Promoting thermoelectric technology to mitigate global climate change

A1: Low temperature materials

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A1: Low temperature materials

Temperature influence on melt spun p-Bi_0,5Sb_1,5Te₃ compacted by spark plasma sintering

A. A. Melnikov^1,2, S. A. Kichik², A. N. Koryakin², V. F. Ponomarev², V. V. Alenkov²

Thermoelectric properties of (Mn,W)Si_γ prepared by use of rapdly quenching technique

Tsunehiro Takeuchi^1,2,3, Akio Yamamoto^1,3, Swapnil Ghodke³, and Naoya Hiroishi³

Thermoelectric Properties of Cu-doped Bi₂Te_2.85Se₀.₁₅ Prepared by Liquid-Phase Growth Using a Sliding Boat

H. Kitagawa¹, T. Matsuura¹, T. Kato², K. Kamata²

Thermoelectric properties of Sn-doped Bi₂Te₃ epitaxial films

Kwang-Chon Kim^1,2, Seong Keun Kim¹, Hyun Jae Kim², Jin-Sang Kim¹

Thermomagnetic Properties of Single-Crystal Holmium and Single-Crystal Iron

Sarah J. Watzman¹, Yibin Gao¹, Hyungyu Jin¹, Stephen R. Boona¹, Joseph P. Heremans^1,2

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Sorting Categories

A: Materials

A1: Low temperature materials
A2: Medium temperature materials
A3: High temperature materials
A4: Theory - bulk materials
A5: Nanoscale and low dimensional effects
A6: Characterization
A7: Developments in measurement techniques and preparation methods

B: Elements, modules & systems

B1: Contacting and insulation
B2: Module design
B3: Power management and load balancing
B4: Thermal management and dynamics
B5: Energy system design and optimization
B6: DC/DC inverters
B7: Device and system performance
B8: Modelling

C: End use applications and markets

C1: Waste heat recovery
C2: Automotive
C3: Cooling
C4: Generators
C5: Sensors
C6: Novel applications
C7: Markets