• Journal of Inorganic Materials
  • Vol. 34, Issue 3, 247 (2019)
Jun LUO1、2, Shi-Yang HE1, Zhi-Li LI1, Yong-Bo LI1, Feng WANG1, Ji-Ye ZHANG1, [in Chinese]1、2, [in Chinese]1, [in Chinese]1, [in Chinese]1, [in Chinese]1, and [in Chinese]1
Author Affiliations
  • 11. School of Materials Science and Engineering, Shanghai University, Shanghai 200444, China
  • 22. Materials Genome Institute, Shanghai University, Shanghai 200444, China
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    DOI: 10.15541/jim20180335 Cite this Article
    Jun LUO, Shi-Yang HE, Zhi-Li LI, Yong-Bo LI, Feng WANG, Ji-Ye ZHANG, [in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese]. Progress on High-throughput Synthesis and Characterization Methods for Thermoelectric Materials[J]. Journal of Inorganic Materials, 2019, 34(3): 247 Copy Citation Text show less
    A 128-member binary library[15]
    . A 128-member binary library[15]
    Schematic diagram of combinatorial electrostatic atomization system “M-ist Combi”[16]
    . Schematic diagram of combinatorial electrostatic atomization system “M-ist Combi”[16]
    Schematic illustration for the Czochralski crystal growth[18]
    . Schematic illustration for the Czochralski crystal growth[18]
    Schematic illustration for the vertical Bridgman crystal growth[19]
    . Schematic illustration for the vertical Bridgman crystal growth[19]
    Variation of Seebeck coefficient values along n-type 0.01/0.055% PbI2 doped (Pb0.95Sn0.05Te)0.92(PbS)0.08 functionally graded materials[24]
    . Variation of Seebeck coefficient values along n-type 0.01/0.055% PbI2 doped (Pb0.95Sn0.05Te)0.92(PbS)0.08 functionally graded materials[24]
    (a) Scheme of a rotor with capsules for sedimentation experiment and (b) mechanism of sedimentation of atoms in the strong acceleration field[25]
    . (a) Scheme of a rotor with capsules for sedimentation experiment and (b) mechanism of sedimentation of atoms in the strong acceleration field[25]
    (a) Optical image of the annealed Ti-Ni-Sn thin film materials library; (b-d) color-coded results of the high-throughput EDX measurements of the material library[27]
    . (a) Optical image of the annealed Ti-Ni-Sn thin film materials library; (b-d) color-coded results of the high-throughput EDX measurements of the material library[27]
    EDX measurements of the concentration of (a)magnesium, (b)nickel and (c)aluminum of an Mg-Ni-Al ternary thin film library[30]
    . EDX measurements of the concentration of (a)magnesium, (b)nickel and (c)aluminum of an Mg-Ni-Al ternary thin film library[30]
    Layout of the nanocalorimeter cell[34]
    . Layout of the nanocalorimeter cell[34]
    Composition trends over the sample library, (a) Si:Cu ratio for the glass-forming component, (b) glass transition temperature and (c) the total enthalpy of this glass reaction[35]
    . Composition trends over the sample library, (a) Si:Cu ratio for the glass-forming component, (b) glass transition temperature and (c) the total enthalpy of this glass reaction[35]
    (a) Schematic of the pump and probe laser measurement setup and (b)temperature increase as a function of time after a single-pulse[33]
    . (a) Schematic of the pump and probe laser measurement setup and (b)temperature increase as a function of time after a single-pulse[33]
    Time-domain thermoreflectance experimental setup[33]
    . Time-domain thermoreflectance experimental setup[33]
    (a)Thermal conductivity imaging of a Cr-Ti diffusion couple and (b) numerical values for thermal conductivity across the path shown as a dashed line in (a)[40]
    . (a)Thermal conductivity imaging of a Cr-Ti diffusion couple and (b) numerical values for thermal conductivity across the path shown as a dashed line in (a)[40]
    Schematic illustration of SThM setup[43]
    . Schematic illustration of SThM setup[43]
    Quantitative mapping of thermal conductivities, (a) changes in the probe resistance induced by samples with different thermal conductivities; Mappings of (b) resistance change and (c) corresponding thermal conductivities in Yb0.7Co4Sb12; (d) Line scan of resistance change across an interface between different phases[45]
    . Quantitative mapping of thermal conductivities, (a) changes in the probe resistance induced by samples with different thermal conductivities; Mappings of (b) resistance change and (c) corresponding thermal conductivities in Yb0.7Co4Sb12; (d) Line scan of resistance change across an interface between different phases[45]
    (a) SEM image, (b) AFM topography image, and (c) thermal map image obtained with the SThM technique are shown simultaneously for the same area of the Ag2Se thin film[46]
    . (a) SEM image, (b) AFM topography image, and (c) thermal map image obtained with the SThM technique are shown simultaneously for the same area of the Ag2Se thin film[46]
    A photograph of the high temperature thermoelectric power factor screening tool and the Seebeck coefficient probe[14]
    . A photograph of the high temperature thermoelectric power factor screening tool and the Seebeck coefficient probe[14]
    Schematics of PSM setup[48]
    . Schematics of PSM setup[48]
    Thermopower mappings with different thicknesses grown on Si/Au(a)and quartz/Au(b) substrates[49]
    . Thermopower mappings with different thicknesses grown on Si/Au(a)and quartz/Au(b) substrates[49]
    Seebeck coefficient distribution of the Bi2Te2Se sample with composition gradient[50]
    . Seebeck coefficient distribution of the Bi2Te2Se sample with composition gradient[50]
    Schematic diagram of the AFM conductive, heated probe technique for nanoscale Seebeck coefficient characterization[52]
    . Schematic diagram of the AFM conductive, heated probe technique for nanoscale Seebeck coefficient characterization[52]
    (a) AFM topography image of Bi2Te3 thin film with 49 locations for nanoscale and (b) Seebeck voltage measurement, as indication by 49 dots in (a)[52]
    . (a) AFM topography image of Bi2Te3 thin film with 49 locations for nanoscale and (b) Seebeck voltage measurement, as indication by 49 dots in (a)[52]
    Jun LUO, Shi-Yang HE, Zhi-Li LI, Yong-Bo LI, Feng WANG, Ji-Ye ZHANG, [in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese], [in Chinese]. Progress on High-throughput Synthesis and Characterization Methods for Thermoelectric Materials[J]. Journal of Inorganic Materials, 2019, 34(3): 247
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