고출력 태양광 모듈의 레이아웃 및 배선 설계
Layout and Wiring Design of High-output Solar Modules
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초록
Currently, the solar market primarily uses high-power and high-density solar module technologies, such as shingled modules and multi-busbar (MBB) modules. Shingled modules improve the module output by dividing solar cells and bonding them with electrically conductive adhesives (ECAs), whereas MBB modules vertically scrub solar cells in a half-cut shape and connect them with multiple wires. These high-density solar module technologies can be maximized through the layout and wiring design. Therefore, in this study, we designed and simulated each module type and presented the appropriate layout and wiring designs. The solar cells used were M6 (166 mm × 166 mm), and the area was designed considering the width of the solar layer. For the shingled modules, the overlap and number of junctions were varied, and the size of the cover glass used in the actual production was considered. The MBB modules were designed based on the number of junctions and diodes.
Abstract
Currently, the solar market primarily uses high-power and high-density solar module technologies, such as shingled modules and multi-busbar (MBB) modules. Shingled modules improve the module output by dividing solar cells and bonding them with electrically conductive adhesives (ECAs), whereas MBB modules vertically scrub solar cells in a half-cut shape and connect them with multiple wires. These high-density solar module technologies can be maximized through the layout and wiring design. Therefore, in this study, we designed and simulated each module type and presented the appropriate layout and wiring designs. The solar cells used were M6 (166 mm × 166 mm), and the area was designed considering the width of the solar layer. For the shingled modules, the overlap and number of junctions were varied, and the size of the cover glass used in the actual production was considered. The MBB modules were designed based on the number of junctions and diodes.
참고문헌 (9)
- 노요한, "대면적 태양광 모듈의 기계적 신뢰성 평가를 위한 모델", Current Photovoltaic Research, 10(2), pp.56~61 (2022), 한국태양광발전학회[DOI]
- Lee, J., "Asti Market Insight 47: Building Integrated Photovoltaic (BIPV)", Asti Market Insight;2022-047, ~ (2022)
- 김하정, "한국 태양광 발전 산업의 현황과 전망", 대한환경공학회지, 45(2), pp.107~118 (2023), 대한환경공학회
- Lee, S., "Changes in the Silicon Painting Photovoltaic Industry to Large Area Wafers", Journal of the Korean Photovoltaic Society, 7(2), pp.16~21 (2021)
- 오원제, "Shingled PV 모듈 적용을 위한 Ag Paste 저감 전극 구조 설계", 전기전자재료학회논문지, 32(4), pp.267~271 (2019), 한국전기전자재료학회[DOI]
- Chan, D. S. H., "Analytical Methods for the Extraction of Solar-cell Single- and Double-diode Model Parameters from I-V Characteristics", IEEE Trans. Electron Devices, 34, pp.286~293 (1987)
- Masmoudi, F., "Single and Double Diode Models for Conventional Mono-crystalline Solar Cell with Extraction of Internal Parameters", Proceedings of the 13th International Multi-Conference on Systems, Signals & Devices, pp.720~728 (2016)
- Bae, J., "Simulation-Based Shading Loss Analysis of a Shingled String for High-Density Photovoltaic Modules", Applied Sciences, 11(23), pp.11257~ (2021)
- Park, J., "Analysis of Solar Cells Interconnected by Electrically Conductive Adhesives for High-density Photovoltaic Modules", Applied Surface Science, 484, pp.732~739 (2019)