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Effects of Excess Sb on Thermoelectric Properties of Barium and Indium Double-Filled Iron-Based p-Type Skutterudite Materials

A series of Ba and In double-filled iron-based p -type skutterudite thermoelectric (TE) materials with nominal composition BaInFe 3.7 Co 0.3 Sb 12+ m (0.72 ≤  m  ≤ 2.4) have been prepared by melting, quenching, annealing, and spark plasma sintering (SPS) methods. The effects of excess Sb on the phas...

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Published in:Journal of electronic materials 2012-06, Vol.41 (6), p.1414-1420
Main Authors: Yu, Jian, Zhao, Wen-yu, Wei, Ping, Tang, Ding-guo, Zhang, Qing-jie
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description A series of Ba and In double-filled iron-based p -type skutterudite thermoelectric (TE) materials with nominal composition BaInFe 3.7 Co 0.3 Sb 12+ m (0.72 ≤  m  ≤ 2.4) have been prepared by melting, quenching, annealing, and spark plasma sintering (SPS) methods. The effects of excess Sb on the phase composition, microstructure, and TE transport properties of these materials were investigated in this work. All the SPS bulk materials are composed of the main skutterudite phase and trace InSb and FeSb 2 . The content of FeSb 2 in the SPS bulk materials gradually decreased and that of InSb remained nearly invariable with increasing m . The impurities InSb and metallic Sb are found at grain boundaries. The amount of metallic Sb at grain boundaries gradually increased with increasing m . The excess Sb had no effect on the growth of grains. The dependence of the TE properties on m indicates that preventing the formation of FeSb 2 by adjusting the excess Sb value may significantly improve the TE properties of Ba and In double-filled iron-based p -type skutterudite materials. The significant increases in the carrier concentration and electrical conductivity as well as the remarkable reduction in the lattice thermal conductivity of the sample with m  = 0.96 are due to the significant reduction in the FeSb 2 content induced by the excess Sb. The gradual increase in ZT with increasing m from 0.72 to 1.44 is attributed to the gradual decrease of the FeSb 2 content, and the gradual decrease in ZT in the m range of 1.44 to 2.4 is due to the gradual increase of the Sb content in the Sb-In alloy impurity occurring at grain boundaries. The lowest lattice thermal conductivity of 0.31 W m −1  K −1 and the highest ZT value of 0.63 were obtained at 800 K for the sample with m  = 1.44.
doi_str_mv 10.1007/s11664-012-2029-2
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The effects of excess Sb on the phase composition, microstructure, and TE transport properties of these materials were investigated in this work. All the SPS bulk materials are composed of the main skutterudite phase and trace InSb and FeSb 2 . The content of FeSb 2 in the SPS bulk materials gradually decreased and that of InSb remained nearly invariable with increasing m . The impurities InSb and metallic Sb are found at grain boundaries. The amount of metallic Sb at grain boundaries gradually increased with increasing m . The excess Sb had no effect on the growth of grains. The dependence of the TE properties on m indicates that preventing the formation of FeSb 2 by adjusting the excess Sb value may significantly improve the TE properties of Ba and In double-filled iron-based p -type skutterudite materials. The significant increases in the carrier concentration and electrical conductivity as well as the remarkable reduction in the lattice thermal conductivity of the sample with m  = 0.96 are due to the significant reduction in the FeSb 2 content induced by the excess Sb. The gradual increase in ZT with increasing m from 0.72 to 1.44 is attributed to the gradual decrease of the FeSb 2 content, and the gradual decrease in ZT in the m range of 1.44 to 2.4 is due to the gradual increase of the Sb content in the Sb-In alloy impurity occurring at grain boundaries. 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The significant increases in the carrier concentration and electrical conductivity as well as the remarkable reduction in the lattice thermal conductivity of the sample with m  = 0.96 are due to the significant reduction in the FeSb 2 content induced by the excess Sb. The gradual increase in ZT with increasing m from 0.72 to 1.44 is attributed to the gradual decrease of the FeSb 2 content, and the gradual decrease in ZT in the m range of 1.44 to 2.4 is due to the gradual increase of the Sb content in the Sb-In alloy impurity occurring at grain boundaries. 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The effects of excess Sb on the phase composition, microstructure, and TE transport properties of these materials were investigated in this work. All the SPS bulk materials are composed of the main skutterudite phase and trace InSb and FeSb 2 . The content of FeSb 2 in the SPS bulk materials gradually decreased and that of InSb remained nearly invariable with increasing m . The impurities InSb and metallic Sb are found at grain boundaries. The amount of metallic Sb at grain boundaries gradually increased with increasing m . The excess Sb had no effect on the growth of grains. The dependence of the TE properties on m indicates that preventing the formation of FeSb 2 by adjusting the excess Sb value may significantly improve the TE properties of Ba and In double-filled iron-based p -type skutterudite materials. The significant increases in the carrier concentration and electrical conductivity as well as the remarkable reduction in the lattice thermal conductivity of the sample with m  = 0.96 are due to the significant reduction in the FeSb 2 content induced by the excess Sb. The gradual increase in ZT with increasing m from 0.72 to 1.44 is attributed to the gradual decrease of the FeSb 2 content, and the gradual decrease in ZT in the m range of 1.44 to 2.4 is due to the gradual increase of the Sb content in the Sb-In alloy impurity occurring at grain boundaries. The lowest lattice thermal conductivity of 0.31 W m −1  K −1 and the highest ZT value of 0.63 were obtained at 800 K for the sample with m  = 1.44.</abstract><cop>Boston</cop><pub>Springer US</pub><doi>10.1007/s11664-012-2029-2</doi><tpages>7</tpages></addata></record>
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source Springer Nature
subjects Antimony
Applied sciences
Characterization and Evaluation of Materials
Chemical elements
Chemistry and Materials Science
Condensed matter: electronic structure, electrical, magnetic, and optical properties
Condensed matter: structure, mechanical and thermal properties
Conductivity phenomena in semiconductors and insulators
Defects and impurities in crystals
microstructure
Electric properties
Electronic transport in condensed matter
Electronics
Electronics and Microelectronics
Exact sciences and technology
Grain and twin boundaries
Grain boundaries
Heat conductivity
Indium antimonides
Instrumentation
Intermetallics
Materials
Materials Science
Optical and Electronic Materials
Physics
Reduction
Solid State Physics
Spark plasma sintering
Structure of solids and liquids
crystallography
Thermal conductivity
Thermoelectric and thermomagnetic effects
Thermoelectricity
title Effects of Excess Sb on Thermoelectric Properties of Barium and Indium Double-Filled Iron-Based p-Type Skutterudite Materials
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