CFD to predict temperature profile for scale up of a new linear concentrating photovoltaic receiver

Xinyue Han, Yongjie Guo
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Abstract

The high production cost of solar cells has been a major hindrance to the photovoltaic technology's market penetration. Concentrating photovoltaic (CPV) technology uses concentrated sunlight to achieve a cost-effective solar energy. However, operating temperature of solar cells increases significantly as sunlight is densely concentrated, so thermal management is an important issue in the development of concentrating photovoltaic systems. Computational Fluid Dynamics (CFD) has the potential to assist in the specification of operating conditions and designs of the CPV cooling systems that minimise the temperature and temperature gradients of the solar module in the PV receiver. This paper reports the construction of a 10-silicon CPV cell linear liquid-immersed solar receiver and a CFD model of this receiver using the commercial code, Fluent 6.3. Model results for the 10-cell module in the receiver are reported.
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用CFD预测新型线性聚光光伏接收器放大时的温度分布
太阳能电池的高生产成本一直是光伏技术市场渗透的主要障碍。聚光光伏(CPV)技术利用集中的太阳光来获得成本效益高的太阳能。然而,随着太阳光的密集集中,太阳能电池的工作温度会显著升高,因此热管理是聚光光伏系统发展中的一个重要问题。计算流体动力学(CFD)有可能帮助规范CPV冷却系统的运行条件和设计,从而最大限度地降低PV接收器中太阳能模块的温度和温度梯度。本文报道了一种10硅CPV电池线性液浸太阳能接收器的构建,并利用商业软件Fluent 6.3建立了该接收器的CFD模型。报告了接收机中10单元模块的模型结果。
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