Thermoelectric Generator Module with Convective Heat Transfer

By Yuefeng Wang1; Guoheng Chen2; Michael McLennan1; Timothy S Fisher1; (unknown)1

1. Purdue University 2. Purdue University Calumet

Electrical power density and efficiency of a thermoelectric generator with convective heat transfer on hot side and cold side is calculated.

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Version 1.2 - published on 14 Aug 2014

doi:10.4231/D3BC3SZ07 cite this

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    Power density vs. thickness under different heat transfer coefficients Device1 by Sino Cool Device2 by Sino Cool

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Abstract

Electrical power density of a thermoelectric generator (TEG) with convective heat transfer on the hot and cold sides is calculated. The conversion efficiency of the generator is also presented. By assuming the power factor is temperature independent or nearly constant within a certain temperature range, the steady-state energy balance is simulated for the equilibrium working condition of the thermoelectric generator. Assumptions: Assume the Seebeck Coefficient is not changing with temperature or constant within a range of working temperatures. In addition, there is no heat loss to the ambient walls from the hot side to the cold side of the thermoelectric generator (TEG). All electrical resistivity is not changing with temperature. The bulk temperatures of the working fluids are fixed.

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References

[1] Charles C. Sorrell, Sunao Sugihara and Janusz Nowotny. Materials for Energy Conversion Devices. pp. 341-342. (2005) [2] Angrist. Direct Energy Conversion. pp. 138. (1982)

Cite this work

Researchers should cite this work as follows:

  • Yuefeng Wang, Guoheng Chen, Michael McLennan, Timothy S Fisher, (2014), "Thermoelectric Generator Module with Convective Heat Transfer," https://nanohub.org/resources/teg. (DOI: 10.4231/D3BC3SZ07).

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Tags

  1. convective heat transfer
  2. efficiency
  3. heat transfer
  4. leg length
  5. nanoelectronics
  6. power
  7. power density
  8. power generation
  9. Seebeck coefficient
  10. thermoelectricity/thermoelectrics
  11. thermoelectric power generation
  12. waste heat harvesting