Ray Tracer Simulation of Si-Based Solar Cells using Al2O3/ITO as Double Layers Anti Reflective Coating

The solar cell has become one of the options for a greener world. Various studies have been done to achieve a solar cell with high efficiency and reasonable price. This study’s objective is to investigate how the thickness and base angle of the front layer affect the optical and electrical character...

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Published in:Trends in Sciences
Main Author: Hamdan N.A.N.; Yusof N.; Yusoff M.Z.M.
Format: Article
Language:English
Published: Walailak University 2023
Online Access:https://www.scopus.com/inward/record.uri?eid=2-s2.0-85171440811&doi=10.48048%2ftis.2023.5881&partnerID=40&md5=f3116cb62da42f775fbe989fd19b6917
id 2-s2.0-85171440811
spelling 2-s2.0-85171440811
Hamdan N.A.N.; Yusof N.; Yusoff M.Z.M.
Ray Tracer Simulation of Si-Based Solar Cells using Al2O3/ITO as Double Layers Anti Reflective Coating
2023
Trends in Sciences
20
10
10.48048/tis.2023.5881
https://www.scopus.com/inward/record.uri?eid=2-s2.0-85171440811&doi=10.48048%2ftis.2023.5881&partnerID=40&md5=f3116cb62da42f775fbe989fd19b6917
The solar cell has become one of the options for a greener world. Various studies have been done to achieve a solar cell with high efficiency and reasonable price. This study’s objective is to investigate how the thickness and base angle of the front layer affect the optical and electrical characteristics of Si-Based Solar cells. To accomplish this study, heterojunction solar cells using Al2O3/ITO as the double layer anti-reflection coating are analyzed using the Wafer Ray Tracer simulation by the PV Lighthouse. Al2O3 and ITO layers are used as a double anti-reflection coating (DLARC) in the light trapping strategy to support the reflection, absorption, and transmission (R, A and T) of the silicon solar cell. It acts to minimize reflectance and improves the overall efficiency of the solar cell. DLARC variation focuses on increasing absorption while decreasing reflection and transmission. The high refractive index of the hydrogenated a-Si (a-Si: H) emitter layer generates excessive reflection losses in SHJ solar cells making the silicon wafer have a low absorption efficiency. The DLARC thickness and base angle are varied as part of the simulation using the Wafer Ray Tracer by PV Lighthouse. The surface morphology of upright pyramid texture, height is 3.536 µm, texture base angle 54.74 °, and width 5 µm are used for reference scheme. Four schemes will be analyzed throughout this study along with the reference scheme. The result of this study is that Scheme 3 gives the optimum result with 99 % absorption, 21 % reflection and 67 % transmission. The goal of this study is to evaluate the impact of ARC thickness on optical and electrical characteristics. The best outcome is produced by varying the thickness and base angle of Scheme 3. The highest Jmax value, 0.3842 mA/cm2, is found in Scheme 3. © 2023, Walailak University. All rights reserved.
Walailak University
27740226
English
Article
All Open Access; Hybrid Gold Open Access
author Hamdan N.A.N.; Yusof N.; Yusoff M.Z.M.
spellingShingle Hamdan N.A.N.; Yusof N.; Yusoff M.Z.M.
Ray Tracer Simulation of Si-Based Solar Cells using Al2O3/ITO as Double Layers Anti Reflective Coating
author_facet Hamdan N.A.N.; Yusof N.; Yusoff M.Z.M.
author_sort Hamdan N.A.N.; Yusof N.; Yusoff M.Z.M.
title Ray Tracer Simulation of Si-Based Solar Cells using Al2O3/ITO as Double Layers Anti Reflective Coating
title_short Ray Tracer Simulation of Si-Based Solar Cells using Al2O3/ITO as Double Layers Anti Reflective Coating
title_full Ray Tracer Simulation of Si-Based Solar Cells using Al2O3/ITO as Double Layers Anti Reflective Coating
title_fullStr Ray Tracer Simulation of Si-Based Solar Cells using Al2O3/ITO as Double Layers Anti Reflective Coating
title_full_unstemmed Ray Tracer Simulation of Si-Based Solar Cells using Al2O3/ITO as Double Layers Anti Reflective Coating
title_sort Ray Tracer Simulation of Si-Based Solar Cells using Al2O3/ITO as Double Layers Anti Reflective Coating
publishDate 2023
container_title Trends in Sciences
container_volume 20
container_issue 10
doi_str_mv 10.48048/tis.2023.5881
url https://www.scopus.com/inward/record.uri?eid=2-s2.0-85171440811&doi=10.48048%2ftis.2023.5881&partnerID=40&md5=f3116cb62da42f775fbe989fd19b6917
description The solar cell has become one of the options for a greener world. Various studies have been done to achieve a solar cell with high efficiency and reasonable price. This study’s objective is to investigate how the thickness and base angle of the front layer affect the optical and electrical characteristics of Si-Based Solar cells. To accomplish this study, heterojunction solar cells using Al2O3/ITO as the double layer anti-reflection coating are analyzed using the Wafer Ray Tracer simulation by the PV Lighthouse. Al2O3 and ITO layers are used as a double anti-reflection coating (DLARC) in the light trapping strategy to support the reflection, absorption, and transmission (R, A and T) of the silicon solar cell. It acts to minimize reflectance and improves the overall efficiency of the solar cell. DLARC variation focuses on increasing absorption while decreasing reflection and transmission. The high refractive index of the hydrogenated a-Si (a-Si: H) emitter layer generates excessive reflection losses in SHJ solar cells making the silicon wafer have a low absorption efficiency. The DLARC thickness and base angle are varied as part of the simulation using the Wafer Ray Tracer by PV Lighthouse. The surface morphology of upright pyramid texture, height is 3.536 µm, texture base angle 54.74 °, and width 5 µm are used for reference scheme. Four schemes will be analyzed throughout this study along with the reference scheme. The result of this study is that Scheme 3 gives the optimum result with 99 % absorption, 21 % reflection and 67 % transmission. The goal of this study is to evaluate the impact of ARC thickness on optical and electrical characteristics. The best outcome is produced by varying the thickness and base angle of Scheme 3. The highest Jmax value, 0.3842 mA/cm2, is found in Scheme 3. © 2023, Walailak University. All rights reserved.
publisher Walailak University
issn 27740226
language English
format Article
accesstype All Open Access; Hybrid Gold Open Access
record_format scopus
collection Scopus
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