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Design and characterization of hybrid III–V concentrator photovoltaic–thermoelectric receivers under primary and secondary optical elements

Author

Listed:
  • Sweet, T.K.N.
  • Rolley, M.H.
  • Li, W.
  • Paul, M.C.
  • Johnson, A.
  • Davies, J.I.
  • Tuley, R.
  • Simpson, K.
  • Almonacid, F.M.
  • Fernández, E.F.
  • Knox, A.R.

Abstract

Lattice-matched monolithic triple-junction Concentrator Photovoltaic cells (InGa(0.495)P/GaIn(0.012)As/Ge) were electrically and thermally interfaced to two Thermoelectric Peltier module designs. An electrical and thermal model of the hybrid receivers was modelled in COMSOL Multiphysics software v5.3 to optimize cell cooling whilst increasing photon energy conversion efficiency. The receivers were measured for current–voltage characteristics with the cell only (with sylguard encapsulant), under single secondary optical element at x2.5 optical concentration, and under Fresnel lens primary optical element concentration between x313 and x480. Measurements were taken in solar simulators at Cardiff and Jaén Universities, and on-sun with dual-axis tracking at Jaén University. The hybrid receivers were electrically, thermally and theoretically investigated. The electrical performance data for the cells under variable irradiance and cell temperature conditions were measured using the integrated thermoelectric module as both a temperature sensor and as a solid-state heat pump. The performance of six hybrid devices were evaluated within two 3-receiver strings under primary optical concentration with measured acceptance angles of 1.00° and 0.89°, similar to commercially sourced Concentrator Photovoltaic modules. A six-parameter one-diode equivalent electrical model was developed for the multi-junction cells under both primary and secondary optical concentration. This was applied to extract six model parameters with the experimental current–voltage curves of type A receiver at 1, 3 and 500 concentration ratios. Standard test conditions (1000 W/m2, 25 °C and Air Mass 1.5 Global spectrum) were assumed based on trust-region-reflective least squares algorithm in MATLAB. The model fitted the experimental current–voltage curves satisfactorily with a mean error of 4.44%. The combined primary and secondary optical intensity gain coefficient is as high as 0.92, in comparison with 0.50–0.86 for crossed compound parabolic concentrators. The determined values of diode reverse saturation current, combined series resistance and shunt resistance were similar to those of monocrystalline PV cell/modules in our previous publications. The model may be applicable to performance prediction of multi-junction CPV cells in the future.

Suggested Citation

  • Sweet, T.K.N. & Rolley, M.H. & Li, W. & Paul, M.C. & Johnson, A. & Davies, J.I. & Tuley, R. & Simpson, K. & Almonacid, F.M. & Fernández, E.F. & Knox, A.R., 2018. "Design and characterization of hybrid III–V concentrator photovoltaic–thermoelectric receivers under primary and secondary optical elements," Applied Energy, Elsevier, vol. 226(C), pages 772-783.
    • Handle: RePEc:eee:appene:v:226:y:2018:i:c:p:772-783
    DOI: 10.1016/j.apenergy.2018.06.018
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    1. Li, W. & Paul, M.C. & Rolley, M. & Sweet, T. & Gao, M. & Siviter, J. & Montecucco, A. & Knox, A.R. & Baig, H. & Mallick, T.K. & Fernandez, E.F. & Han, G. & Gregory, D.H. & Azough, F. & Freer, R., 2017. "A scaling law for monocrystalline PV/T modules with CCPC and comparison with triple junction PV cells," Applied Energy, Elsevier, vol. 202(C), pages 755-771.
    2. Sark, W.G.J.H.M. van, 2011. "Feasibility of photovoltaic - Thermoelectric hybrid modules," Applied Energy, Elsevier, vol. 88(8), pages 2785-2790, August.
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    1. Rodrigo, P.M. & Valera, A. & Fernández, E.F. & Almonacid, F.M., 2019. "Performance and economic limits of passively cooled hybrid thermoelectric generator-concentrator photovoltaic modules," Applied Energy, Elsevier, vol. 238(C), pages 1150-1162.
    2. Li, Guiqiang & Shittu, Samson & zhou, Kai & Zhao, Xudong & Ma, Xiaoli, 2019. "Preliminary experiment on a novel photovoltaic-thermoelectric system in summer," Energy, Elsevier, vol. 188(C).
    3. Ju, Xing & Pan, Xinyu & Zhang, Zheyang & Xu, Chao & Wei, Gaosheng, 2019. "Thermal and electrical performance of the dense-array concentrating photovoltaic (DA-CPV) system under non-uniform illumination," Applied Energy, Elsevier, vol. 250(C), pages 904-915.
    4. Sato, Daisuke & Yamagata, Yuki & Hirata, Kenji & Yamada, Noboru, 2020. "Mathematical power-generation model of a four-terminal partial concentrator photovoltaic module for optimal sun-tracking strategy," Energy, Elsevier, vol. 213(C).

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