开发用于光伏组件的聚合物材料的电阻率标准

M. Kempe, David C. Miller, Dylan L. Nobles, K. Sakurai, J. Tucker, J. Bokria, T. Shioda, K. Nanjundiah, T. Yoshihara, J. Birchmier, O. Zubillaga, J. Wohlgemuth
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引用次数: 5

摘要

光伏(PV)模块在高压和高温下工作,并且由于漏电到地面而退化。相关的降解过程可能包括:电/离子腐蚀、电化学沉积、电迁移和/或薄层电荷积聚。众所周知,使用具有高电阻率的聚合物材料可以降低潜在诱导降解过程的速率。因此,光伏材料供应商越来越重视密封剂的体积电阻率,但目前还没有普遍接受的测量方法。本文叙述了电阻率试验标准的制定过程。我们进行了许多探索性和循环测试,以建立一种具有代表性和可重复性的方法来确定聚合物材料的体积电阻率,包括封装、背板、边缘密封和粘合剂。测量的持续时间已被证明对结果有很大的影响,例如,在不同的测量时间内,可以看到高达100倍的增加。该标准是使用“开”和“关”电压状态之间的测量交替开发的,具有加权平均功能,循环时间为一小时。
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Development of a resistivity standard for polymeric materials used in photovoltaic modules
Photovoltaic (PV) modules, operate at high voltages and elevated temperatures, and are known to degrade because of leakage current to ground. Related degradation processes may include: electric/ionic corrosion, electrochemical deposition, electromigration, and/or charge build-up in thin layers. The use of polymeric materials with a high resistivity is known to reduce the rate of potential induced degradation processes. Because of this, PV materials suppliers are placing increased importance on the encapsulant bulk resistivity, but there is no universally accepted method for making this measurement. The development of a resistivity test standard is described in this paper. We have performed a number of exploratory and round-robin tests to establish a representative and reproducible method for determining the bulk resistivity of polymeric materials, including encapsulation, backsheet, edge seals, and adhesives. The duration of measurement has been shown to greatly affect the results, e.g., an increase as great as 100X was seen for different measurement times. The standard has been developed using measurements alternating between an "on" and "off" voltage state with a weighted averaging function and cycle times of an hour.
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