• Title of article

    DYNAMIC PERFORMANCE CHARACTERISTICS OF A THERMOELECTRIC GENERATOR

  • Author/Authors

    El-Adl, Ahmed S. Department of Mechanical Engineering - Higher Technological Institute, Ramadan City, Egypt , Mousa, M.G. Department of Mechanical Power Engineering - Mansoura University, Mansoura, Egypt , Abdel-Hadi, E.A. Department of Mechanical Engineering - Benha University, Shoubra, Egypt , Hegazi, A.A. Department of Mechanical Power Engineering - Mansoura University, Mansoura, Egypt

  • Pages
    11
  • From page
    385
  • To page
    395
  • Abstract
    A thermoelectric generator (TEG) is a device that transforms thermal energy directly into electrical power by exploiting the Seebeck effect. In the current study, the dynamic performance characteristics of a TEG is experimentally studied under different operating conditions. The Influence of input heat rate and the influence of utilizing extended surfaces (fins) on both transient and steady-state performance of a TEG are experimentally investigated. The variation in the temperatures of the TEG hot-and cold-side in addition to the output voltage is taken as a denotation of the performance characteristics. Input heating rate of 15.0 W, 17.5 W, 20.0 W, 22.0W and 25.0 W are applied to the TEG hot-side. Free air convection (FC) is utilized for heat dissipation from the TEG module through the cold-side. From the experimentation, it can be concluded that increasing the input heating rate provides a higher temperature difference between the module sides leading to higher power output. Additionally, using fins to aid heat dissipations improved the TEG performance by lowering the temperature of the cold-side and increasing the temperature difference across the module. The experimental data collected are compared with the data obtainable by the TEG module manufacturer and an excellent concordat is acquired.
  • Keywords
    Thermoelectric Generator (TEG) , Seebeck Effect , Fins , Temperature of the TEG Sides , Power Output , Conversion Efficiency , Transient and Steady-State Performance
  • Journal title
    Journal of Thermal Engineering
  • Serial Year
    2019
  • Record number

    2583799