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Fin-cooled photovoltaic module modeling - Performances mapping and electric efficiency assessment under real operating conditions

机译:鳍式冷却光伏组件建模-实际运行条件下的性能映射和电效率评估

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摘要

The paper presents the modeling of a fin-cooled photovoltaic (PV) module, under real operating conditions. A full reconstruction of both the thermal behavior - transient energy balance, loss to the environment and module temperature - and the electrical dynamics for the system allows the efficiency gain assessment, associated with an increased heat exchange with ambient air. Various layouts are considered, in terms of fins mass and its effects on the heat capacity, fins amount and fins geometry. The model accounts for the PV module performances dependence on the (i) operating temperature and (ii) solar irradiance and integrates a section for continuous update of 1-V PV characteristics, based on a standard five parameters model and the one-diode approximation. The merge between limit performances - as provided by the manufacturer - and evidences from an extensive experimental campaign for the in-field module characterization, allow a detailed reconstruction of the electric power associated with the module operation and prevent any bias in the model output. The potential of fins in module temperature control and electric efficiency enhancement is assessed and confirms the appeal of such a layout with respect to more consolidated cooling techniques. (C) 2018 Elsevier Ltd. All rights reserved.
机译:本文介绍了在实际操作条件下的翅片冷却光伏(PV)模块的建模。完整重建热行为-瞬态能量平衡,环境损失和模块温度-以及系统的电动力学特性,可以进行效率增益评估,并增加与周围空气的热交换。就散热片质量及其对热容量,散热片数量和散热片几何形状的影响而言,考虑了各种布局。该模型说明了光伏模块的性能取决于(i)工作温度和(ii)太阳辐照度,并基于标准的五参数模型和一二极管近似值,集成了用于连续更新1-V PV特性的部分。由制造商提供的极限性能与现场模块表征的广泛实验活动的证据之间的合并,可以对模块操作相关的电力进行详细的重构,并防止模型输出出现偏差。评估了鳍片在模块温度控制和提高电效率方面的潜力,并证实了这种布局相对于更巩固的冷却技术的吸引力。 (C)2018 Elsevier Ltd.保留所有权利。

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