Anti-reflection sub-wavelength structures design for InGaN-based solar cells performed by the finite-difference-time-domain (FDTD) simulation method

The design of wide-spectrum anti-reflection (AR) sub-wavelength structures (SWS) for InGaN-based solar cells is investigated in this study. The design parameters such as base diameter and height of the SWS, as well as the pitch and fill factor of the SWS array are studied numerically in this researc...

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Veröffentlicht in:Optics and laser technology 2015-04, Vol.67, p.72-77
Hauptverfasser: Yang, L.M., Pan, C.Y., Lu, F.P., Chang, C.W., Feng, S.W., Tu, L.W.
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container_end_page 77
container_issue
container_start_page 72
container_title Optics and laser technology
container_volume 67
creator Yang, L.M.
Pan, C.Y.
Lu, F.P.
Chang, C.W.
Feng, S.W.
Tu, L.W.
description The design of wide-spectrum anti-reflection (AR) sub-wavelength structures (SWS) for InGaN-based solar cells is investigated in this study. The design parameters such as base diameter and height of the SWS, as well as the pitch and fill factor of the SWS array are studied numerically in this research. The simulation is carried out by the finite-difference-time-domain (FDTD) analysis. We found that the simultaneous increase of the height of the SWS and the fill factor of the SWS array can effectively suppress the rising of the reflectance in the near-infrared range (1–2μm). The results of the reflectance vs. wavelength for SWS array are also compared with that of the double layer anti-reflection (DLAR) coating. In addition, the effective reflectance Reff which is based on AM 1.5G 1sun considerations for various conditions is listed in Table 1 for comparison. It shows that as the height equals to 500nm and the fill factor is greater than 0.83 (Reff=1.4%), or the fill factor equals to 1.0 and the height is greater than 200nm (Reff=1.7%), the effective reflectance of SWS array is lower than that of DLAR coating (Reff=2.6%). •The height and fill factor are two key factors of the optimum AR SWS design.•Raising the height will reduce the Fresnel׳s reflection on SW cone surface.•Increasing fill factor can help to trap scattered light.•Raising height and fill factor simultaneously can effectively lower the reflectance.
doi_str_mv 10.1016/j.optlastec.2014.09.016
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subjects Arrays
Design engineering
FDTD simulation
Finite difference time domain method
Key parameters
Mathematical models
Photovoltaic cells
Reflectance
Reflectivity
Solar cells
SWS array
title Anti-reflection sub-wavelength structures design for InGaN-based solar cells performed by the finite-difference-time-domain (FDTD) simulation method
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