Efficiency improvement of photovoltaic cells by cooling using Peltier effect

O. Nájera-Ruiz, I. Martínez-Gamboa, S. Sellschopp-Sánchez, G. Santana, G. Escalante, C. Álvarez-Macías
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引用次数: 7

Abstract

Like all semiconductors, photovoltaic cells are sensitive to temperature. Under real operating conditions the temperature of cells increases with environment, shades or local defects (hot spots) and electrical effects. This increase in temperature causes a decrease in the electrical parameters of solar cells, which makes the electrical power and efficiency of cell are reduced, and also affect the average life of device. Photovoltaic cells have yields between 15% and 25% but efficiency decreases with increasing temperature up to 0.3% per degree centigrade. In practical terms the thermal part of solar radiation can increase the temperature inside the cell by about 30°C, and in turn decrease the yield to unsustainable values. The objective of this research is the application of the Peltier effect to reduce the impact of temperature on the efficiency of photovoltaic cells under operating conditions. For this reason, in this work an alternative was developed to find the suitable temperature for the photovoltaic cell to reach and maintain its highest efficiency. For this, a temperature control based on thermoelectric cells or Peltier effect is used. With the results optimal operating temperatures of the photovoltaic cell are proposed that do not impact the power of the cell.
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利用珀耳帖效应提高光伏电池冷却效率
像所有半导体一样,光伏电池对温度很敏感。在实际操作条件下,电池的温度随着环境、阴影或局部缺陷(热点)和电效应而升高。温度的升高导致太阳能电池的电学参数降低,使得电池的电功率和效率降低,也影响了器件的平均寿命。光伏电池的产量在15%到25%之间,但效率随着温度的升高而下降,每摄氏度可达0.3%。实际上,太阳辐射的热部分可以使电池内部的温度升高约30°C,并反过来将产量降低到不可持续的值。本研究的目的是应用珀尔帖效应来降低温度对光伏电池在工作条件下效率的影响。因此,在这项工作中,开发了一种替代方法来寻找光伏电池达到并保持其最高效率的合适温度。为此,使用基于热电电池或珀尔帖效应的温度控制。在此基础上,提出了不影响光伏电池功率的最佳工作温度。
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