Estimation of the range extension of the milage of the electric vehicles by the automotive-colored car-roof photovoltaic

K. Araki, M. Yamaguchi
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Abstract

A car-roof photovoltaic has enormous potential to change our society. With this technology, 70% of a car can run on the solar energy collected by the solar panel on its roof. Since it is to be accepted the majority of the customers, it should be painted as the normal car-painting. This paper estimated the energy yield loss by the automotive painting and setting the goal of the energy conversion efficiency with coated photovoltaic on the car-roof. The estimation is not as simple as the spectroscopic transparency calculation but needs to consider angular weighting, the curvature of the panel, mismatching loss by the advanced multi-junction solar cells. To estimate the practical value of the target performance, we first monitored the PV module using three-junction solar cell (30 % efficiency) in outdoor for three years. We also developed the new energy yield model, because the conventional model only considers irradiance and temperature. The newly-developed model successfully explained the seasonal trend of the energy yield of the spectrum-and-angular sensitive three-junction photovoltaic module. We also combined the ray-tracing simulation for consideration of the curvature of the car-roof. With the new and validated (by 3 years) energy generation model, we could define the target base PV efficiency for several car-painting, like blue, gold, red, green and grey.
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汽车彩色车顶光伏对电动汽车续驶里程的估计
汽车车顶的光伏电池有巨大的潜力改变我们的社会。有了这项技术,汽车的70%可以依靠车顶上的太阳能电池板收集的太阳能来运行。因为是要被广大客户接受的,所以应该按照正常的汽车涂装来涂装。本文估算了汽车涂装的能量产生损失,并设定了车顶涂覆光伏电池的能量转换效率目标。这种估计不像光谱透明度计算那么简单,而是需要考虑角加权、面板曲率、先进多结太阳能电池的失配损失等因素。为了估计目标性能的实用价值,我们首先在室外使用三结太阳能电池(30%效率)对光伏组件进行了三年的监测。由于传统模型只考虑辐照度和温度,我们还开发了新的产能模型。该模型成功地解释了光谱角敏感三结光伏组件产能的季节变化趋势。考虑到车顶的曲率,我们还结合了光线追踪模拟。通过新的和经过验证的(3年)能源发电模型,我们可以定义几种汽车涂装的目标基本光伏效率,如蓝色,金色,红色,绿色和灰色。
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