Cu–Zn system

242 accepted literature values from 5 paper(s) (experimental 188, model 54); 6 calculated phase diagram(s). 2 further extracted value(s) not accepted by the reader-agreement checks are only in the JSON/CSV.

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

Accepted values by evidence class
Evidence classValues
experimental188
model54
Accepted values by property group
Property groupValues
invariant reaction66
activity / EMF / Gibbs energy176

Calculated phase diagrams

Binary phase diagrams calculated with pycalphad 0.11.2 from the SGTE binary collection (Hallstedt 2025, CC BY 4.0). Evidence class: model.

Assessments with a calculated phase diagram
TDB fileAssessmentSHA-256Links
CuZn-03Dav.tdbN. David, J.-M. Fiorani, M. Vilasi, J. Hertz, J. Phase Equilib., 24, 240-48(2003). doi:10.1361/1054971037703305414fa0e63708a02b1f08b44bbb0138c308e8146cf2005b55046a1175cb027fb861viewer · TDB · JSON
CuZn-05Jia.tdbM. Jiang, C.P. Wang, X.J. Liu, I. Ohnuma, R. Kainuma, G.P. Vassilev, K. Ishida, J. Phys. Chem. Solids, 66, 246-50(2005). doi:10.1016/j.jpcs.2004.08.03900e6afc14ff2edb662983d71abb180d545de5bb8da2b30ab4c014c54706d57bbviewer · TDB · JSON
CuZn-08Gie.tdbW. Gierlotka, S.-W. Chen, J. Mater. Res., 23, 258-63(2008).6a3bb3f347ded5af8287b69c053e9a879351f5c2da1b3e7f4bc4de0edf6c3f02viewer · TDB · JSON
CuZn-11Wan.tdbJ. Wang, H. Xu, S. Shang, L. Zhang, Y. Du, W. Zhang, S. Liu, P. Wang, Z.-K. Liu, Calphad, 35, 191-203(2011). doi:10.1016/j.calphad.2011.02.0011bc8b8df311a816df1eb49c7b294654f7b0f075fc7a2e1dc7329a636d77da462viewer · TDB · JSON
CuZn-15Lia.tdbS.-M. Liang, H.-M. Hsiao, R. Schmid-Fetzer, Calphad, 51, 224-32(2015). doi:10.1016/j.calphad.2015.09.0100e2862d7621854ca4f4d3510c3ea45abe1545ec991384f906d91907b8bbbc841viewer · TDB · JSON
CuZn-93Kow-LB.tdbM. Kowalski, P.J. Spencer, J. Phase Equilib., 14, 432-38 (1993). doi:10.1007/BF02671961199a279ec633d57b71ade6e126e576930508f1242924f8345e7aaaf7c21d59b6viewer · TDB · JSON
Calculated three-phase invariants (model, mole fraction of the second component)
TDB fileT (K)Phases at the invariant
CuZn-03Dav.tdb1174.59FCC_A1 (x(Zn) 0.31844) + BCC_A2 (x(Zn) 0.35076) + LIQUID (x(Zn) 0.37169)
CuZn-03Dav.tdb1174.59FCC_A1 (x(Zn) 0.31844) + B2_BCC (x(Zn) 0.35076) + LIQUID (x(Zn) 0.37169)
CuZn-03Dav.tdb1110.03B2_BCC (x(Zn) 0.57171) + CU5ZN8_D82 (x(Zn) 0.59871) + LIQUID (x(Zn) 0.60587)
CuZn-03Dav.tdb1110.03BCC_A2 (x(Zn) 0.57171) + CU5ZN8_D82 (x(Zn) 0.59871) + LIQUID (x(Zn) 0.60587)
CuZn-03Dav.tdb973.25CU5ZN8_D82 (x(Zn) 0.6887) + B2_BCC (x(Zn) 0.72538) + LIQUID (x(Zn) 0.81957)
CuZn-03Dav.tdb973.25CU5ZN8_D82 (x(Zn) 0.6887) + BCC_A2 (x(Zn) 0.72538) + LIQUID (x(Zn) 0.81957)
CuZn-03Dav.tdb871.93B2_BCC (x(Zn) 0.77259) + HCP_IM_A3 (x(Zn) 0.79549) + LIQUID (x(Zn) 0.89233)
CuZn-03Dav.tdb871.93BCC_A2 (x(Zn) 0.77259) + HCP_IM_A3 (x(Zn) 0.79549) + LIQUID (x(Zn) 0.89233)
CuZn-03Dav.tdb832.94CU5ZN8_D82 (x(Zn) 0.69017) + BCC_A2 (x(Zn) 0.74296) + HCP_IM_A3 (x(Zn) 0.77614)
CuZn-03Dav.tdb832.94CU5ZN8_D82 (x(Zn) 0.69017) + B2_BCC (x(Zn) 0.74296) + HCP_IM_A3 (x(Zn) 0.77614)
CuZn-03Dav.tdb698.02HCP_IM_A3 (x(Zn) 0.87388) + HCP_A3 (x(Zn) 0.97563) + LIQUID (x(Zn) 0.98345)
CuZn-05Jia.tdb1175.3FCC_A1 (x(Zn) 0.31859) + B2_BCC (x(Zn) 0.35313) + LIQUID (x(Zn) 0.37338)
CuZn-05Jia.tdb1107.65B2_BCC (x(Zn) 0.55955) + CU5ZN8_D82 (x(Zn) 0.58845) + LIQUID (x(Zn) 0.59355)
CuZn-05Jia.tdb972.31CU5ZN8_D82 (x(Zn) 0.671) + BCC_A2 (x(Zn) 0.71922) + LIQUID (x(Zn) 0.80263)
CuZn-05Jia.tdb972.31CU5ZN8_D82 (x(Zn) 0.671) + B2_BCC (x(Zn) 0.71922) + LIQUID (x(Zn) 0.80263)
CuZn-05Jia.tdb873.38B2_BCC (x(Zn) 0.773) + HCP_IM_A3 (x(Zn) 0.79204) + LIQUID (x(Zn) 0.8819)
CuZn-05Jia.tdb873.38BCC_A2 (x(Zn) 0.773) + HCP_IM_A3 (x(Zn) 0.79204) + LIQUID (x(Zn) 0.8819)
CuZn-05Jia.tdb839.22CU5ZN8_D82 (x(Zn) 0.68937) + BCC_A2 (x(Zn) 0.75208) + HCP_IM_A3 (x(Zn) 0.77893)
CuZn-05Jia.tdb839.22CU5ZN8_D82 (x(Zn) 0.68937) + B2_BCC (x(Zn) 0.75208) + HCP_IM_A3 (x(Zn) 0.77893)
CuZn-05Jia.tdb694.44HCP_IM_A3 (x(Zn) 0.87433) + HCP_A3 (x(Zn) 0.98109) + LIQUID (x(Zn) 0.98318)
CuZn-08Gie.tdb1172.57FCC_A1 (x(Zn) 0.31941) + BCC_A2 (x(Zn) 0.35417) + LIQUID (x(Zn) 0.37496)
CuZn-08Gie.tdb1107.39BCC_A2 (x(Zn) 0.55772) + CU5ZN8_D82 (x(Zn) 0.5859) + LIQUID (x(Zn) 0.59344)
CuZn-08Gie.tdb976.25CU5ZN8_D82 (x(Zn) 0.67725) + BCC_A2 (x(Zn) 0.71831) + LIQUID (x(Zn) 0.80383)
CuZn-08Gie.tdb873.35BCC_A2 (x(Zn) 0.77298) + HCP_IM_A3 (x(Zn) 0.79205) + LIQUID (x(Zn) 0.88293)
CuZn-08Gie.tdb831.95CU5ZN8_D82 (x(Zn) 0.69326) + BCC_A2 (x(Zn) 0.74853) + HCP_IM_A3 (x(Zn) 0.77678)
CuZn-08Gie.tdb735.89BCC_A2 (x(Zn) 0.49055) + CUZN_B2 (x(Zn) 0.49127) + CU5ZN8_D82 (x(Zn) 0.56083)
CuZn-08Gie.tdb733.56FCC_A1 (x(Zn) 0.3865) + BCC_A2 (x(Zn) 0.4446) + CUZN_B2 (x(Zn) 0.44532)
CuZn-08Gie.tdb692.27HCP_IM_A3 (x(Zn) 0.87434) + LIQUID (x(Zn) 0.97975) + HCP_A3 (x(Zn) 0.98126)
CuZn-11Wan.tdb1175.13FCC_A1 (x(Zn) 0.32799) + B2_BCC (x(Zn) 0.36208) + LIQUID (x(Zn) 0.38497)
CuZn-11Wan.tdb1107.88B2_BCC (x(Zn) 0.55209) + LIQUID (x(Zn) 0.58996) + CU5ZN8_D82 (x(Zn) 0.5908)
CuZn-11Wan.tdb964.66CU5ZN8_D82 (x(Zn) 0.6692) + B2_BCC (x(Zn) 0.72203) + LIQUID (x(Zn) 0.8068)
CuZn-11Wan.tdb874.39B2_BCC (x(Zn) 0.77179) + HCP_IM_A3 (x(Zn) 0.791) + LIQUID (x(Zn) 0.87765)
CuZn-11Wan.tdb837.31CU5ZN8_D82 (x(Zn) 0.68686) + B2_BCC (x(Zn) 0.75049) + HCP_IM_A3 (x(Zn) 0.77784)
CuZn-11Wan.tdb693.52HCP_IM_A3 (x(Zn) 0.87427) + HCP_A3 (x(Zn) 0.98115) + LIQUID (x(Zn) 0.98127)
CuZn-15Lia.tdb1174.97FCC_A1 (x(Zn) 0.31892) + B2_BCC (x(Zn) 0.36626) + LIQUID (x(Zn) 0.37338)
CuZn-15Lia.tdb1105.86B2_BCC (x(Zn) 0.55135) + GAMMA_D82 (x(Zn) 0.59561) + LIQUID (x(Zn) 0.5959)
CuZn-15Lia.tdb973.57GAMMA_D82 (x(Zn) 0.68417) + CUZN3 (x(Zn) 0.71775) + LIQUID (x(Zn) 0.80283)
CuZn-15Lia.tdb871.66CUZN3 (x(Zn) 0.767) + HCP_IM_A3 (x(Zn) 0.79234) + LIQUID (x(Zn) 0.87772)
CuZn-15Lia.tdb832.96GAMMA_D82 (x(Zn) 0.7001) + CUZN3 (x(Zn) 0.74645) + HCP_IM_A3 (x(Zn) 0.77574)
CuZn-15Lia.tdb698.32HCP_IM_A3 (x(Zn) 0.87489) + HCP_A3 (x(Zn) 0.97335) + LIQUID (x(Zn) 0.98122)
CuZn-93Kow-LB.tdb1175.3FCC_A1 (x(Zn) 0.31859) + B2_BCC (x(Zn) 0.35313) + LIQUID (x(Zn) 0.37338)
CuZn-93Kow-LB.tdb1108.35B2_BCC (x(Zn) 0.55798) + CU5ZN8_D82 (x(Zn) 0.58602) + LIQUID (x(Zn) 0.59174)
CuZn-93Kow-LB.tdb972.29CU5ZN8_D82 (x(Zn) 0.67775) + B2_BCC (x(Zn) 0.71923) + LIQUID (x(Zn) 0.80265)
CuZn-93Kow-LB.tdb972.29CU5ZN8_D82 (x(Zn) 0.67775) + BCC_A2 (x(Zn) 0.71923) + LIQUID (x(Zn) 0.80265)
CuZn-93Kow-LB.tdb873.38BCC_A2 (x(Zn) 0.773) + HCP_IM_A3 (x(Zn) 0.79204) + LIQUID (x(Zn) 0.8819)
CuZn-93Kow-LB.tdb873.38B2_BCC (x(Zn) 0.773) + HCP_IM_A3 (x(Zn) 0.79204) + LIQUID (x(Zn) 0.8819)
CuZn-93Kow-LB.tdb831.95CU5ZN8_D82 (x(Zn) 0.69326) + BCC_A2 (x(Zn) 0.74853) + HCP_IM_A3 (x(Zn) 0.7768)
CuZn-93Kow-LB.tdb831.95CU5ZN8_D82 (x(Zn) 0.69326) + B2_BCC (x(Zn) 0.74853) + HCP_IM_A3 (x(Zn) 0.7768)
CuZn-93Kow-LB.tdb694.44HCP_IM_A3 (x(Zn) 0.87433) + HCP_A3 (x(Zn) 0.98109) + LIQUID (x(Zn) 0.98318)

Convex hulls: Materials Project DFT hull · OQMD DFT hull · CALPHAD hull CuZn-03Dav · CALPHAD hull CuZn-05Jia · CALPHAD hull CuZn-08Gie · CALPHAD hull CuZn-11Wan · CALPHAD hull CuZn-93Kow-LB

Invariant reactions (literature)

Invariant reactions reported in the literature for the Cu–Zn system (66)
T (K)Reaction / phasesCompositions (mole fraction)ClassSourceLocationQuote
1176L + α = βL: Zn 0.368; α: Zn 0.319; β: Zn 0.361experimental[1] Wang 2011
cites Massalski 1986
Table 2, p. 3, row 1
report
1176(Cu) + L ↔ ββ: Zn 0.353model[2] Gierlotka 2008
cites Kowalski 1993 doi
Table II, p. 2, row 2
report
1176peritectic: (Cu) + L -> β(Cu): Zn 0.319; β: Zn 0.361; L: Zn 0.368experimental[3] Kowalski 1993
cites Massalski 1986
Table 1, p. 1, row 1
report
1176peritectic: (Cu) + L -> β(Cu): Zn 0.319; β: Zn 0.353; L: Zn 0.373model[3] Kowalski 1993Table 1, p. 1, row 2
report
1176L + α = βL: Zn 0.384; α: Zn 0.327; β: Zn 0.361model[1] Wang 2011Table 2, p. 3, row 2
report
1175.3peritectic: Liquid + fcc-A1 -> bcc-A2Liquid: Zn 0.373; fcc-A1: Zn 0.319; bcc-A2: Zn 0.353model[4] (ed.) 1998Table I, p. 206, row 1
report
1175peritectic: α + L ↔ βα: Zn 0.319; L: Zn 0.372; β: Zn 0.351model[5] David 2003Table 1, p. 2, row 2
report
1175(Cu) + L ↔ β(Cu): Zn 0.361model[2] Gierlotka 2008
cites Massalski 1986
Table II, p. 2, row 1
report
1175peritectic: α + L ↔ βα: Zn 0.319; L: Zn 0.368; β: Zn 0.361model[5] David 2003
cites Miodownik 1994
Table 1, p. 2, row 1
report
1174(Cu) + L ↔ ββ: Zn 0.354model[2] Gierlotka 2008Table II, p. 2, row 3
report
1173(Cu) + L ↔ ββ: Zn 0.358model[2] Gierlotka 2008Table II, p. 2, row 4
report
1110peritectic: β + L ↔ γβ: Zn 0.572; L: Zn 0.606; γ: Zn 0.599model[5] David 2003Table 1, p. 2, row 4
report
1108.3peritectic: Liquid + bcc-A2 -> CuZn-γLiquid: Zn 0.592; bcc-A2: Zn 0.558; CuZn-γ: Zn 0.586model[4] (ed.) 1998Table I, p. 206, row 2
report
1108peritectic: β + L -> γβ: Zn 0.558; γ: Zn 0.591; L: Zn 0.591experimental[3] Kowalski 1993
cites Massalski 1986
Table 1, p. 1, row 3
report
1108β + L ↔ γγ: Zn 0.586model[2] Gierlotka 2008
cites Kowalski 1993 doi
Table II, p. 2, row 6
report
1108L + β = γL: Zn 0.592; β: Zn 0.554; γ: Zn 0.591model[1] Wang 2011Table 2, p. 3, row 4
report
1108peritectic: β + L -> γβ: Zn 0.558; γ: Zn 0.586; L: Zn 0.592model[3] Kowalski 1993Table 1, p. 1, row 4
report
1108L + β = γL: Zn 0.591; β: Zn 0.558; γ: Zn 0.586experimental[1] Wang 2011
cites Massalski 1986
Table 2, p. 3, row 3
report
1107peritectic: β + L ↔ γβ: Zn 0.558; L: Zn 0.591; γ: Zn 0.591model[5] David 2003
cites Miodownik 1994
Table 1, p. 2, row 3
report
1107β + L ↔ γγ: Zn 0.587model[2] Gierlotka 2008Table II, p. 2, row 8
report
1107β + L ↔ γγ: Zn 0.585model[2] Gierlotka 2008Table II, p. 2, row 7
report
1107β + L ↔ γβ: Zn 0.591; γ: Zn 0.615385model[2] Gierlotka 2008
cites Massalski 1986
Table II, p. 2, row 5
report
976γ + L ↔ δγ: Zn 0.615385; δ: Zn 0.72model[2] Gierlotka 2008Table II, p. 2, row 12
report
973peritectic: γ + L ↔ δγ: Zn 0.689; L: Zn 0.82; δ: Zn 0.725model[5] David 2003Table 1, p. 2, row 6
report
973γ + L ↔ δγ: Zn 0.724model[2] Gierlotka 2008Table II, p. 2, row 11
report
973γ + L ↔ δγ: Zn 0.724model[2] Gierlotka 2008
cites Massalski 1986
Table II, p. 2, row 9
report
973L + γ = δL: Zn 0.8; γ: Zn 0.692; δ: Zn 0.724experimental[1] Wang 2011
cites Massalski 1986
Table 2, p. 3, row 5
report
973peritectic: γ + L ↔ δγ: Zn 0.692; L: Zn 0.798; δ: Zn 0.7245model[5] David 2003
cites Miodownik 1994
Table 1, p. 2, row 5
report
973peritectic: γ + L -> δγ: Zn 0.692; δ: Zn 0.724; L: Zn 0.8experimental[3] Kowalski 1993
cites Massalski 1986
Table 1, p. 1, row 5
report
973peritectic: γ + L -> δγ: Zn 0.678; δ: Zn 0.719; L: Zn 0.802model[3] Kowalski 1993Table 1, p. 1, row 6
report
973γ + L ↔ δγ: Zn 0.615385; δ: Zn 0.719model[2] Gierlotka 2008
cites Kowalski 1993 doi
Table II, p. 2, row 10
report
972.5peritectic: Liquid + CuZn-γ -> bcc-A2Liquid: Zn 0.802; CuZn-γ: Zn 0.678; bcc-A2: Zn 0.719model[4] (ed.) 1998Table I, p. 206, row 3
report
972L + γ = δL: Zn 0.801; γ: Zn 0.669; δ: Zn 0.72model[1] Wang 2011Table 2, p. 3, row 6
report
873.4peritectic: Liquid + bcc-A2 -> hcp-A3Liquid: Zn 0.882; bcc-A2: Zn 0.773; hcp-A3: Zn 0.792model[4] (ed.) 1998Table I, p. 206, row 4
report
873L + δ = ϵL: Zn 0.88; δ: Zn 0.77; ϵ: Zn 0.781experimental[1] Wang 2011
cites Massalski 1986
Table 2, p. 3, row 7
report
873δ + L ↔ ϵϵ: Zn 0.792model[2] Gierlotka 2008
cites Kowalski 1993 doi
Table II, p. 2, row 14
report
873peritectic: δ + L -> εδ: Zn 0.773; ε: Zn 0.792; L: Zn 0.882model[3] Kowalski 1993Table 1, p. 1, row 8
report
873δ + L ↔ ϵϵ: Zn 0.792model[2] Gierlotka 2008Table II, p. 2, row 16
report
872δ + L ↔ ϵϵ: Zn 0.792model[2] Gierlotka 2008Table II, p. 2, row 15
report
872peritectic: δ + L ↔ εδ: Zn 0.773; L: Zn 0.892; ε: Zn 0.795model[5] David 2003Table 1, p. 2, row 8
report
872L + δ = ϵL: Zn 0.881; δ: Zn 0.775; ϵ: Zn 0.793model[1] Wang 2011Table 2, p. 3, row 8
report
871peritectic: δ + L ↔ εδ: Zn 0.76; L: Zn 0.879; ε: Zn 0.78model[5] David 2003
cites Miodownik 1994
Table 1, p. 2, row 7
report
871peritectic: δ + L -> εδ: Zn 0.76; ε: Zn 0.781; L: Zn 0.88experimental[3] Kowalski 1993
cites Massalski 1986
Table 1, p. 1, row 7
report
871δ + L ↔ ϵδ: Zn 0.781model[2] Gierlotka 2008
cites Massalski 1986
Table II, p. 2, row 13
report
834δ = γ + ϵδ: Zn 0.751; γ: Zn 0.687; ϵ: Zn 0.778model[1] Wang 2011Table 2, p. 3, row 10
report
833δ + γ ↔ ϵδ: Zn 0.74; γ: Zn 0.615385model[2] Gierlotka 2008
cites Massalski 1986
Table II, p. 2, row 21
report
833other: δ ↔ γ + εδ: Zn 0.743; γ: Zn 0.69; ε: Zn 0.776model[5] David 2003Table 1, p. 2, row 10
report
833other: δ ↔ γ + εδ: Zn 0.735; γ: Zn 0.7; ε: Zn 0.78model[5] David 2003
cites Miodownik 1994
Table 1, p. 2, row 9
report
832δ + γ ↔ ϵδ: Zn 0.749; γ: Zn 0.615385model[2] Gierlotka 2008
cites Kowalski 1993 doi
Table II, p. 2, row 22
report
832δ + γ ↔ ϵδ: Zn 0.748; γ: Zn 0.615385model[2] Gierlotka 2008Table II, p. 2, row 23
report
832δ + γ ↔ ϵδ: Zn 0.749; γ: Zn 0.615385model[2] Gierlotka 2008Table II, p. 2, row 24
report
832eutectoid: δ -> γ + εγ: Zn 0.693; δ: Zn 0.749; ε: Zn 0.777model[3] Kowalski 1993Table 1, p. 1, row 12
report
832δ = γ + ϵδ: Zn 0.748; γ: Zn 0.7; ϵ: Zn 0.78experimental[1] Wang 2011
cites Massalski 1986
Table 2, p. 3, row 9
report
831.9eutectoid: bcc-A2 -> CuZn-γ + hcp-A3bcc-A2: Zn 0.748; CuZn-γ: Zn 0.693; hcp-A3: Zn 0.777model[4] (ed.) 1998Table I, p. 206, row 5
report
831eutectoid: δ -> γ + εγ: Zn 0.7; δ: Zn 0.74; ε: Zn 0.78experimental[3] Kowalski 1993
cites Massalski 1986
Table 1, p. 1, row 11
report
698peritectic: ε + L ↔ ηε: Zn 0.88; L: Zn 0.9825; η: Zn 0.9717model[5] David 2003
cites Miodownik 1994
Table 1, p. 2, row 11
report
698ϵ + L ↔ (Zn)ϵ: Zn 0.972model[2] Gierlotka 2008
cites Massalski 1986
Table II, p. 2, row 17
report
698peritectic: ε + L ↔ ηε: Zn 0.874; L: Zn 0.9835; η: Zn 0.976model[5] David 2003Table 1, p. 2, row 12
report
697peritectic: ε + L -> (Zn)ε: Zn 0.872; (Zn): Zn 0.972; L: Zn 0.983experimental[3] Kowalski 1993
cites Massalski 1986
Table 1, p. 1, row 9
report
695peritectic: ε + L -> (Zn)ε: Zn 0.875; (Zn): Zn 0.981; L: Zn 0.983model[3] Kowalski 1993Table 1, p. 1, row 10
report
695ϵ + L ↔ (Zn)(Zn): Zn 0.981model[2] Gierlotka 2008
cites Kowalski 1993 doi
Table II, p. 2, row 18
report
695L + ϵ = (Zn)L: Zn 0.983; ϵ: Zn 0.872; (Zn): Zn 0.972experimental[1] Wang 2011
cites Massalski 1986
Table 2, p. 3, row 11
report
694.4peritectic: Liquid + hcp-A3 -> hcp-ZnLiquid: Zn 0.983; hcp-A3: Zn 0.874; hcp-Zn: Zn 0.981model[4] (ed.) 1998Table I, p. 206, row 6
report
694L + ϵ = (Zn)L: Zn 0.982; ϵ: Zn 0.874; (Zn): Zn 0.981model[1] Wang 2011Table 2, p. 3, row 12
report
692ϵ + L ↔ (Zn)(Zn): Zn 0.983model[2] Gierlotka 2008Table II, p. 2, row 20
report
692ϵ + L ↔ (Zn)(Zn): Zn 0.981model[2] Gierlotka 2008Table II, p. 2, row 19
report

Other properties

Activity / EMF / Gibbs energy (176)

Activity / EMF / Gibbs energy, Cu–Zn system
PropertyValueT (K)Phases / compositionClassSourceLocationQuote
EMF
printed: emf
0.645 mV668UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 174
report
EMF
printed: emf
0.63 mV668UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 171
report
EMF
printed: emf
0.62 mV668UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 172
report
EMF
printed: emf
0.64 mV668UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 175
report
EMF
printed: emf
0.77 mV668UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 173
report
EMF
printed: emf
0.77 mV672.6UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 168
report
EMF
printed: emf
0.65 mV672.6UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 169
report
EMF
printed: emf
0.62 mV672.6UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 167
report
EMF
printed: emf
0.64 mV672.6UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 170
report
EMF
printed: emf
0.64 mV672.6UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 166
report
EMF
printed: emf
0.66 mV677.5UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 165
report
EMF
printed: emf
0.63 mV677.5UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 162
report
EMF
printed: emf
0.64 mV677.5UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 161
report
EMF
printed: emf
0.66 mV677.5UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 164
report
EMF
printed: emf
0.78 mV677.5UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 163
report
EMF
printed: emf
0.65 mV682.2UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 157
report
EMF
printed: emf
0.645 mV682.2UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 156
report
EMF
printed: emf
0.68 mV682.2UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 159
report
EMF
printed: emf
0.79 mV682.2UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 158
report
EMF
printed: emf
0.685 mV682.2UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 160
report
EMF
printed: emf
0.65 mV687.2UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 154
report
EMF
printed: emf
0.67 mV687.2UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 152
report
EMF
printed: emf
0.71 mV687.2UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 155
report
EMF
printed: emf
0.8 mV687.2UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 153
report
EMF
printed: emf
0.65 mV687.2UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 151
report
EMF
printed: emf
0.78 mV692UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 148
report
EMF
printed: emf
0.63 mV692UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 146
report
EMF
printed: emf
0.7 mV692UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 150
report
EMF
printed: emf
0.665 mV692UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 147
report
EMF
printed: emf
0.67 mV692UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 149
report
EMF
printed: electromotive force
0.6 unspecified ± 0.1696experimental[5] David 2003p. 6
report
The measured invariant point is situated at 0.6 (± 0.10) mV and 696 K.
EMF
printed: emf
0.6 mV698UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 145
report
EMF
printed: emf
0.6 mV698UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 142
report
EMF
printed: emf
0.6 mV698UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 143
report
EMF
printed: emf
0.6 mV698UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 144
report
EMF
printed: emf
0.6 mV698UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 141
report
EMF
printed: emf
0.71 mV701.2UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 137
report
EMF
printed: emf
0.67 mV701.2UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 138
report
EMF
printed: emf
0.6 mV701.2UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 140
report
EMF
printed: emf
0.6 mV701.2UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 139
report
EMF
printed: emf
0.585 mV701.2UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 136
report
EMF
printed: emf
0.65 mV706.2UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 135
report
EMF
printed: emf
0.7 mV706.2UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 133
report
EMF
printed: emf
0.76 mV706.2UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 132
report
EMF
printed: emf
0.63 mV706.2UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 131
report
EMF
printed: emf
0.645 mV706.2UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 134
report
EMF
printed: emf
0.775 mV710.8UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 127
report
EMF
printed: emf
0.69 mV710.8UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 129
report
EMF
printed: emf
0.74 mV710.8UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 128
report
EMF
printed: emf
0.68 mV710.8UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 130
report
EMF
printed: emf
0.68 mV710.8UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 126
report
EMF
printed: emf
0.74 mV715.2UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 124
report
EMF
printed: emf
0.87 mV715.2UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 122
report
EMF
printed: emf
0.73 mV715.2UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 125
report
EMF
printed: emf
0.795 mV715.2UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 123
report
EMF
printed: emf
0.7 mV715.2UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 121
report
EMF
printed: emf
0.845 mV720.4UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 118
report
EMF
printed: emf
0.77 mV720.4UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 120
report
EMF
printed: emf
0.92 mV720.4UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 117
report
EMF
printed: emf
0.79 mV720.4UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 119
report
EMF
printed: emf
0.71 mV720.4UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 116
report
EMF
printed: emf
0.71 mV725.2UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 111
report
EMF
printed: emf
0.97 mV725.2UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 112
report
EMF
printed: emf
0.87 mV725.2UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 114
report
EMF
printed: emf
0.9 mV725.2UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 113
report
EMF
printed: emf
0.82 mV725.2UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 115
report
EMF
printed: emf
1.01 mV730UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 107
report
EMF
printed: emf
0.96 mV730UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 108
report
EMF
printed: emf
0.72 mV730UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 106
report
EMF
printed: emf
0.87 mV730UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 110
report
EMF
printed: emf
0.89 mV730UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 109
report
EMF
printed: emf
1.05 mV734.7UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 102
report
EMF
printed: emf
1.02 mV734.7UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 103
report
EMF
printed: emf
0.72 mV734.7UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 101
report
EMF
printed: emf
0.95 mV734.7UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 104
report
EMF
printed: emf
0.92 mV734.7UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 105
report
EMF
printed: emf
1.08 mV739.6UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 98
report
EMF
printed: emf
0.96 mV739.6UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 100
report
EMF
printed: emf
1 mV739.6UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 99
report
EMF
printed: emf
0.73 mV739.6UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 96
report
EMF
printed: emf
1.09 mV739.6UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 97
report
EMF
printed: emf
1.05 mV744.6UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 95
report
EMF
printed: emf
1.08 mV744.6UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 94
report
EMF
printed: emf
1.155 mV744.6UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 93
report
EMF
printed: emf
1.22 mV744.6UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 92
report
EMF
printed: emf
0.73 mV744.6UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 91
report
EMF
printed: emf
1.28 mV749.4UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 87
report
EMF
printed: emf
1.23 mV749.4UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 88
report
EMF
printed: emf
1.12 mV749.4UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 90
report
EMF
printed: emf
1.16 mV749.4UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 89
report
EMF
printed: emf
0.74 mV749.4UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 86
report
EMF
printed: emf
1.34 mV754.1UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 82
report
EMF
printed: emf
1.3 mV754.1UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 83
report
EMF
printed: emf
1.23 mV754.1UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 84
report
EMF
printed: emf
1.19 mV754.1UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 85
report
EMF
printed: emf
0.74 mV754.1UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 81
report
EMF
printed: emf
0.75 mV758.9UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 76
report
EMF
printed: emf
1.4 mV758.9UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 77
report
EMF
printed: emf
1.32 mV758.9UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 79
report
EMF
printed: emf
1.27 mV758.9UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 80
report
EMF
printed: emf
1.38 mV758.9UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 78
report
EMF
printed: emf
1.35 mV764UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 75
report
EMF
printed: emf
0.76 mV764UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 71
report
EMF
printed: emf
1.46 mV764UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 73
report
EMF
printed: emf
1.46 mV764UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 72
report
EMF
printed: emf
1.39 mV764UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 74
report
EMF
printed: emf
1.52 mV768.5UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 67
report
EMF
printed: emf
1.5 mV768.5UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 69
report
EMF
printed: emf
1.56 mV768.5UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 68
report
EMF
printed: emf
1.45 mV768.5UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 70
report
EMF
printed: emf
0.77 mV768.5UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 66
report
EMF
printed: emf
0.78 mV773.3UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 61
report
EMF
printed: emf
1.58 mV773.3UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 64
report
EMF
printed: emf
1.51 mV773.3UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 62
report
EMF
printed: emf
1.65 mV773.3UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 63
report
EMF
printed: emf
1.54 mV773.3UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 65
report
EMF
printed: emf
0.79 mV778.1UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 56
report
EMF
printed: emf
1.52 mV778.1UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 57
report
EMF
printed: emf
1.645 mV778.1UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 60
report
EMF
printed: emf
1.68 mV778.1UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 59
report
EMF
printed: emf
1.75 mV778.1UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 58
report
EMF
printed: emf
0.79 mV782.9UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 51
report
EMF
printed: emf
1.53 mV782.9UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 52
report
EMF
printed: emf
1.75 mV782.9UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 55
report
EMF
printed: emf
1.77 mV782.9UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 54
report
EMF
printed: emf
1.85 mV782.9UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 53
report
EMF
printed: emf
1.54 mV787.6UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 47
report
EMF
printed: emf
1.85 mV787.6UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 50
report
EMF
printed: emf
1.9 mV787.6UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 49
report
EMF
printed: emf
1.96 mV787.6UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 48
report
EMF
printed: emf
0.8 mV787.6UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 46
report
EMF
printed: emf
1.92 mV792.5UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 45
report
EMF
printed: emf
2.08 mV792.5UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 43
report
EMF
printed: emf
2.06 mV792.5UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 44
report
EMF
printed: emf
1.555 mV792.5UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 42
report
EMF
printed: emf
0.81 mV792.5UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 41
report
EMF
printed: emf
1.56 mV797.4UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 37
report
EMF
printed: emf
2.2 mV797.4UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 38
report
EMF
printed: emf
0.82 mV797.4UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 36
report
EMF
printed: emf
2.03 mV797.4UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 40
report
EMF
printed: emf
2.15 mV797.4UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 39
report
EMF
printed: emf
1.57 mV802.1UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 32
report
EMF
printed: emf
2.33 mV802.1UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 33
report
EMF
printed: emf
0.83 mV802.1UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 31
report
EMF
printed: emf
2.19 mV802.1UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 35
report
EMF
printed: emf
2.27 mV802.1UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 34
report
EMF
printed: emf
1.57 mV807UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 27
report
EMF
printed: emf
2.5 mV807UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 28
report
EMF
printed: emf
2.35 mV807UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 30
report
EMF
printed: emf
0.84 mV807UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 26
report
EMF
printed: emf
2.44 mV807UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 29
report
EMF
printed: emf
0.85 mV811.7UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 21
report
EMF
printed: emf
2.58 mV811.7UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 24
report
EMF
printed: emf
1.58 mV811.7UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 22
report
EMF
printed: emf
2.52 mV811.7UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 23
report
EMF
printed: emf
2.49 mV811.7UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 25
report
EMF
printed: emf
1.59 mV816.5UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 17
report
EMF
printed: emf
2.73 mV816.5UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 19
report
EMF
printed: emf
2.53 mV816.5UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 18
report
EMF
printed: emf
2.66 mV816.5UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 20
report
EMF
printed: emf
0.855 mV816.5UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 16
report
EMF
printed: emf
2.82 mV821.4UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 15
report
EMF
printed: emf
1.6 mV821.4UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 12
report
EMF
printed: emf
0.86 mV821.4UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 11
report
EMF
printed: emf
2.55 mV821.4UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 13
report
EMF
printed: emf
2.88 mV821.4UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 14
report
EMF
printed: emf
1.61 mV825.7UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 7
report
EMF
printed: emf
2.56 mV825.7UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 8
report
EMF
printed: emf
2.985 mV825.7UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 10
report
EMF
printed: emf
0.875 mV825.7UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 6
report
EMF
printed: emf
3.04 mV825.7UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 9
report
EMF
printed: emf
1.61 mV830.7UNKNOWN
alloy: Cu 0.04, Zn 0.96
experimental[5] David 2003Table 2, p. 2, row 2
report
EMF
printed: emf
0.89 mV830.7UNKNOWN
alloy: Cu 0.02, Zn 0.98
experimental[5] David 2003Table 2, p. 2, row 1
report
EMF
printed: emf
3.18 mV830.7UNKNOWN
alloy: Cu 0.1, Zn 0.9
experimental[5] David 2003Table 2, p. 2, row 5
report
EMF
printed: emf
3.22 mV830.7UNKNOWN
alloy: Cu 0.08, Zn 0.92
experimental[5] David 2003Table 2, p. 2, row 4
report
EMF
printed: emf
2.58 mV830.7UNKNOWN
alloy: Cu 0.06, Zn 0.94
experimental[5] David 2003Table 2, p. 2, row 3
report

Sources

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

  1. Jiong Wang, Honghui Xu, Shunli Shang, Lijun Zhang, Yong Du, Wenqing Zhang et al., Experimental investigation and thermodynamic modeling of the Cu–Si–Zn system with the refined description for the Cu–Zn system, Calphad 35, 191-203 (2011). doi:10.1016/j.calphad.2011.02.001
  2. Wojciech Gierlotka, Sinn-wen Chen, Thermodynamic descriptions of the Cu–Zn system, J. Mater. Res. 23, 258-263 (2008). doi:10.1557/jmr.2008.0035
  3. M. Kowalski, P. J. Spencer, Thermodynamic reevaluation of the Cu-Zn system, JPE 14, 432-438 (1993). doi:10.1007/bf02671961
  4. I. Ansara, A. T. Dinsdale, M. H. Rand (eds.), COST 507: Thermochemical database for light metal alloys, Volume 2, EUR 18499 EN, Office for Official Publications of the European Communities, Luxembourg (1998), ISBN 92-828-3902-8.
  5. N. David, J-M. Fiorani, M. Vilasi, J. Hertz, Thermodynamic reevaluation of the Cu-Zn system by electromotive force measurements in the zinc-rich part, JPE 24, 240-248 (2003). doi:10.1361/105497103770330541