Thermal and electrical effects caused by outdoor hot-spot testing in associations of photovoltaic cells

被引:65
|
作者
García, MCA
Herrmann, W
Böhmer, W
Proisy, B
机构
[1] CIEMAT, DER, E-28040 Madrid, Spain
[2] TUV Immissionsschutz & Energiesyst GmbH, D-51101 Cologne, Germany
[3] Flabeg Solar Int GmbH, D-50667 Cologne, Germany
[4] Photowatt Int SA, F-38300 Bourgoin Jallieu, France
来源
PROGRESS IN PHOTOVOLTAICS | 2003年 / 11卷 / 05期
关键词
D O I
10.1002/pip.490
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
An outdoor test facility has been prepared for the evaluation of the thermal and electrical effects caused by outdoor hot-spot testing in crystalline silicon modules. Five module types have been subjected to an outdoor test programme with the purpose of analysing their hot-spot endurance. The worst-case cell in each module type has been detected by laboratory characterisation under reverse-bias operation of all the individual cells included in the module. These cells, encapsulated within the module, have been operated at different shading fractions with bypass diodes around 18 or 24 cells. A data acquisition system has monitored temperatures and current flows during the day, completing the tests via infrared characterisation during the hours of maximum irradiance. The influence of the type of module, the number of cells per bypass diode, the position and amount of shading and the leakage current Of the cell is presented. This information is useful for cell and module manufacturers and system installers who must select the necessary protection criteria to guarantee long lifetimes for PV systems; it also helps to clarify hot-spot testing procedures in international standards. Copyright (C) 2003 John Wiley Sons, Ltd.
引用
收藏
页码:293 / 307
页数:15
相关论文
共 50 条
  • [21] Testing alternative theories of gravity by fitting the hot-spot data of Sgr A*
    Misbah Shahzadi
    Martin Kološ
    Zdeněk Stuchlík
    Yousaf Habib
    The European Physical Journal C, 82
  • [22] Multiscale prediction of localized hot-spot phenomena in solar cells
    Wang, Ao
    Xuan, Yimin
    RENEWABLE ENERGY, 2020, 146 (146) : 1292 - 1300
  • [23] A functional seasonal thermal hot-spot classification: Focus on industrial sites
    Guerri, Giulia
    Crisci, Alfonso
    Congedo, Luca
    Munafo, Michele
    Morabito, Marco
    SCIENCE OF THE TOTAL ENVIRONMENT, 2022, 806
  • [24] IR Thermal Image Analysis: An Efficient Algorithm for Accurate Hot-Spot Fault Detection and Localization in Solar Photovoltaic Systems
    Alajmi, Masoud
    Awedat, Khalfalla
    Aldeen, Mohammed Sharaf
    Alwagdani, Salman
    2019 IEEE INTERNATIONAL CONFERENCE ON ELECTRO INFORMATION TECHNOLOGY (EIT), 2019, : 162 - 168
  • [25] Mitigation of hot-spot effect via back side cooling techniques: A potential for electrical and thermal performance improvement
    Marinic-Kragic, Ivo
    Cabo, Filip Grubisic
    Jurcevic, Miso
    Nizetic, Sandro
    ENERGY AND BUILDINGS, 2023, 288
  • [26] FUEL PROPERTY EFFECTS ON THE HOT-SPOT OF A HOT-WALL PROCESS FURNACE
    OGUNSOLA, OI
    REUTHER, JJ
    JOURNAL OF THE INSTITUTE OF ENERGY, 1986, 59 (441): : 184 - 187
  • [27] Hot-spot combustion of heterogeneous condensed mixtures. Thermal percolation
    Rashkovskii, SA
    COMBUSTION EXPLOSION AND SHOCK WAVES, 2005, 41 (01) : 35 - 46
  • [28] Hot-spot thermal management with flow modulation in a microchannel heat sink
    Lee, Poh-Seng
    Garimella, Suresh V.
    PROCEEDINGS OF THE ASME HEAT TRANSFER DIVISION 2005, VOL 1, 2005, 376-1 : 643 - 647
  • [29] Hot-spot combustion of heterogeneous condensed mixtures. Thermal percolation
    S. A. Rashkovskii
    Combustion, Explosion and Shock Waves, 2005, 41
  • [30] Dynamic scheme for reducing hot-spot effects in multipath networks
    Chuang, PJ
    Tu, HY
    IEE PROCEEDINGS-COMPUTERS AND DIGITAL TECHNIQUES, 1999, 146 (04): : 179 - 184