Au–Ni–Sn system

118 accepted literature values from 2 paper(s) (experimental 59, model 59); 0 calculated phase diagram(s). 21 further extracted value(s) not accepted by the reader-agreement checks are only in the JSON/CSV.

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Accepted values by evidence class
Evidence classValues
experimental59
model59
Accepted values by property group
Property groupValues
invariant reaction26
phase transition9
phase equilibrium83

Invariant reactions (literature)

Invariant reactions reported in the literature for the Au–Ni–Sn system (26)
T (K)Reaction / phasesCompositions (mole fraction)ClassSourceLocationQuote
1229.62quasi-peritectic: L + Bcc -> Ni3Sn_LT + Ni3Sn2L: Au 0.3205, Ni 0.4936model[1] Dong 2013Table 3, p. 10, row 1
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1220.95quasi-peritectic: L + Bcc -> Ni3Sn_LT + FccL: Au 0.2441, Ni 0.62model[1] Dong 2013Table 3, p. 10, row 2
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1210.15peritectic: L + Ni3Sn-HT <=> Ni3Sn-LT + fcc (P12)L: Au 0.279, Ni 0.59model[2] Liu 2005Table V, p. 10, row 13
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1155.35peritectic: L + SnNi3-HT <=> SnNi3-LT + Sn2Ni3 (P11)L: Au 0.511, Ni 0.255model[2] Liu 2005Table V, p. 10, row 12
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860.25peritectic: L + SnNi3-LT <=> Sn2Ni3 + fcc (P10)L: Au 0.794, Ni 0.017model[2] Liu 2005Table V, p. 10, row 11
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844.34quasi-peritectic: L + Ni3Sn_LT -> Ni3Sn2 + FccL: Au 0.7873, Ni 0.0198model[1] Dong 2013Table 3, p. 10, row 3
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843.35peritectic: L + Sn2Ni3 + fcc <=> hcp (P9)L: Au 0.793, Ni 0.013model[2] Liu 2005Table V, p. 10, row 10
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835.91peritectic: L + Ni3Sn2 + Fcc -> HcpL: Au 0.7867, Ni 0.0176model[1] Dong 2013Table 3, p. 10, row 10
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802.55peritectic: L + fcc <=> hcp + SnAu10 (P8)L: Au 0.793, Ni 5.000e-4model[2] Liu 2005Table V, p. 10, row 9
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802.15quasi-peritectic: L + Fcc -> Au10Sn + HcpL: Au 0.7921, Ni 0.001model[1] Dong 2013Table 3, p. 10, row 4
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718.45peritectic: L + Sn2Ni3 <=> Sn4Ni3 + SnAu (P7)L: Au 0.257, Ni 0.0064model[2] Liu 2005Table V, p. 10, row 8
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694.85peritectic: L + Sn2Ni3 + Sn4Ni3 <=> Sn4AuNi2 (P6)L: Au 0.242, Ni 0.0054model[2] Liu 2005Table V, p. 10, row 7
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693.39peritectic: L + Ni3Sn4 + Ni3Sn2 -> τL: Au 0.2379, Ni 0.0027model[1] Dong 2013Table 3, p. 10, row 11
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693.15peritectic: L Sn4Ni3 Sn2Ni3 ↔ Sn4AuNi2experimental[2] Liu 2005
cites Neumann 1995 doi
p. 4
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Neumann et al. studied the crystal structure of the Sn4AuNi2 compound, and reported that it is stable up to 420°C, at which temperature it undergoes the peritectic reaction (L Sn4Ni3 Sn2Ni3 ↔ Sn4AuNi2).19
578.05peritectic: L + SnAu <=> Sn2Au + Sn2Ni3 (P5)L: Au 0.246, Ni 6.000e-4model[2] Liu 2005Table V, p. 10, row 6
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577.88quasi-peritectic: L + AuSn -> Ni3Sn2 + AuSn2L: Au 0.2416, Ni 3.600e-4model[1] Dong 2013Table 3, p. 10, row 5
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577.57quasi-peritectic: L + Ni3Sn2 -> AuSn2 + τL: Au 0.2404, Ni 3.700e-4model[1] Dong 2013Table 3, p. 10, row 6
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573.05peritectic: L + Sn2Ni3 <=> Sn4AuNi2 + Sn2Au (P4)L: Au 0.226, Ni 8.000e-4model[2] Liu 2005Table V, p. 10, row 5
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572.82peritectic: L + τ + Ni3Sn4 -> AuSn4L: Au 0.1255, Ni 0.001model[1] Dong 2013Table 3, p. 10, row 12
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569.65peritectic: L + Sn4AuNi2 <=> Sn4Au + Sn2Au (P3)L: Au 0.214, Ni 8.000e-4model[2] Liu 2005Table V, p. 10, row 4
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568.35peritectic: L + Sn4AuNi2 <=> Sn4Ni3 + Sn4Au (P2)L: Au 0.103, Ni 0.0031model[2] Liu 2005Table V, p. 10, row 3
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563.33quasi-peritectic: L + τ -> AuSn4 + AuSn2L: Au 0.1999, Ni 4.000e-4model[1] Dong 2013Table 3, p. 10, row 7
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561.05quasi-peritectic: L + Ni3Sn2 -> AuSn + HcpL: Au 0.6983, Ni 6.100e-5model[1] Dong 2013Table 3, p. 10, row 8
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557.55peritectic: L + Sn2Ni3 <=> SnAu + hcp (P1)L: Au 0.697, Ni 2.000e-5model[2] Liu 2005Table V, p. 10, row 2
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503.35eutectic: L <=> Sn4Ni3 + Sn4Au + βSn (E)L: Au 0.0023, Ni 0.0033model[2] Liu 2005Table V, p. 10, row 1
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489.9quasi-peritectic: L + Ni3Sn4 -> AuSn4 + BctL: Au 0.0095, Ni 8.000e-4model[1] Dong 2013Table 3, p. 10, row 9
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Other properties

Phase transition (9)

Phase transition, Au–Ni–Sn system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase transition878.15 K878.15otherexperimental[2] Liu 2005Table III, p. 7, row 4
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Phase transition1048.15 K1048.15other
alloy: Au 0.125, Ni 0.125, Sn 0.75
experimental[2] Liu 2005Table III, p. 7, row 3
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Phase transition1138.15 K1138.15other
alloy: Au 0.4, Ni 0.1, Sn 0.5
experimental[2] Liu 2005Table III, p. 7, row 6
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Phase transition1148.15 K1148.15other
alloy: Au 0.45, Ni 0.15, Sn 0.4
experimental[2] Liu 2005Table III, p. 7, row 9
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Phase transition1153.15 K1153.15other
alloy: Au 0.175, Ni 0.175, Sn 0.65
experimental[2] Liu 2005Table III, p. 7, row 2
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Phase transition1290.15 K1290.15other
alloy: Au 0.25, Ni 0.25, Sn 0.5
experimental[2] Liu 2005Table III, p. 7, row 1
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Phase transition1303.15 K1303.15other
alloy: Au 0.3, Ni 0.3, Sn 0.4
experimental[2] Liu 2005Table III, p. 7, row 8
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Phase transition1423.15 K1423.15other
alloy: Au 0.15, Ni 0.45, Sn 0.4
experimental[2] Liu 2005Table III, p. 7, row 7
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Phase transition1441.15 K1441.15other
alloy: Au 0.1, Ni 0.4, Sn 0.5
experimental[2] Liu 2005Table III, p. 7, row 5
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Phase equilibrium (83)

Phase equilibrium, Au–Ni–Sn system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
Phase assemblage673.15AuSn + Ni3Sn2
alloy: Ni 0, Sn 0.5
experimental[1] Dong 2013
cites Neumann 1996 doi
Table 2, p. 7, row 39
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Phase assemblage673.15Ni3Sn2 + AuSn
alloy: Ni 0.6, Sn 0.4
experimental[1] Dong 2013
cites Neumann 1996 doi
Table 2, p. 7, row 33
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Phase composition423.15Au5Sn
Au5Sn: Ni 0.03
experimental[1] Dong 2013Table 2, p. 7, row 6
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Phase composition423.15Au5Sn
Au5Sn: Ni 0.03
model[1] Dong 2013Table 2, p. 7, row 7
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Phase composition423.15AuSn
AuSn: Ni 0.035
experimental[1] Dong 2013Table 2, p. 7, row 4
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Phase composition423.15AuSn
AuSn: Ni 0.028
model[1] Dong 2013Table 2, p. 7, row 5
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Phase composition423.15AuSn4
AuSn4: Ni 0.104
model[1] Dong 2013Table 2, p. 7, row 8
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Phase composition423.15Ni3Sn2
Ni3Sn2: Au 0.32
experimental[1] Dong 2013Table 2, p. 7, row 1
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Phase composition423.15Ni3Sn2
Ni3Sn2: Au 0.315
model[1] Dong 2013Table 2, p. 7, row 2
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Phase composition423.15Ni3Sn_LT
Ni3Sn_LT: Au 0.018
model[1] Dong 2013Table 2, p. 7, row 3
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Phase composition473.15AuSn
AuSn: Ni 0.045
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 13
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Phase composition473.15AuSn
AuSn: Ni 0.04
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 14
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Phase composition473.15AuSn
AuSn: Ni 0.041
model[1] Dong 2013Table 2, p. 7, row 15
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Phase composition473.15AuSn4
AuSn4: Ni 0.101
model[1] Dong 2013Table 2, p. 7, row 21
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Phase composition473.15AuSn4
AuSn4: Ni 0.105
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 19
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Phase composition473.15AuSn4
AuSn4: Ni 0.08
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 20
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Phase composition473.15Hcp
Hcp: Ni 6.000e-4
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 17
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Phase composition473.15Hcp
Hcp: Ni 0.0016
model[1] Dong 2013Table 2, p. 7, row 18
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Phase composition473.15Hcp
Hcp: Ni 0.002
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 16
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Phase composition473.15Ni3Sn2
Ni3Sn2: Au 0.291
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 9
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Phase composition473.15Ni3Sn2
Ni3Sn2: Au 0.311
model[1] Dong 2013Table 2, p. 7, row 11
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Phase composition473.15Ni3Sn2
Ni3Sn2: Au 0.264
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 10
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Phase composition473.15Ni3Sn_LT
Ni3Sn_LT: Au 0.019
model[1] Dong 2013Table 2, p. 7, row 12
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Phase composition473.15Sn2Ni3 + hcp
Sn2Ni3: Au 0.091, Ni 0.495, Sn 0.414; hcp: Au 0.837, Ni 0.025, Sn 0.138
experimental[2] Liu 2005Table II, p. 5, row 26
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Phase composition473.15Sn2Ni3 + hcp + SnAu
Sn2Ni3: Au 0.291, Ni 0.227, Sn 0.482; hcp: Au 0.845, Ni 0.002, Sn 0.153; SnAu: Au 0.482, Ni 0.008, Sn 0.51
experimental[2] Liu 2005Table II, p. 5, row 29
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Phase composition473.15Sn4Au + βSn
Sn4Au: Au 0.093, Ni 0.1, Sn 0.807; βSn: Au 0.001, Ni 0, Sn 0.999
experimental[2] Liu 2005Table II, p. 5, row 24
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Phase composition473.15Sn4AuNi2 + Sn4Au
Sn4AuNi2: Au 0.136, Ni 0.281, Sn 0.583; Sn4Au: Au 0.116, Ni 0.076, Sn 0.808
experimental[2] Liu 2005Table II, p. 5, row 23
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Phase composition473.15Sn4AuNi2 + Sn4Au + SnNi3
Sn4AuNi2: Au 0.133, Ni 0.282, Sn 0.585; Sn4Au: Au 0.082, Ni 0.115, Sn 0.803; SnNi3: Au 0.003, Ni 0.414, Sn 0.583
experimental[2] Liu 2005Table II, p. 5, row 27
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Phase composition473.15SnNi3 + Sn2Au + SnAu
SnNi3: Au 0.262, Ni 0.206, Sn 0.532; Sn2Au: Au 0.321, Ni 0.002, Sn 0.677; SnAu: Au 0.444, Ni 0.045, Sn 0.511
experimental[2] Liu 2005Table II, p. 5, row 28
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Phase composition473.15SnNi3 + Sn2Ni3
SnNi3: Au 0.006, Ni 0.44, Sn 0.554; Sn2Ni3: Au 0.137, Ni 0.394, Sn 0.469
experimental[2] Liu 2005Table II, p. 5, row 25
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Phase composition523.15Sn4AuNi2 + Sn2Au + liquid
Sn4AuNi2: Au 0.136, Ni 0.289, Sn 0.575; Sn2Au: Au 0.317, Ni 0.005, Sn 0.678; liquid: Au 0.168, Ni 0.024, Sn 0.808
experimental[2] Liu 2005Table II, p. 5, row 22
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Phase composition523.15Sn4AuNi2 + liquid
Sn4AuNi2: Au 0.135, Ni 0.289, Sn 0.576; liquid: Au 0.113, Ni 0.006, Sn 0.881
experimental[2] Liu 2005Table II, p. 5, row 20
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Phase composition523.15SnNi3 + liquid
SnNi3: Au 0.003, Ni 0.427, Sn 0.57; liquid: Au 0.048, Ni 0.005, Sn 0.947
experimental[2] Liu 2005Table II, p. 5, row 21
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Phase composition573.15Au10Sn
Au10Sn: Ni 0.005
model[1] Dong 2013Table 2, p. 7, row 32
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Phase composition573.15AuSn
AuSn: Ni 0.081
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 27
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Phase composition573.15AuSn
AuSn: Ni 0.109
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 26
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Phase composition573.15AuSn
AuSn: Ni 0.075
model[1] Dong 2013Table 2, p. 7, row 28
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Phase composition573.15Hcp
Hcp: Ni 0.006
model[1] Dong 2013Table 2, p. 7, row 31
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Phase composition573.15Hcp
Hcp: Ni 0.006
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 30
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Phase composition573.15Hcp
Hcp: Ni 0.006
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 29
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Phase composition573.15Ni3Sn2
Ni3Sn2: Au 0.287
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 23
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Phase composition573.15Ni3Sn2
Ni3Sn2: Au 0.304
model[1] Dong 2013Table 2, p. 7, row 24
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Phase composition573.15Ni3Sn2
Ni3Sn2: Au 0.292
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 22
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Phase composition573.15Ni3Sn_LT
Ni3Sn_LT: Au 0.025
model[1] Dong 2013Table 2, p. 7, row 25
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Phase composition573.15Sn2Ni3 + SnAu + hcp
Sn2Ni3: Au 0.278, Ni 0.177, Sn 0.545; SnAu: Au 0.353, Ni 0.109, Sn 0.538; hcp: Au 0.319, Ni 0.006, Sn 0.675
experimental[2] Liu 2005Table II, p. 5, row 19
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Phase composition573.15Sn2Ni3 + SnNi3
Sn2Ni3: Au 0.098, Ni 0.444, Sn 0.458; SnNi3: Au 0.008, Ni 0.44, Sn 0.552
experimental[2] Liu 2005Table II, p. 5, row 13
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Phase composition573.15Sn2Ni3 + hcp
Sn2Ni3: Au 0.098, Ni 0.492, Sn 0.41; hcp: Au 0.02, Ni 0.843, Sn 0.137
experimental[2] Liu 2005Table II, p. 5, row 14
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Phase composition573.15Sn3Ni2 + hcp + liquid
Sn3Ni2: Au 0.292, Ni 0.229, Sn 0.479; hcp: Au 0.831, Ni 0.001, Sn 0.168; liquid: Au 0.697, Ni 0.002, Sn 0.301
experimental[2] Liu 2005Table II, p. 5, row 18
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Phase composition573.15Sn4AuNi2 + SnAu + liquid
Sn4AuNi2: Au 0.135, Ni 0.286, Sn 0.579; SnAu: Au 0.007, Ni 0.417, Sn 0.576; liquid: Au 0.09, Ni 0.008, Sn 0.902
experimental[2] Liu 2005Table II, p. 5, row 17
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Phase composition573.15Sn4AuNi2 + SnNi3 + liquid
Sn4AuNi2: Au 0.136, Ni 0.283, Sn 0.581; SnNi3: Au 0.255, Ni 0.207, Sn 0.538; liquid: Au 0.208, Ni 0.002, Sn 0.79
experimental[2] Liu 2005Table II, p. 5, row 16
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Phase composition573.15Sn4AuNi2 + liquid
Sn4AuNi2: Au 0.135, Ni 0.284, Sn 0.581; liquid: Au 0.104, Ni 0.004, Sn 0.892
experimental[2] Liu 2005Table II, p. 5, row 12
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Phase composition573.15SnAu + Sn2Ni3
SnAu: Au 0.322, Ni 0.177, Sn 0.501; Sn2Ni3: Au 0.261, Ni 0.235, Sn 0.504
experimental[2] Liu 2005Table II, p. 5, row 15
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Phase composition673.15Au10Sn
Au10Sn: Ni 0.007
model[1] Dong 2013Table 2, p. 7, row 48
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Phase composition673.15Au10Sn
Au10Sn: Ni 0.01
experimental[1] Dong 2013
cites Neumann 1996 doi
Table 2, p. 7, row 47
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Phase composition673.15AuSn
AuSn: Ni 0.108
model[1] Dong 2013Table 2, p. 7, row 42
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Phase composition673.15AuSn
AuSn: Ni 0.119
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 40
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Phase composition673.15AuSn
AuSn: Ni 0.099
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 41
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Phase composition673.15Hcp
Hcp: Ni 0.017
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 44
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Phase composition673.15Hcp
Hcp: Ni 0.017
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 45
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Phase composition673.15Hcp
Hcp: Ni 0.01
experimental[1] Dong 2013
cites Neumann 1996 doi
Table 2, p. 7, row 43
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Phase composition673.15Hcp
Hcp: Ni 0.014
model[1] Dong 2013Table 2, p. 7, row 46
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Phase composition673.15Ni3Sn2
Ni3Sn2: Au 0.26
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 35
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Phase composition673.15Ni3Sn2
Ni3Sn2: Au 0.268
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 34
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Phase composition673.15Ni3Sn2
Ni3Sn2: Au 0.277
model[1] Dong 2013Table 2, p. 7, row 36
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Phase composition673.15Ni3Sn_LT
Ni3Sn_LT: Au 0.044
experimental[1] Dong 2013
cites Neumann 1996 doi
Table 2, p. 7, row 37
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Phase composition673.15Ni3Sn_LT
Ni3Sn_LT: Au 0.031
model[1] Dong 2013Table 2, p. 7, row 38
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Phase composition673.15Sn2Ni3 + SnNi3
Sn2Ni3: Au 0.148, Ni 0.371, Sn 0.481; SnNi3: Au 0.005, Ni 0.431, Sn 0.564
experimental[2] Liu 2005Table II, p. 5, row 9
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Phase composition673.15Sn2Ni3 + hcp
Sn2Ni3: Au 0.113, Ni 0.468, Sn 0.419; hcp: Au 0.863, Ni 0.017, Sn 0.12
experimental[2] Liu 2005Table II, p. 5, row 10
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Phase composition673.15Sn2Ni3 + liquid
Sn2Ni3: Au 0.239, Ni 0.3, Sn 0.461; liquid: Au 0.555, Ni 0.006, Sn 0.439
experimental[2] Liu 2005Table II, p. 5, row 6
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Phase composition673.15Sn4AuNi2 + liquid
Sn4AuNi2: Au 0.136, Ni 0.289, Sn 0.575; liquid: Au 0.211, Ni 0.007, Sn 0.782
experimental[2] Liu 2005Table II, p. 5, row 8
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Phase composition673.15SnAu + Sn2Ni3
SnAu: Au 0.319, Ni 0.18, Sn 0.501; Sn2Ni3: Au 0.268, Ni 0.226, Sn 0.506
experimental[2] Liu 2005Table II, p. 5, row 11
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Phase composition673.15SnNi3 + liquid
SnNi3: Au 0.009, Ni 0.42, Sn 0.571; liquid: Au 0.201, Ni 0.007, Sn 0.792
experimental[2] Liu 2005Table II, p. 5, row 7
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Phase composition773.15Ni3Sn2
Ni3Sn2: Au 0.224
model[1] Dong 2013Table 2, p. 7, row 51
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Phase composition773.15Ni3Sn2
Ni3Sn2: Au 0.235
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 49
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Phase composition773.15Ni3Sn2
Ni3Sn2: Au 0.226
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 50
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Phase composition773.15Sn2Ni3 + SnNi3 + liquid
Sn2Ni3: Au 0.005, Ni 0.436, Sn 0.559; SnNi3: Au 0.119, Ni 0.406, Sn 0.475; liquid: Au 0.25, Ni 0.009, Sn 0.741
experimental[2] Liu 2005Table II, p. 5, row 5
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Phase composition773.15Sn2Ni3 + liquid
Sn2Ni3: Au 0.16, Ni 0.399, Sn 0.441; liquid: Au 0.624, Ni 0.007, Sn 0.369
experimental[2] Liu 2005Table II, p. 5, row 3
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Phase composition773.15SnNi3 + liquid
SnNi3: Au 0.004, Ni 0.433, Sn 0.563; liquid: Au 0.193, Ni 0.01, Sn 0.797
experimental[2] Liu 2005Table II, p. 5, row 4
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Phase composition873.15Ni3Sn2
Ni3Sn2: Au 0.135
model[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 53
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Phase composition873.15Ni3Sn2
Ni3Sn2: Au 0.168
model[1] Dong 2013Table 2, p. 7, row 54
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Phase composition873.15Ni3Sn2
Ni3Sn2: Au 0.139
experimental[1] Dong 2013
cites Liu 2005 doi
Table 2, p. 7, row 52
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Phase composition873.15Sn2Ni3 + liquid
Sn2Ni3: Au 0.116, Ni 0.453, Sn 0.431; liquid: Au 0.564, Ni 0.029, Sn 0.407
experimental[2] Liu 2005Table II, p. 5, row 1
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Phase composition873.15SnNi3 + liquid
SnNi3: Au 0.0018, Ni 0.45, Sn 0.5482; liquid: Au 0.177, Ni 0.027, Sn 0.796
experimental[2] Liu 2005Table II, p. 5, row 2
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Sources

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

  1. H.Q. Dong, V. Vuorinen, T. Laurila, M. Paulasto-Kröckel, Thermodynamic reassessment of Au–Ni–Sn ternary system, Calphad 43, 61-70 (2013). doi:10.1016/j.calphad.2013.10.001
  2. X. J. Liu, M. Kinaka, Y. Takaku, I. Ohnuma, R. Kainuma, K. Ishida, Experimental investigation and thermodynamic calculation of phase equilibria in the Sn-Au-Ni system, J. Electron. Mater. 34, 670-679 (2005). doi:10.1007/s11664-005-0082-9