Effect of light wavelengths on the non-polar InGaN-based thin film solar cells performances using one-dimensional modeling

In the present contribution, we determine the effect of light wavelength variation on the performances of the non-polar InGaN-based solar cells in order to find the optimum light wavelength that yields a high efficiency. The calculations are performed using a one-dimensional SCAPS-1D tool (One-Dimen...

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Main Authors: Madi, Lourassi, Bouchama, Idris, Bouarissa, Nadir
Format: Article
Language:English
Published: Elsevier 2019
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Online Access:http://repository.vnu.edu.vn/handle/VNU_123/67738
https://doi.org/10.1016/j.jsamd.2019.08.008
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Institution: Vietnam National University, Hanoi
Language: English
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spelling oai:112.137.131.14:VNU_123-677382019-10-11T08:13:01Z Effect of light wavelengths on the non-polar InGaN-based thin film solar cells performances using one-dimensional modeling Madi, Lourassi Bouchama, Idris Bouarissa, Nadir III-N materials InGaN Solar cells Light wavelengths SCAPS-1D In the present contribution, we determine the effect of light wavelength variation on the performances of the non-polar InGaN-based solar cells in order to find the optimum light wavelength that yields a high efficiency. The calculations are performed using a one-dimensional SCAPS-1D tool (One-Dimensional Solar Cell Capacitance Simulator). The simulation has been carried out by lighting through a n- In0.3Ga0.7As layer. An efficiency of 12.24% with the fill-factor FF ¼ 51.35%, open-circuit voltage VOC ¼ 0.72 V and short-circuit current density JSC ¼ 32.80 mA/cm2 is obtained under AM1.5G illumination. The quantum efficiency characteristic displays a maximum value of more than 90% in the visible range using AM1.5G illumination. Moreover, our results show that with increasing light wavelengths from the blue light (around 450 nm) to the end of the red light (around 700 nm), the efficiency increases from 13.76% to above of 20%. The short-circuit current density is also increased from 37.33 mA/cm2 to 53.81 mA/cm2 with increasing light wavelengths from 450 nm to 700 nm. However, the variation of the light wavelength seems to have only a small influence on the open-circuit voltage and fill-factor. The present study provides information about the properties of the materials used in the cell structure of efficient InGaN solar cells 2019-10-11T08:13:01Z 2019-10-11T08:13:01Z 2019 Article Madi, L, Bouchama, I & Bouarissa , N. (2019). Effect of light wavelengths on the non-polar InGaN-based thin film solar cells performances using one-dimensional modeling. Journal of Science: Advanced Materials and Devices 2468-2179 http://repository.vnu.edu.vn/handle/VNU_123/67738 https://doi.org/10.1016/j.jsamd.2019.08.008 en Journal of Science: Advanced Materials and Devices; application/pdf Elsevier
institution Vietnam National University, Hanoi
building VNU Library & Information Center
country Vietnam
collection VNU Digital Repository
language English
topic III-N materials
InGaN
Solar cells
Light wavelengths
SCAPS-1D
spellingShingle III-N materials
InGaN
Solar cells
Light wavelengths
SCAPS-1D
Madi, Lourassi
Bouchama, Idris
Bouarissa, Nadir
Effect of light wavelengths on the non-polar InGaN-based thin film solar cells performances using one-dimensional modeling
description In the present contribution, we determine the effect of light wavelength variation on the performances of the non-polar InGaN-based solar cells in order to find the optimum light wavelength that yields a high efficiency. The calculations are performed using a one-dimensional SCAPS-1D tool (One-Dimensional Solar Cell Capacitance Simulator). The simulation has been carried out by lighting through a n- In0.3Ga0.7As layer. An efficiency of 12.24% with the fill-factor FF ¼ 51.35%, open-circuit voltage VOC ¼ 0.72 V and short-circuit current density JSC ¼ 32.80 mA/cm2 is obtained under AM1.5G illumination. The quantum efficiency characteristic displays a maximum value of more than 90% in the visible range using AM1.5G illumination. Moreover, our results show that with increasing light wavelengths from the blue light (around 450 nm) to the end of the red light (around 700 nm), the efficiency increases from 13.76% to above of 20%. The short-circuit current density is also increased from 37.33 mA/cm2 to 53.81 mA/cm2 with increasing light wavelengths from 450 nm to 700 nm. However, the variation of the light wavelength seems to have only a small influence on the open-circuit voltage and fill-factor. The present study provides information about the properties of the materials used in the cell structure of efficient InGaN solar cells
format Article
author Madi, Lourassi
Bouchama, Idris
Bouarissa, Nadir
author_facet Madi, Lourassi
Bouchama, Idris
Bouarissa, Nadir
author_sort Madi, Lourassi
title Effect of light wavelengths on the non-polar InGaN-based thin film solar cells performances using one-dimensional modeling
title_short Effect of light wavelengths on the non-polar InGaN-based thin film solar cells performances using one-dimensional modeling
title_full Effect of light wavelengths on the non-polar InGaN-based thin film solar cells performances using one-dimensional modeling
title_fullStr Effect of light wavelengths on the non-polar InGaN-based thin film solar cells performances using one-dimensional modeling
title_full_unstemmed Effect of light wavelengths on the non-polar InGaN-based thin film solar cells performances using one-dimensional modeling
title_sort effect of light wavelengths on the non-polar ingan-based thin film solar cells performances using one-dimensional modeling
publisher Elsevier
publishDate 2019
url http://repository.vnu.edu.vn/handle/VNU_123/67738
https://doi.org/10.1016/j.jsamd.2019.08.008
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