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. 2018 Jun 12;11(6):999. doi: 10.3390/ma11060999

Table 1.

Literature data about TE properties of perovskite material.

Ref. Materials Seebeck (µV·K−1) Electrical Conductivity (S·cm−1) Thermal Conductivity (W·m−1·K−1) Power Factor (µW·K−2·m−1) ZT Measure Temp. (K)
[38] La-Doped SrTiO3 −260 298
[57] Sr0.85La0.15TiO3 175 400 3 0.28 873
[58] SrTiO3 210 250 200 300
[59] reduced graphene oxide—SrTiO3 −380 30 0.09 760
[40] Sr0.875Pr0.125TiO3 −80 3700 0.4 323
[60] La-doped SrTiO3 980 0.39 298
[61] Sr0.9La0.1TiO3 −250 1000
[62] Sr0.9Dy0.1TiO3
R = (La, Sm, Gd, Dy, Y)
−160 500 2.7 0.22 573
[63] Sr0.95La0.05TiO3 250 150 4.2 800 0.15 780
[64] Sr0.9La0.1TiO3 −225 300 3.2 0.21 750
[65] La-doped SrTiO3 −300 80 3.1 0.27 1073
[66] Sr0.96Ce0.04TiO3 −65 300
Sr0.98La0.02TiO3 −138 300
[67] Sr2CoTiO6 60 10 1200
[68] Sr(Ti0.8Nb0.2)O3 −200 3.5 1300 0.37 1000
[69] BaNb0.01Ti0.99O3 −640 290
[70] BaTiO3 −550 300
[71] Sr0.9Y0.1TiO3 −130 120 420
[72] Ba0.3Sr0.6La0.1TiO3 −110 4.4 0.13 420
[73] Sr0.45Ca0.45La0.1TiO3 −195 250 3.7 0.22 850
[74] Sr0.98La0.02TiO3 −260 500 11 0.09 298
[75] SrTiO3/SrTi0.8Nb0.2O3/SrTiO3 −850 1400 12 2.4 300
[76] Sr(Ti0.8Nb0.2)O3 3 0.35 1000
[77] Sr0.2Eu0.8Ti0.8Nb0.2O3 170 0.5 1000
[78] SrTi0.9Ta0.1O3 −175 300 4.4 0.17 752
[79] BaTiO3 −620 0.17 300
[80] PbTiO3 110 300
BaTiO3 110 300
SrTiO3 100 300
[81] SrTiO3 −500 300
[82] Nb-doped SrTiO3 −540 1200
[83] Sr0.95La0.05Ti0.98Mn0.02O3 −150 833 3.9 20 0.15 300
[84] La0.25Sr0.75TiO3 450 300
[85] n-type SrTiO3 300 0.7 1400
[86] Sr2TiFeO6 280 1.2 10 1130
Sr2TiCoO6 60 20 5.4 750
[39] Ba0.25Sr1.75FeTiO6 800 15 1123
[87] Sr2TiMoO6 −10.8 960 11 1223
[88] SrTiO3 −150 1000
[89] SrTi0.5Co0.5O3 200 1.36 800
[90] (Tb0.1Ca0.9)MnO3 −140 −0.18 0.13 950
(Ho0.1Ca0.9)MnO3 −110 −0.18 0.08 950
(Y0.1Ca0.9)MnO3 −130 −0.2 0.15 950
[91] (Ca0.9Bi0.1)MnO3 80 10 4 0.095 1173
[92] Sr0.9Ce0.1MnO3 180 100 1273
[93] CaMnO3 −520 667
[94] Ca0.85Pr0.15MnO2.98 −130 111 1.5 0.17 1100
[95] Ca0.9Yb0.1MnO3 −150 133 1.6 0.16 970
[96] Ca0.8Dy0.2MnO3 −135 270 510 1073
[97] Pr0.3Sr0.7MnO3 −75 250 1.6 0.085 1073
[98] Sm0.25Ca0.75MnO3 −380 65
[99] CaMn0.88Mo0.12O3 −240 0.011 100
[100] YNi0.3Mn0.7O3 90 357
[101] SrMnO3 −110 50 300
[102] CaMn0.85Mo0.15O3
(Sm0.2Ca0.8MnO3, Pr0.15Sr0.85MnO3)
−270 10−4 0.6 80
[103] Ca0.96Bi0.04MnO3 −170 66.7 3.6 300 0.086 1000
[104] CaMn0.96Mo0.04O3 −90 3.4 0.012 270
CaMn0.94Ru0.06O3 −140 5.4 0.0085 330
[105] CaMn0.98Ta0.02O3 −190 29 0.05 1000
CaMn0.98Nb0.02O3 −205 1000
[106] Ca0.4Sr0.6Mn0.96Mo0.04O3 −110 50 220
[107] CaMn0.98Nb0.02O3 −255 31 0.32 1050
[108] SrMn0.7Ru0.3O3 −40 50 1.8 0.01 370
[109] Ca0.9Nd0.1MnO3 −150 160 398 1123
[110] Sr(Mn0.975Mo0.025)O3 −120 0.13 5 0.003 400
[111] Ca0.8Nd0.2MnO3 −62 280 1.3 0.17 873
[112] Sr0.9Ti0.1MnO3 −340 2.25 25 800
[113] (Pr0.9Ca0.1)CoO3 106 220 1.9 0.047 358
[114] Pr0.9Ca0.1CoO3
[RCoO3 (R = Pr, Nd, Sm, Gd, Dy, Ho)]
125 220 1.6 0.046 450
[115] TbCoO3
DyCoO3
80 200 1.6 0.05 873
[116] Nd0.95Sr0.05CoO3 130 400
[117] Nd0.99Sr0.01CoO3 300 290
Pr0.99Sr0.01CoO3 450 270
[118] LaCoO3 1200 100
[119] La0.975Sr0.025CoO3 280 300
[120] La0.95Sr0.05CoO3 720 100 280
[121] Ho0.9Ca0.1CoO3 220 20 0.75 0.051 573
[122] La0.875Sr0.125CoO3 100 6 0.035 230
[123] La0.95Sr0.05CoO3 720 20 0.037 0.18 300
[124] La0.95Sr0.05CoO3 170 1.2 0.033 300
[125] La0.9Sr0.1CoO3 120 1.5 0.046 300
[126] La0.9Pb0.1CoO3 110 333 0.8 0.23 575
[127] Nd0.995Ca0.005CoO3 500 1.1 300
LaCo0.99Mn0.01O3 −200 300
[128] La0.97Ba0.03CoO3 80 40 80 0.08 420
[129] YCo0.98Ni0.02O3 900 300
[130] LaCoO3 600 0.067 300
La0.98Sr0.02CoO3 350 0.3 300
La0.99Ce0.01CoO3 −300 0.03 300
LaCo0.995Ga0.005O3 480 300
LaCo0.995Ti0.005O3 −200 300
[131] LaCo0.92Ni0.08O2.9 220 33.3 0.35 0.2 300
[132] La0.94Sr0.06CoO3 180 2 0.048 300
[133] La0.9Sr0.1CoO3 0.046 300
[134] La0.9Sr0.1FeO3 380 1173
[135] Pr0.9Sr0.1FeO3 140 0.8 0.024 850
[136] La0.95Sr0.05FeO3 230 1.8 0.076 1273
[137] Ca2FeMoO6 −108 300 3.2 0.14 1250
Ca1.9Sr0.1FeMoO6 −110 250 3.0 0.14 1250
Ca1.8Sr0.2FeMoO6 −100 260 2.8 0.14 1250
[138] Sr1.6K0.4FeMoO6 −48 3.1 450 0.24 1250
[139] Ba2FeMoO6 −1350 0.995 300
[140] LaNi0.8Cu0.2O3 −26 600 40 600
[141] BaSn0.99Co0.01O3 1000 700
[142] Sr0.98La0.02SnO3 −80 0.03 300
[143] Ba0.998La0.002SnO3 −170 150 4 0.1 1073
[144] Sr0.99La0.01SnO3 −80 1.5 3.6 120 0.05 1073
[145] BaSnO3 −130 300 3.4 1400 0.65 1200
[146] Ba0.4Sr0.6PbO3 125 250 2 0.13 673
[147] Ba0.2Sr0.8PbO3 −190 79 1.8 0.13 680
[148] Sr0.7Ba0.3Pb0.99Bi0.01O3 −70 390 900
[149] Ba0.77K0.23BiO3 3.2 10 290
[150] BaBi0.9Sb0.1O3 260 10 850
[151] BaMoO3 −30 0.015 1000
[152] Sr1.4Ba0.6Fe0.8Mo0.8Mn0.2V0.2O6 −58 316 83.2 973
[153] SrRuO3 36 5.3 0.03 1200
[154] Sr2RuYO6 −250 1200
Sr2RuErO6 −250 1200
[155] (Sr0.95La0.05)2RuErO6 −160 0.001 800
[156] AgNbO3 700
−500
800
AgTaO3 710 800
[157] K0.991Ba0.009TaO3 200 333 0.03 300
[88] KTaO3 −280 1000
[158] BaUO3 −170 0.1 0.8 0.0002 880
[159] BaCe0.95Y0.05O3 −220 873
[35] C6H4NH2CuBr2I −82 2950 3.25 0.21 363
[33] CH3NH3PbI3-n-type −238 160 0.1 8.4 0.61 300
p-type 181 94 0.06 3.1 0.25 300
n-type −362 89 0.145 10.5 1.61 600
p-type 295 41 0.06 3.6 0.71 600
n-type −428 68 0.151 11.3 2.56 800
p-type 358 25 0.04 3.3 1.08 800
[160] CH3NH3SnI3 720 0.001 0.08 0.01 295
CH3NH3PbI3 700 10−7 0.5 10−7 295
[34] (MA)PbI3 200 0.44 298
(MA)SnI3 200 0.44 298
(FA)PbI3 100 0.43 298
(FA)SnI3 150 0.35 298
[161] CH3NH3PbI3-n-type 80 1.2 0.9 330
CH3NH3PbI3-p-type 50 1 1.25 330
[162] CsSnI3 0.18 0.63 1000
CsPbI3 0.1 0.64 1000