用于光伏电池表征的自动数据采集系统

Elisei Ilieş, Magdalena Marinca, S. Bularka, Radu-Stefan Ricman, Melinda Vajda, Daiana Albulescu
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摘要

本文介绍了一种自动数据采集系统,专门用于获取表征太阳能电池的必要信息。我们提出的采集系统的主要特点是使用一个开关单元,它允许在测试期间在多达5个光伏电池之间切换,并且通过使用开尔文连接来消除导线电阻引起的误差进行测量。除了获取数据本身,我们的系统还允许模拟光伏电池运行的真实环境。为此,使用LOT - Quantum Design LSH302太阳模拟器以1太阳的光通量刺激太阳能电池,并使用Votsch LabEvent T/20/40/3气候室修改太阳能电池的温度。为了验证这种采集方法,对每个通道进行了20次重复测量,并与在不使用开关单元的标准设置中进行的20次重复测量进行了比较。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Automated Data Acquisition System for the Characterization of Photovoltaic Cells
This paper presents an automated data acquisition system that is specialized in obtaining the necessary information for the characterization of solar cells. The main feature of the acquisition system proposed by us is the use of a switch unit, which allows switching between up to 5 photovoltaic cells during a test and the elimination of the errors caused by wire resistance by using a Kelvin connection for measurements. In addition to the acquisition of the data itself, our system also allows simulation of the real environment in which the photovoltaic cells operate. For this, the LOT - Quantum Design LSH302 solar simulator is used to stimulate solar cells with a luminous flux of 1 sun and the temperature of a solar cell is modified using a Votsch LabEvent T/20/40/3 climatic chamber. In order to validate this acquisition method, 20 repeated measurements for each channel were performed and compared to 20 repeated measurements made in a standard setup that does not use a switch unit.
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