带有蒸发冷却通风腔的光伏组件的热性能

Y H Liu, W. C. Yan, C J Yang, Y Zhang, C. W. He, X Cui, L W Jin
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引用次数: 0

摘要

能源在现代生活中不可或缺,而太阳能光伏技术因其巨大优势而脱颖而出。然而,目前的转换率仍不理想,在 15%至 20%之间。此外,部分太阳能会转化为热能,导致光伏组件温度升高,发电效率随之降低。为了应对这一挑战,我们构思出了一种解决方案--采用蒸发冷却通风腔设计,以降低光伏组件的工作温度。这一创新系统集成了光伏外墙和蒸发冷却通风腔,包括太阳能光伏板、蒸发冷却层和配备热调节功能的通风腔等关键部件。我们精心开发了一个实验系统。实验结果表明了该系统的降温效果:光伏背板降温约 5°C,空腔背板降温约 5°C,空腔内降温约 5.2°C。此外,该系统的平均工作温度分别降低了约 14.1%、20.2% 和 20.4%。这些发现强调了蒸发冷却系统对调节和提高光伏组件热性能的重大影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Thermal performance of the photovoltaic module with evaporative cooling ventilated cavity
Energy is indispensable in modern life, and solar photovoltaic technology stands out for its substantial advantages. However, the current conversion rate remains suboptimal, ranging from 15% to 20%. Compounding this, a portion of solar energy undergoes conversion into thermal energy, resulting in an elevation of the PV (photovoltaic) module’s temperature and a subsequent reduction in electricity generation efficiency. In response to this challenge, a solution was conceived—a design featuring an evaporative cooling ventilated cavity crafted to alleviate the operating temperature of the photovoltaic module. This innovative system integrates a photovoltaic facade with an evaporative cooling ventilation cavity, encompassing crucial components such as solar photovoltaic panels, an evaporative cooling layer, and a ventilated cavity equipped with thermal regulation. An experimental system was meticulously developed. The results illuminate the system’s efficacy in temperature reduction: approximately 5°C for the PV back sheet, 5°C for the cavity back sheet, and 5.2°C inside the cavity. Furthermore, the system achieves a noteworthy average operating temperature reduction of about 14.1%, 20.2%, and 20.4%, respectively. These findings underscore the substantial impact of the evaporative cooling system on regulating and enhancing the thermal performance of PV modules.
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