N–U system

534 accepted literature values from 1 paper(s) (experimental 186, model 348); 0 calculated phase diagram(s). 9 further extracted value(s) not accepted by the reader-agreement checks are only in the JSON/CSV.

Data: JSON · CSV · interactive explorer · phases (11) · papers (bibliography) · Markdown

Accepted values by evidence class
Evidence class	Values
experimental	186
model	348

Accepted values by property group
Property group	Values
invariant reaction	29
phase transition	1
phase equilibrium	23
formation	101
heat capacity / entropy / enthalpy	380

Convex hulls: Materials Project DFT hull · OQMD DFT hull

Invariant reactions (literature)

Invariant reactions reported in the literature for the N–U system (29)
T (K)	Reaction / phases	Compositions (mole fraction)	Class	Source	Location
3134	L + G <=> (UN)(fcc_B1)	L: U 0.528	model	[1] Chevalier 2000	Table 1, p. 2, row 6 report
3123	L + G <=> (UN)(fcc_B1)	L: U 0.5	experimental	[1] Chevalier 2000 cites Bugl 1964	Table 1, p. 2, row 5 report
3098	L + G <=> (UN)(fcc_B1)	L: U 0.552	model	[1] Chevalier 2000	Table 1, p. 2, row 4 report
3078	L + G <=> (UN)(fcc_B1)	L: U 0.55	experimental	[1] Chevalier 2000 cites Okamoto 1997 doi	Table 1, p. 2, row 3 report
3073	L + G <=> (UN)(fcc_B1)	L: U 0.55	experimental	[1] Chevalier 2000 cites Shunk 1969	Table 1, p. 2, row 1 report
3062	L + G <=> (UN)(fcc_B1)	L: U 0.575	model	[1] Chevalier 2000	Table 1, p. 2, row 2 report
1625	G + (UN)(fcc_B1) <=> β-U2N3	β-U2N3: N 0.586777, U 0.413223	experimental	[1] Chevalier 2000 cites Okamoto 1997 doi	Table 1, p. 2, row 9 report
1623	G + (UN)(fcc_B1) <=> β-U2N3	β-U2N3: N 0.586777, U 0.413223	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 1, p. 2, row 10 report
1622	G + (UN)(fcc_B1) <=> β-U2N3	β-U2N3: N 0.586777, U 0.413223	model	[1] Chevalier 2000	Table 1, p. 2, row 8 report
1618	G + (UN)(fcc_B1) <=> β-U2N3	β-U2N3: N 0.586777, U 0.413223	experimental	[1] Chevalier 2000 cites Shunk 1969	Table 1, p. 2, row 7 report
1523	G + β-U2N3 <=> α-U2N3	β-U2N3: N 0.586777, U 0.413223; α-U2N3: N 0.6, U 0.4	experimental	[1] Chevalier 2000 cites Shunk 1969	Table 1, p. 2, row 11 report
1408	congruent melting: L <=> γ-U(bcc_A2)		model	[1] Chevalier 2000	Table 1, p. 2, row 18 report
1408	G + β-U2N3 <=> α-U2N3	β-U2N3: N 0.586777, U 0.413223; α-U2N3: N 0.6, U 0.4	model	[1] Chevalier 2000	Table 1, p. 2, row 12 report
1408	congruent melting: L <=> γ-U(bcc_A2)		experimental	[1] Chevalier 2000 cites Dinsdale 1991 doi	Table 1, p. 2, row 17 report
1408	L <=> UN(fcc_B1) + γ-U(bcc_A2)	L: U 0.99994	model	[1] Chevalier 2000	Table 1, p. 2, row 20 report
1405	L <=> UN(fcc_B1) + γ-U(bcc_A2)		experimental	[1] Chevalier 2000 cites Okamoto 1997 doi	Table 1, p. 2, row 23 report
1405	G + β-U2N3 <=> α-U2N3	β-U2N3: N 0.586777, U 0.413223; α-U2N3: N 0.6, U 0.4	experimental	[1] Chevalier 2000 cites Okamoto 1997 doi	Table 1, p. 2, row 13 report
1403	L <=> UN(fcc_B1) + γ-U(bcc_A2)	L: U 0.99983	experimental	[1] Chevalier 2000 cites Shunk 1969	Table 1, p. 2, row 19 report
1403	L <=> UN(fcc_B1) + γ-U(bcc_A2)		experimental	[1] Chevalier 2000 cites Benz 1966	Table 1, p. 2, row 22 report
1403	L <=> UN(fcc_B1) + γ-U(bcc_A2)		experimental	[1] Chevalier 2000 cites Storms 1964	Table 1, p. 2, row 21 report
1393	β-U2N3 <=> α-U2N3 + (UN)(fcc_B1)	β-U2N3: N 0.586777, U 0.413223; α-U2N3: N 0.6, U 0.4	experimental	[1] Chevalier 2000 cites Shunk 1969	Table 1, p. 2, row 14 report
1228	β-U2N3 <=> α-U2N3 + (UN)(fcc_B1)	β-U2N3: N 0.586777, U 0.413223; α-U2N3: N 0.6, U 0.4	model	[1] Chevalier 2000	Table 1, p. 2, row 15 report
1213	β-U2N3 <=> α-U2N3 + (UN)(fcc_B1)	β-U2N3: N 0.586777, U 0.413223; α-U2N3: N 0.6, U 0.4	experimental	[1] Chevalier 2000 cites Okamoto 1997 doi	Table 1, p. 2, row 16 report
1049	polymorphic: γ-U(bcc_A2) <=> β-U(tet)		experimental	[1] Chevalier 2000 cites Dinsdale 1991 doi	Table 1, p. 2, row 24 report
1049	polymorphic: γ-U(bcc_A2) <=> β-U(tet)		model	[1] Chevalier 2000	Table 1, p. 2, row 25 report
942	polymorphic: β-U(tet) <=> α-U(ort_A20)	β-U(tet): N 0.6, U 0.4; α-U(ort_A20): N 0.6, U 0.4	experimental	[1] Chevalier 2000 cites Dinsdale 1991 doi	Table 1, p. 2, row 26 report
942	polymorphic: β-U(tet) <=> α-U(ort_A20)	β-U(tet): N 0.6, U 0.4; α-U(ort_A20): N 0.6, U 0.4	model	[1] Chevalier 2000	Table 1, p. 2, row 27 report
938	β-U(tet) <=> α-U(ort_A20) + UN(fcc_B1)	α-U(ort_A20): N 0.6, U 0.4	experimental	[1] Chevalier 2000 cites Okamoto 1997 doi	Table 1, p. 2, row 29 report
938	β-U(tet) <=> α-U(ort_A20) + UN(fcc_B1)	α-U(ort_A20): N 0.6, U 0.4	experimental	[1] Chevalier 2000 cites Shunk 1969	Table 1, p. 2, row 28 report

Formation enthalpies

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

Enthalpies of formation, N–U system (101)
Phase	Compound	Value	T (K)	Class	MP DFT (kJ/mol-atom)	OQMD DFT (kJ/mol-atom)	Source	Location
N0.500U0.500(fcc_B1)	UN	-148.433 kJ/mol-atom	298.15	experimental	-143.768 (mp-aaaaactt)	-136.591 (oqmd-4568)	[1] Chevalier 2000 cites Oetting 1972 doi	Table 8, p. 6, row 6 report
N0.500U0.500(fcc_B1)	UN	-148.428 kJ/mol-atom	298.15	experimental	-143.768 (mp-aaaaactt)	-136.591 (oqmd-4568)	[1] Chevalier 2000 cites Hubbard 1962	Table 8, p. 6, row 5 report
N0.500U0.500(fcc_B1)	UN	-147.904 kJ/mol-atom	298.15	experimental	-143.768 (mp-aaaaactt)	-136.591 (oqmd-4568)	[1] Chevalier 2000 cites Tagawa 1974	Table 8, p. 6, row 8 report
N0.500U0.500(fcc_B1)	UN	-147.176 kJ/mol-atom	298.15	model	-143.768 (mp-aaaaactt)	-136.591 (oqmd-4568)	[1] Chevalier 2000	Table 8, p. 6, row 9 report
N0.500U0.500(fcc_B1)	UN	-147.068 kJ/mol-atom	298.15	experimental	-143.768 (mp-aaaaactt)	-136.591 (oqmd-4568)	[1] Chevalier 2000 cites Gross 1962	Table 8, p. 6, row 3 report
N0.500U0.500(fcc_B1)	UN	-146.649 kJ/mol-atom	298.15	experimental	-143.768 (mp-aaaaactt)	-136.591 (oqmd-4568)	[1] Chevalier 2000 cites Gross 1962	Table 8, p. 6, row 4 report
N0.500U0.500(fcc_B1)	UN	-145.603 kJ/mol-atom	298.15	experimental	-143.768 (mp-aaaaactt)	-136.591 (oqmd-4568)	[1] Chevalier 2000 cites Gross 1962	Table 8, p. 6, row 2 report
N0.500U0.500(fcc_B1)	UN	-145.368 kJ/mol-atom	298.15	experimental	-143.768 (mp-aaaaactt)	-136.591 (oqmd-4568)	[1] Chevalier 2000 cites Johnson 1981 doi	Table 8, p. 6, row 7 report
N0.500U0.500(fcc_B1)	UN	-143.302 kJ/mol-atom	298.15	experimental	-143.768 (mp-aaaaactt)	-136.591 (oqmd-4568)	[1] Chevalier 2000 cites Neumann 1932 doi	Table 8, p. 6, row 1 report
N0.587U0.413 (β-N3U2)		-147.161 kJ/mol-atom	298.15	experimental			[1] Chevalier 2000 cites Johnson 1981 doi	Table 8, p. 6, row 16 report
N0.587U0.413 (β-N3U2)		-140.272 kJ/mol-atom	298.15	model			[1] Chevalier 2000	Table 8, p. 6, row 17 report
N1.5-1.75U1 (α-N3U2)	U2N3	-148.21 kJ/mol-atom	298.15	experimental	-154.818 (mp-aaaabhdb)	-145.953 (oqmd-39168)	[1] Chevalier 2000 cites OOHare 1968	Table 8, p. 6, row 12 report
N1.5–1.75U1 (α-N3U2)	U2N3	-150.19 kJ/mol-atom	298.15	experimental	-154.818 (mp-aaaabhdb)	-145.953 (oqmd-39168)	[1] Chevalier 2000 cites OOHare 1968	Table 8, p. 6, row 10 report
N1.5–1.75U1 (α-N3U2)	U2N3	-146.662 kJ/mol-atom	298.15	experimental	-154.818 (mp-aaaabhdb)	-145.953 (oqmd-39168)	[1] Chevalier 2000 cites Johnson 1981 doi	Table 8, p. 6, row 14 report
N1.5–1.75U1 (α-N3U2)	U2N3	-146.41 kJ/mol-atom	298.15	experimental	-154.818 (mp-aaaabhdb)	-145.953 (oqmd-39168)	[1] Chevalier 2000 cites Johnson 1981 doi	Table 8, p. 6, row 13 report
N1.5–1.75U1 (α-N3U2)	U2N3	-146.362 kJ/mol-atom	298.15	experimental	-154.818 (mp-aaaabhdb)	-145.953 (oqmd-39168)	[1] Chevalier 2000 cites OOHare 1968	Table 8, p. 6, row 11 report
UN(fcc_B1)		-306.95 kJ/mol (basis unstated)	1500	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 41 report
UN(fcc_B1)		-306.863 kJ/mol (basis unstated)	1600	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 44 report
UN(fcc_B1)		-306.677 kJ/mol (basis unstated)	1700	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 47 report
UN(fcc_B1)		-306.562 kJ/mol (basis unstated)	1500	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 40 report
UN(fcc_B1)		-306.311 kJ/mol (basis unstated)	1600	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 43 report
UN(fcc_B1)		-306.211 kJ/mol (basis unstated)	1700	model			[1] Chevalier 2000	Table 7, p. 5, row 48 report
UN(fcc_B1)		-306.166 kJ/mol (basis unstated)	1600	model			[1] Chevalier 2000	Table 7, p. 5, row 45 report
UN(fcc_B1)		-306.092 kJ/mol (basis unstated)	1800	model			[1] Chevalier 2000	Table 7, p. 5, row 51 report
UN(fcc_B1)		-306 kJ/mol (basis unstated)	1900	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 53 report
UN(fcc_B1)		-305.997 kJ/mol (basis unstated)	1500	model			[1] Chevalier 2000	Table 7, p. 5, row 42 report
UN(fcc_B1)		-305.892 kJ/mol (basis unstated)	1700	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 46 report
UN(fcc_B1)		-305.771 kJ/mol (basis unstated)	1900	model			[1] Chevalier 2000	Table 7, p. 5, row 54 report
UN(fcc_B1)		-305.507 kJ/mol (basis unstated)	2000	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 56 report
UN(fcc_B1)		-305.348 kJ/mol (basis unstated)	1800	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 49 report
UN(fcc_B1)		-305.208 kJ/mol (basis unstated)	2000	model			[1] Chevalier 2000	Table 7, p. 5, row 57 report
UN(fcc_B1)		-304.91 kJ/mol (basis unstated)	2100	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 59 report
UN(fcc_B1)		-304.734 kJ/mol (basis unstated)	1800	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 50 report
UN(fcc_B1)		-304.595 kJ/mol (basis unstated)	1900	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 52 report
UN(fcc_B1)		-304.366 kJ/mol (basis unstated)	2100	model			[1] Chevalier 2000	Table 7, p. 5, row 60 report
UN(fcc_B1)		-304.211 kJ/mol (basis unstated)	2200	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 62 report
UN(fcc_B1)		-303.675 kJ/mol (basis unstated)	2000	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 55 report
UN(fcc_B1)		-303.405 kJ/mol (basis unstated)	2300	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 65 report
UN(fcc_B1)		-303.205 kJ/mol (basis unstated)	2200	model			[1] Chevalier 2000	Table 7, p. 5, row 63 report
UN(fcc_B1)		-302.587 kJ/mol (basis unstated)	2100	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 58 report
UN(fcc_B1)		-302.491 kJ/mol (basis unstated)	2400	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 68 report
UN(fcc_B1)		-301.686 kJ/mol (basis unstated)	2300	model			[1] Chevalier 2000	Table 7, p. 5, row 66 report
UN(fcc_B1)		-301.474 kJ/mol (basis unstated)	2500	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 71 report
UN(fcc_B1)		-301.248 kJ/mol (basis unstated)	2200	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 61 report
UN(fcc_B1)		-300.83 kJ/mol (basis unstated)	1100	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 28 report
UN(fcc_B1)		-300.579 kJ/mol (basis unstated)	1200	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 31 report
UN(fcc_B1)		-300.383 kJ/mol (basis unstated)	1100	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 29 report
UN(fcc_B1)		-300.244 kJ/mol (basis unstated)	1300	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 34 report
UN(fcc_B1)		-299.771 kJ/mol (basis unstated)	2400	model			[1] Chevalier 2000	Table 7, p. 5, row 69 report
UN(fcc_B1)		-299.742 kJ/mol (basis unstated)	2300	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 64 report
UN(fcc_B1)		-299.742 kJ/mol (basis unstated)	1400	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 37 report
UN(fcc_B1)		-299.644 kJ/mol (basis unstated)	1200	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 32 report
UN(fcc_B1)		-298.882 kJ/mol (basis unstated)	1100	model			[1] Chevalier 2000	Table 7, p. 5, row 30 report
UN(fcc_B1)		-298.809 kJ/mol (basis unstated)	1300	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 35 report
UN(fcc_B1)		-298.135 kJ/mol (basis unstated)	1200	model			[1] Chevalier 2000	Table 7, p. 5, row 33 report
UN(fcc_B1)		-298.026 kJ/mol (basis unstated)	2400	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 67 report
UN(fcc_B1)		-297.881 kJ/mol (basis unstated)	1400	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 38 report
UN(fcc_B1)		-297.418 kJ/mol (basis unstated)	2500	model			[1] Chevalier 2000	Table 7, p. 5, row 72 report
UN(fcc_B1)		-297.414 kJ/mol (basis unstated)	1300	model			[1] Chevalier 2000	Table 7, p. 5, row 36 report
UN(fcc_B1)		-296.682 kJ/mol (basis unstated)	1400	model			[1] Chevalier 2000	Table 7, p. 5, row 39 report
UN(fcc_B1)		-296.395 kJ/mol (basis unstated)	1000	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 25 report
UN(fcc_B1)		-296.06 kJ/mol (basis unstated)	2500	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 70 report
UN(fcc_B1)		-296.05 kJ/mol (basis unstated)	1000	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 26 report
UN(fcc_B1)		-295.809 kJ/mol (basis unstated)	298.15	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 2 report
UN(fcc_B1)		-295.809 kJ/mol (basis unstated)	300	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 4 report
UN(fcc_B1)		-295.809 kJ/mol (basis unstated)	298.15	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 1 report
UN(fcc_B1)		-295.798 kJ/mol (basis unstated)	300	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 5 report
UN(fcc_B1)		-295.136 kJ/mol (basis unstated)	400	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 8 report
UN(fcc_B1)		-295.056 kJ/mol (basis unstated)	400	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 7 report
UN(fcc_B1)		-294.775 kJ/mol (basis unstated)	3000	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 83 report
UN(fcc_B1)		-294.705 kJ/mol (basis unstated)	1000	model			[1] Chevalier 2000	Table 7, p. 5, row 27 report
UN(fcc_B1)		-294.591 kJ/mol (basis unstated)	2600	model			[1] Chevalier 2000	Table 7, p. 5, row 74 report
UN(fcc_B1)		-294.414 kJ/mol (basis unstated)	500	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 11 report
UN(fcc_B1)		-294.354 kJ/mol (basis unstated)	298.15	model			[1] Chevalier 2000 cites THERMODATA	Table 12, p. 10, row 2 report
UN(fcc_B1)		-294.353 kJ/mol (basis unstated)	298.15	model			[1] Chevalier 2000	Table 7, p. 5, row 3 report
UN(fcc_B1)		-294.353 kJ/mol (basis unstated)	300	model			[1] Chevalier 2000	Table 7, p. 5, row 6 report
UN(fcc_B1)		-294.261 kJ/mol (basis unstated)	500	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 10 report
UN(fcc_B1)		-293.842 kJ/mol (basis unstated)	2600	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 73 report
UN(fcc_B1)		-293.773 kJ/mol (basis unstated)	600	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 14 report
UN(fcc_B1)		-293.697 kJ/mol (basis unstated)	400	model			[1] Chevalier 2000	Table 7, p. 5, row 9 report
UN(fcc_B1)		-293.675 kJ/mol (basis unstated)	600	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 13 report
UN(fcc_B1)		-293.382 kJ/mol (basis unstated)	700	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 16 report
UN(fcc_B1)		-293.382 kJ/mol (basis unstated)	900	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 22 report
UN(fcc_B1)		-293.305 kJ/mol (basis unstated)	700	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 17 report
UN(fcc_B1)		-293.298 kJ/mol (basis unstated)	800	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 19 report
UN(fcc_B1)		-293.18 kJ/mol (basis unstated)	900	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 23 report
UN(fcc_B1)		-293.089 kJ/mol (basis unstated)	800	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 20 report
UN(fcc_B1)		-293.061 kJ/mol (basis unstated)	500	model			[1] Chevalier 2000	Table 7, p. 5, row 12 report
UN(fcc_B1)		-292.566 kJ/mol (basis unstated)	600	model			[1] Chevalier 2000	Table 7, p. 5, row 15 report
UN(fcc_B1)		-292.247 kJ/mol (basis unstated)	700	model			[1] Chevalier 2000	Table 7, p. 5, row 18 report
UN(fcc_B1)		-292.108 kJ/mol (basis unstated)	900	model			[1] Chevalier 2000	Table 7, p. 5, row 24 report
UN(fcc_B1)		-292.101 kJ/mol (basis unstated)	800	model			[1] Chevalier 2000	Table 7, p. 5, row 21 report
UN(fcc_B1)		-291.374 kJ/mol (basis unstated)	2700	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 75 report
UN(fcc_B1)		-291.249 kJ/mol (basis unstated)	2700	model			[1] Chevalier 2000	Table 7, p. 5, row 76 report
UN(fcc_B1)		-288.696 kJ/mol (basis unstated)	2800	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 77 report
UN(fcc_B1)		-287.353 kJ/mol (basis unstated)	2800	model			[1] Chevalier 2000	Table 7, p. 5, row 78 report
UN(fcc_B1)		-286.669 kJ/mol (basis unstated)	2900	model			[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 80 report
UN(fcc_B1)		-285.725 kJ/mol (basis unstated)	2900	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 79 report
UN(fcc_B1)		-282.864 kJ/mol (basis unstated)	2900	model			[1] Chevalier 2000	Table 7, p. 5, row 81 report
UN(fcc_B1)		-282.462 kJ/mol (basis unstated)	3000	model			[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 82 report
UN(fcc_B1)		-277.743 kJ/mol (basis unstated)	3000	model			[1] Chevalier 2000	Table 7, p. 5, row 84 report

Other properties

Phase transition (1)

Phase transition, N–U system
Property	Value	T (K)	Phases / composition	Class	Source	Location	Quote
Phase transition	3123 K	3123	congruent transformation	experimental	[1] Chevalier 2000 cites Bugl 1964	p. 6 report	Cast specimens of UN were heated in a controlled nitrogen-pressure apparatus in order to study the decomposition behaviour: at pressures of nitrogen below 2.5 atm, UN decomposed at temperatures below 3123 K (2850°C), while at pressures greater than 2.5 atm, it melted congruently at 3123 K (2850°C).

Phase equilibrium (23)

Phase equilibrium, N–U system
Property	T (K)	Phases / composition	Class	Source	Location
Phase composition	1773	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.4898, U 0.5102; L: N 0.00405, U 0.99595; N1−xU1(fcc_B1): N 0.4898, U 0.5102	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 5 report
Phase composition	1943	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.48187, U 0.51813; L: N 0.0106, U 0.9894; N1−xU1(fcc_B1): N 0.48187, U 0.51813	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 6 report
Phase composition	1960	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.48718, U 0.51282; L: N 0.01156, U 0.98844; N1−xU1(fcc_B1): N 0.48718, U 0.51282	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 7 report
Phase composition	2070	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.47644, U 0.52356; L: N 0.01964, U 0.98036; N1−xU1(fcc_B1): N 0.47644, U 0.52356	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 9 report
Phase composition	2070	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.47917, U 0.52083; L: N 0.01964, U 0.98036; N1−xU1(fcc_B1): N 0.47917, U 0.52083	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 8 report
Phase composition	2073	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.48187, U 0.51813; L: N 0.01991, U 0.98009; N1−xU1(fcc_B1): N 0.48187, U 0.51813	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 10 report
Phase composition	2085	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.47917, U 0.52083; L: N 0.02101, U 0.97899; N1−xU1(fcc_B1): N 0.47917, U 0.52083	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 11 report
Phase composition	2273	L + N1-xU1(fcc_B1) + N1−xU1(fcc_B1) L: N 0.04, U 0.96; N1-xU1(fcc_B1): N 0.48, U 0.52; N1−xU1(fcc_B1): N 0.48, U 0.52	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 1 report
Phase composition	2373	L + N1-xU1(fcc_B1) + N1−xU1(fcc_B1) L: N 0.083, U 0.917; N1-xU1(fcc_B1): N 0.47, U 0.53; N1−xU1(fcc_B1): N 0.47, U 0.53	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 2 report
Phase composition	2823	L + N1-xU1(fcc_B1) + N1−xU1(fcc_B1) L: N 0.34, U 0.66; N1-xU1(fcc_B1): N 0.47, U 0.53; N1−xU1(fcc_B1): N 0.47, U 0.53	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 3 report
Phase composition	2885	L + N1-xU1(fcc_B1) + N1−xU1(fcc_B1) L: N 0.37, U 0.63; N1-xU1(fcc_B1): N 0.46, U 0.54; N1−xU1(fcc_B1): N 0.46, U 0.54	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 4 report
Phase composition	2932	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.46524, U 0.53476; L: N 0.31421, U 0.68579; N1−xU1(fcc_B1): N 0.46524, U 0.53476	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 12 report
Phase composition	2992	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.46809, U 0.53191; L: N 0.3591, U 0.6409; N1−xU1(fcc_B1): N 0.46809, U 0.53191	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 13 report
Phase composition	2998	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.4709, U 0.5291; L: N 0.36382, U 0.63618; N1−xU1(fcc_B1): N 0.4709, U 0.5291	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 14 report
Phase composition	3024	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.48718, U 0.51282; L: N 0.38477, U 0.61523; N1−xU1(fcc_B1): N 0.48718, U 0.51282	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 15 report
Phase composition	3092	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.49239, U 0.50761; L: N 0.49, U 0.51; N1−xU1(fcc_B1): N 0.49239, U 0.50761	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 20 report
Phase composition	3093	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.49495, U 0.50505; L: N 0.49, U 0.51; N1−xU1(fcc_B1): N 0.49495, U 0.50505	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 21 report
Phase composition	3098	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.49239, U 0.50761; L: N 0.49, U 0.51; N1−xU1(fcc_B1): N 0.49239, U 0.50761	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 22 report
Phase composition	3103	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.49495, U 0.50505; L: N 0.49, U 0.51; N1−xU1(fcc_B1): N 0.49495, U 0.50505	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 23 report
Phase composition	3108	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.48718, U 0.51282; L: N 0.45812, U 0.54188; N1−xU1(fcc_B1): N 0.48718, U 0.51282	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 16 report
Phase composition	3109	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.4898, U 0.5102; L: N 0.45905, U 0.54095; N1−xU1(fcc_B1): N 0.4898, U 0.5102	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 17 report
Phase composition	3113	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.49495, U 0.50505; L: N 0.46276, U 0.53724; N1−xU1(fcc_B1): N 0.49495, U 0.50505	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 18 report
Phase composition	3126	N1-xU1(fcc_B1) + L + N1−xU1(fcc_B1) N1-xU1(fcc_B1): N 0.49239, U 0.50761; L: N 0.47499, U 0.52501; N1−xU1(fcc_B1): N 0.49239, U 0.50761	experimental	[1] Chevalier 2000 cites Benz 1966	Table 3, p. 3, row 19 report

Heat capacity / entropy / enthalpy (380)

Heat capacity / entropy / enthalpy, N–U system
Property	Value	T (K)	Phases / composition	Class	Source	Location
Entropy printed: S°298.15 K	31.21 J/mol-atom/K	298.15	N0.500U0.500(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 8, p. 6, row 25 report
Entropy printed: S°298.15 K	31.213 J/mol-atom/K	298.15	N0.500U0.500(fcc_B1) alloy: U 0.5	experimental	[1] Chevalier 2000 cites Hayes 1990 doi	Table 8, p. 6, row 24 report
Entropy printed: S°298.15 K	31.108 J/mol-atom/K	298.15	N0.500U0.500(fcc_B1) alloy: U 0.5	experimental	[1] Chevalier 2000 cites Counsell 1966 doi	Table 8, p. 6, row 22 report
Entropy printed: ΔS°f298.15 K	-41.793 J/(g at. K)	298.15	N0.500U0.500(fcc_B1) alloy: U 0.5	experimental	[1] Chevalier 2000 cites Matsui 1987	Table 8, p. 6, row 19 report
Entropy printed: ΔS°f298.15 K	-41.793 J/(g at. K)	298.15	N0.500U0.500(fcc_B1) alloy: U 0.5	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 8, p. 6, row 18 report
Entropy printed: S°298.15 K	31.213 J/mol-atom/K	298.15	N0.500U0.500(fcc_B1) alloy: U 0.5	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 8, p. 6, row 21 report
Entropy printed: S°298.15 K	31.317 J/mol-atom/K	298.15	N0.500U0.500(fcc_B1) alloy: U 0.5	experimental	[1] Chevalier 2000 cites Westrum 1966 doi	Table 8, p. 6, row 23 report
Entropy printed: ΔS°f298.15 K	-41.792 J/(g at. K)	298.15	N0.500U0.500(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 8, p. 6, row 20 report
Entropy printed: S°298.15 K	25 J/mol-atom/K	298.15	N1.5-1.75U1 (α-N3U2)	model	[1] Chevalier 2000	Table 8, p. 6, row 29 report
Entropy printed: S°298.15 K	24.123 J/mol-atom/K	298.15	N1.5-1.75U1 (α-N3U2)	experimental	[1] Chevalier 2000 cites Counsell 1966 doi	Table 8, p. 6, row 27 report
Entropy printed: S°298.15 K	24.337 J/mol-atom/K	298.15	N1.5-1.75U1 (α-N3U2)	model	[1] Chevalier 2000	Table 8, p. 6, row 28 report
Entropy printed: S°298.15 K	25.104 J/mol-atom/K	298.15	N1.5–1.75U1 (α-N3U2)	experimental	[1] Chevalier 2000 cites Counsell 1966 doi	Table 8, p. 6, row 26 report
Entropy printed: S° 298.15 K	62.42 J/mol (basis unstated)/K	298.15	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites THERMODATA	Table 12, p. 10, row 3 report
Entropy printed: ΔS°f(UN)	-83.584 J/(mol K)	298.15	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 3 report
Entropy printed: ΔS°f(UN)	-83.53 J/(mol K)	298.15	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 2 report
Entropy printed: ΔS°f(UN)	-83.554 J/(mol K)	298.15	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 1 report
Entropy printed: ΔS°f(UN)	-83.5 J/(mol K)	300	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 5 report
Entropy printed: ΔS°f(UN)	-83.55 J/(mol K)	300	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 6 report
Entropy printed: ΔS°f(UN)	-83.513 J/(mol K)	300	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 4 report
Entropy printed: ΔS°f(UN)	-81.702 J/(mol K)	400	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 9 report
Entropy printed: ΔS°f(UN)	-81.61 J/(mol K)	400	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 8 report
Entropy printed: ΔS°f(UN)	-81.337 J/(mol K)	400	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 7 report
Entropy printed: ΔS°f(UN)	-79.98 J/(mol K)	500	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 11 report
Entropy printed: ΔS°f(UN)	-80.278 J/(mol K)	500	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 12 report
Entropy printed: ΔS°f(UN)	-79.58 J/(mol K)	500	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 10 report
Entropy printed: ΔS°f(UN)	-78.534 J/(mol K)	600	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 13 report
Entropy printed: ΔS°f(UN)	-78.79 J/(mol K)	600	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 14 report
Entropy printed: ΔS°f(UN)	-79.371 J/(mol K)	600	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 15 report
Entropy printed: ΔS°f(UN)	-78.073 J/(mol K)	700	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 16 report
Entropy printed: ΔS°f(UN)	-78.08 J/(mol K)	700	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 17 report
Entropy printed: ΔS°f(UN)	-78.876 J/(mol K)	700	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 18 report
Entropy printed: ΔS°f(UN)	-77.79 J/(mol K)	800	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 20 report
Entropy printed: ΔS°f(UN)	-78.678 J/(mol K)	800	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 21 report
Entropy printed: ΔS°f(UN)	-77.948 J/(mol K)	800	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 19 report
Entropy printed: ΔS°f(UN)	-78.685 J/(mol K)	900	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 24 report
Entropy printed: ΔS°f(UN)	-77.88 J/(mol K)	900	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 23 report
Entropy printed: ΔS°f(UN)	-78.073 J/(mol K)	900	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 22 report
Entropy printed: ΔS°f(UN)	-80.95 J/(mol K)	1000	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 26 report
Entropy printed: ΔS°f(UN)	-81.45 J/(mol K)	1000	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 27 report
Entropy printed: ΔS°f(UN)	-81.253 J/(mol K)	1000	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 25 report
Entropy printed: ΔS°f(UN)	-85.479 J/(mol K)	1100	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 28 report
Entropy printed: ΔS°f(UN)	-84.86 J/(mol K)	1100	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 29 report
Entropy printed: ΔS°f(UN)	-85.437 J/(mol K)	1100	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 30 report
Entropy printed: ΔS°f(UN)	-84.787 J/(mol K)	1200	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 33 report
Entropy printed: ΔS°f(UN)	-84.22 J/(mol K)	1200	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 32 report
Entropy printed: ΔS°f(UN)	-85.27 J/(mol K)	1200	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 31 report
Entropy printed: ΔS°f(UN)	-83.55 J/(mol K)	1300	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 35 report
Entropy printed: ΔS°f(UN)	-84.21 J/(mol K)	1300	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 36 report
Entropy printed: ΔS°f(UN)	-84.977 J/(mol K)	1300	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 34 report
Entropy printed: ΔS°f(UN)	-84.642 J/(mol K)	1400	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 37 report
Entropy printed: ΔS°f(UN)	-82.87 J/(mol K)	1400	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 38 report
Entropy printed: ΔS°f(UN)	-83.667 J/(mol K)	1400	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 39 report
Entropy printed: ΔS°f(UN)	-89.496 J/(mol K)	1500	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 40 report
Entropy printed: ΔS°f(UN)	-89.31 J/(mol K)	1500	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 41 report
Entropy printed: ΔS°f(UN)	-90.278 J/(mol K)	1500	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 42 report
Entropy printed: ΔS°f(UN)	-89.26 J/(mol K)	1600	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 44 report
Entropy printed: ΔS°f(UN)	-90.388 J/(mol K)	1600	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 45 report
Entropy printed: ΔS°f(UN)	-89.328 J/(mol K)	1600	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 43 report
Entropy printed: ΔS°f(UN)	-89.077 J/(mol K)	1700	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 46 report
Entropy printed: ΔS°f(UN)	-90.415 J/(mol K)	1700	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 48 report
Entropy printed: ΔS°f(UN)	-89.14 J/(mol K)	1700	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 47 report
Entropy printed: ΔS°f(UN)	-88.743 J/(mol K)	1800	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 49 report
Entropy printed: ΔS°f(UN)	-88.97 J/(mol K)	1800	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 50 report
Entropy printed: ΔS°f(UN)	-90.347 J/(mol K)	1800	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 51 report
Entropy printed: ΔS°f(UN)	-88.366 J/(mol K)	1900	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 52 report
Entropy printed: ΔS°f(UN)	-90.174 J/(mol K)	1900	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 54 report
Entropy printed: ΔS°f(UN)	-88.76 J/(mol K)	1900	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 53 report
Entropy printed: ΔS°f(UN)	-87.906 J/(mol K)	2000	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 55 report
Entropy printed: ΔS°f(UN)	-89.886 J/(mol K)	2000	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 57 report
Entropy printed: ΔS°f(UN)	-88.51 J/(mol K)	2000	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 56 report
Entropy printed: ΔS°f(UN)	-89.476 J/(mol K)	2100	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 60 report
Entropy printed: ΔS°f(UN)	-87.362 J/(mol K)	2100	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 58 report
Entropy printed: ΔS°f(UN)	-88.22 J/(mol K)	2100	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 59 report
Entropy printed: ΔS°f(UN)	-86.734 J/(mol K)	2200	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 61 report
Entropy printed: ΔS°f(UN)	-87.89 J/(mol K)	2200	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 62 report
Entropy printed: ΔS°f(UN)	-88.937 J/(mol K)	2200	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 63 report
Entropy printed: ΔS°f(UN)	-86.065 J/(mol K)	2300	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 64 report
Entropy printed: ΔS°f(UN)	-87.53 J/(mol K)	2300	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 65 report
Entropy printed: ΔS°f(UN)	-88.262 J/(mol K)	2300	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 66 report
Entropy printed: ΔS°f(UN)	-87.15 J/(mol K)	2400	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 68 report
Entropy printed: ΔS°f(UN)	-85.312 J/(mol K)	2400	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 67 report
Entropy printed: ΔS°f(UN)	-87.447 J/(mol K)	2400	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 69 report
Entropy printed: ΔS°f(UN)	-86.488 J/(mol K)	2500	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 72 report
Entropy printed: ΔS°f(UN)	-86.73 J/(mol K)	2500	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 71 report
Entropy printed: ΔS°f(UN)	-84.517 J/(mol K)	2500	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 70 report
Entropy printed: ΔS°f(UN)	-85.379 J/(mol K)	2600	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 74 report
Entropy printed: ΔS°f(UN)	-83.68 J/(mol K)	2600	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 73 report
Entropy printed: ΔS°f(UN)	-82.718 J/(mol K)	2700	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 75 report
Entropy printed: ΔS°f(UN)	-84.119 J/(mol K)	2700	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 76 report
Entropy printed: ΔS°f(UN)	-82.703 J/(mol K)	2800	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 78 report
Entropy printed: ΔS°f(UN)	-81.755 J/(mol K)	2800	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 77 report
Entropy printed: ΔS°f(UN)	-81.128 J/(mol K)	2900	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 81 report
Entropy printed: ΔS°f(UN)	-80.709 J/(mol K)	2900	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 79 report
Entropy printed: ΔS°f(UN)	-79.393 J/(mol K)	3000	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000	Table 7, p. 5, row 84 report
Entropy printed: ΔS°f(UN)	-84.3 J/(mol K)	3000	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 7, p. 5, row 83 report
Entropy printed: ΔS°f(UN)	-79.622 J/(mol K)	3000	UN(fcc_B1) alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 7, p. 5, row 82 report
Heat capacity printed: Cp	47.356 J/mol (basis unstated)/K	298.15	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 3 report
Heat capacity printed: Cp	47.086 J/mol (basis unstated)/K	298.15	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Counsell 1966 doi	Table 4, p. 4, row 1 report
Heat capacity printed: Cp	47.572 J/mol (basis unstated)/K	298.15	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 1 report
Heat capacity printed: Cp	47.823 J/mol (basis unstated)/K	298.15	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 44 report
Heat capacity printed: Cp	47.82 J/mol (basis unstated)/K	298.15	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 2 report
Heat capacity printed: Cp	20.92 J/mol (basis unstated)/K	298.15	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 1 report
Heat capacity printed: Cp	47.907 J/mol (basis unstated)/K	300	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 45 report
Heat capacity printed: Cp	47.656 J/mol (basis unstated)/K	300	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 4 report
Heat capacity printed: Cp	47.91 J/mol (basis unstated)/K	300	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 5 report
Heat capacity printed: Cp	47.468 J/mol (basis unstated)/K	300	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 6 report
Heat capacity printed: Cp	47.16 J/mol (basis unstated)/K	300	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Counsell 1966 doi	Table 4, p. 4, row 2 report
Heat capacity printed: Cp	21.035 J/mol (basis unstated)/K	300	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 2 report
Heat capacity printed: Cp	48.24 J/mol (basis unstated)/K	306.8	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Westrum 1966 doi	Table 4, p. 4, row 5 report
Heat capacity printed: Cp	47.626 J/mol (basis unstated)/K	310	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Counsell 1966 doi	Table 4, p. 4, row 3 report
Heat capacity printed: Cp	48.71 J/mol (basis unstated)/K	316.3	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Westrum 1966 doi	Table 4, p. 4, row 6 report
Heat capacity printed: Cp	48.08 J/mol (basis unstated)/K	320	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Counsell 1966 doi	Table 4, p. 4, row 4 report
Heat capacity printed: Cp	49.1 J/mol (basis unstated)/K	326	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Westrum 1966 doi	Table 4, p. 4, row 7 report
Heat capacity printed: Cp	49.464 J/mol (basis unstated)/K	335.8	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Westrum 1966 doi	Table 4, p. 4, row 8 report
Heat capacity printed: Cp	49.722 J/mol (basis unstated)/K	345.9	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Westrum 1966 doi	Table 4, p. 4, row 9 report
Heat capacity printed: Cp	49.999 J/mol (basis unstated)/K	350	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 46 report
Heat capacity printed: Cp	51.55 J/mol (basis unstated)/K	400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 8 report
Heat capacity printed: Cp	51.54 J/mol (basis unstated)/K	400	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 9 report
Heat capacity printed: Cp	51.505 J/mol (basis unstated)/K	400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 7 report
Heat capacity printed: Cp	51.547 J/mol (basis unstated)/K	400	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 47 report
Heat capacity printed: Cp	25.005 J/mol (basis unstated)/K	400	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 3 report
Heat capacity printed: Cp	52.76 J/mol (basis unstated)/K	450	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 48 report
Heat capacity printed: Cp	53.702 J/mol (basis unstated)/K	500	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 12 report
Heat capacity printed: Cp	53.764 J/mol (basis unstated)/K	500	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 49 report
Heat capacity printed: Cp	53.76 J/mol (basis unstated)/K	500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 11 report
Heat capacity printed: Cp	53.639 J/mol (basis unstated)/K	500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 10 report
Heat capacity printed: Cp	27.245 J/mol (basis unstated)/K	500	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 4 report
Heat capacity printed: Cp	54.685 J/mol (basis unstated)/K	550	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 50 report
Heat capacity printed: Cp	55.48 J/mol (basis unstated)/K	600	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 51 report
Heat capacity printed: Cp	55.187 J/mol (basis unstated)/K	600	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 13 report
Heat capacity printed: Cp	55.48 J/mol (basis unstated)/K	600	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 14 report
Heat capacity printed: Cp	55.168 J/mol (basis unstated)/K	600	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 15 report
Heat capacity printed: Cp	28.827 J/mol (basis unstated)/K	600	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 5 report
Heat capacity printed: Cp	56.233 J/mol (basis unstated)/K	650	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 52 report
Heat capacity printed: Cp	56.484 J/mol (basis unstated)/K	700	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 16 report
Heat capacity printed: Cp	56.94 J/mol (basis unstated)/K	700	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 17 report
Heat capacity printed: Cp	56.944 J/mol (basis unstated)/K	700	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 53 report
Heat capacity printed: Cp	56.354 J/mol (basis unstated)/K	700	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 18 report
Heat capacity printed: Cp	30.062 J/mol (basis unstated)/K	700	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 6 report
Heat capacity printed: Cp	57.614 J/mol (basis unstated)/K	750	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 54 report
Heat capacity printed: Cp	57.697 J/mol (basis unstated)/K	800	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 19 report
Heat capacity printed: Cp	56.902 J/mol (basis unstated)/K	800	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 10 report
Heat capacity printed: Cp	58.24 J/mol (basis unstated)/K	800	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 20 report
Heat capacity printed: Cp	57.436 J/mol (basis unstated)/K	800	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 21 report
Heat capacity printed: Cp	58.241 J/mol (basis unstated)/K	800	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 55 report
Heat capacity printed: Cp	31.149 J/mol (basis unstated)/K	800	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 7 report
Heat capacity printed: Cp	58.869 J/mol (basis unstated)/K	850	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 56 report
Heat capacity printed: Cp	58.702 J/mol (basis unstated)/K	900	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 11 report
Heat capacity printed: Cp	59.496 J/mol (basis unstated)/K	900	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 57 report
Heat capacity printed: Cp	58.495 J/mol (basis unstated)/K	900	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 24 report
Heat capacity printed: Cp	59.5 J/mol (basis unstated)/K	900	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 23 report
Heat capacity printed: Cp	58.911 J/mol (basis unstated)/K	900	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 22 report
Heat capacity printed: Cp	32.121 J/mol (basis unstated)/K	900	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 8 report
Heat capacity printed: Cp	60.082 J/mol (basis unstated)/K	950	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 58 report
Heat capacity printed: Cp	59.576 J/mol (basis unstated)/K	1000	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 27 report
Heat capacity printed: Cp	60.668 J/mol (basis unstated)/K	1000	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 59 report
Heat capacity printed: Cp	60.124 J/mol (basis unstated)/K	1000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 25 report
Heat capacity printed: Cp	60.67 J/mol (basis unstated)/K	1000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 26 report
Heat capacity printed: Cp	60.459 J/mol (basis unstated)/K	1000	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 12 report
Heat capacity printed: Cp	33.027 J/mol (basis unstated)/K	1000	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 9 report
Heat capacity printed: Cp	61.379 J/mol (basis unstated)/K	1100	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 28 report
Heat capacity printed: Cp	60.703 J/mol (basis unstated)/K	1100	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 30 report
Heat capacity printed: Cp	61.84 J/mol (basis unstated)/K	1100	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 29 report
Heat capacity printed: Cp	62.216 J/mol (basis unstated)/K	1100	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 13 report
Heat capacity printed: Cp	33.9 J/mol (basis unstated)/K	1100	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 10 report
Heat capacity printed: Cp	63.973 J/mol (basis unstated)/K	1200	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 14 report
Heat capacity printed: Cp	61.891 J/mol (basis unstated)/K	1200	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 33 report
Heat capacity printed: Cp	62.718 J/mol (basis unstated)/K	1200	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 31 report
Heat capacity printed: Cp	63.01 J/mol (basis unstated)/K	1200	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 32 report
Heat capacity printed: Cp	34.757 J/mol (basis unstated)/K	1200	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 11 report
Heat capacity printed: Cp	63.151 J/mol (basis unstated)/K	1300	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 36 report
Heat capacity printed: Cp	64.18 J/mol (basis unstated)/K	1300	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 35 report
Heat capacity printed: Cp	64.099 J/mol (basis unstated)/K	1300	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 34 report
Heat capacity printed: Cp	65.731 J/mol (basis unstated)/K	1300	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 15 report
Heat capacity printed: Cp	35.58 J/mol (basis unstated)/K	1300	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 12 report
Heat capacity printed: Cp	65.563 J/mol (basis unstated)/K	1400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 37 report
Heat capacity printed: Cp	65.31 J/mol (basis unstated)/K	1400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 38 report
Heat capacity printed: Cp	64.487 J/mol (basis unstated)/K	1400	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 39 report
Heat capacity printed: Cp	67.488 J/mol (basis unstated)/K	1400	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 16 report
Heat capacity printed: Cp	36.388 J/mol (basis unstated)/K	1400	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 13 report
Heat capacity printed: Cp	65.904 J/mol (basis unstated)/K	1500	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 42 report
Heat capacity printed: Cp	69.245 J/mol (basis unstated)/K	1500	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 17 report
Heat capacity printed: Cp	67.111 J/mol (basis unstated)/K	1500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 40 report
Heat capacity printed: Cp	66.48 J/mol (basis unstated)/K	1500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 41 report
Heat capacity printed: Cp	37.195 J/mol (basis unstated)/K	1500	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 14 report
Heat capacity printed: Cp	67.61 J/mol (basis unstated)/K	1600	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 44 report
Heat capacity printed: Cp	71.002 J/mol (basis unstated)/K	1600	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 18 report
Heat capacity printed: Cp	67.405 J/mol (basis unstated)/K	1600	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 45 report
Heat capacity printed: Cp	68.743 J/mol (basis unstated)/K	1600	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 43 report
Heat capacity printed: Cp	37.985 J/mol (basis unstated)/K	1600	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 15 report
Heat capacity printed: Cp	68.993 J/mol (basis unstated)/K	1700	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 48 report
Heat capacity printed: Cp	72.76 J/mol (basis unstated)/K	1700	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 19 report
Heat capacity printed: Cp	68.74 J/mol (basis unstated)/K	1700	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 47 report
Heat capacity printed: Cp	70.417 J/mol (basis unstated)/K	1700	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 46 report
Heat capacity printed: Cp	38.776 J/mol (basis unstated)/K	1700	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 16 report
Heat capacity printed: Cp	72.216 J/mol (basis unstated)/K	1800	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 49 report
Heat capacity printed: Cp	70.668 J/mol (basis unstated)/K	1800	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 51 report
Heat capacity printed: Cp	74.517 J/mol (basis unstated)/K	1800	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 20 report
Heat capacity printed: Cp	69.87 J/mol (basis unstated)/K	1800	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 50 report
Heat capacity printed: Cp	76.274 J/mol (basis unstated)/K	1900	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 21 report
Heat capacity printed: Cp	74.099 J/mol (basis unstated)/K	1900	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 52 report
Heat capacity printed: Cp	70.96 J/mol (basis unstated)/K	1900	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 53 report
Heat capacity printed: Cp	72.432 J/mol (basis unstated)/K	1900	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 54 report
Heat capacity printed: Cp	74.285 J/mol (basis unstated)/K	2000	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 57 report
Heat capacity printed: Cp	76.023 J/mol (basis unstated)/K	2000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 55 report
Heat capacity printed: Cp	78.032 J/mol (basis unstated)/K	2000	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 22 report
Heat capacity printed: Cp	72.09 J/mol (basis unstated)/K	2000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 56 report
Heat capacity printed: Cp	79.789 J/mol (basis unstated)/K	2100	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 23 report
Heat capacity printed: Cp	78.073 J/mol (basis unstated)/K	2100	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 58 report
Heat capacity printed: Cp	73.22 J/mol (basis unstated)/K	2100	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 59 report
Heat capacity printed: Cp	76.229 J/mol (basis unstated)/K	2100	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 60 report
Heat capacity printed: Cp	80.207 J/mol (basis unstated)/K	2200	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 61 report
Heat capacity printed: Cp	74.34 J/mol (basis unstated)/K	2200	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 62 report
Heat capacity printed: Cp	78.263 J/mol (basis unstated)/K	2200	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 63 report
Heat capacity printed: Cp	81.546 J/mol (basis unstated)/K	2200	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 24 report
Heat capacity printed: Cp	80.39 J/mol (basis unstated)/K	2300	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 66 report
Heat capacity printed: Cp	82.383 J/mol (basis unstated)/K	2300	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 64 report
Heat capacity printed: Cp	83.262 J/mol (basis unstated)/K	2300	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 25 report
Heat capacity printed: Cp	75.46 J/mol (basis unstated)/K	2300	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 65 report
Heat capacity printed: Cp	84.684 J/mol (basis unstated)/K	2400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 67 report
Heat capacity printed: Cp	76.58 J/mol (basis unstated)/K	2400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 68 report
Heat capacity printed: Cp	82.607 J/mol (basis unstated)/K	2400	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 69 report
Heat capacity printed: Cp	77.69 J/mol (basis unstated)/K	2500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 71 report
Heat capacity printed: Cp	87.069 J/mol (basis unstated)/K	2500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 70 report
Heat capacity printed: Cp	84.917 J/mol (basis unstated)/K	2500	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 72 report
Heat capacity printed: Cp	89.538 J/mol (basis unstated)/K	2600	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 73 report
Heat capacity printed: Cp	87.318 J/mol (basis unstated)/K	2600	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 74 report
Heat capacity printed: Cp	89.812 J/mol (basis unstated)/K	2700	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 76 report
Heat capacity printed: Cp	92.09 J/mol (basis unstated)/K	2700	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 75 report
Heat capacity printed: Cp	94.726 J/mol (basis unstated)/K	2800	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 77 report
Heat capacity printed: Cp	92.397 J/mol (basis unstated)/K	2800	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 78 report
Heat capacity printed: Cp	97.445 J/mol (basis unstated)/K	2900	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 79 report
Heat capacity printed: Cp	95.076 J/mol (basis unstated)/K	2900	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 80 report
Heat capacity printed: Cp	100.29 J/mol (basis unstated)/K	3000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 81 report
Heat capacity printed: Cp	97.847 J/mol (basis unstated)/K	3000	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 83 report
Heat capacity printed: Cp	83.27 J/mol (basis unstated)/K	3000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 82 report
Heat content printed: HT - H298	0 J/mol	298.15	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 3 report
Heat content printed: HT - H298	0 J/mol	298.15	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 1 report
Heat content printed: HT - H298	0 J/mol	298.15	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 44 report
Heat content printed: HT - H298	0 J/mol	298.15	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 2 report
Heat content printed: HT - H298	2540 J/mol	350	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 46 report
Heat content printed: HT - H298	2205 J/(mol K)	386.8	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 26 report
Heat content printed: HT - H298	2450 J/(mol K)	397.8	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 27 report
Heat content printed: HT - H298	5079 J/mol	400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 8 report
Heat content printed: HT - H298	5059 J/mol	400	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 9 report
Heat content printed: HT - H298	5067 J/mol	400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 7 report
Heat content printed: HT - H298	5079 J/mol	400	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 47 report
Heat content printed: HT - H298	3368 J/(mol K)	433.2	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 28 report
Heat content printed: HT - H298	3377 J/(mol K)	434.1	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 29 report
Heat content printed: HT - H298	7686 J/mol	450	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 48 report
Heat content printed: HT - H298	4102 J/(mol K)	463.5	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 30 report
Heat content printed: HT - H298	4710 J/(mol K)	485.4	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 31 report
Heat content printed: HT - H298	10246 J/mol	500	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 12 report
Heat content printed: HT - H298	10351 J/mol	500	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 49 report
Heat content printed: HT - H298	10351 J/mol	500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 11 report
Heat content printed: HT - H298	10334 J/mol	500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 10 report
Heat content printed: HT - H298	5343 J/(mol K)	508.6	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 32 report
Heat content printed: HT - H298	5489 J/(mol K)	513	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 33 report
Heat content printed: HT - H298	6044 J/(mol K)	531.1	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 34 report
Heat content printed: HT - H298	6347 J/(mol K)	546.4	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 35 report
Heat content printed: HT - H298	13062 J/mol	550	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 50 report
Heat content printed: HT - H298	7621 J/(mol K)	589.3	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 36 report
Heat content printed: HT - H298	15816 J/mol	600	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 51 report
Heat content printed: HT - H298	15778 J/mol	600	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 13 report
Heat content printed: HT - H298	15816 J/mol	600	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 14 report
Heat content printed: HT - H298	15566 J/mol	600	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 15 report
Heat content printed: HT - H298	8328 J/(mol K)	617.5	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 37 report
Heat content printed: HT - H298	8344 J/(mol K)	618.8	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 38 report
Heat content printed: HT - H298	8943 J/(mol K)	638.1	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 39 report
Heat content printed: HT - H298	18610 J/mol	650	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 52 report
Heat content printed: HT - H298	9328 J/(mol K)	654.3	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 40 report
Heat content printed: HT - H298	9418 J/(mol K)	658.5	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 41 report
Heat content printed: HT - H298	9922 J/(mol K)	677.9	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 42 report
Heat content printed: HT - H298	21364 J/mol	700	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 16 report
Heat content printed: HT - H298	21439 J/mol	700	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 17 report
Heat content printed: HT - H298	21439 J/mol	700	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 53 report
Heat content printed: HT - H298	21041 J/mol	700	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 18 report
Heat content printed: HT - H298	10615 J/(mol K)	701.3	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Cordfunke 1972 doi	Table 4, p. 4, row 43 report
Heat content printed: HT - H298	24301 J/mol	750	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 54 report
Heat content printed: HT - H298	27075 J/mol	800	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 19 report
Heat content printed: HT - H298	27196 J/mol	800	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 20 report
Heat content printed: HT - H298	26729 J/mol	800	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 21 report
Heat content printed: HT - H298	27196 J/mol	800	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 55 report
Heat content printed: HT - H298	30125 J/mol	850	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 56 report
Heat content printed: HT - H298	33083 J/mol	900	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 57 report
Heat content printed: HT - H298	32700 J/mol	900	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 24 report
Heat content printed: HT - H298	33082 J/mol	900	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 23 report
Heat content printed: HT - H298	32907 J/mol	900	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 22 report
Heat content printed: HT - H298	36075 J/mol	950	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 58 report
Heat content printed: HT - H298	38980 J/mol	1000	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 27 report
Heat content printed: HT - H298	39091 J/mol	1000	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Takahashi 1971 doi	Table 4, p. 4, row 59 report
Heat content printed: HT - H298	38857 J/mol	1000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 25 report
Heat content printed: HT - H298	39091 J/mol	1000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 26 report
Heat content printed: HT - H298	44932 J/mol	1100	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 28 report
Heat content printed: HT - H298	45264 J/mol	1100	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 30 report
Heat content printed: HT - H298	45218 J/mol	1100	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 29 report
Heat content printed: HT - H298	51513 J/mol	1200	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 33 report
Heat content printed: HT - H298	51137 J/mol	1200	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 31 report
Heat content printed: HT - H298	51461 J/mol	1200	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 32 report
Heat content printed: HT - H298	57759 J/mol	1300	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 36 report
Heat content printed: HT - H298	57821 J/mol	1300	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 35 report
Heat content printed: HT - H298	57476 J/mol	1300	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 34 report
Heat content printed: HT - H298	63957 J/mol	1400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 37 report
Heat content printed: HT - H298	64295 J/mol	1400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 38 report
Heat content printed: HT - H298	64037 J/mol	1400	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 39 report
Heat content printed: HT - H298	70382 J/mol	1500	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 42 report
Heat content printed: HT - H298	70592 J/mol	1500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 40 report
Heat content printed: HT - H298	70884 J/mol	1500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 41 report
Heat content printed: HT - H298	77586 J/mol	1600	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 44 report
Heat content printed: HT - H298	76828 J/mol	1600	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 45 report
Heat content printed: HT - H298	77383 J/mol	1600	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 43 report
Heat content printed: HT - H298	83412 J/mol	1700	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 48 report
Heat content printed: HT - H298	84402 J/mol	1700	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 47 report
Heat content printed: HT - H298	84337 J/mol	1700	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 46 report
Heat content printed: HT - H298	91471 J/mol	1800	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 49 report
Heat content printed: HT - H298	90171 J/mol	1800	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 51 report
Heat content printed: HT - H298	91330 J/mol	1800	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 50 report
Heat content printed: HT - H298	98784 J/mol	1900	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 52 report
Heat content printed: HT - H298	98371 J/mol	1900	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 53 report
Heat content printed: HT - H298	97143 J/mol	1900	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 54 report
Heat content printed: HT - H298	104365 J/mol	2000	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 57 report
Heat content printed: HT - H298	106286 J/mol	2000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 55 report
Heat content printed: HT - H298	105525 J/mol	2000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 56 report
Heat content printed: HT - H298	113993 J/mol	2100	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 58 report
Heat content printed: HT - H298	112791 J/mol	2100	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 59 report
Heat content printed: HT - H298	111876 J/mol	2100	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 60 report
Heat content printed: HT - H298	121905 J/mol	2200	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 61 report
Heat content printed: HT - H298	120168 J/mol	2200	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 62 report
Heat content printed: HT - H298	119713 J/mol	2200	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 63 report
Heat content printed: HT - H298	127914 J/mol	2300	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 66 report
Heat content printed: HT - H298	130035 J/mol	2300	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 64 report
Heat content printed: HT - H298	127658 J/mol	2300	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 65 report
Heat content printed: HT - H298	138386 J/mol	2400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 67 report
Heat content printed: HT - H298	135260 J/mol	2400	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 68 report
Heat content printed: HT - H298	136519 J/mol	2400	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 69 report
Heat content printed: HT - H298	142974 J/mol	2500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 71 report
Heat content printed: HT - H298	146976 J/mol	2500	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 70 report
Heat content printed: HT - H298	145565 J/mol	2500	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 72 report
Heat content printed: HT - H298	155804 J/mol	2600	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 73 report
Heat content printed: HT - H298	155092 J/mol	2600	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 74 report
Heat content printed: HT - H298	165138 J/mol	2700	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 76 report
Heat content printed: HT - H298	164883 J/mol	2700	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 75 report
Heat content printed: HT - H298	174226 J/mol	2800	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 77 report
Heat content printed: HT - H298	175741 J/mol	2800	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 78 report
Heat content printed: HT - H298	183832 J/mol	2900	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 79 report
Heat content printed: HT - H298	186942 J/mol	2900	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 80 report
Heat content printed: HT - H298	193719 J/mol	3000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Tagawa 1974	Table 5, p. 4, row 81 report
Heat content printed: HT - H298	198779 J/mol	3000	UN alloy: U 0.5	model	[1] Chevalier 2000	Table 5, p. 4, row 83 report
Heat content printed: HT - H298	183216 J/mol	3000	UN alloy: U 0.5	model	[1] Chevalier 2000 cites Matsui 1987	Table 5, p. 4, row 82 report
heat content from base t printed: HT - H800	0 J/mol	298.15	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 1 report
heat content from base t printed: HT - H800	2362 J/mol	400	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 3 report
heat content from base t printed: HT - H800	4985 J/mol	500	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 4 report
heat content from base t printed: HT - H800	7791 J/mol	600	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 5 report
heat content from base t printed: HT - H800	10737 J/mol	700	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 6 report
heat content from base t printed: HT - H800	0 J/mol	800	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 10 report
heat content from base t printed: HT - H800	13799 J/mol	800	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 7 report
heat content from base t printed: HT - H800	5782 J/mol	900	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 11 report
heat content from base t printed: HT - H800	16962 J/mol	900	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 8 report
heat content from base t printed: HT - H800	11736 J/mol	1000	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 12 report
heat content from base t printed: HT - H800	20220 J/mol	1000	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 9 report
heat content from base t printed: HT - H800	17866 J/mol	1100	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 13 report
heat content from base t printed: HT - H800	23567 J/mol	1100	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 10 report
heat content from base t printed: HT - H800	24184 J/mol	1200	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 14 report
heat content from base t printed: HT - H800	27002 J/mol	1200	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 11 report
heat content from base t printed: HT - H800	30669 J/mol	1300	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 15 report
heat content from base t printed: HT - H800	30519 J/mol	1300	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 12 report
heat content from base t printed: HT - H800	37321 J/mol	1400	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 16 report
heat content from base t printed: HT - H800	34116 J/mol	1400	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 13 report
heat content from base t printed: HT - H800	44141 J/mol	1500	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 17 report
heat content from base t printed: HT - H800	37796 J/mol	1500	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 14 report
heat content from base t printed: HT - H800	51170 J/mol	1600	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 18 report
heat content from base t printed: HT - H800	41557 J/mol	1600	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 15 report
heat content from base t printed: HT - H800	58367 J/mol	1700	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 19 report
heat content from base t printed: HT - H800	45395 J/mol	1700	UN1.54 alloy: U 0.393701	experimental	[1] Chevalier 2000 cites Tagawa 1974	Table 6, p. 5, row 16 report
heat content from base t printed: HT - H800	65731 J/mol	1800	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 20 report
heat content from base t printed: HT - H800	73262 J/mol	1900	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 21 report
heat content from base t printed: HT - H800	80960 J/mol	2000	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 22 report
heat content from base t printed: HT - H800	88868 J/mol	2100	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 23 report
heat content from base t printed: HT - H800	96943 J/mol	2200	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 24 report
heat content from base t printed: HT - H800	105186 J/mol	2300	UN alloy: U 0.5	experimental	[1] Chevalier 2000 cites Aortit 1969	Table 4, p. 4, row 25 report

Sources

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

P.-Y. Chevalier, E. Fischer, B. Cheynet, Thermodynamic modelling of the N–U system, Journal of Nuclear Materials 280, 136-150 (2000). doi:10.1016/s0022-3115(00)00043-x

Please cite

R. Arróyave, J. Saal, D. Shin, ORCHID-Values: thermodynamic and phase-equilibrium values read from the literature (version 2026.10; Version 1, machine-extracted), Zenodo (2026). doi:10.5281/zenodo.23735569
R. Arróyave, J. Saal, D. Shin, ORCHID-Hulls: binary convex hulls (Materials Project, OQMD, assessed CALPHAD) (version 2026.10), Zenodo (2026). doi:10.5281/zenodo.23735891
R. Arróyave, J. Saal, D. Shin, ORCHID data: umbrella record of the ORCHID datasets (version 2026.10; Version 1, machine-extracted), Zenodo (2026). doi:10.5281/zenodo.23736065

Also cite the original source of every value you use (paper_citation / paper_doi, and cited_dois for values the paper cites from earlier work); A. Jain et al., The Materials Project: A materials genome approach to accelerating materials innovation, APL Materials 1 (2013) 011002, https://doi.org/10.1063/1.4812323 (CC BY 4.0); J. E. Saal et al., JOM 65 (2013) 1501, https://doi.org/10.1007/s11837-013-0755-4 and S. Kirklin et al., npj Comput. Mater. 1 (2015) 15010, https://doi.org/10.1038/npjcompumats.2015.10 (CC BY 4.0); B. Hallstedt, The SGTE collection of binary datasets, Calphad 89 (2025) 102833, https://doi.org/10.1016/j.calphad.2025.102833 (CC BY 4.0), and the original assessment named in each file. Version 1, machine-extracted: values were read by language-model readers constrained to quote their source and checked automatically, and the release was then audited on the printed pages by adversarial audits, an independent second review of fit-facing records and a preliminary human review of a frozen sample. Flags such as accepted and ESPEI-ready record screening results, not certification; known issues are listed in the release notes.

@misc{orchid_literature_2026,
  author    = {Arr{\'o}yave, Raymundo and Saal, James and Shin, Dongwon},
  title     = {{ORCHID-Values: thermodynamic and phase-equilibrium values read from the literature}},
  version   = {2026.10},
  publisher = {Zenodo},
  year      = {2026},
  doi       = {10.5281/zenodo.23735569},
  url       = {https://doi.org/10.5281/zenodo.23735569},
  note      = {Version 1, machine-extracted}
}

@misc{orchid_hulls_2026,
  author    = {Arr{\'o}yave, Raymundo and Saal, James and Shin, Dongwon},
  title     = {{ORCHID-Hulls: binary convex hulls (Materials Project, OQMD, assessed CALPHAD)}},
  version   = {2026.10},
  publisher = {Zenodo},
  year      = {2026},
  doi       = {10.5281/zenodo.23735891},
  url       = {https://doi.org/10.5281/zenodo.23735891}
}

@misc{orchid_data_2026,
  author    = {Arr{\'o}yave, Raymundo and Saal, James and Shin, Dongwon},
  title     = {{ORCHID data: umbrella record of the ORCHID datasets}},
  version   = {2026.10},
  publisher = {Zenodo},
  year      = {2026},
  doi       = {10.5281/zenodo.23736065},
  url       = {https://doi.org/10.5281/zenodo.23736065},
  note      = {Version 1, machine-extracted}
}