• Title/Summary/Keyword: Silicone solar cell

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Buckling Formation on Steel-Based Solar Cell Induced by Silicone Resin Coat and Its Improvement on Performance Efficiency (실리콘 고분자 수지의 버클링을 통한 스틸기반 태양전지의 효율 향상)

  • Park, Young Jun;Oh, Kyeongseok
    • Korean Chemical Engineering Research
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    • v.57 no.4
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    • pp.519-524
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    • 2019
  • Even though stainless steel foil is not a highly efficient material for film-type solar cell, it has strong passivation capability without additional process. In this study, silicone resin was employed during a-Si:H thin film solar cell fabrication for the purpose of planarization and electrical insulation. In the first stage of process, silicone resin was coat onto the stainless steel (STS) using spin coater with thickness of $2{\sim}3{\mu}m$ and followed by aluminum deposition using ion beam application. Unexpectedly buckling was formed during aluminum deposition process. After subsequent fabrication processes, solar cell performance was evaluated. In voltage-current data, slight increase of cell performance was obtained and interpreted by the increase of light scattering.

The study on evaluation for PV module development using the silicone encapsulation (Silicone 봉지재를 이용한 태양광 모듈 제조 공정 및 평가에 대한 연구)

  • Jung, In-Sung;Lee, Bum-Su;Yang, O-Bong;Kang, Seong-Hwan;Kim, Jong-Il
    • 한국태양에너지학회:학술대회논문집
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    • 2011.11a
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    • pp.137-142
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    • 2011
  • Individual solar cells must be connected together to give the appropriate current and voltage levels and they must also be protected from damage by the environment. [1] PV module consists of a glass/ polymer encapsulation/ solar cell string/ polymer encapsulation/ back sheet. Usually, encapsulation materials is used EVA(ethylene vinyl acetate), PVB(polyvinyl butyral), PO(polyolefin)sheet. This study is about fabrication of module using silicone material instead of above them. We got to know advantage that is fabrication time and efficiency of modules.

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Investigations on Microcrystalline Silicon Films for Solar Cell Application

  • Hwang, Hae-Sook;Park, Min-Gyu;Ruh, Hyun;Yu, Hyun-Ung
    • Bulletin of the Korean Chemical Society
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    • v.31 no.10
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    • pp.2909-2912
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    • 2010
  • Hydrogenated microcrystalline silicon (${\mu}c$-Si:H) thin film for solar cells is prepared by plasma-enhanced chemical vapor deposition and physical properties of the ${\mu}c$-Si:H p-layer has been investigated. With respect to stable efficiency, this film is expected to surpass the performance of conventional amorphous silicon based solar cells and very soon be a close competitor to other thin film photovoltaic materials. Silicon in various structural forms has a direct effect on the efficiency of solar cell devices with different electron mobility and photon conversion. A Raman microscope is adopted to study the degree of crystallinity of Si film by analyzing the integrated intensity peaks at 480, 510 and $520\;cm^{-1}$, which corresponds to the amorphous phase (a-Si:H), microcrystalline (${\mu}c$-Si:H) and large crystals (c-Si), respectively. The crystal volume fraction is calculated from the ratio of the crystalline and the amorphous phase. The results are compared with high-resolution transmission electron microscopy (HR-TEM) for the determination of crystallinity factor. Optical properties such as refractive index, extinction coefficient, and band gap are studied with reflectance spectra.

A Characteristics of the Applied SOG Lens for the CPV Module (SOG렌즈를 적용한 집광형 태양전지모듈 특성)

  • Jeong, Byeong-Ho;Lee, Kang-Yoen;Park, Ju-Hoon;Moon, Eun-Ah;Lee, Sang-Hyun;Kim, Dae-Gon
    • The Transactions of the Korean Institute of Electrical Engineers P
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    • v.61 no.2
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    • pp.97-102
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    • 2012
  • CPV system in the desert areas or areas near the equator, as is suitable for high-temperature region. As compared to silicon solar cells, CPV system have a high proportion of a BOS (balance of system). Solar cells because of its low proportion when designing a module technology is applied in a variety of ways. Applied to the CPV system is classified into two kinds of optical technology. One of those using fresnel lens uses refraction of light energy. The other is a mirror reflection of the structure using sprays. Both of these two ways to condense the sun to collect solar cell is a form of light. And goals by using a small solar cell materials is to produce more energy. In this paper, suitable for a domestic environment, with the aim CPV Manufacturing Technology, built on a variety of modular process technology to the development of a prototype performance analysis was carried out. In particular, silicone coated on the glass by the method of implementation of the Fresnel lens SOG(Silicon on glass) by applying the lens to absorb the solar spectrum was broad. In addition to, for the analyze to characteristics of the CPV module, developed CPV module performance and generating characteristics studied. These related technology through research and development of high-performance multi-junction solar cells, modules, development of concentrating solar power systems to facilitate the growth of the market is considered to be.

A Study on the Efficiency Improvement of Glazing Panel with DSC Modules (염료감응형 태양전지를 적용한 유리 패널의 효율 향상에 관한 연구)

  • Jang, Han-Bin;Kang, Jun-Gu;Lee, Sang-Gil;Kim, Jun-Tae
    • Journal of the Korean Solar Energy Society
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    • v.33 no.2
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    • pp.35-41
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    • 2013
  • Dye-sensitized solar cell (DSC) allows light transmission and the application of various colors that make it especially suitable for building-integrated PV (BIPV) application. In order to apply DSC module into windows, it has to be panelized: DSC module should be protected with reinforced glass to the entire surface. Up to date, it seems to be common to make double glazing with DSC modules with air gaps between the glasses and the DSC modules. Few research has been conducted on the characteristics of various glazing types with DSC modules. This study aims to analyze the electrical performance of DSC modules according to panelizing method for glazing unit with DSC modules. The prototype of the DSC glazing that applied silicone filler between DSC modules and glasses was developed. The electrical performances of this type of DSC glazing with the filler and rather conventional double glazing with DSC modules were compared. Their performances were measured using a solar simulator that is suitable for DSC performance testing. The results indicated that the electrical performance of the filler type DSC glazing improved by 7% compared to that of the conventional DSC double glazing type.

Performance Characteristics of p-i-n type Organic Thin-film Photovoltaic Cell with Rubrene:CuPc Hole Transport Layer (Rubrene:CuPc 정공 수송층이 도입된 p-i-n형 유기 박막 태양전지의 성능 특성 연구)

  • Kang, Hak-su;Hwang, Jongwon;Kang, Yongsu;Lee, Hyehyun;Choe, Youngson
    • Korean Chemical Engineering Research
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    • v.48 no.5
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    • pp.654-659
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    • 2010
  • We have investigated the effect of rubrene-doped CuPc hole transport layer on the performance of p-i-n type bulk hetero-junction photovoltaic device with a structure of ITO/PEDOT:PSS/CuPc: rubrene/CuPc:C60(blending ratio 1:1)/C60/BCP/Al and have evaluated the current density-voltage(J-V) characteristics, short-circuit current($J_{sc}$), open-circuit voltage($V_{oc}$), fill factor(FF), and energy conversion efficiency(${\eta}_e$) of the device. By rubrene doping into CuPc hole transport layer, absorption intensity in absorption spectra decreased. However, the performance of p-i-n organic type bulk hetero-junction photovoltaic device fabricated with crystalline rubrene-doped CuPc was improved since rubrene shows higher bandgap and hole mobility compared to CuPc. Increased injection currents have effected on the performance improvement of the present device with energy conversion efficiency(${\eta}_e$) of 1.41%, which is still lower value compared to silicone solar cell and many efforts should be made to improve organic photovoltaic devices.

Performance Characteristics of p-i-n Type Organic Thin-film Photovoltaic Cell with CuPc: $F_4$-TCNQ Hole Transport Layer (CuPc: $F_4$-TCNQ 정공 수송층이 도입된 P-i-n형 유기 박막 태양전지의 성능 특성 연구)

  • Park, So-Hyun;Kang, Hak-Su;Senthilkumar, Natarajan;Park, Dae-Won;Choe, Young-Son
    • Polymer(Korea)
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    • v.33 no.3
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    • pp.191-197
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    • 2009
  • We have investigated the effect of strong p-type organic semiconductor $F_4$-TCNQ-doped CuPc hole transport layer on the performance of p-i-n type bulk heterojunction photovoltaic device with ITO/PEDOT:PSS/CuPc: $F_4$-TCNQ(5 wt%)/CuPc:C60(blending ratio l:l)/C60/BCP/LiF/Al, architecture fabricated via vacuum deposition process, and have evaluated the J-V characteristics, short-circuit current ($J_{sc}$), open-circuit voltage($V_{oc}$), fill factor(FF), and power conversion efficiency(${\eta}_e$) of the device. By doping $F_4$-TCNQ into CuPc hole transport layer, increased absorption intensity in absorption spectra, uniform dispersion of organic molecules in the layer, surface uniformity of the layer, and enhanced injection currents improved the current photovoltaic device with power conversion efficiency(${\eta}_e$) of 0.16%, which is still low value compared to silicone solar cell indicating that many efforts should be made to improve organic photovoltaic devices.