TCAD 2D numerical simulations for increasing efficiency of AlGaAs – GaAs Solar Cells
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Enviado:
Dec 14, 2018
Publicado: Dec 14, 2018
Publicado: Dec 14, 2018
Resumen
The performance of solar cells has improved quickly in recent years, the latest research focuses on thin cells, multijunction cells, solar cells of the group III-V compounds, Tandem cells, etc. In the present work, numerical simulations are developed, using SENTAURUS TCAD as a tool, in order to obtain a solar cell model based on Galium Arsenide (GaAs). This solar cell corresponds to the so-called "Thin Films" due to the fact that can make layers thinner than we would have if we work with conventional semiconductors, such as; Silicon or Germanium; thus opening the possibility of placing the cell as a top layer within a tandem solar cell configuration with compounds of group III-V. That is why two types of simulations are performed with respect to the contact of the rear contact; one corresponds to the cell with a lower contact equal to the length of the cell and the other with a small contact of 5 μm. In addition, the cell undergoes an optimization process by modifying the geometry and doping of the layers that comprise it, in order to improve its performance. To achieve this objective, the initial conditions and the appropriate simulation parameters must be determined, which have been selected and corroborated with the literature, allowing us to arrive at coherent results and optimal models of solar cell design through numerical simulations.
Palabras clave
Solar cells, AlGaAs-GaAs, solar energy, numerical simulations, TCAD, Sentaurus, optical simulation, electrical simulation.Descargas
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Cómo citar
Palacios A., C., Guerra, N., Guevara, M., & José López, M. (2018). TCAD 2D numerical simulations for increasing efficiency of AlGaAs – GaAs Solar Cells. I+D Tecnológico, 14(2), 96-107. https://doi.org/10.33412/idt.v14.2.2078
Citas
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(3) C. Zhang, High Efficiency GaAs-based Solar Cells Simulation and Fabrication. Arizona State University, 2014.
(4) Kerker, M. (2013). The scattering of light and other electromagnetic radiation: physical chemistry: a series of monographs (Vol. 16). Academic press.
(5) Naqvi, Zeba & Green, Mark & Smith, Krista & Wang, Chaofan & Del'Haye, Pascal & Her, Tsing-Hua. (2018). Uniform Thin Films on Optical Fibers by Plasma-Enhanced Chemical Vapor Deposition: Fabrication, Mie Scattering Characterization, and Application to Microresonators. Journal of Lightwave Technology. 10.1109/JLT.2018.2876026.
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(9) S. S. Hegedus and A. Luque, “Status, trends, challenges and the bright future of solar electricity from photovoltaics,” Handbook of photovoltaic science and engineering, pp. 1–43, 2003.
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(14) G.J. Bauhuis et al., 26.1%thin-filmGaAs solar cell using epitaxia lift-off, Solar Energy Materials & Solar Cells 93 (2009) 1488–1491.
(15) R Loo, G. Kamath, and R. Knechtli, “Radiation damage in gaas solar cells,” 1980.
(16) C. Zhang, High Efficiency GaAs-based Solar Cells Simulation and Fabrication. Arizona State University, 2014.
(17) R Loo, G. Kamath, and R. Knechtli, “Radiation damage in GaAs solar cells,” 1980.
(18) C. Gueymard, SMARTS2: A simple model of the atmospheric radiative transfer of sunshine: Algorithms and performance assessment. Florida Solar Energy Center Cocoa, FL, 1995.
(19) M Abderrezek, F Djahli, M Fathi, and M Ayad, “Numerical modeling of gaas solar cell performances,” Elektronika ir Elektrotechnika, vol. 19, no. 8, pp. 41–44, 2013.
(2) Viorel, B. (2008). Modeling solar radiation at the earth’s surface: recent advances.
(3) C. Zhang, High Efficiency GaAs-based Solar Cells Simulation and Fabrication. Arizona State University, 2014.
(4) Kerker, M. (2013). The scattering of light and other electromagnetic radiation: physical chemistry: a series of monographs (Vol. 16). Academic press.
(5) Naqvi, Zeba & Green, Mark & Smith, Krista & Wang, Chaofan & Del'Haye, Pascal & Her, Tsing-Hua. (2018). Uniform Thin Films on Optical Fibers by Plasma-Enhanced Chemical Vapor Deposition: Fabrication, Mie Scattering Characterization, and Application to Microresonators. Journal of Lightwave Technology. 10.1109/JLT.2018.2876026.
(6) List, R. J., Ed. 1951. Smithsonian Meteorological Tables. 6th rev. ed., p. 422.
(7) A. Luque and S. Hegedus, Handbook of photovoltaic cience and engineering. John Wiley & Sons, 2011.
(8) I. E. Commission et al., “Standard iec 60904-3: Photovoltaic devices,”Part 3: Measurement Principles for Terrestrial Photovoltaic (PV) Solar Devices With. Reference Spectral Irradiance Data, 1987.
(9) S. S. Hegedus and A. Luque, “Status, trends, challenges and the bright future of solar electricity from photovoltaics,” Handbook of photovoltaic science and engineering, pp. 1–43, 2003.
(10) "TCAD". Software Integrity.
(11) P. Würfel, Physics of solar cells-from principles to new concepts. 2005.
(12) The absorption of radiation in solar stills, Solar Energy, vol. 12, no. 3, pp. 333 –346, 1969,
, ISSN: 0038-092X.
(13) G. Letay, M. Hermle, A.W. Bett, “Simulating single-junction GaAs solar cells including photon recycling”, Progress in Photovoltaics: Research and Applications 14, 683 (2006).
(14) G.J. Bauhuis et al., 26.1%thin-filmGaAs solar cell using epitaxia lift-off, Solar Energy Materials & Solar Cells 93 (2009) 1488–1491.
(15) R Loo, G. Kamath, and R. Knechtli, “Radiation damage in gaas solar cells,” 1980.
(16) C. Zhang, High Efficiency GaAs-based Solar Cells Simulation and Fabrication. Arizona State University, 2014.
(17) R Loo, G. Kamath, and R. Knechtli, “Radiation damage in GaAs solar cells,” 1980.
(18) C. Gueymard, SMARTS2: A simple model of the atmospheric radiative transfer of sunshine: Algorithms and performance assessment. Florida Solar Energy Center Cocoa, FL, 1995.
(19) M Abderrezek, F Djahli, M Fathi, and M Ayad, “Numerical modeling of gaas solar cell performances,” Elektronika ir Elektrotechnika, vol. 19, no. 8, pp. 41–44, 2013.