The Effect of Illumination Intensity on the Performance of Germanium Based-Thermophotovoltaic Cell

The significance of optimizing power intensity in a thermophotovoltaic system had spurred the efforts on exploiting thermophotovoltaic cells which are typically installed near to the heat source. Germanium with 0.66 eV bandgap is recommended and extensively employed to harvest infrared radiation up...

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Main Authors: Gamel, M.M.A., Jern, K.P., Rashid, W.E., Yau, L.K., Jamaludin, M.Z.
Format: Conference Paper
Language:English
Published: 2020
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spelling my.uniten.dspace-129132020-07-07T04:11:44Z The Effect of Illumination Intensity on the Performance of Germanium Based-Thermophotovoltaic Cell Gamel, M.M.A. Jern, K.P. Rashid, W.E. Yau, L.K. Jamaludin, M.Z. The significance of optimizing power intensity in a thermophotovoltaic system had spurred the efforts on exploiting thermophotovoltaic cells which are typically installed near to the heat source. Germanium with 0.66 eV bandgap is recommended and extensively employed to harvest infrared radiation up to 1.8\ \boldsymbol{\mu} \mathbf{m}. The integration of this material contributes to a cost-effective thermophotovoltaic system by capturing long wavelength under low blackbody temperature. Contrarily, the atmospheric perturbation between the heat source and the germanium thermophotovoltaic cells affects the intensity of incoming illumination, which alters the electrical performance of the cells. Nonetheless, the investigation of this issue is remained at the infancy stage and more characterization works are required to understand the influence of illumination intensity on the cell conversion efficiency. In this work, Silvaco TCAD software was used to characterize single Ge thermophotovoltaic cell under 2000 K blackbody radiation temperature by manipulating the illumination intensity. A conversion efficiency of 11.8% was achieved under higher illumination intensity of 2000 K due to the increase in the maximum voltage from 0.19 V to 0.42 V when compared to AM 1.5 illumination condition. The success of this work will contribute to the incorporation of understanding the effect of incident illumination intensity on the performance of Ge cell. © 2019 IEEE. 2020-02-03T03:27:46Z 2020-02-03T03:27:46Z 2019 Conference Paper 10.1109/RSM46715.2019.8943521 en
institution Universiti Tenaga Nasional
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country Malaysia
content_provider Universiti Tenaga Nasional
content_source UNITEN Institutional Repository
url_provider http://dspace.uniten.edu.my/
language English
description The significance of optimizing power intensity in a thermophotovoltaic system had spurred the efforts on exploiting thermophotovoltaic cells which are typically installed near to the heat source. Germanium with 0.66 eV bandgap is recommended and extensively employed to harvest infrared radiation up to 1.8\ \boldsymbol{\mu} \mathbf{m}. The integration of this material contributes to a cost-effective thermophotovoltaic system by capturing long wavelength under low blackbody temperature. Contrarily, the atmospheric perturbation between the heat source and the germanium thermophotovoltaic cells affects the intensity of incoming illumination, which alters the electrical performance of the cells. Nonetheless, the investigation of this issue is remained at the infancy stage and more characterization works are required to understand the influence of illumination intensity on the cell conversion efficiency. In this work, Silvaco TCAD software was used to characterize single Ge thermophotovoltaic cell under 2000 K blackbody radiation temperature by manipulating the illumination intensity. A conversion efficiency of 11.8% was achieved under higher illumination intensity of 2000 K due to the increase in the maximum voltage from 0.19 V to 0.42 V when compared to AM 1.5 illumination condition. The success of this work will contribute to the incorporation of understanding the effect of incident illumination intensity on the performance of Ge cell. © 2019 IEEE.
format Conference Paper
author Gamel, M.M.A.
Jern, K.P.
Rashid, W.E.
Yau, L.K.
Jamaludin, M.Z.
spellingShingle Gamel, M.M.A.
Jern, K.P.
Rashid, W.E.
Yau, L.K.
Jamaludin, M.Z.
The Effect of Illumination Intensity on the Performance of Germanium Based-Thermophotovoltaic Cell
author_facet Gamel, M.M.A.
Jern, K.P.
Rashid, W.E.
Yau, L.K.
Jamaludin, M.Z.
author_sort Gamel, M.M.A.
title The Effect of Illumination Intensity on the Performance of Germanium Based-Thermophotovoltaic Cell
title_short The Effect of Illumination Intensity on the Performance of Germanium Based-Thermophotovoltaic Cell
title_full The Effect of Illumination Intensity on the Performance of Germanium Based-Thermophotovoltaic Cell
title_fullStr The Effect of Illumination Intensity on the Performance of Germanium Based-Thermophotovoltaic Cell
title_full_unstemmed The Effect of Illumination Intensity on the Performance of Germanium Based-Thermophotovoltaic Cell
title_sort effect of illumination intensity on the performance of germanium based-thermophotovoltaic cell
publishDate 2020
_version_ 1672614190343258112
score 13.214268