Simultaneous Enhancement of Thermopower and Electrical Conductivity through Isovalent Substitution of Cerium in Bismuth Selenide Thermoelectric Materials

Research output: Journal Publications and Reviews › RGC 21 - Publication in refereed journal › peer-review

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Material Science

100
Bismuth Material Science
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Materials Material Science
100
Electrical Conducti... Material Science
100
Cerium Material Science
100
Thermoelectric Mate... Material Science
75
Thermoelectrics Material Science
25
Electrical Property Material Science
25
Theoretical Calcula... Material Science
25
Carrier Mobility Material Science
25
Impurity Material Science

Keyphrases

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Cerium Keyphrases
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Electrical Conducti... Keyphrases
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Bismuth Telluride Keyphrases
100
Thermoelectric Keyphrases
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Seebeck Coefficient Keyphrases
100
Simultaneous Improv... Keyphrases
100
Thermoelectric Mate... Keyphrases
100
Isovalent Substitut... Keyphrases
33
Electrical Properti... Keyphrases
33
Order of Magnitude Keyphrases
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Valence Band Keyphrases
33
Carrier Mobility Keyphrases
33
Thermoelectric Prop... Keyphrases
33
Interdependency Keyphrases
33
Thermoelectric Perf... Keyphrases
33
High Efficiency Keyphrases
33
Downward Shift Keyphrases
33
Cerium-doped Keyphrases
33
Cerium Concentratio... Keyphrases
33
Cerium Doping Keyphrases
33
Neutral Impurity Keyphrases

INIS

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cerium INIS
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electrical conducti... INIS
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thermoelectric mate... INIS
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bismuth selenides INIS
50
concentration INIS
25
doped materials INIS
25
tools INIS
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performance INIS
25
electrical properti... INIS
25
impurities INIS
25
tuning INIS
25
valence INIS
25
figure of merit INIS
25
carrier mobility INIS
25
thermoelectric prop... INIS
Research OutputsResearch Output authored by Simultaneous Enhancement of Thermopower and Electrical Conductivity through Isovalent Substitution of Cerium in Bismuth Selenide Thermoelectric Materials is tagged with the concept