed: Cp
29.9365 J/mol-atom/K900UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 3
report
Heat capacity
printed: Cp
29.9365 J/mol-atom/K900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 3
report
Heat capacity
printed: Cp
27.8741 J/mol-atom/K900UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 24
report
Heat capacity
printed: Cp(U0.345C0.655)
28.1234 J/mol-atom/K900UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 8
report
Heat capacity
printed: Cp
28.3741 J/mol-atom/K1000U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 9
report
Heat capacity
printed: Cp
28.7416 J/mol-atom/K1000U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 9
report
Heat capacity
printed: Cp
31.0453 J/mol-atom/K1000U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 9
report
Heat capacity
printed: Cp
31.3172 J/mol-atom/K1000U0.5C0.5
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 9
report
Heat capacity
printed: Cp(U0.4C0.6)
28.242 J/mol-atom/K1000U2C3
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 9
report
Heat capacity
printed: Cp
30.6478 J/mol-atom/K1000UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 4
report
Heat capacity
printed: Cp
30.6478 J/mol-atom/K1000UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 4
report
Heat capacity
printed: Cp
28.3646 J/mol-atom/K1000UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 25
report
Heat capacity
printed: Cp(U0.345C0.655)
28.7416 J/mol-atom/K1000UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 9
report
Heat capacity
printed: Cp
29.0738 J/mol-atom/K1100U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 10
report
Heat capacity
printed: Cp
29.288 J/mol-atom/K1100U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 10
report
Heat capacity
printed: Cp
29.125 J/mol-atom/K1100U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 5
report
Heat capacity
printed: Cp
31.5474 J/mol-atom/K1100U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 10
report
Heat capacity
printed: Cp
31.38 J/mol-atom/K1100U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 5
report
Heat capacity
printed: Cp(U0.4C0.6)
29.1206 J/mol-atom/K1100U2C3
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 10
report
Heat capacity
printed: Cp(U0.5C0.5)
31.7566 J/mol-atom/K1100UC
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 10
report
Heat capacity
printed: Cp
31.38 J/mol-atom/K1100UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 5
report
Heat capacity
printed: Cp
31.38 J/mol-atom/K1100UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 5
report
Heat capacity
printed: Cp
28.8552 J/mol-atom/K1100UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 26
report
Heat capacity
printed: Cp(U0.345C0.655)
29.288 J/mol-atom/K1100UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 10
report
Heat capacity
printed: Cp
30.002 J/mol-atom/K1200U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 11
report
Heat capacity
printed: Cp
29.7625 J/mol-atom/K1200U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 11
report
Heat capacity
printed: Cp
30.1499 J/mol-atom/K1200U0.4C0.6
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 11
report
Heat capacity
printed: Cp
32.0704 J/mol-atom/K1200U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 11
report
Heat capacity
printed: Cp
32.1959 J/mol-atom/K1200U0.5C0.5
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 11
report
Heat capacity
printed: Cp
32.0913 J/mol-atom/K1200UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 6
report
Heat capacity
printed: Cp
32.0913 J/mol-atom/K1200UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 6
report
Heat capacity
printed: Cp
29.3024 J/mol-atom/K1200UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 27
report
Heat capacity
printed: Cp(U0.345C0.655)
29.7625 J/mol-atom/K1200UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 11
report
Heat capacity
printed: Cp
31.2158 J/mol-atom/K1300U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 12
report
Heat capacity
printed: Cp
31.6541 J/mol-atom/K1300U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 6
report
Heat capacity
printed: Cp
30.1651 J/mol-atom/K1300U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 12
report
Heat capacity
printed: Cp
32.5934 J/mol-atom/K1300U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 6
report
Heat capacity
printed: Cp
32.6143 J/mol-atom/K1300U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 12
report
Heat capacity
printed: Cp
32.6561 J/mol-atom/K1300U0.5C0.5
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 12
report
Heat capacity
printed: Cp(U0.4C0.6)
31.3131 J/mol-atom/K1300U2C3
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 12
report
Heat capacity
printed: Cp
32.8235 J/mol-atom/K1300UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 7
report
Heat capacity
printed: Cp
32.8235 J/mol-atom/K1300UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 7
report
Heat capacity
printed: Cp
29.7497 J/mol-atom/K1300UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 28
report
Heat capacity
printed: Cp(U0.345C0.655)
30.1651 J/mol-atom/K1300UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 12
report
Heat capacity
printed: Cp
32.7009 J/mol-atom/K1400U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 13
report
Heat capacity
printed: Cp
30.5101 J/mol-atom/K1400U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 13
report
Heat capacity
printed: Cp
33.2 J/mol-atom/K1400U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 13
report
Heat capacity
printed: Cp
33.1582 J/mol-atom/K1400U0.5C0.5
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 13
report
Heat capacity
printed: Cp(U0.4C0.6)
32.6352 J/mol-atom/K1400U2C3
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 13
report
Heat capacity
printed: Cp
33.5348 J/mol-atom/K1400UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 8
report
Heat capacity
printed: Cp
33.5348 J/mol-atom/K1400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 8
report
Heat capacity
printed: Cp
30.1825 J/mol-atom/K1400UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 29
report
Heat capacity
printed: Cp(U0.345C0.655)
30.5101 J/mol-atom/K1400UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 13
report
Heat capacity
printed: C_p
33.943 J/mol-atom/K1484UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 1
report
Heat capacity
printed: C_p
33.943 J/mol-atom/K1490UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 2
report
Heat capacity
printed: Cp
34.4716 J/mol-atom/K1500U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 14
report
Heat capacity
printed: Cp
30.7833 J/mol-atom/K1500U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 14
report
Heat capacity
printed: Cp
35.059 J/mol-atom/K1500U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 7
report
Heat capacity
printed: Cp
33.8276 J/mol-atom/K1500U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 14
report
Heat capacity
printed: Cp
33.744 J/mol-atom/K1500U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 7
report
Heat capacity
printed: Cp(U0.4C0.6)
34.1163 J/mol-atom/K1500U2C3
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 14
report
Heat capacity
printed: Cp(U0.5C0.5)
33.7021 J/mol-atom/K1500UC
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 14
report
Heat capacity
printed: Cp
34.267 J/mol-atom/K1500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 9
report
Heat capacity
printed: Cp
34.267 J/mol-atom/K1500UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 9
report
Heat capacity
printed: Cp
30.6153 J/mol-atom/K1500UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 30
report
Heat capacity
printed: Cp(U0.345C0.655)
30.7833 J/mol-atom/K1500UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 14
report
Heat capacity
printed: C_p
36.181 J/mol-atom/K1587UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 3
report
Heat capacity
printed: Cp
36.4851 J/mol-atom/K1600U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 15
report
Heat capacity
printed: Cp
30.9846 J/mol-atom/K1600U0.345C0.655
alloy: U 0.345
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 15
report
Heat capacity
printed: Cp
34.4552 J/mol-atom/K1600U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 15
report
Heat capacity
printed: Cp
34.2879 J/mol-atom/K1600U0.5C0.5
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 15
report
Heat capacity
printed: Cp(U0.4C0.6)
35.7565 J/mol-atom/K1600U2C3
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 15
report
Heat capacity
printed: Cp
34.9992 J/mol-atom/K1600UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 10
report
Heat capacity
printed: Cp
34.9992 J/mol-atom/K1600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 10
report
Heat capacity
printed: Cp
31.0482 J/mol-atom/K1600UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 31
report
Heat capacity
printed: Cp(U0.345C0.655)
30.9846 J/mol-atom/K1600UC1.90
alloy: U 0.344828
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 15
report
Heat capacity
printed: C_p
38.419 J/mol-atom/K1689UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 4
report
Heat capacity
printed: Cp
38.6556 J/mol-atom/K1700U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 16
report
Heat capacity
printed: Cp
39.3729 J/mol-atom/K1700U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 8
report
Heat capacity
printed: Cp
37.5556 J/mol-atom/K1700U0.4C0.6
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 16
report
Heat capacity
printed: Cp
35.0828 J/mol-atom/K1700U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 8
report
Heat capacity
printed: Cp
35.1456 J/mol-atom/K1700U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 16
report
Heat capacity
printed: Cp
35.7523 J/mol-atom/K1700UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 11
report
Heat capacity
printed: Cp
35.7523 J/mol-atom/K1700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 11
report
Heat capacity
printed: Cp
34.8946 J/mol-atom/K1700UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 16
report
Heat capacity
printed: Cp
31.4521 J/mol-atom/K1700UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 32
report
Heat capacity
printed: C_p
40.657 J/mol-atom/K1794UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 5
report
Heat capacity
printed: Cp
40.9118 J/mol-atom/K1800U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 17
report
Heat capacity
printed: Cp
35.836 J/mol-atom/K1800U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 17
report
Heat capacity
printed: Cp(U0.4C0.6)
39.5137 J/mol-atom/K1800U2C3
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 17
report
Heat capacity
printed: Cp
36.5263 J/mol-atom/K1800UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 12
report
Heat capacity
printed: Cp
36.5263 J/mol-atom/K1800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 12
report
Heat capacity
printed: Cp
35.5431 J/mol-atom/K1800UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 17
report
Heat capacity
printed: Cp
31.8705 J/mol-atom/K1800UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 33
report
Heat capacity
printed: C_p
42.523 J/mol-atom/K1878UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 6
report
Heat capacity
printed: Cp
43.1252 J/mol-atom/K1900U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 18
report
Heat capacity
printed: Cp
44.6101 J/mol-atom/K1900U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 9
report
Heat capacity
printed: Cp
36.5891 J/mol-atom/K1900U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 18
report
Heat capacity
printed: Cp
36.5682 J/mol-atom/K1900U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 9
report
Heat capacity
printed: Cp(U0.4C0.6)
41.5028 J/mol-atom/K1900U2C3
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 18
report
Heat capacity
printed: Cp
37.3422 J/mol-atom/K1900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 13
report
Heat capacity
printed: Cp
37.3422 J/mol-atom/K1900UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 13
report
Heat capacity
printed: Cp
36.2334 J/mol-atom/K1900UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 18
report
Heat capacity
printed: Cp
45.1386 J/mol-atom/K2000U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 19
report
Heat capacity
printed: Cp
43.9236 J/mol-atom/K2000U0.4C0.6
alloy: U 0.4
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 19
report
Heat capacity
printed: Cp
37.3422 J/mol-atom/K2000U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 19
report
Heat capacity
printed: Cp
38.2836 J/mol-atom/K2000UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 14
report
Heat capacity
printed: Cp
38.2836 J/mol-atom/K2000UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 14
report
Heat capacity
printed: Cp
36.9866 J/mol-atom/K2000UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 19
report
Heat capacity
printed: C_p
45.88 J/mol-atom/K2016UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 7
report
Heat capacity
printed: C_p
45.88 J/mol-atom/K2021UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 8
report
Heat capacity
printed: Cp
48.7652 J/mol-atom/K2038U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 10
report
Heat capacity
printed: Cp
42.4748 J/mol-atom/K2038U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 11
report
Heat capacity
printed: Cp
36.9706 J/mol-atom/K2060U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 21
report
Heat capacity
printed: Cp
46.1811 J/mol-atom/K2060U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 20
report
Heat capacity
printed: C_p
37.3 J/mol-atom/K2081UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 10
report
Heat capacity
printed: C_p
37.673 J/mol-atom/K2086UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 11
report
Heat capacity
printed: Cp
37.756 J/mol-atom/K2100U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 22
report
Heat capacity
printed: Cp
42.4748 J/mol-atom/K2100U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 12
report
Heat capacity
printed: Cp
38.1372 J/mol-atom/K2100U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 22
report
Heat capacity
printed: Cp
38.2208 J/mol-atom/K2100U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 12
report
Heat capacity
printed: Cp
39.3714 J/mol-atom/K2100UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 15
report
Heat capacity
printed: Cp
39.3714 J/mol-atom/K2100UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 15
report
Heat capacity
printed: Cp
37.7606 J/mol-atom/K2100UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 20
report
Heat capacity
printed: Cp
39.7266 J/mol-atom/K2200U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 23
report
Heat capacity
printed: Cp
38.953 J/mol-atom/K2200U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 23
report
Heat capacity
printed: Cp
40.7103 J/mol-atom/K2200UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 16
report
Heat capacity
printed: Cp
40.7103 J/mol-atom/K2200UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 16
report
Heat capacity
printed: Cp
38.5765 J/mol-atom/K2200UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 21
report
Heat capacity
printed: C_p
39.911 J/mol-atom/K2213UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 12
report
Heat capacity
printed: C_p
41.403 J/mol-atom/K2277UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 13
report
Heat capacity
printed: Cp
41.6972 J/mol-atom/K2300U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 24
report
Heat capacity
printed: Cp
42.4748 J/mol-atom/K2300U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 13
report
Heat capacity
printed: Cp
39.8108 J/mol-atom/K2300U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 24
report
Heat capacity
printed: Cp
40.0409 J/mol-atom/K2300U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 13
report
Heat capacity
printed: Cp
42.3839 J/mol-atom/K2300UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 17
report
Heat capacity
printed: Cp
42.3839 J/mol-atom/K2300UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 17
report
Heat capacity
printed: Cp
39.4342 J/mol-atom/K2300UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 22
report
Heat capacity
printed: C_p
43.642 J/mol-atom/K2393UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 14
report
Heat capacity
printed: Cp
43.6678 J/mol-atom/K2400U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 25
report
Heat capacity
printed: Cp
40.6894 J/mol-atom/K2400U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 25
report
Heat capacity
printed: Cp
44.5387 J/mol-atom/K2400UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 18
report
Heat capacity
printed: Cp
44.5387 J/mol-atom/K2400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 18
report
Heat capacity
printed: Cp
40.3338 J/mol-atom/K2400UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 23
report
Heat capacity
printed: C_p
45.134 J/mol-atom/K2483UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 15
report
Heat capacity
printed: Cp
45.6384 J/mol-atom/K2500U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 26
report
Heat capacity
printed: Cp
42.4748 J/mol-atom/K2500U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 14
report
Heat capacity
printed: Cp
42.0492 J/mol-atom/K2500U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 14
report
Heat capacity
printed: Cp
41.589 J/mol-atom/K2500U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 26
report
Heat capacity
printed: Cp
47.3629 J/mol-atom/K2500UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 19
report
Heat capacity
printed: Cp
47.3629 J/mol-atom/K2500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 19
report
Heat capacity
printed: Cp
41.2752 J/mol-atom/K2500UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 24
report
Heat capacity
printed: C_p
47.372 J/mol-atom/K2581UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 16
report
Heat capacity
printed: Cp
47.5948 J/mol-atom/K2600U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 27
report
Heat capacity
printed: Cp
42.5304 J/mol-atom/K2600U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 27
report
Heat capacity
printed: Cp
50.982 J/mol-atom/K2600UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 20
report
Heat capacity
printed: Cp
50.982 J/mol-atom/K2600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 20
report
Heat capacity
printed: Cp
42.2584 J/mol-atom/K2600UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 25
report
Heat capacity
printed: Cp
49.5654 J/mol-atom/K2700U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 28
report
Heat capacity
printed: Cp
42.4748 J/mol-atom/K2700U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 15
report
Heat capacity
printed: Cp
44.204 J/mol-atom/K2700U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 15
report
Heat capacity
printed: Cp
43.4718 J/mol-atom/K2700U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 28
report
Heat capacity
printed: Cp
55.6054 J/mol-atom/K2700UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 21
report
Heat capacity
printed: Cp
55.6054 J/mol-atom/K2700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 21
report
Heat capacity
printed: Cp
43.2835 J/mol-atom/K2700UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 26
report
Heat capacity
printed: Cp
51.536 J/mol-atom/K2800U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 29
report
Heat capacity
printed: Cp
42.4748 J/mol-atom/K2800U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 16
report
Heat capacity
printed: Cp
44.455 J/mol-atom/K2800U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 29
report
Heat capacity
printed: Cp
61.463 J/mol-atom/K2800UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 22
report
Heat capacity
printed: Cp
61.463 J/mol-atom/K2800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 22
report
Heat capacity
printed: Cp
44.3504 J/mol-atom/K2800UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 27
report
Heat capacity
printed: Cp
45.6265 J/mol-atom/K2823U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 17
report
Heat capacity
printed: Cp
44.6224 J/mol-atom/K2823UC (U0.500C0.500)
alloy: U 0.5
model[1] Chevalier 2001
cites Oetting 1973
Table 20, p. 16, row 28
report
Heat capacity
printed: Cp
53.5067 J/mol-atom/K2900U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 30
report
Heat capacity
printed: Cp
55.4773 J/mol-atom/K3000U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 31
report
Heat content
printed: HT—H298
0 J/g at.298.15U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 1
report
Heat content
printed: HT-H298
0 J/g at.298.15U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 1
report
Heat content
printed: HT-H298
0 J/g at.298.15U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 1
report
Heat content
printed: HT—H298
0 J/g at.298.15U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 1
report
Heat content
printed: HT-H298(C0.4U0.6)
0 J/g at.298.15U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 2
report
Heat content
printed: HT-H298(C0.4U0.6)
0 J/g at.298.15U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 1
report
Heat content
printed: HT-H298
0 J/g at.298.15UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Moser 1967 doi
Table 22, p. 19, row 1
report
Heat content
printed: HT-H298
0 J/g at.298.15UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 4
report
Heat content
printed: HT-H298
0 J/g at.298.15UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 2
report
Heat content
printed: HT-H298
0 J/g at.298.15UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 3
report
Heat content
printed: HT-H298
0 J/g at.298.15UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 5
report
Heat content
printed: HT–H298
0 J/g at.298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 16
report
Heat content
printed: HT-H298(UC1.90-1.93)
0 J/g at.298.15UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 5
report
Heat content
printed: HT-H298(UC1.90-1.93)
0 J/g at.298.15UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 2
report
Heat content
printed: HT-H298(UC1.90-1.93)
0 J/g at.298.15UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 4
report
Heat content
printed: HT-H298(UC1.90-1.93)
0 J/g at.298.15UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 1
report
Heat content
printed: HT-H298(UC1.90-1.93)
0 J/g at.298.15UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 3
report
Heat content
printed: HT–H298
684 J/g at.330UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 18
report
Heat content
printed: HT—H298
2258 J/g at.400U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 3
report
Heat content
printed: HT—H298
2699 J/g at.400U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 3
report
Heat content
printed: HT-H298(C0.4U0.6)
2333 J/g at.400U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 6
report
Heat content
printed: HT-H298(C0.4U0.6)
2335 J/g at.400U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 5
report
Heat content
printed: HT-H298
2699 J/g at.400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 11
report
Heat content
printed: HT-H298
2678 J/g at.400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Moser 1967 doi
Table 22, p. 19, row 9
report
Heat content
printed: HT-H298
2679 J/g at.400UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 12
report
Heat content
printed: HT-H298
2699 J/g at.400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 10
report
Heat content
printed: HT–H298
2284 J/g at.400UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 19
report
Heat content
printed: HT-H298(UC1.90-1.93)
2295 J/g at.400UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 13
report
Heat content
printed: HT-H298(UC1.90-1.93)
2250 J/g at.400UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 12
report
Heat content
printed: HT-H298(UC1.90-1.93)
2284 J/g at.400UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 11
report
Heat content
printed: HT-H298(UC1.90-1.93)
2258 J/g at.400UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 10
report
Heat content
printed: HT–H298
2378 J/g at.402.78UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 1
report
Heat content
printed: HT-H298(C0.4U0.6)
3020 J/g at.429.8U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 7
report
Heat content
printed: HT-H298(C0.4U0.6)
3053 J/g at.429.8U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 8
report
Heat content
printed: HT-H298
3020 J/g at.429.8U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 21
report
Heat content
printed: HT-H298
3835 J/g at.467UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 47
report
Heat content
printed: HT–H298
4086 J/g at.475.27UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 2
report
Heat content
printed: HT—H298
4682 J/g at.500U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 4
report
Heat content
printed: HT-H298
4792 J/g at.500U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 2
report
Heat content
printed: HT—H298
5489 J/g at.500U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 4
report
Heat content
printed: HT-H298
5477 J/g at.500U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 2
report
Heat content
printed: HT-H298(C0.4U0.6)
4795 J/g at.500U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 9
report
Heat content
printed: HT-H298(C0.4U0.6)
4790 J/g at.500U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 10
report
Heat content
printed: HT-H298
5489 J/g at.500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 14
report
Heat content
printed: HT-H298
5472 J/g at.500UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 17
report
Heat content
printed: HT-H298
5439 J/g at.500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Moser 1967 doi
Table 22, p. 19, row 13
report
Heat content
printed: HT-H298
5477 J/g at.500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 15
report
Heat content
printed: HT-H298
5525 J/g at.500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 16
report
Heat content
printed: HT–H298
4722 J/g at.500UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 20
report
Heat content
printed: HT-H298(UC1.90-1.93)
4792 J/g at.500UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 16
report
Heat content
printed: HT-H298(UC1.90-1.93)
4775 J/g at.500UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 18
report
Heat content
printed: HT-H298(UC1.90-1.93)
4637 J/g at.500UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 17
report
Heat content
printed: HT-H298(UC1.90-1.93)
4722 J/g at.500UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 15
report
Heat content
printed: HT-H298(UC1.90-1.93)
4682 J/g at.500UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 14
report
Heat content
printed: HT-H298
5560 J/g at.501.3UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 1
report
Heat content
printed: HT-H298(C0.4U0.6)
4878 J/g at.503.5U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 12
report
Heat content
printed: HT-H298
4792 J/g at.503.5U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 22
report
Heat content
printed: HT-H298(C0.4U0.6)
4792 J/g at.503.5U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 11
report
Heat content
printed: HT-H298
6123 J/g at.522.3UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 2
report
Heat content
printed: HT–H298
5646 J/g at.536.12UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 3
report
Heat content
printed: HT-H298(C0.4U0.6)
6584 J/g at.570.8U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 14
report
Heat content
printed: HT-H298
6471 J/g at.570.8U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 23
report
Heat content
printed: HT-H298(C0.4U0.6)
6471 J/g at.570.8U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 13
report
Heat content
printed: HT-H298
6382 J/g at.570.8UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 48
report
Heat content
printed: HT-H298
6528 J/g at.573.1UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 49
report
Heat content
printed: HT–H298
7228 J/g at.599.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 4
report
Heat content
printed: HT—H298
7244 J/g at.600U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 5
report
Heat content
printed: HT—H298
8364 J/g at.600U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 5
report
Heat content
printed: HT-H298(C0.4U0.6)
7332 J/g at.600U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 16
report
Heat content
printed: HT-H298(C0.4U0.6)
7337 J/g at.600U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 15
report
Heat content
printed: HT-H298
8443 J/g at.600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 20
report
Heat content
printed: HT-H298
8364 J/g at.600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 19
report
Heat content
printed: HT-H298
8326 J/g at.600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Moser 1967 doi
Table 22, p. 19, row 18
report
Heat content
printed: HT-H298
8356 J/g at.600UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 21
report
Heat content
printed: HT–H298
7274 J/g at.600UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 21
report
Heat content
printed: HT-H298(UC1.90-1.93)
7152 J/g at.600UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 21
report
Heat content
printed: HT-H298(UC1.90-1.93)
7353 J/g at.600UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 22
report
Heat content
printed: HT-H298(UC1.90-1.93)
7274 J/g at.600UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 20
report
Heat content
printed: HT-H298(UC1.90-1.93)
7244 J/g at.600UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 19
report
Heat content
printed: HT-H298
7842 J/g at.623.8UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 50
report
Heat content
printed: HT-H298
9217 J/g at.625.4UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 3
report
Heat content
printed: HT-H298
8144 J/g at.633.6U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 24
report
Heat content
printed: HT-H298(C0.4U0.6)
8200 J/g at.633.6U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 18
report
Heat content
printed: HT-H298(C0.4U0.6)
8144 J/g at.633.6U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 17
report
Heat content
printed: HT-H298
9682 J/g at.644.4UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 4
report
Heat content
printed: HT-H298
8420 J/g at.650.3UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 51
report
Heat content
printed: HT-H298
8963 J/g at.670UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 52
report
Heat content
printed: HT-H298
9036 J/g at.670.7UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 53
report
Heat content
printed: HT-H298
9113 J/g at.672.9UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 54
report
Heat content
printed: HT–H298
9398 J/g at.679.24UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 5
report
Heat content
printed: HT-H298(C0.4U0.6)
9746 J/g at.693.6U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 19
report
Heat content
printed: HT-H298(C0.4U0.6)
9766 J/g at.693.6U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 20
report
Heat content
printed: HT-H298
9746 J/g at.693.6U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 25
report
Heat content
printed: HT-H298(C0.4U0.6)
9897 J/g at.698.6U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 22
report
Heat content
printed: HT-H298(C0.4U0.6)
9913 J/g at.698.6U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 21
report
Heat content
printed: HT-H298
9913 J/g at.698.6U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 26
report
Heat content
printed: HT—H298
9895 J/g at.700U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 6
report
Heat content
printed: HT-H298
9956 J/g at.700U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 3
report
Heat content
printed: HT—H298
11299 J/g at.700U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 6
report
Heat content
printed: HT-H298
11301 J/g at.700U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 3
report
Heat content
printed: HT-H298(C0.4U0.6)
9934 J/g at.700U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 24
report
Heat content
printed: HT-H298(C0.4U0.6)
9940 J/g at.700U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 23
report
Heat content
printed: HT-H298
11297 J/g at.700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Moser 1967 doi
Table 22, p. 19, row 22
report
Heat content
printed: HT-H298
11424 J/g at.700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 25
report
Heat content
printed: HT-H298
11303 J/g at.700UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 26
report
Heat content
printed: HT-H298
11299 J/g at.700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 23
report
Heat content
printed: HT-H298
11301 J/g at.700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 24
report
Heat content
printed: HT–H298
9910 J/g at.700UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 22
report
Heat content
printed: HT-H298(UC1.90-1.93)
9767 J/g at.700UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 26
report
Heat content
printed: HT-H298(UC1.90-1.93)
9989 J/g at.700UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 27
report
Heat content
printed: HT-H298(UC1.90-1.93)
9956 J/g at.700UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 25
report
Heat content
printed: HT-H298(UC1.90-1.93)
9910 J/g at.700UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 24
report
Heat content
printed: HT-H298(UC1.90-1.93)
9895 J/g at.700UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 23
report
Heat content
printed: HT-H298
12075 J/g at.719.6UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 5
report
Heat content
printed: HT-H298
10572 J/g at.725.2UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 55
report
Heat content
printed: HT-H298
12671 J/g at.738.5UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 6
report
Heat content
printed: HT-H298
12750 J/g at.738.6UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 7
report
Heat content
printed: HT–H298
11260 J/g at.751.1UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 6
report
Heat content
printed: HT-H298
11779 J/g at.774.6UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 56
report
Heat content
printed: HT-H298
11783 J/g at.775.7UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 57
report
Heat content
printed: HT-H298
11956 J/g at.775.9U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 27
report
Heat content
printed: HT-H298(C0.4U0.6)
11956 J/g at.775.9U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 25
report
Heat content
printed: HT-H298(C0.4U0.6)
11946 J/g at.775.9U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 26
report
Heat content
printed: HT-H298
14474 J/g at.798.4UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 8
report
Heat content
printed: HT—H298
12606 J/g at.800U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 7
report
Heat content
printed: HT—H298
14282 J/g at.800U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 7
report
Heat content
printed: HT-H298(C0.4U0.6)
12591 J/g at.800U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 28
report
Heat content
printed: HT-H298(C0.4U0.6)
12587 J/g at.800U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 27
report
Heat content
printed: HT-H298
14302 J/g at.800UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 30
report
Heat content
printed: HT-H298
14351 J/g at.800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Moser 1967 doi
Table 22, p. 19, row 27
report
Heat content
printed: HT-H298
14282 J/g at.800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 28
report
Heat content
printed: HT-H298
14451 J/g at.800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 29
report
Heat content
printed: HT–H298
12614 J/g at.800UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 23
report
Heat content
printed: HT-H298(UC1.90-1.93)
12614 J/g at.800UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 29
report
Heat content
printed: HT-H298(UC1.90-1.93)
12470 J/g at.800UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 30
report
Heat content
printed: HT-H298(UC1.90-1.93)
12669 J/g at.800UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 31
report
Heat content
printed: HT-H298(UC1.90-1.93)
12606 J/g at.800UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 28
report
Heat content
printed: HT–H298
13375 J/g at.827.81UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 7
report
Heat content
printed: HT-H298
13282 J/g at.829.5UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 58
report
Heat content
printed: HT-H298(C0.4U0.6)
13477 J/g at.831.3U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 29
report
Heat content
printed: HT-H298(C0.4U0.6)
13435 J/g at.831.3U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 30
report
Heat content
printed: HT-H298
13477 J/g at.831.3U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 28
report
Heat content
printed: HT-H298
16799 J/g at.870.6UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 9
report
Heat content
printed: HT-H298
16591 J/g at.871.1UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 10
report
Heat content
printed: HT-H298
14543 J/g at.875.6UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 59
report
Heat content
printed: HT-H298
14785 J/g at.883.8UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 60
report
Heat content
printed: HT–H298
15160 J/g at.895.3UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 8
report
Heat content
printed: HT—H298
15367 J/g at.900U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 8
report
Heat content
printed: HT-H298
15319 J/g at.900U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 4
report
Heat content
printed: HT-H298
17332 J/g at.900U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 4
report
Heat content
printed: HT—H298
17315 J/g at.900U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 8
report
Heat content
printed: HT-H298(C0.4U0.6)
15308 J/g at.900U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 32
report
Heat content
printed: HT-H298(C0.4U0.6)
15313 J/g at.900U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 31
report
Heat content
printed: HT-H298
17315 J/g at.900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 32
report
Heat content
printed: HT-H298
17489 J/g at.900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Moser 1967 doi
Table 22, p. 19, row 31
report
Heat content
printed: HT-H298
17523 J/g at.900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 34
report
Heat content
printed: HT-H298
17349 J/g at.900UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 35
report
Heat content
printed: HT-H298
17332 J/g at.900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 33
report
Heat content
printed: HT–H298
15374 J/g at.900UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 24
report
Heat content
printed: HT-H298(UC1.90-1.93)
15395 J/g at.900UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 36
report
Heat content
printed: HT-H298(UC1.90-1.93)
15374 J/g at.900UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 33
report
Heat content
printed: HT-H298(UC1.90-1.93)
15319 J/g at.900UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 34
report
Heat content
printed: HT-H298(UC1.90-1.93)
15248 J/g at.900UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 35
report
Heat content
printed: HT-H298(UC1.90-1.93)
15367 J/g at.900UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 32
report
Heat content
printed: HT-H298
15395 J/g at.900.5U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 29
report
Heat content
printed: HT-H298(C0.4U0.6)
15395 J/g at.900.5U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 33
report
Heat content
printed: HT-H298(C0.4U0.6)
15322 J/g at.900.5U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 34
report
Heat content
printed: HT-H298
16053 J/g at.924.1U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 30
report
Heat content
printed: HT-H298(C0.4U0.6)
16053 J/g at.924.1U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 35
report
Heat content
printed: HT-H298(C0.4U0.6)
15973 J/g at.924.1U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 36
report
Heat content
printed: HT-H298
16338 J/g at.936UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 61
report
Heat content
printed: HT-H298
18986 J/g at.943.4UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 11
report
Heat content
printed: HT-H298(C0.4U0.6)
17374 J/g at.971.9U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 37
report
Heat content
printed: HT-H298(C0.4U0.6)
17305 J/g at.971.9U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 38
report
Heat content
printed: HT-H298
17374 J/g at.971.9U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 31
report
Heat content
printed: HT–H298
17638 J/g at.980.08UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 9
report
Heat content
printed: HT-H298
17770 J/g at.989.6UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 62
report
Heat content
printed: HT—H298
18177 J/g at.1000U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 9
report
Heat content
printed: HT—H298
20395 J/g at.1000U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 9
report
Heat content
printed: HT-H298(C0.4U0.6)
18099 J/g at.1000U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 39
report
Heat content
printed: HT-H298(C0.4U0.6)
18096 J/g at.1000U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 40
report
Heat content
printed: HT-H298
20395 J/g at.1000UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 37
report
Heat content
printed: HT-H298
20441 J/g at.1000UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 39
report
Heat content
printed: HT-H298
20635 J/g at.1000UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 38
report
Heat content
printed: HT-H298
20711 J/g at.1000UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Moser 1967 doi
Table 22, p. 19, row 36
report
Heat content
printed: HT–H298
18186 J/g at.1000UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 25
report
Heat content
printed: HT-H298(UC1.90-1.93)
18092 J/g at.1000UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 39
report
Heat content
printed: HT-H298(UC1.90-1.93)
18177 J/g at.1000UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 37
report
Heat content
printed: HT-H298(UC1.90-1.93)
18186 J/g at.1000UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 38
report
Heat content
printed: HT-H298(UC1.90-1.93)
18177 J/g at.1000UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 40
report
Heat content
printed: HT-H298
17970 J/g at.1001.8UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 63
report
Heat content
printed: HT-H298(C0.4U0.6)
18364 J/g at.1009.5U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 42
report
Heat content
printed: HT-H298
18425 J/g at.1009.5U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 32
report
Heat content
printed: HT-H298(C0.4U0.6)
18425 J/g at.1009.5U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 41
report
Heat content
printed: HT-H298
21426 J/g at.1021.3UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 12
report
Heat content
printed: HT–H298
19309 J/g at.1040.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 10
report
Heat content
printed: HT-H298(C0.4U0.6)
19350 J/g at.1044.1U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 44
report
Heat content
printed: HT-H298
19505 J/g at.1044.1U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 33
report
Heat content
printed: HT-H298(C0.4U0.6)
19505 J/g at.1044.1U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 43
report
Heat content
printed: HT-H298
19449 J/g at.1045.3UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 64
report
Heat content
printed: HT-H298
20145 J/g at.1075.3UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 65
report
Heat content
printed: HT-H298
20542 J/g at.1090.2UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 66
report
Heat content
printed: HT-H298
23568 J/g at.1091.3UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 13
report
Heat content
printed: HT-H298
20821 J/g at.1096.5UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 67
report
Heat content
printed: HT–H298
21167 J/g at.1099.76UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 11
report
Heat content
printed: HT—H298
21047 J/g at.1100U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 10
report
Heat content
printed: HT-H298
20959 J/g at.1100U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 5
report
Heat content
printed: HT—H298
23522 J/g at.1100U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 10
report
Heat content
printed: HT-H298
23556 J/g at.1100U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 5
report
Heat content
printed: HT-H298(C0.4U0.6)
20967 J/g at.1100U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 45
report
Heat content
printed: HT-H298(C0.4U0.6)
20964 J/g at.1100U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 46
report
Heat content
printed: HT-H298
23522 J/g at.1100UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 40
report
Heat content
printed: HT-H298
23580 J/g at.1100UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 43
report
Heat content
printed: HT-H298
23556 J/g at.1100UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 41
report
Heat content
printed: HT-H298
23788 J/g at.1100UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 42
report
Heat content
printed: HT–H298
21048 J/g at.1100UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 26
report
Heat content
printed: HT-H298(UC1.90-1.93)
21047 J/g at.1100UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 41
report
Heat content
printed: HT-H298(UC1.90-1.93)
20959 J/g at.1100UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 43
report
Heat content
printed: HT-H298(UC1.90-1.93)
21048 J/g at.1100UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 42
report
Heat content
printed: HT-H298(UC1.90-1.93)
21027 J/g at.1100UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 45
report
Heat content
printed: HT-H298(UC1.90-1.93)
20995 J/g at.1100UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 44
report
Heat content
printed: HT-H298(C0.4U0.6)
21878 J/g at.1131.2U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 48
report
Heat content
printed: HT-H298(C0.4U0.6)
21771 J/g at.1131.2U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 47
report
Heat content
printed: HT-H298
21771 J/g at.1131.2U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 34
report
Heat content
printed: HT-H298(C0.4U0.6)
22085 J/g at.1141.6U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 49
report
Heat content
printed: HT-H298
22085 J/g at.1141.6U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 35
report
Heat content
printed: HT-H298(C0.4U0.6)
22185 J/g at.1141.6U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 50
report
Heat content
printed: HT-H298
22480 J/g at.1147.1UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 68
report
Heat content
printed: HT-H298
22277 J/g at.1147.6UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 69
report
Heat content
printed: HT-H298
22937 J/g at.1168.8UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 70
report
Heat content
printed: HT-H298
26110 J/g at.1169.5UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 14
report
Heat content
printed: HT–H298
23290 J/g at.1175.8UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 12
report
Heat content
printed: HT—H298
23999 J/g at.1200U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 11
report
Heat content
printed: HT—H298
26704 J/g at.1200U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 11
report
Heat content
printed: HT-H298(C0.4U0.6)
23982 J/g at.1200U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 51
report
Heat content
printed: HT-H298(C0.4U0.6)
23928 J/g at.1200U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 52
report
Heat content
printed: HT-H298
26704 J/g at.1200UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 44
report
Heat content
printed: HT-H298
26768 J/g at.1200UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 46
report
Heat content
printed: HT-H298
26985 J/g at.1200UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 45
report
Heat content
printed: HT–H298
23956 J/g at.1200UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 27
report
Heat content
printed: HT-H298(UC1.90-1.93)
23960 J/g at.1200UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 49
report
Heat content
printed: HT-H298(UC1.90-1.93)
23948 J/g at.1200UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 48
report
Heat content
printed: HT-H298(UC1.90-1.93)
23956 J/g at.1200UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 47
report
Heat content
printed: HT-H298(UC1.90-1.93)
23999 J/g at.1200UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 46
report
Heat content
printed: HT-H298
24053 J/g at.1201.1UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 71
report
Heat content
printed: HT-H298
24428 J/g at.1213U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 36
report
Heat content
printed: HT-H298(C0.4U0.6)
24428 J/g at.1213U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 53
report
Heat content
printed: HT-H298(C0.4U0.6)
24321 J/g at.1213U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 54
report
Heat content
printed: HT-H298
28842 J/g at.1252UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 15
report
Heat content
printed: HT–H298
26191 J/g at.1272.41UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 13
report
Heat content
printed: HT-H298
26463 J/g at.1278.8UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 72
report
Heat content
printed: HT-H298
26455 J/g at.1280.9U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 37
report
Heat content
printed: HT-H298(C0.4U0.6)
26455 J/g at.1280.9U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 55
report
Heat content
printed: HT-H298(C0.4U0.6)
26406 J/g at.1280.9U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 56
report
Heat content
printed: HT-H298
26837 J/g at.1298.4U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 38
report
Heat content
printed: HT—H298
27056 J/g at.1300U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 12
report
Heat content
printed: HT-H298
27023 J/g at.1300U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 6
report
Heat content
printed: HT-H298
29957 J/g at.1300U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 6
report
Heat content
printed: HT—H298
29939 J/g at.1300U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 12
report
Heat content
printed: HT-H298(C0.4U0.6)
27002 J/g at.1300U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 60
report
Heat content
printed: HT-H298(C0.4U0.6)
27001 J/g at.1300U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 59
report
Heat content
printed: HT-H298
29957 J/g at.1300UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 48
report
Heat content
printed: HT-H298
29939 J/g at.1300UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 47
report
Heat content
printed: HT-H298
30227 J/g at.1300UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 49
report
Heat content
printed: HT-H298
30006 J/g at.1300UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 50
report
Heat content
printed: HT–H298
26909 J/g at.1300UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 28
report
Heat content
printed: HT-H298(UC1.90-1.93)
26992 J/g at.1300UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 54
report
Heat content
printed: HT-H298(UC1.90-1.93)
27056 J/g at.1300UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 50
report
Heat content
printed: HT-H298(UC1.90-1.93)
26909 J/g at.1300UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 51
report
Heat content
printed: HT-H298(UC1.90-1.93)
27023 J/g at.1300UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 52
report
Heat content
printed: HT-H298(UC1.90-1.93)
26944 J/g at.1300UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 53
report
Heat content
printed: HT-H298
27427 J/g at.1312.3UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 73
report
Heat content
printed: HT-H298(C0.4U0.6)
28275 J/g at.1346.4U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 61
report
Heat content
printed: HT-H298
28275 J/g at.1346.4U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 39
report
Heat content
printed: HT-H298(C0.4U0.6)
28469 J/g at.1346.4U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 62
report
Heat content
printed: HT-H298(C0.4U0.6)
28619 J/g at.1351.1U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 64
report
Heat content
printed: HT-H298(C0.4U0.6)
28386 J/g at.1351.1U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 63
report
Heat content
printed: HT-H298
28386 J/g at.1351.1U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 40
report
Heat content
printed: HT-H298(C0.4U0.6)
28623 J/g at.1351.2U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 66
report
Heat content
printed: HT-H298(C0.4U0.6)
28417 J/g at.1351.2U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 65
report
Heat content
printed: HT-H298
28417 J/g at.1351.2U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 41
report
Heat content
printed: HT-H298
32313 J/g at.1352.7UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 16
report
Heat content
printed: HT-H298
29006 J/g at.1362UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 74
report
Heat content
printed: HT-H298
29121 J/g at.1367.4U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 42
report
Heat content
printed: HT-H298(C0.4U0.6)
29121 J/g at.1367.4U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 67
report
Heat content
printed: HT-H298(C0.4U0.6)
29143 J/g at.1367.4U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 68
report
Heat content
printed: HT-H298(C0.4U0.6)
26837 J/g at.1398.4U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 57
report
Heat content
printed: HT-H298(C0.4U0.6)
26952 J/g at.1398.4U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 58
report
Heat content
printed: HT—H298
30250 J/g at.1400U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 13
report
Heat content
printed: HT—H298
33229 J/g at.1400U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 13
report
Heat content
printed: HT-H298(C0.4U0.6)
30197 J/g at.1400U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 69
report
Heat content
printed: HT-H298(C0.4U0.6)
30200 J/g at.1400U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 70
report
Heat content
printed: HT-H298
33297 J/g at.1400UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 53
report
Heat content
printed: HT-H298
33518 J/g at.1400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 52
report
Heat content
printed: HT-H298
33229 J/g at.1400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 51
report
Heat content
printed: HT–H298
29906 J/g at.1400UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 29
report
Heat content
printed: HT-H298(UC1.90-1.93)
30143 J/g at.1400UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 58
report
Heat content
printed: HT-H298(UC1.90-1.93)
29906 J/g at.1400UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 56
report
Heat content
printed: HT-H298(UC1.90-1.93)
30250 J/g at.1400UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 55
report
Heat content
printed: HT-H298(UC1.90-1.93)
29978 J/g at.1400UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 57
report
Heat content
printed: HT–H298
30201 J/g at.1412.4UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 14
report
Heat content
printed: HT-H298(C0.4U0.6)
31374 J/g at.1435.7U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 72
report
Heat content
printed: HT-H298(C0.4U0.6)
31721 J/g at.1435.7U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 71
report
Heat content
printed: HT-H298
31721 J/g at.1435.7U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 43
report
Heat content
printed: HT-H298
35719 J/g at.1448.6UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 17
report
Heat content
printed: HT-H298
35842 J/g at.1455.4UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 18
report
Heat content
printed: HT-H298
33831 J/g at.1499.9U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 44
report
Heat content
printed: HT-H298(C0.4U0.6)
33534 J/g at.1499.9U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 74
report
Heat content
printed: HT-H298(C0.4U0.6)
33831 J/g at.1499.9U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 73
report
Heat content
printed: HT—H298
33608 J/g at.1500U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 14
report
Heat content
printed: HT-H298
33680 J/g at.1500U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 7
report
Heat content
printed: HT—H298
36581 J/g at.1500U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 14
report
Heat content
printed: HT-H298
36589 J/g at.1500U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 7
report
Heat content
printed: HT-H298(C0.4U0.6)
33537 J/g at.1500U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 76
report
Heat content
printed: HT-H298(C0.4U0.6)
33534 J/g at.1500U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 75
report
Heat content
printed: HT-H298
36863 J/g at.1500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 56
report
Heat content
printed: HT-H298
36645 J/g at.1500UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 57
report
Heat content
printed: HT-H298
36581 J/g at.1500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 54
report
Heat content
printed: HT-H298
36589 J/g at.1500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 55
report
Heat content
printed: HT–H298
32944 J/g at.1500UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 30
report
Heat content
printed: HT-H298(UC1.90-1.93)
33680 J/g at.1500UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 61
report
Heat content
printed: HT-H298(UC1.90-1.93)
33432 J/g at.1500UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 63
report
Heat content
printed: HT-H298(UC1.90-1.93)
33044 J/g at.1500UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 62
report
Heat content
printed: HT-H298(UC1.90-1.93)
32944 J/g at.1500UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 60
report
Heat content
printed: HT-H298(UC1.90-1.93)
33608 J/g at.1500UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 59
report
Heat content
printed: HT–H298
33466 J/g at.1523.53UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 15
report
Heat content
printed: HT-H298
34231 J/g at.1543.2UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 75
report
Heat content
printed: HT-H298(C0.4U0.6)
35874 J/g at.1567.4U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 78
report
Heat content
printed: HT-H298
35818 J/g at.1567.4U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 45
report
Heat content
printed: HT-H298(C0.4U0.6)
35818 J/g at.1567.4U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 77
report
Heat content
printed: HT-H298
39982 J/g at.1571UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 19
report
Heat content
printed: HT—H298
37153 J/g at.1600U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 15
report
Heat content
printed: HT—H298
39995 J/g at.1600U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 15
report
Heat content
printed: HT-H298(C0.4U0.6)
37030 J/g at.1600U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 80
report
Heat content
printed: HT-H298(C0.4U0.6)
37026 J/g at.1600U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 79
report
Heat content
printed: HT-H298
39995 J/g at.1600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 58
report
Heat content
printed: HT-H298
40053 J/g at.1600UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 60
report
Heat content
printed: HT-H298
40260 J/g at.1600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 59
report
Heat content
printed: HT–H298
36026 J/g at.1600UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 31
report
Heat content
printed: HT-H298(UC1.90-1.93)
36877 J/g at.1600UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 67
report
Heat content
printed: HT-H298(UC1.90-1.93)
36026 J/g at.1600UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 65
report
Heat content
printed: HT-H298(UC1.90-1.93)
36132 J/g at.1600UC1.90-1.93
alloy: C 0.656, U 0.344
experimental[1] Chevalier 2001
cites Oetting 1973
Table 23, p. 20, row 66
report
Heat content
printed: HT-H298(UC1.90-1.93)
37153 J/g at.1600UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 64
report
Heat content
printed: HT-H298(C0.4U0.6)
39394 J/g at.1667.4U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 81
report
Heat content
printed: HT-H298
39394 J/g at.1667.4U2C3
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 46
report
Heat content
printed: HT-H298(C0.4U0.6)
39480 J/g at.1667.4U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 82
report
Heat content
printed: HT-H298
37699 J/g at.1670.3UC1.90
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 76
report
Heat content
printed: HT-H298
43392 J/g at.1672UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 19, p. 15, row 20
report
Heat content
printed: HT—H298
40910 J/g at.1700U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 16
report
Heat content
printed: HT-H298
41108 J/g at.1700U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 8
report
Heat content
printed: HT-H298
43472 J/g at.1700U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 8
report
Heat content
printed: HT—H298
43474 J/g at.1700U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 16
report
Heat content
printed: HT-H298(C0.4U0.6)
40690 J/g at.1700U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 83
report
Heat content
printed: HT-H298(C0.4U0.6)
40694 J/g at.1700U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 84
report
Heat content
printed: HT-H298
43720 J/g at.1700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 63
report
Heat content
printed: HT-H298
43472 J/g at.1700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 62
report
Heat content
printed: HT-H298
43474 J/g at.1700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 61
report
Heat content
printed: HT-H298
43524 J/g at.1700UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 64
report
Heat content
printed: HT–H298
39149 J/g at.1700UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 32
report
Heat content
printed: HT-H298(UC1.90-1.93)
40910 J/g at.1700UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 68
report
Heat content
printed: HT-H298(UC1.90-1.93)
41108 J/g at.1700UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 70
report
Heat content
printed: HT-H298(UC1.90-1.93)
39149 J/g at.1700UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 69
report
Heat content
printed: HT-H298(UC1.90-1.93)
40499 J/g at.1700UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 71
report
Heat content
printed: HT—H298
44889 J/g at.1800U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 17
report
Heat content
printed: HT—H298
47024 J/g at.1800U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 17
report
Heat content
printed: HT-H298(C0.4U0.6)
44545 J/g at.1800U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 86
report
Heat content
printed: HT-H298(C0.4U0.6)
44543 J/g at.1800U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 85
report
Heat content
printed: HT-H298
47242 J/g at.1800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 66
report
Heat content
printed: HT-H298
47024 J/g at.1800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 65
report
Heat content
printed: HT-H298
47061 J/g at.1800UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 67
report
Heat content
printed: HT–H298
42315 J/g at.1800UC1.9 (U0.345C0.655)
alloy: U 0.344828
model[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 33
report
Heat content
printed: HT-H298(UC1.90-1.93)
42315 J/g at.1800UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 23, p. 20, row 73
report
Heat content
printed: HT-H298(UC1.90-1.93)
44319 J/g at.1800UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 74
report
Heat content
printed: HT-H298(UC1.90-1.93)
44889 J/g at.1800UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 72
report
Heat content
printed: HT—H298
49091 J/g at.1900U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 18
report
Heat content
printed: HT-H298
49492 J/g at.1900U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 9
report
Heat content
printed: HT—H298
50645 J/g at.1900U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 18
report
Heat content
printed: HT-H298
50626 J/g at.1900U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 9
report
Heat content
printed: HT-H298(C0.4U0.6)
48599 J/g at.1900U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 87
report
Heat content
printed: HT-H298(C0.4U0.6)
48599 J/g at.1900U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 88
report
Heat content
printed: HT-H298
50670 J/g at.1900UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 71
report
Heat content
printed: HT-H298
50626 J/g at.1900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 69
report
Heat content
printed: HT-H298
50831 J/g at.1900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 70
report
Heat content
printed: HT-H298
50645 J/g at.1900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 68
report
Heat content
printed: HT-H298(UC1.90-1.93)
49492 J/g at.1900UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 76
report
Heat content
printed: HT-H298(UC1.90-1.93)
48356 J/g at.1900UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 77
report
Heat content
printed: HT-H298(UC1.90-1.93)
49091 J/g at.1900UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 75
report
Heat content
printed: HT—H298
53507 J/g at.2000U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 19
report
Heat content
printed: HT—H298
54342 J/g at.2000U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 19
report
Heat content
printed: HT-H298(C0.4U0.6)
52876 J/g at.2000U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Oetting 1973
Table 24, p. 21, row 89
report
Heat content
printed: HT-H298(C0.4U0.6)
52872 J/g at.2000U2C3
alloy: U 0.4
model[1] Chevalier 2001Table 24, p. 21, row 90
report
Heat content
printed: HT-H298
54492 J/g at.2000UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 73
report
Heat content
printed: HT-H298
54352 J/g at.2000UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 74
report
Heat content
printed: HT-H298
54342 J/g at.2000UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 72
report
Heat content
printed: HT-H298(UC1.90-1.93)
52630 J/g at.2000UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 79
report
Heat content
printed: HT-H298(UC1.90-1.93)
53507 J/g at.2000UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 78
report
Heat content
printed: HT-H298
55930 J/g at.2038U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 10
report
Heat content
printed: HT-H298
59534 J/g at.2038U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 11
report
Heat content
printed: HT-H298(UC1.90-1.93)
55930 J/g at.2038UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 80
report
Heat content
printed: HT-H298(UC1.90-1.93)
59534 J/g at.2038UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 84
report
Heat content
printed: HT-H298(UC1.90-1.93)
54321 J/g at.2038UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 81
report
Heat content
printed: HT-H298(UC1.90-1.93)
59492 J/g at.2038UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 85
report
Heat content
printed: HT—H298
60175 J/g at.2060U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 21
report
Heat content
printed: HT—H298
56247 J/g at.2060U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 20
report
Heat content
printed: HT-H298(UC1.90-1.93)
55318 J/g at.2060UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 83
report
Heat content
printed: HT-H298(UC1.90-1.93)
60211 J/g at.2060UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 87
report
Heat content
printed: HT-H298(UC1.90-1.93)
56247 J/g at.2060UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 82
report
Heat content
printed: HT-H298(UC1.90-1.93)
60175 J/g at.2060UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 86
report
Heat content
printed: HT—H298
61670 J/g at.2100U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 22
report
Heat content
printed: HT-H298
62167 J/g at.2100U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 12
report
Heat content
printed: HT—H298
58114 J/g at.2100U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 22
report
Heat content
printed: HT-H298
58116 J/g at.2100U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 12
report
Heat content
printed: HT-H298
58112 J/g at.2100UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 78
report
Heat content
printed: HT-H298
58229 J/g at.2100UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 77
report
Heat content
printed: HT-H298
58116 J/g at.2100UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 76
report
Heat content
printed: HT-H298
58114 J/g at.2100UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 75
report
Heat content
printed: HT-H298(UC1.90-1.93)
62167 J/g at.2100UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 89
report
Heat content
printed: HT-H298(UC1.90-1.93)
61670 J/g at.2100UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 88
report
Heat content
printed: HT-H298(UC1.90-1.93)
61702 J/g at.2100UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 90
report
Heat content
printed: HT—H298
65545 J/g at.2200U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 23
report
Heat content
printed: HT—H298
61970 J/g at.2200U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 23
report
Heat content
printed: HT-H298
61970 J/g at.2200UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 79
report
Heat content
printed: HT-H298
62044 J/g at.2200UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 80
report
Heat content
printed: HT-H298
61953 J/g at.2200UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 81
report
Heat content
printed: HT-H298(UC1.90-1.93)
65552 J/g at.2200UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 92
report
Heat content
printed: HT-H298(UC1.90-1.93)
65545 J/g at.2200UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 91
report
Heat content
printed: HT—H298
69616 J/g at.2300U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 24
report
Heat content
printed: HT-H298
70661 J/g at.2300U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 13
report
Heat content
printed: HT—H298
65908 J/g at.2300U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 24
report
Heat content
printed: HT-H298
65940 J/g at.2300U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 13
report
Heat content
printed: HT-H298
65908 J/g at.2300UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 82
report
Heat content
printed: HT-H298
65944 J/g at.2300UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 84
report
Heat content
printed: HT-H298
65940 J/g at.2300UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 83
report
Heat content
printed: HT-H298
65880 J/g at.2300UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 85
report
Heat content
printed: HT-H298(UC1.90-1.93)
69579 J/g at.2300UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 95
report
Heat content
printed: HT-H298(UC1.90-1.93)
69616 J/g at.2300UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 93
report
Heat content
printed: HT-H298(UC1.90-1.93)
70661 J/g at.2300UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 94
report
Heat content
printed: HT—H298
73883 J/g at.2400U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 25
report
Heat content
printed: HT—H298
69932 J/g at.2400U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 25
report
Heat content
printed: HT-H298
69931 J/g at.2400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 87
report
Heat content
printed: HT-H298
69896 J/g at.2400UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 88
report
Heat content
printed: HT-H298
69932 J/g at.2400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 86
report
Heat content
printed: HT-H298(UC1.90-1.93)
73883 J/g at.2400UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 96
report
Heat content
printed: HT-H298(UC1.90-1.93)
73785 J/g at.2400UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 97
report
Heat content
printed: HT—H298
78348 J/g at.2500U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 26
report
Heat content
printed: HT-H298
79155 J/g at.2500U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 14
report
Heat content
printed: HT-H298
74141 J/g at.2500U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 14
report
Heat content
printed: HT—H298
74046 J/g at.2500U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 26
report
Heat content
printed: HT-H298
74004 J/g at.2500UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 92
report
Heat content
printed: HT-H298
74046 J/g at.2500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 89
report
Heat content
printed: HT-H298
74011 J/g at.2500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 91
report
Heat content
printed: HT-H298
74141 J/g at.2500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 90
report
Heat content
printed: HT-H298(UC1.90-1.93)
78173 J/g at.2500UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 100
report
Heat content
printed: HT-H298(UC1.90-1.93)
79155 J/g at.2500UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 99
report
Heat content
printed: HT-H298(UC1.90-1.93)
78348 J/g at.2500UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 98
report
Heat content
printed: HT—H298
83009 J/g at.2600U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 27
report
Heat content
printed: HT—H298
78251 J/g at.2600U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 27
report
Heat content
printed: HT-H298
78210 J/g at.2600UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 95
report
Heat content
printed: HT-H298
78186 J/g at.2600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 94
report
Heat content
printed: HT-H298
78251 J/g at.2600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 93
report
Heat content
printed: HT-H298(UC1.90-1.93)
83009 J/g at.2600UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 101
report
Heat content
printed: HT-H298(UC1.90-1.93)
82745 J/g at.2600UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 102
report
Heat content
printed: HT—H298
87868 J/g at.2700U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 28
report
Heat content
printed: HT-H298
82760 J/g at.2700U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 15
report
Heat content
printed: HT—H298
82550 J/g at.2700U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 28
report
Heat content
printed: HT-H298
82462 J/g at.2700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 98
report
Heat content
printed: HT-H298
82515 J/g at.2700UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 99
report
Heat content
printed: HT-H298
82760 J/g at.2700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 97
report
Heat content
printed: HT-H298
82550 J/g at.2700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 96
report
Heat content
printed: HT-H298(UC1.90-1.93)
87503 J/g at.2700UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 104
report
Heat content
printed: HT-H298(UC1.90-1.93)
87868 J/g at.2700UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 103
report
Heat content
printed: HT—H298
92923 J/g at.2800U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 29
report
Heat content
printed: HT-H298
91897 J/g at.2800U0.345C0.655
alloy: U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 16
report
Heat content
printed: HT—H298
86948 J/g at.2800U0.500C0.500
alloy: U 0.5
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 29
report
Heat content
printed: HT-H298
86843 J/g at.2800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 101
report
Heat content
printed: HT-H298
86948 J/g at.2800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 22, p. 19, row 100
report
Heat content
printed: HT-H298
86926 J/g at.2800UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 102
report
Heat content
printed: HT-H298(UC1.90-1.93)
92448 J/g at.2800UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 107
report
Heat content
printed: HT-H298(UC1.90-1.93)
91897 J/g at.2800UC1.90-1.93
alloy: C 0.655, U 0.345
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 23, p. 20, row 106
report
Heat content
printed: HT-H298(UC1.90-1.93)
92923 J/g at.2800UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 105
report
Heat content
printed: HT-H298
88282 J/g at.2823U0.500C0.500
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 16, p. 14, row 17
report
Heat content
printed: HT-H298
87955 J/g at.2823UC
alloy: U 0.5
model[1] Chevalier 2001Table 22, p. 19, row 105
report
Heat content
printed: HT-H298
88282 J/g at.2823UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Akhachinski 1970 doi
Table 22, p. 19, row 103
report
Heat content
printed: HT-H298
87889 J/g at.2823UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Oetting 1973
Table 22, p. 19, row 104
report
Heat content
printed: HT—H298
98175 J/g at.2900U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 30
report
Heat content
printed: HT-H298(UC1.90-1.93)
98175 J/g at.2900UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 108
report
Heat content
printed: HT-H298(UC1.90-1.93)
97583 J/g at.2900UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 109
report
Heat content
printed: HT—H298
103625 J/g at.3000U0.341C0.659
alloy: U 0.341
model[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 13, p. 12, row 31
report
Heat content
printed: HT-H298(UC1.90-1.93)
103625 J/g at.3000UC1.90-1.93
alloy: C 0.659, U 0.341
experimental[1] Chevalier 2001
cites Leitnaker 1967 doi
Table 23, p. 20, row 110
report
Heat content
printed: HT-H298(UC1.90-1.93)
102908 J/g at.3000UC1.90-1.93
alloy: C 0.655, U 0.345
model[1] Chevalier 2001Table 23, p. 20, row 111
report
heat content from base t
printed: HT-H700
0 J/g at.700UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 1
report
heat content from base t
printed: HT-H700
0 J/g at.700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 1
report
heat content from base t
printed: HT-H700
2887 J/g at.800UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 2
report
heat content from base t
printed: HT-H700
2887 J/g at.800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 2
report
heat content from base t
printed: HT-H700
5837 J/g at.900UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 3
report
heat content from base t
printed: HT-H700
5837 J/g at.900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 3
report
heat content from base t
printed: HT-H700
8870 J/g at.1000UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 4
report
heat content from base t
printed: HT-H700
8870 J/g at.1000UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 4
report
heat content from base t
printed: HT-H700
11966 J/g at.1100UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 5
report
heat content from base t
printed: HT-H700
11966 J/g at.1100UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 5
report
heat content from base t
printed: HT-H700
15146 J/g at.1200UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 6
report
heat content from base t
printed: HT-H700
15146 J/g at.1200UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 6
report
heat content from base t
printed: HT-H700
18395 J/g at.1300UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 7
report
heat content from base t
printed: HT-H700
18395 J/g at.1300UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 7
report
heat content from base t
printed: HT-H700
21715 J/g at.1400UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 8
report
heat content from base t
printed: HT-H700
21715 J/g at.1400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 8
report
heat content from base t
printed: H_T-H_310
32750 J/g at.1484UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 1
report
heat content from base t
printed: H_T-H_310
33205 J/g at.1490UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 2
report
heat content from base t
printed: HT-H700
25104 J/g at.1500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 9
report
heat content from base t
printed: HT-H700
25104 J/g at.1500UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 9
report
heat content from base t
printed: H_T-H_310
36208 J/g at.1587UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 3
report
heat content from base t
printed: HT-H700
28577 J/g at.1600UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 10
report
heat content from base t
printed: HT-H700
28577 J/g at.1600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 10
report
heat content from base t
printed: H_T-H_310
40284 J/g at.1689UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 4
report
heat content from base t
printed: HT-H700
32112 J/g at.1700UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 11
report
heat content from base t
printed: HT-H700
32112 J/g at.1700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 11
report
heat content from base t
printed: H_T-H_310
44425 J/g at.1794UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 5
report
heat content from base t
printed: HT-H700
35710 J/g at.1800UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 12
report
heat content from base t
printed: HT-H700
35710 J/g at.1800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 12
report
heat content from base t
printed: H_T-H_310
47894 J/g at.1878UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 6
report
heat content from base t
printed: HT-H700
39413 J/g at.1900UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 13
report
heat content from base t
printed: HT-H700
39413 J/g at.1900UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 13
report
heat content from base t
printed: HT-H700
43199 J/g at.2000UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 14
report
heat content from base t
printed: HT-H700
43199 J/g at.2000UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 14
report
heat content from base t
printed: H_T-H_310
54086 J/g at.2016UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 7
report
heat content from base t
printed: H_T-H_310
54086 J/g at.2021UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 8
report
heat content from base t
printed: H_T-H_310
60427 J/g at.2081UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 10
report
heat content from base t
printed: H_T-H_310
61285 J/g at.2086UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 11
report
heat content from base t
printed: HT-H700
47070 J/g at.2100UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 15
report
heat content from base t
printed: HT-H700
47070 J/g at.2100UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 15
report
heat content from base t
printed: HT-H700
51087 J/g at.2200UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 16
report
heat content from base t
printed: HT-H700
51087 J/g at.2200UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 16
report
heat content from base t
printed: H_T-H_310
65723 J/g at.2213UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 12
report
heat content from base t
printed: H_T-H_310
68223 J/g at.2277UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 13
report
heat content from base t
printed: HT-H700
55229 J/g at.2300UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 17
report
heat content from base t
printed: HT-H700
55229 J/g at.2300UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 17
report
heat content from base t
printed: H_T-H_310
73668 J/g at.2393UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 14
report
heat content from base t
printed: HT-H700
59580 J/g at.2400UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 18
report
heat content from base t
printed: HT-H700
59580 J/g at.2400UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 18
report
heat content from base t
printed: H_T-H_310
77249 J/g at.2483UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 15
report
heat content from base t
printed: HT-H700
64162 J/g at.2500UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 19
report
heat content from base t
printed: HT-H700
64162 J/g at.2500UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 19
report
heat content from base t
printed: H_T-H_310
81837 J/g at.2581UC1.93
alloy: U 0.341297
experimental[1] Chevalier 2001
cites Levinson 1963 doi
Table 11, p. 11, row 16
report
heat content from base t
printed: HT-H700
69078 J/g at.2600UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 20
report
heat content from base t
printed: HT-H700
69078 J/g at.2600UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 20
report
heat content from base t
printed: HT-H700
74392 J/g at.2700UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 21
report
heat content from base t
printed: HT-H700
74392 J/g at.2700UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 21
report
heat content from base t
printed: HT-H700
80249 J/g at.2800UC
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001Table 15, p. 13, row 22
report
heat content from base t
printed: HT-H700
80249 J/g at.2800UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Aortit 1970
Table 15, p. 13, row 22
report
sm increment
printed: ST–S298
33.4143 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 11
report
sm increment
printed: ST–S298
13.7928 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 3
report
sm increment
printed: ST–S298
40.6858 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 14
report
sm increment
printed: ST–S298
19.9822 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 5
report
sm increment
printed: ST–S298
27.3836 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 8
report
sm increment
printed: ST–S298
35.2754 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 12
report
sm increment
printed: ST–S298
10.7053 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 2
report
sm increment
printed: ST–S298
30.0238 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 9
report
sm increment
printed: ST–S298
31.6685 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 10
report
sm increment
printed: ST–S298
42.9221 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 15
report
sm increment
printed: ST–S298
37.6416 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 13
report
sm increment
printed: ST–S298
25.2771 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 7
report
sm increment
printed: ST–S298
22.608 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 6
report
sm increment
printed: ST–S298
16.5917 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 4
report
sm increment
printed: ST–S298
6.80982 J/mol-atom/K298.15UC1.9 (U0.345C0.655)
alloy: U 0.344828
experimental[1] Chevalier 2001
cites MacLeod 1969
Table 14, p. 13, row 1
report

Activity / EMF / Gibbs energy (76)

Activity / EMF / Gibbs energy, C–U system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Gibbs energy
printed: ΔG°f
-45850 J/g at.UCx
alloy: C 0.58333, U 0.41667
model[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 8
report
Gibbs energy
printed: ΔG°f
-49067 J/g at.UCx
alloy: C 0.54545, U 0.45455
model[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 6
report
Gibbs energy
printed: ΔG°f
-39314 J/g at.UCx
alloy: C 0.62264, U 0.37736
model[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 11
report
Gibbs energy
printed: ΔG°f
-45217 J/g at.UCx
alloy: C 0.64912, U 0.35088
model[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 14
report
Gibbs energy
printed: ΔG°f
-49662 J/g at.UCx
alloy: C 0.56522, U 0.43478
model[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 7
report
Gibbs energy
printed: ΔG°f
-48663 J/g at.2155UCx
alloy: C 0.52381, U 0.47619
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 26
report
Gibbs energy
printed: ΔG°f
-43677 J/g at.2155UCx
alloy: C 0.5122, U 0.4878
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 22
report
Gibbs energy
printed: ΔG°f
-45725 J/g at.2155UCx
alloy: C 0.64286, U 0.35714
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 45
report
Gibbs energy
printed: ΔG°f
-46334 J/g at.2155UCx
alloy: C 0.62963, U 0.37037
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 41
report
Gibbs energy
printed: ΔG°f
-52509 J/g at.2155UCx
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 18
report
Gibbs energy
printed: ΔGC
-4335 J/mol2155UNKNOWN
alloy: C 0.5122, U 0.4878
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 9
report
Gibbs energy
printed: ΔGC
-3579 J/mol2155UNKNOWN
alloy: C 0.631, U 0.369
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 25
report
Gibbs energy
printed: ΔGC
-3349 J/mol2155UNKNOWN
alloy: C 0.64029, U 0.35971
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 29
report
Gibbs energy
printed: ΔGC
-2406 J/mol2155UNKNOWN
alloy: C 0.64912, U 0.35088
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 33
report
Gibbs energy
printed: ΔGC
-28397 J/mol2155UNKNOWN
alloy: C 0.4898, U 0.5102
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 1
report
Gibbs energy
printed: ΔGC
-3481 J/mol2155UNKNOWN
alloy: C 0.52607, U 0.47393
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 21
report
Gibbs energy
printed: ΔGC
-3803 J/mol2155UNKNOWN
alloy: C 0.52381, U 0.47619
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 17
report
Gibbs energy
printed: ΔGC
-4100 J/mol2155UNKNOWN
alloy: C 0.51923, U 0.48077
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 13
report
Gibbs energy
printed: ΔGC
-12008 J/mol2155UNKNOWN
alloy: C 0.49495, U 0.50505
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 5
report
Gibbs energy
printed: ΔG°f
-45922 J/g at.2255UCx
alloy: C 0.5122, U 0.4878
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 23
report
Gibbs energy
printed: ΔG°f
-49013 J/g at.2255UCx
alloy: C 0.52381, U 0.47619
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 27
report
Gibbs energy
printed: ΔG°f
-41840 J/g at.2255UCx
alloy: C 0.62963, U 0.37037
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 42
report
Gibbs energy
printed: ΔG°f
-51882 J/g at.2255UCx
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 19
report
Gibbs energy
printed: ΔG°f
-44016 J/g at.2255UCx
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 35
report
Gibbs energy
printed: ΔG°f
-43127 J/g at.2255UCx
alloy: C 0.61538, U 0.38462
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 38
report
Gibbs energy
printed: ΔG°f
-48870 J/g at.2255UCx
alloy: C 0.49495, U 0.50505
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 15
report
Gibbs energy
printed: ΔG°f
-41691 J/g at.2255UCx
alloy: C 0.64286, U 0.35714
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 46
report
Gibbs energy
printed: ΔG°f
-49040 J/g at.2255UCx
alloy: C 0.53488, U 0.46512
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 30
report
Gibbs energy
printed: ΔGC
-6318 J/mol2255UNKNOWN
alloy: C 0.64029, U 0.35971
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 30
report
Gibbs energy
printed: ΔGC
-9506 J/mol2255UNKNOWN
alloy: C 0.52607, U 0.47393
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 22
report
Gibbs energy
printed: ΔGC
-9498 J/mol2255UNKNOWN
alloy: C 0.49495, U 0.50505
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 6
report
Gibbs energy
printed: ΔGC
-11991 J/mol2255UNKNOWN
alloy: C 0.5122, U 0.4878
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 10
report
Gibbs energy
printed: ΔGC
-6966 J/mol2255UNKNOWN
alloy: C 0.631, U 0.369
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 26
report
Gibbs energy
printed: ΔGC
-4498 J/mol2255UNKNOWN
alloy: C 0.64912, U 0.35088
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 34
report
Gibbs energy
printed: ΔGC
-10795 J/mol2255UNKNOWN
alloy: C 0.51923, U 0.48077
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 14
report
Gibbs energy
printed: ΔGC
-10037 J/mol2255UNKNOWN
alloy: C 0.52381, U 0.47619
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 18
report
Gibbs energy
printed: ΔGC
-23497 J/mol2255UNKNOWN
alloy: C 0.4898, U 0.5102
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 2
report
Gibbs energy
printed: ΔG°f
-50208 J/g at.2355UCx
alloy: C 0.53488, U 0.46512
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 31
report
Gibbs energy
printed: ΔG°f
-45187 J/g at.2355UCx
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 36
report
Gibbs energy
printed: ΔG°f
-42438 J/g at.2355UCx
alloy: C 0.64286, U 0.35714
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 47
report
Gibbs energy
printed: ΔG°f
-44009 J/g at.2355UCx
alloy: C 0.62963, U 0.37037
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 43
report
Gibbs energy
printed: ΔG°f
-47146 J/g at.2355UCx
alloy: C 0.5122, U 0.4878
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 24
report
Gibbs energy
printed: ΔG°f
-49447 J/g at.2355UCx
alloy: C 0.49495, U 0.50505
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 16
report
Gibbs energy
printed: ΔG°f
-44898 J/g at.2355UCx
alloy: C 0.61538, U 0.38462
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 39
report
Gibbs energy
printed: ΔG°f
-51672 J/g at.2355UCx
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 20
report
Gibbs energy
printed: ΔG°f
-42562 J/g at.2355UCx
alloy: C 0.64912, U 0.35088
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 49
report
Gibbs energy
printed: ΔG°f
-50606 J/g at.2355UCx
alloy: C 0.52381, U 0.47619
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 28
report
Gibbs energy
printed: ΔGC
-16271 J/mol2355UNKNOWN
alloy: C 0.52381, U 0.47619
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 19
report
Gibbs energy
printed: ΔGC
-10355 J/mol2355UNKNOWN
alloy: C 0.631, U 0.369
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 27
report
Gibbs energy
printed: ΔGC
-9288 J/mol2355UNKNOWN
alloy: C 0.64029, U 0.35971
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 31
report
Gibbs energy
printed: ΔGC
-15531 J/mol2355UNKNOWN
alloy: C 0.52607, U 0.47393
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 23
report
Gibbs energy
printed: ΔGC
-17489 J/mol2355UNKNOWN
alloy: C 0.51923, U 0.48077
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 15
report
Gibbs energy
printed: ΔGC
-19648 J/mol2355UNKNOWN
alloy: C 0.5122, U 0.4878
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 11
report
Gibbs energy
printed: ΔGC
-6590 J/mol2355UNKNOWN
alloy: C 0.64912, U 0.35088
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 35
report
Gibbs energy
printed: ΔGC
-6987 J/mol2355UNKNOWN
alloy: C 0.49495, U 0.50505
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 7
report
Gibbs energy
printed: ΔGC
-18602 J/mol2355UNKNOWN
alloy: C 0.4898, U 0.5102
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 3
report
Gibbs energy
printed: ΔG°f
-51254 J/g at.2455UCx
alloy: C 0.5, U 0.5
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 21
report
Gibbs energy
printed: ΔG°f
-50779 J/g at.2455UCx
alloy: C 0.54545, U 0.45455
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 33
report
Gibbs energy
printed: ΔG°f
-48465 J/g at.2455UCx
alloy: C 0.58333, U 0.41667
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 34
report
Gibbs energy
printed: ΔG°f
-43036 J/g at.2455UCx
alloy: C 0.64286, U 0.35714
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 48
report
Gibbs energy
printed: ΔG°f
-48167 J/g at.2455UCx
alloy: C 0.5122, U 0.4878
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 25
report
Gibbs energy
printed: ΔG°f
-51560 J/g at.2455UCx
alloy: C 0.49495, U 0.50505
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 17
report
Gibbs energy
printed: ΔG°f
-51403 J/g at.2455UCx
alloy: C 0.52381, U 0.47619
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 29
report
Gibbs energy
printed: ΔG°f
-52154 J/g at.2455UCx
alloy: C 0.53488, U 0.46512
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 32
report
Gibbs energy
printed: ΔG°f
-44939 J/g at.2455UCx
alloy: C 0.62963, U 0.37037
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 44
report
Gibbs energy
printed: ΔG°f
-46668 J/g at.2455UCx
alloy: C 0.61538, U 0.38462
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 40
report
Gibbs energy
printed: ΔG°f
-47363 J/g at.2455UCx
alloy: C 0.6, U 0.4
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 17, p. 14, row 37
report
Gibbs energy
printed: ΔGC
-27309 J/mol2455UNKNOWN
alloy: C 0.5122, U 0.4878
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 12
report
Gibbs energy
printed: ΔGC
-13744 J/mol2455UNKNOWN
alloy: C 0.631, U 0.369
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 28
report
Gibbs energy
printed: ΔGC
-13707 J/mol2455UNKNOWN
alloy: C 0.4898, U 0.5102
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 4
report
Gibbs energy
printed: ΔGC
-22506 J/mol2455UNKNOWN
alloy: C 0.52381, U 0.47619
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 20
report
Gibbs energy
printed: ΔGC
-4477 J/mol2455UNKNOWN
alloy: C 0.49495, U 0.50505
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 8
report
Gibbs energy
printed: ΔGC
-8682 J/mol2455UNKNOWN
alloy: C 0.64912, U 0.35088
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 36
report
Gibbs energy
printed: ΔGC
-12259 J/mol2455UNKNOWN
alloy: C 0.64029, U 0.35971
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 32
report
Gibbs energy
printed: ΔGC
-21556 J/mol2455UNKNOWN
alloy: C 0.52607, U 0.47393
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 24
report
Gibbs energy
printed: ΔGC
-24183 J/mol2455UNKNOWN
alloy: C 0.51923, U 0.48077
experimental[1] Chevalier 2001
cites Tetenbaum 1971 doi
Table 18, p. 14, row 16
report

Crystal structure (24)

Crystal structure, C–U system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Lattice a8.089 not_printed ± 4.000e-4298.15U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Witteman 1963
Table 1, p. 3, row 19
report
Lattice a8.088 Å298.15U2C3
alloy: U 0.4
experimental[1] Chevalier 2001
cites Mallet 1951 doi
Table 1, p. 3, row 18
report
Lattice a4.9597 not_printed ± 4.000e-4298.15UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Magnier 1964
Table 1, p. 3, row 8
report
Lattice a4.9591 not_printed298.15UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Higashi 1961
Table 1, p. 3, row 3
report
Lattice a4.965 Å298.15UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Litz 1948 doi
Table 1, p. 3, row 2
report
Lattice a4.9563 not_printed298.15UC
alloy: C 0.48, U 0.52
experimental[1] Chevalier 2001
cites Magnier 1964
Table 1, p. 3, row 5
report
Lattice a4.9598 not_printed298.15UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Austin 1959 doi
Table 1, p. 3, row 4
report
Lattice a4.961 Å298.15UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Rundle 1948 doi
Table 1, p. 3, row 1
report
Lattice a5.45 Å298.15UC2
alloy: U 0.333333
experimental[1] Chevalier 2001
cites Kikido 1960
Table 1, p. 3, row 10
report
Lattice a5.45 not_printed ± 0.01298.15UC2
alloy: U 0.333333
experimental[1] Chevalier 2001
cites Bredig 1960
Table 1, p. 3, row 11
report
Lattice a5.41 Å298.15UC2
alloy: U 0.333333
experimental[1] Chevalier 2001
cites Chang 1961 doi
Table 1, p. 3, row 9
report
Lattice a5.475 Å298.15UC2
alloy: U 0.333333
experimental[1] Chevalier 2001
cites Wilson 1960
Table 1, p. 3, row 12
report
Lattice a3.509 not_printed ± 0.003298.15η-UC2
alloy: U 0.333333
unspecified[1] Chevalier 2001Table 1, p. 3, row 15
report
Lattice a3.5241 not_printed ± 5.000e-4298.15η-UC2experimental[1] Chevalier 2001
cites Witteman 1963
Table 1, p. 3, row 17
report
Lattice a3.519 not_printed ± 0.0011298.15η-UC2experimental[1] Chevalier 2001
cites Witteman 1963
Table 1, p. 3, row 16
report
Lattice a3.524 Å298.15η-UC2
alloy: U 0.333333
experimental[1] Chevalier 2001
cites Rundle 1948 doi
Table 1, p. 3, row 13
report
Lattice a3.517 not_printed ± 0.002298.15η-UC2
alloy: U 0.333333
experimental[1] Chevalier 2001
cites Atoji 1959 doi
Table 1, p. 3, row 14
report
Lattice a4.9577 not_printed1673UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Carniglia 1964
Table 1, p. 3, row 7
report
Lattice a4.956 Å1673UC
alloy: U 0.5
experimental[1] Chevalier 2001
cites Anselin 1964
Table 1, p. 3, row 6
report
Lattice c5.98 not_printed ± 0.005298.15η-UC2
alloy: U 0.333333
unspecified[1] Chevalier 2001Table 1, p. 3, row 15
report
Lattice c5.9962 not_printed ± 8.000e-4298.15η-UC2experimental[1] Chevalier 2001
cites Witteman 1963
Table 1, p. 3, row 17
report
Lattice c5.9787 not_printed ± 0.0017298.15η-UC2experimental[1] Chevalier 2001
cites Witteman 1963
Table 1, p. 3, row 16
report
Lattice c5.999 Å298.15η-UC2
alloy: U 0.333333
experimental[1] Chevalier 2001
cites Rundle 1948 doi
Table 1, p. 3, row 13
report
Lattice c5.987 not_printed ± 0.002298.15η-UC2
alloy: U 0.333333
experimental[1] Chevalier 2001
cites Atoji 1959 doi
Table 1, p. 3, row 14
report

Sources

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

  1. P.Y Chevalier, E Fischer, Thermodynamic modelling of the C–U and B–U binary systems, Journal of Nuclear Materials 288, 100-129 (2001). doi:10.1016/s0022-3115(00)00713-3