天空视频中太阳辐照度预测的深度学习方法

Talha Ahmad Siddiqui, Samarth Bharadwaj, S. Kalyanaraman
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引用次数: 34

摘要

面板上入射太阳辐照度的提前预测是预期能量产出的指示,对于有效的电网分配和规划至关重要。传统上,这些预报是基于气象物理模型,其参数由地球卫星感知的粗粒度辐射瓷砖调整。本研究提出了一种新的应用深度神经网络方法来观察和估计视频中的短期天气影响。具体来说,我们使用从面向上方的宽镜头摄像机(天空摄像机)获得的延时视频(天空视频)来直接估计和预测太阳辐照度。我们介绍并展示了从北美两个地区的气象站获得的两个大型公开数据集的结果,这些数据集使用了相对便宜的光学硬件。这些数据集包含超过100万张图像,分别跨越1年和12年,是我们所知的最大的此类集合。与基于卫星的方法相比,所提出的深度学习方法显著降低了近预报的归一化平均绝对百分比误差,即在捕获帧的实例中预测太阳辐照度,以及预测,持续时间长达4小时的提前辐照度预测。
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A Deep Learning Approach to Solar-Irradiance Forecasting in Sky-Videos
Ahead-of-time forecasting of incident solar-irradiance on a panel is indicative of expected energy yield and is essential for efficient grid distribution and planning. Traditionally, these forecasts are based on meteorological physics models whose parameters are tuned by coarse-grained radiometric tiles sensed from geo-satellites. This research presents a novel application of deep neural network approach to observe and estimate short-term weather effects from videos. Specifically, we use time-lapsed videos (sky-videos) obtained from upward facing wide-lensed cameras (sky-cameras) to directly estimate and forecast solar irradiance. We introduce and present results on two large publicly available datasets obtained from weather stations in two regions of North America using relatively inexpensive optical hardware. These datasets contain over a million images that span for 1 and 12 years respectively, the largest such collection to our knowledge. Compared to satellite based approaches, the proposed deep learning approach significantly reduces the normalized mean-absolute-percentage error for both nowcasting, i.e. prediction of the solar irradiance at the instance the frame is captured, as well as forecasting, ahead-of-time irradiance prediction for a duration for upto 4 hours.
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