Tabulated results

Relevant electronic / structural parameters & calculated TC0

SuperconductorTC0meas (K) σζ
(Å)		A
(Å2)		ηTC0calc (K)
YBa2Cu3O6.92 [1] 93.78σ02.267714.8596296.36
YBa2Cu3O6.60 [1]630.439σ02.232414.8990264.77
LaBa2Cu3O7–δ [1]97σ02.195215.3306298.00
(Ca0.45La0.55)(Ba1.3La0.7)Cu3Oy [3]80.50.65σ02.129715.0118282.29
YBa2Cu4O8 (12 GPa) [1]104σ02.165814.20602103.19
Tl2Ba2CuO6 [1,4]80σ01.929114.9460179.86
Tl2Ba2CaCu2O8 [1,4]110σ02.013914.86102108.50
Tl2Ba2Ca2Cu3O10 [1,4]130σ02.055914.82483130.33
TlBa1.2La0.8CuO5 [4]45.40.300σ01.903814.7475144.62
Tl0.7LaSrCuO5 [4]370.2125σ01.836814.2453139.63
TlBa2CaCu2O7–δ [1,4]103σ02.081514.87342104.93
TlBa2Ca2Cu3O9–δ [1,4]133.5σ02.031514.76863132.14
HgBa2Ca2Cu3O8+δ [1]135σ01.995914.80603134.33
HgBa2Ca2Cu3O8+δ (25 GPa) [1]145σ01.932613.64493144.51
HgBa2CuO4.15 [1]95σ0+0.0751.921415.0362192.16
HgBa2CaCu2O6.22 [1]127σ0+0.0882.03914.93752125.84
La1.837Sr0.163CuO4–δ [1]380.04081.782814.2268137.47
La1.8Sr0.2CaCu2O6±δ [1]580.051.782914.3761258.35
(Sr0.9La0.1)CuO2 [1]430.051.705115.6058141.41
Ba2Y(Ru0.9Cu0.1)O6 [1]350.052.080917.3208132.21
(Pb0.5Cu0.5.)Sr2(Y/Ca)Cu2O7–δ [1]670.375σ01.996714.5771267.66
Bi2Sr2CaCu2O8+δ (unanneal) [1,4]890.5σ01.75014.5201289.32
(Bi/Pb)2Sr2Ca2Cu3O10+δ [1]1120.5σ01.687214.63403113.02
Pb2Sr2(Y/Ca)Cu3O8 [1, 11]800.5σ01.963714.5964279.39
Bi2(Sr1.6La0.4)CuO6+δ [1]340.11σ01.48814.5422134.81
RuSr2GdCu2O8 [1]500.25σ02.18214.7372250.28
NdFeAsO0.85-y [11]510.0751.65315.5417152.42
GdFeAsO0.85-y [11]53.50.0751.61615.1399154.33
La(O0.92–yF0.08)FeAs [1]260.021.767716.1620124.82
Ce(O0.84–yF0.16)FeAs [1]350.041.681915.8778137.23
Tb(O0.80–yF0.20)FeAs [1]450.051.582214.8996145.67
Nd(O0.70-yF0.30)FeAs [11]51.50.07501.65315.6262152.28
Sm(O0.65–yF0.35)FeAs [1]550.08751.66715.4535156.31
(Sm0.7Th0.3)OFeAs [1]51.50.0751.67115.4897151.94
(Ba0.6K0.4)Fe2As2 [1]370.051.93215.2803136.93
Ba(Fe1.84Co0.16)As2 [1]220.021.89215.6848123.54
FeSe0.977 (7.5 GPa) [2]36.50.0231.42413.1189136.68
Fe1.03Se0.57Te0.43 (2.3 GPa) [2]23.30.0151.59713.9051125.65
K0.83Fe1.66Se2 [2]29.50.03632.024115.2432130.07
Rb0.83Fe1.70Se2 [2]31.50.04632.146315.4867131.78
Cs0.83Fe1.71Se2 [2]28.50.04882.329816.1419129.44
Na0.16(PC)yTiNCl [5,6]7.40.027.673513.033116.37
Na0.16(BC)yTiNCl [5,6]6.90.027.780313.033116.28
Li0.08ZrNCl [6]15.10.00381.581711.3233114.35
Li0.13(DMF)yZrNCl [6]13.70.013.40011.3233113.90
Na0.25HfNCl [6]240.01251.65811.1484125.19
Li0.2HfNCl [6]200.00751.59511.1195120.31
Li0.2(NH3)yHfNCl [6]22.50.0252.76211.1117121.42
Ca0.11(NH3)yHfNCl [6]230.02752.73711.1251122.66
Eu0.08(NH3)yHfNCl [6]23.60.012.66911.1117124.28
κ–[ET]2Cu[N(CN)2]Br [1, 11]11.4 [11]0.125σ02.457954.4745111.61
Cs3C60 A15 (0.93 GPa) [7]38.361.53.1949148.922138.19
Cs3C60 FCC (0.73 GPa) [7]35.21.53.383148.922136.88
H3S (155 GPa) [8]
H3S (155 GPa) [10]		200
201		3.43
3.5		2.1795
2.180(4)		28.5017
28.50(9)		1
1		198.5
200.6(3)
Gated TBG [9]1.830.463.51560611.94
Gated TBG (1.33 GPa) [9]2.880.733.421066713.02
LaH10 (169(4) GPa) [10]251(1)6.51.795(5)50.29(27)1249.8(1.3)
LaH10 (192(4) GPa) [10]262(1)6.51.757(7)48.18(36)1260.7(2.0)
CSH7 (267 GPa) [11] 287.7±1.27.51.737(4)48.11(14)1283.6±3.5

Scaling γ-factors modifying σ0 (i.e., the value for YBa2Cu3O6.92)

Superconductor#outer
(2b)		#inner
(2b)		Δval.
(2a)		doping
(2b)		Χ
(2a)		γ
factor
YBa2Cu3O6.92 [1]111111
YBa2Cu3O6.60 [1]1110.43910.439
LaBa2Cu3O7–δ [1]111111
(Ca0.45La0.55)(Ba1.3La0.7)Cu3Oy [3]1111.25/210.65
YBa2Cu4O8 (12 GPa) [1]121/2111
Tl2Ba2CuO6 [1,4]121/2111
Tl2Ba2CaCu2O8 [1,4]121/2111
Tl2Ba2Ca2Cu3O10 [1,4]121/2 111
TlBa1.2La0.8CuO5 [4]111/21.2/210.3
Tl0.7LaSrCuO5 [4]110.4251/210.2125
TlBa2CaCu2O7–δ [1,4]111/2111
TlBa2Ca2Cu3O9–δ [1,4]111/2111
HgBa2Ca2Cu3O8+δ [1]111111
HgBa2Ca2Cu3O8+δ (25 GPa) [1]111111
HgBa2CuO4.15 [1]1111.328911.3289
HgBa2CaCu2O6.22 [1]1111.386011.3860
(Pb0.5Cu0.5.)Sr2(Y/Ca)Cu2O7–δ [1]111/21/21.50.375
Bi2Sr2CaCu2O8+δ (unanneal) [1,4]121/211/21/2
(Bi/Pb)2Sr2Ca2Cu3O10+δ [1]121/211/21/2
Pb2Sr2(Y/Ca)Cu3O8 [1]121/211/21/2
Bi2(Sr1.6La0.4)CuO6+δ [1]121/20.221/20.11
RuSr2GdCu2O8 [1]111/211/21/4

Charge allocation γ-factors for determining σ

SuperconductorIntra-reservoir
(1a)		inter-reservoir
(1b)		Δval.
(2c)		γchrg/dopant
La1.837Sr0.163CuO4–δ [1]1/21/2-1/41
La1.8Sr0.2CaCu2O6±δ [1]1/21/2-1/41
(Sr0.9La0.1)CuO2 [1]-1/2-1/21
Ba2Y(Ru0.9Cu0.1)O6 [1]1/21/2-1/42
NdFeAsO0.85 [11]1/21/2-1/42
GdFeAsO0.85 [11]1/21/2-1/42
La(O0.92–yF0.08)FeAs [1]1/21/2-1/41
Ce(O0.84–yF0.16)FeAs [1]1/21/2-1/41
Tb(O0.80–yF0.20)FeAs [1]1/21/2-1/41
Nd(O0.70-yF0.30)FeAs [11]1/21/2-1/41
Sm(O0.65–yF0.35)FeAs [1]1/21/2-1/41
(Sm0.7Th0.3)OFeAs [1]1/21/2-1/41
(Ba0.6K0.4)Fe2As2 [1]1/41/2-1/81
Ba(Fe1.84Co0.16)As2 [1]1/41/2-1/81
FeSe0.977 (7.5 GPa) [2]-1/2-1/22
Fe1.03Se0.57Te0.43 (2.3 GPa) [2]1/21/2-1/42
K0.83Fe1.66Se2 [2]1/41/2-1/81, 2
Rb0.83Fe1.70Se2 [2]1/41/2-1/81, 2
Cs0.83Fe1.71Se2 [2]1/41/2-1/81, 2
Na0.16(PC)yTiNCl [5,6]1/41/2-1/81
Na0.16(BC)yTiNCl [5,6]1/41/2-1/81
Li0.08ZrNCl [6]1/41/2-1/81
Li0.13(DMF)yZrNCl [6]1/41/2-1/81
Na0.25HfNCl [6]1/41/2-1/81
Li0.2HfNCl [6]1/41/2-1/81
Li0.2(NH3)yHfNCl [6]1/41/2-1/81
Ca0.11(NH3)yHfNCl [6]1/41/2-1/81
Eu0.08(NH3)yHfNCl [6]1/41/2-1/81
κ–[ET]2Cu[N(CN)2]Br [1, 11]1/4-1/21/8-
Cs3C60 A15 (0.93 GPa) [7]-1/2-1/21
Cs3C60 FCC (0.73 GPa) [7]-1/2-1/21
H3S (155 GPa) [8]
H3S (155 GPa [10]		-
-		1/2
1/2		-
-		1/2
1/2		1, 4
1, 4
Gated TBG [9]-1/2-1/2-
Gated TBG (1.33 GPa) [9]-1/2-1/2-
LaH10 (169(4) GPa) [10]-1/2-1/21, 3
LaH10 (192(4) GPa) [10]-1/2-1/21, 3
CSH7 (267 GPa) [11}-1/2-1/21, 4, 4
  1. D. R. Harshman, A. T. Fiory and J. D. Dow, J. Phys.: Condens. Matter 23, 295701 (2011); 23 349501 (2011).
  2. D. R. Harshman and A. T. Fiory, J. Phys.: Condens. Matter 24, 135701 (2012).
  3. D. R. Harshman and A. T. Fiory, Phys. Rev. B 86, 144533 (2012).
  4. D. R. Harshman and A. T. Fiory, J. Phys. Chem. Solids 85, 106 (2015).
  5. D. R. Harshman and A. T. Fiory, Phys. Rev. B 90, 186501 (2014).
  6. D. R. Harshman and A. T. Fiory, J. Supercond. Nov. Magn. 28, 2967 (2015).
  7. D. R. Harshman and A. T. Fiory, J. Phys.: Condens. Matter 29, 145602 (2017).
  8. D. R. Harshman and A. T. Fiory, J. Phys.: Condens. Matter 29, 445702 (2017).
  9. D. R. Harshman and A. T. Fiory, J. Supercond. and Nov. Magn. 33, 367 (2020).
  10. D. R. Harshman and A. T. Fiory, J. Supercond. Nov. Magn. 33, 2945 (2020).
  11. D. R. Harshman and A. T. Fiory, preprint (2021).

Comments are closed.